Compare commits

...

67 Commits

Author SHA1 Message Date
19daabe383 [efi] Provide read-only access to EFI variables via settings mechanism
EFI variables do not map neatly to the iPXE settings mechanism, since
the EFI variable identifier includes a namespace GUID that cannot
cleanly be supplied as part of a setting name.  Creating a new EFI
variable requires the variable's attributes to be specified, which
does not fit within iPXE's settings concept.

However, EFI variable names are generally unique even without the
namespace GUID, and EFI does provide a mechanism to iterate over all
existent variables.  We can therefore provide read-only access to EFI
variables by comparing only the names and ignoring the namespace
GUIDs.

Provide an "efi" settings block that implements this mechanism.
Settings are returned as raw binary values by default since an EFI
variable may contain boolean flags, integer values, ASCII strings,
UCS-2 strings, EFI device paths, X.509 certificates, or any other
arbitrary blob of data.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-09 14:27:37 +01:00
25a3d3acab [efi] Veto the VMware UefiPxeBcDxe driver
The EDK2 UefiPxeBcDxe driver includes some remarkably convoluted and
unsafe logic in its driver binding protocol Start() and Stop() methods
in order to support a pair of nominally independent driver binding
protocols (one for IPv4, one for IPv6) sharing a single dynamically
allocated data structure.  This PXEBC_PRIVATE_DATA structure is
installed as a dummy protocol on the NIC handle in order to allow both
IPv4 and IPv6 driver binding protocols to locate it as needed.

The error handling code path in the UefiPxeBcDxe driver's Start()
method may attempt to uninstall the dummy protocol but fail to do so.
This failure is ignored and the containing memory is subsequently
freed anyway.  On the next invocation of the driver binding protocol,
it will find and use this already freed block of memory.  At some
point another memory allocation will occur, the PXEBC_PRIVATE_DATA
structure will be corrupted, and some undefined behaviour will occur.

The UEFI firmware used in VMware ESX 8 includes some proprietary
changes which attempt to install copies of the EFI_LOAD_FILE_PROTOCOL
and EFI_PXE_BASE_CODE_PROTOCOL instances from the IPv4 child handle
onto the NIC handle (along with a VMware-specific protocol with GUID
5190120d-453b-4d48-958d-f0bab3bc2161 and a NULL instance pointer).
This will inevitably fail with iPXE, since the NIC handle already
includes an EFI_LOAD_FILE_PROTOCOL instance.

These VMware proprietary changes end up triggering the unsafe error
handling code path described above.  The typical symptom is that an
attempt to exit from iPXE back to the UEFI firmware will crash the VM
with a General Protection fault from within the UefiPxeBcDxe driver:
this happens when the UefiPxeBcDxe driver's Stop() method attempts to
call through a function pointer in the (freed) PXEBC_PRIVATE_DATA
structure, but the function pointer has by then been overwritten by
UCS-2 character data from an unrelated memory allocation.

Work around this failure by adding the VMware UefiPxeBcDxe driver to
the driver veto list.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-08 12:24:07 +01:00
8ab9bdca4f [efi] Include protocol interface address in debug output
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-08 11:15:27 +01:00
12776acce5 [efi] Add UefiPxeBcDxe module GUID
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 13:00:24 +01:00
367e022b5e [efi] Add HttpBootDxe module GUID
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 13:00:24 +01:00
b9a60fb0b7 [efi] Add new IScsiDxe module GUID
The old IPv4-only IScsiDxe driver in MdeModulePkg/Universal/Network
was replaced by a dual-stack IScsiDxe driver in NetworkPkg.

Add the module GUID for this driver.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:57:51 +01:00
a64764d10f [efi] Add HTTP header and GUID definitions
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:57:51 +01:00
bc75bbaf17 [efi] Add DNS headers and GUID definitions
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:57:51 +01:00
e7adf5701f [efi] Add Ip4Config2 header and GUID definition
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:57:51 +01:00
92ab2de3a4 [efi] Add IPv6 versions of existing IPv4 headers and GUID definitions
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:27:06 +01:00
3184ff74eb [efi] Update to current EDK2 headers
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:24:42 +01:00
9cb0a4b8ec [efi] Disable static assertions in EFI headers on non-EFI platforms
The EDK2 headers may be included even in builds for non-EFI platforms.
Commits such as 9de6c45 ("[arm] Use -fno-short-enums for all 32-bit
ARM builds") have so far ensured that the compile-time checks within
the EDK2 headers will pass even when building for a non-EFI platform.

As a more general solution, temporarily disable static assertions
while including UefiBaseType.h if building on a non-EFI platform.
This avoids the need to modify the ABI on other platforms.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-07 12:24:03 +01:00
b0093571f8 [crypto] Add support for PKCS#8 private key format
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-06-02 13:54:42 +01:00
6a7f560e60 [efi] Implement "shim" as a dummy command on non-EFI platforms
The "shim" command will skip downloading the shim binary (and is
therefore a conditional no-op) if there is already a selected EFI
image that can be executed directly via LoadImage()/StartImage().
This allows the same iPXE script to be used with Secure Boot either
enabled or disabled.

Generalise this further to provide a dummy "shim" command that is an
unconditional no-op on non-EFI platforms.  This then allows the same
iPXE script to be used for BIOS, EFI with Secure Boot disabled, or EFI
with Secure Boot enabled.

The same effect could be achieved by using "iseq ${platform} efi"
within the script, but this would complicate end-user documentation.

To minimise the code size impact, the dummy "shim" command is a pure
no-op that does not call parse_options() and so will ignore even
standardised arguments such as "--help".

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-24 10:20:31 +01:00
5b43181436 [efi] Support versions of shim that perform SBAT verification
The UEFI shim implements a fairly nicely designed revocation mechanism
designed around the concept of security generations.  Unfortunately
nobody in the shim community has thus far added the relevant metadata
to the Linux kernel, with the result that current versions of shim are
incapable of booting current versions of the Linux kernel.

Experience shows that there is unfortunately no point in trying to get
a fix for this upstreamed into shim.  We therefore default to working
around this undesirable behaviour by patching data read from the
"SbatLevel" variable used to hold SBAT configuration.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-23 15:27:20 +01:00
d2e1601cf4 [efi] Separate GetMemoryMap() wrapper from shim unlocker
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-23 14:52:30 +01:00
95b8338f0d [efi] Add "shim" command
Allow a shim to be used to facilitate booting a kernel using a script
such as:

    kernel /images/vmlinuz console=ttyS0,115200n8
    initrd /images/initrd.img
    shim /images/shimx64.efi
    boot

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-22 15:37:11 +01:00
28184b7c22 [efi] Add support for executing images via a shim
Add support for using a shim as a helper to execute an EFI image.
When a shim has been specified via shim(), the shim image will be
passed to LoadImage() instead of the selected EFI image and the
command line will be prepended with the name of the selected EFI
image.  The selected EFI image will be accessible to the shim via the
virtual filesystem as a hidden file.

Reduce the Secure Boot attack surface by removing, where possible, the
spurious requirement for a third party second stage loader binary such
as GRUB to be used solely in order to call the "shim lock protocol"
entry point.

Do not install the EFI PXE APIs when using a shim, since if shim finds
EFI_PXE_BASE_CODE_PROTOCOL on the loaded image's device handle then it
will attempt to download files afresh instead of using the files
already downloaded by iPXE and exposed via the EFI_SIMPLE_FILE_SYSTEM
protocol.  (Experience shows that there is no point in trying to get a
fix for this upstreamed into shim.)

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-22 15:37:11 +01:00
3c214f0465 [efi] Add definitions for the UEFI shim lock protocol
The UEFI shim includes a "shim lock protocol" that can be used by a
third party second stage loader such as GRUB to verify a kernel image.

Add definitions for the relevant portions of this protocol interface.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-22 15:37:11 +01:00
ce2200d5fb [efi] Add efi_asprintf() and efi_vasprintf()
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-22 15:10:16 +01:00
c4a8d90387 [image] Generalise concept of selected image
Most image flags are independent values: any combination of flags may
be set for any image, and the flags for one image are independent of
the flags for any other image.  The "selected" flag does not follow
this pattern: at most one image may be marked as selected at any time.

When invoking a kernel via the UEFI shim, there will be multiple
"special" images: the selected kernel itself, the shim image, and
potentially a shim-signed GRUB binary to be used as a crutch to assist
shim in loading the kernel (since current versions of the UEFI shim
are not capable of directly loading a Linux kernel).

Remove the "selected" image flag and replace it with a general concept
of an image tag with the same semantics: a given tag may be assigned
to at most one image, an image may be found by its tag only while the
image is currently registered, and a tag will survive unregistration
and reregistration of an image (if it has not already been assigned to
a new image).  For visual consistency, also replace the current image
pointer with a current image tag.

The image pointer stored within the image tag holds only a weak
reference to the image, since the selection of an image should not
prevent that image from being freed.  (The strong reference to the
currently executing image is held locally within the execution scope
of image_exec(), and is logically separate from the current image
pointer.)

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-17 14:42:03 +01:00
79d85e29aa [efi] Attempt to detect EFI images that fail Secure Boot verification
An EFI image that is rejected by LoadImage() due to failing Secure
Boot verification is still an EFI image.  Unfortunately, the extremely
broken UEFI Secure Boot model provides no way for us to unambiguously
determine that a valid EFI executable image was rejected only because
it failed signature verification.  We must therefore use heuristics to
guess whether not an image that was rejected by LoadImage() could
still be loaded via a separate PE loader such as the UEFI shim.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-17 14:40:50 +01:00
d27cd8196d [ci] Work around Ubuntu packaging metadata issues
The libc6-dbg:i386 package has spontaneously started failing to
install from the Azure package repositories used by the GitHub Actions
runners, with the somewhat recalcitrant error message:

 libc6:i386: Depends: libgcc-s1:i386 but it is not going to be installed

Work around this unexplained issue by explicitly requesting
installation of the libgcc-s1:i386 package.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-15 14:56:28 +01:00
03eea19c19 [efi] Allow currently selected image to be opened as "grub*.efi"
Versions 15.4 and earlier of the UEFI shim are incapable of correctly
parsing the command line in order to extract the second stage loader
filename, and will always attempt to load "grubx64.efi" or equivalent.

Versions 15.3 and later of the UEFI shim are currently incapable of
loading a Linux kernel directly anyway, since the kernel does not
include SBAT metadata.  These versions will require a genuine
shim-signed GRUB binary to be used as a crutch to assist shim in
loading a Linux kernel.

This leaves versions 15.2 and earlier of the UEFI shim (as currently
used in e.g. RHEL7) as being capable of directly loading a Linux
kernel, but incorrectly attempting to load it using the filename
"grubx64.efi" or equivalent.  To support the bugs in these older
versions of the UEFI shim, allow the currently selected image to be
opened via any filename of the form "grub*.efi".

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-05 14:54:20 +01:00
0bb0aea878 [efi] Allow currently executing image to be opened via virtual filesystem
When invoking a kernel via the UEFI shim, the kernel image must be
accessible via EFI_SIMPLE_FILE_SYSTEM_PROTOCOL but must not be present
in the magic initrd constructed from all registered images.

Re-register a currently executing EFI image and mark it as hidden,
thereby allowing it to be accessed via the virtual filesystem exposed
via EFI_SIMPLE_FILE_SYSTEM_PROTOCOL without appearing in the magic
initrd contents.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-05 14:54:20 +01:00
f9beb20e99 [image] Allow for images to be hidden from lists of all images
When invoking a kernel via the UEFI shim, the kernel (and potentially
also a helper binary such as GRUB) must be accessible via the virtual
filesystem exposed via EFI_SIMPLE_FILE_SYSTEM_PROTOCOL but must not be
present in the magic initrd constructed from all registered images.

Allow for images to be flagged as hidden, which will cause them to be
excluded from API-level lists of all images such as the virtual
filesystem directory contents, the magic initrd, or the Multiboot
module list.  Hidden images remain visible to iPXE commands including
"imgstat", which will show a "[HIDDEN]" flag for such images.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-05 14:54:20 +01:00
f93e6b712f [efi] Show original filenames in debug messages
Show the original filename as used by the consumer when calling our
EFI_SIMPLE_FILE_SYSTEM_PROTOCOL's Open() method.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-05 13:05:28 +01:00
22cc65535a [efi] Allow downloaded images to take precedence over constructed files
Try searching for a matching registered image before checking for
fixed filenames (such as "initrd.magic" for the dynamically generated
magic initrd file).  This minimises surprise by ensuring that an
explicitly downloaded image will always be used verbatim.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-05-05 13:05:28 +01:00
bd13697446 [efi] Allow for sections to be excluded from the generated PE file
Hybrid bzImage and UEFI binaries (such as wimboot) include a bzImage
header within a section starting at offset zero, with the PE header
effectively occupying unused space within this section.  This section
should not appear as a named section in the resulting PE file.

Allow for the existence of hidden sections that do not result in a
section header being written to the PE file.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-04-10 17:02:45 +01:00
9fb28080d9 [efi] Allow elf2efi to be used for hybrid binaries
Hybrid 32-bit BIOS and 64-bit UEFI binaries (such as wimboot) may
include R_X86_64_32 relocation records for the 32-bit BIOS portions.
These should be ignored when generating PE relocation records, since
they apply only to code that cannot be executed within the context of
the 64-bit UEFI binary, and creating a 4-byte relocation record is
invalid in a binary that may be relocated anywhere within the 64-bit
address space (see commit 907cffb "[efi] Disallow R_X86_64_32
relocations").

Add a "--hybrid" option to elf2efi, which will cause R_X86_64_32
relocation records to be silently discarded.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-04-10 16:51:51 +01:00
1e4c3789e9 [efi] Shrink size of data directory in PE header
Hybrid bzImage and UEFI binaries (such as wimboot) require the PE
header to be kept as small as possible, since the bzImage header
starts at a fixed offset 0x1f1.

The EFI_IMAGE_OPTIONAL_HEADER structures in PeImage.h define an
optional header containing 16 data directory entries, of which the
last eight are unused in binaries that we create.  Shrink the data
directory to contain only the first eight entries, to minimise the
overall size of the PE header.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-04-10 16:51:49 +01:00
0d04635ef0 [efi] Remove redundant zero padding in PE header
Hybrid bzImage and UEFI binaries (such as wimboot) require the PE
header to be kept as small as possible, since the bzImage header
starts at a fixed offset 0x1f1.

The PE header currently includes 128 bytes of zero padding between the
DOS and NT header portions.  This padding has been present since
commit 81d92c6 ("[efi] Add EFI image format and basic runtime
environment") first added support for EFI images in iPXE, and was
included on the basis of matching the observed behaviour of the
Microsoft toolchain.  There appears to be no requirement for this
padding to exist: EDK2 binaries built with gcc include only 64 bytes
of zero padding, Linux kernel binaries include 66 bytes of non-zero
padding, and wimboot binaries include no padding at all.

Remove the unnecessary padding between the DOS and NT header portions
to minimise the overall size of the PE header.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-04-10 16:50:10 +01:00
1d1cf74a5e [tls] Handle fragmented handshake records
Originally-implemented-by: Christopher Schenk <christopher@cschenk.net>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-30 23:38:43 +01:00
aa368ba529 [tls] Pass I/O buffer to received record handlers
Prepare for the possibility that a record handler may choose not to
consume the entire record by passing the I/O buffer and requiring the
handler to mark consumed data using iob_pull().

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-30 23:37:55 +01:00
2c6a15d2a3 [tls] Clean up change cipher spec record handling
Define and use data structures and constants for the (single-byte)
change cipher spec records.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-30 16:57:12 +01:00
09e8a15408 [efi] Claim fixed device paths by uninstalling device path protocol
As documented in commits 6a004be ("[efi] Support the initrd
autodetection mechanism in newer Linux kernels") and 04e60a2 ("[efi]
Omit EFI_LOAD_FILE2_PROTOCOL for a zero-length initrd"), the choice in
Linux of using a fixed device path requires bootloaders to allow for
the fact that a previous bootloader may have already installed a
handle with the fixed device path.

We currently deal with this situation by reusing the existing handle,
replacing the EFI_LOAD_FILE2_PROTOCOL instance with our own.  Simplify
the code by instead uninstalling the EFI_DEVICE_PATH_PROTOCOL instance
from the existing handle (if present), thereby allowing the creation
of a new handle to succeed.

Create the new handle only if we have a non-empty initrd to provide.
This works around bugs in bootloaders such as the systemd EFI stub
that fail to allow for the existence of multiple-bootloader chains.
(The workaround is not comprehensive: if the user has downloaded other
images in iPXE before invoking the systemd Unified Kernel Image (UKI),
then the systemd EFI stub will still crash and burn since it fails to
allow for the fact that a previous bootloader has already installed a
handle with the fixed device path.)

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-15 16:48:35 +00:00
bf25e23d07 [intel] Add workaround for I210 reset hardware bugs
The Intel I210's packet buffer size registers reset only on power up,
not when a reset signal is asserted.  This can lead to the inability
to pass traffic in the event that the DMA TX Maximum Packet Size
(which does reset to its default value on reset) is bigger than the TX
Packet Buffer Size.

For example, an operating system may be using the time sensitive
networking features of the I210 and the registers may be programmed
correctly, but then a reset signal is asserted and iPXE on the next
boot will be unable to use the I210.

Mimic what Linux does and forcibly set the registers to their default
values.

Signed-off-by: Matt Parrella <parrella.matthew@gmail.com>
2023-03-14 14:44:32 +00:00
8f1c120119 [dhcp] Unregister ProxyDHCP and PXEBS settings on a successful DHCPACK
When a DHCP transaction does not result in the registration of a new
"proxydhcp" or "pxebs" settings block, any existing settings blocks
are currently left unaltered.

This can cause surprising behaviour.  For example: when chainloading
iPXE, the "proxydhcp" and "pxebs" settings blocks may be prepopulated
using cached values from the previous PXE bootloader.  If iPXE
performs a subsequent DHCP request, then the DHCP or ProxyDHCP servers
may choose to respond differently to iPXE.  The response may choose to
omit the ProxyDHCP or PXEBS stages, in which case no new "proxydhcp"
or "pxebs" settings blocks may be registered.  This will result in
iPXE using a combination of both old and new DHCP responses.

Fix by assuming that a successful DHCPACK effectively acquires
ownership of the "proxydhcp" and "pxebs" settings blocks, and that any
existing settings blocks should therefore be unregistered.

Reported-by: Henry Tung <htung@palantir.com>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-14 11:35:30 +00:00
54fcb7c29c [efi] Use image name instead of pointer value in debug messages
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-07 14:18:00 +00:00
9e1f7a3659 [image] Always unregister currently executing image
We unregister script images during their execution, to prevent a
"boot" command from re-executing the containing script.  This also has
the side effect of preventing executing scripts from showing up within
the Linux magic initrd image (or the Multiboot module list).

Additional logic in bzimage.c and efi_file.c prevents a currently
executing kernel from showing up within the magic initrd image.
Similar logic in multiboot.c prevents the Multiboot kernel from
showing up as a Multiboot module.

This still leaves some corner cases that are not covered correctly.
For example: when using a gzip-compressed kernel image, nothing will
currently hide the original compressed image from the magic initrd.

Fix by moving the logic that temporarily unregisters the current image
from script_exec() to image_exec(), so that it applies to all image
types, and simplify the magic initrd and Multiboot module list
construction logic on the basis that no further filtering of the
registered image list is necessary.

This change has the side effect of hiding currently executing EFI
images from the virtual filesystem exposed by iPXE.  For example, when
using iPXE to boot wimboot, the wimboot binary itself will no longer
be visible within the virtual filesystem.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-07 12:22:19 +00:00
e51e7bbad7 [image] Consistently use for_each_image() to iterate over images
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-06 16:56:37 +00:00
523788ccda [intelx] Add PCI IDs for Intel 82599 10GBASE-T NIC
Signed-off-by: Forest Crossman <cyrozap@gmail.com>
2023-03-05 18:22:18 -06:00
96bb6ba441 [params] Allow for arbitrary HTTP request headers to be specified
Extend the request parameter mechanism to allow for arbitrary HTTP
headers to be specified via e.g.:

  params
  param --header Referer http://www.example.com
  imgfetch http://192.168.0.1/script.ipxe##params

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-01 12:20:02 +00:00
33cb56cf1b [params] Rename "form parameter" to "request parameter"
Prepare for the parameter mechanism to be generalised to specifying
request parameters that are passed via mechanisms other than an
application/x-www-form-urlencoded form.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-01 11:55:04 +00:00
60531ff6e2 [http] Use POST method only if the form parameter list is non-empty
An attempt to use an existent but empty form parameter list will
currently result in an invalid POST request since the Content-Length
header will be missing.

Fix by using GET instead of POST if the form parameter list is empty.
This is a non-breaking change (since the current behaviour produces an
invalid request), and simplifies the imminent generalisation of the
parameter list concept to handle both header and form parameters.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-03-01 11:12:44 +00:00
04e60a278a [efi] Omit EFI_LOAD_FILE2_PROTOCOL for a zero-length initrd
When the Linux kernel is being used with no initrd, iPXE will still
provide a zero-length initrd.magic file within the virtual filesystem.
As of commit 6a004be ("[efi] Support the initrd autodetection
mechanism in newer Linux kernels"), this zero-length file will also be
exposed via an EFI_LOAD_FILE2_PROTOCOL instance on a handle with a
fixed device path.

The correct handling of zero-length files via EFI_LOAD_FILE2_PROTOCOL
is unfortunately not well defined.

Linux expects the first call to LoadFile() to always fail with
EFI_BUFFER_TOO_SMALL.  When the initrd is genuinely zero-length, iPXE
will return success since the buffer is not too small to hold the
(zero-length) file.  This causes Linux to immediately report a
spurious EFI_LOAD_ERROR boot failure.

We could change the logic in iPXE's efi_file_load() to always return
EFI_BUFFER_TOO_SMALL if Buffer is NULL on entry.  Since the correct
behaviour of LoadFile() in the corner case of a zero-length file is
left undefined by the UEFI specification, this would be permissible.

Unfortunately this approach would not fix the problem.  If we return
EFI_BUFFER_TOO_SMALL and set the file length to zero, then Linux will
call the boot services AllocatePages() method with a zero length.  In
at least the EDK2 implementation, this combination of parameters will
cause AllocatePages() to return EFI_OUT_OF_RESOURCES, and Linux will
again report a boot failure.

Another approach would be to install the initrd device path handle
only if we have a non-empty initrd to offer.  Unfortunately this would
lead to a failure in yet another corner case: if a previous bootloader
has installed an initrd device path handle (e.g. to pass a boot script
to iPXE) then we must not leave that initrd in place, since then our
loaded kernel would end up seeing the wrong initrd content.

The cleanest fix seems to be to ensure that the initrd device path
handle is installed with the EFI_DEVICE_PATH_PROTOCOL instance present
but with the EFI_LOAD_FILE2_PROTOCOL instance absent (and forcibly
uninstalled if necessary), matching the state in which we leave the
handle after uninstalling our virtual filesystem.  Linux will then not
find any handle that supports EFI_LOAD_FILE2_PROTOCOL within the fixed
device path, and so will fall through to trying other mechanisms to
locate the initrd.

Reported-by: Chris Bradshaw <cwbshaw@gmail.com>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-28 12:30:54 +00:00
471599dc77 [efi] Split out EFI_RNG_PROTOCOL as a separate entropy source
Commit 7ca801d ("[efi] Use the EFI_RNG_PROTOCOL as an entropy source
if available") added EFI_RNG_PROTOCOL as an alternative entropy source
via an ad-hoc mechanism specific to efi_entropy.c.

Split out EFI_RNG_PROTOCOL to a separate entropy source, and allow the
entropy core to handle the selection of RDRAND, EFI_RNG_PROTOCOL, or
timer ticks as the active source.

The fault detection logic added in commit a87537d ("[efi] Detect and
disable seriously broken EFI_RNG_PROTOCOL implementations") may be
removed completely, since the failure will already be detected by the
generic ANS X9.82-mandated repetition count test and will now be
handled gracefully by the entropy core.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-20 14:53:10 +00:00
7d71cf318a [rng] Allow for entropy sources that fail during startup tests
Provide per-source state variables for the repetition count test and
adaptive proportion test, to allow for the situation in which an
entropy source can be enabled but then fails during the startup tests,
thereby requiring an alternative entropy source to be used.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-20 14:53:10 +00:00
6625e49cea [tables] Allow any lvalue to be used as a table iterator
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-20 13:46:45 +00:00
9f17d1116d [rng] Allow entropy source to be selected at runtime
As noted in commit 3c83843 ("[rng] Check for several functioning RTC
interrupts"), experimentation shows that Hyper-V cannot be trusted to
reliably generate RTC interrupts.  (As noted in commit f3ba0fb
("[hyperv] Provide timer based on the 10MHz time reference count
MSR"), Hyper-V appears to suffer from a general problem in reliably
generating any legacy interrupts.)  An alternative entropy source is
therefore required for an image that may be used in a Hyper-V Gen1
virtual machine.

The x86 RDRAND instruction provides a suitable alternative entropy
source, but may not be supported by all CPUs.  We must therefore allow
for multiple entropy sources to be compiled in, with the single active
entropy source selected only at runtime.

Restructure the internal entropy API to allow a working entropy source
to be detected and chosen at runtime.

Enable the RDRAND entropy source for all x86 builds, since it is
likely to be substantially faster than any other source.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-17 21:29:51 +00:00
2733c4763a [iscsi] Limit maximum transfer size to MaxBurstLength
We currently specify only the iSCSI default value for MaxBurstLength
and ignore any negotiated value, since our internal block device API
allows only for receiving directly into caller-allocated buffers and
so we have no intrinsic limit on burst length.

A conscientious target may however refuse to attempt a transfer that
we request for a number of blocks that would exceed the negotiated
maximum burst length.

Fix by recording the negotiated maximum burst length and using it to
limit the maximum number of blocks per transfer as reported by the
SCSI layer.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-16 13:27:25 +00:00
cff857461b [rng] Add RDRAND as an entropy source
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-15 22:43:33 +00:00
6a004be0cc [efi] Support the initrd autodetection mechanism in newer Linux kernels
Linux 5.7 added the ability to autodetect an initrd by searching for a
handle via a fixed vendor-specific "Linux initrd device path" and then
locating and using the EFI_LOAD_FILE2_PROTOCOL instance on that
handle.

This maps quite naturally onto our existing concept of a "magic
initrd" as introduced for EFI in commit e5f0255 ("[efi] Provide an
"initrd.magic" file for use by UEFI kernels").

Add an EFI_LOAD_FILE2_PROTOCOL instance to our EFI virtual files
(backed by simply calling the existing EFI_SIMPLE_FILE_SYSTEM_PROTOCOL
method to read from the file), and install the protocol instance for
the "initrd.magic" virtual file onto a new device handle that also
provides the Linux initrd device path.

The design choice in Linux of using a single fixed device path makes
this unfortunately messy to support, since device paths must be unique
within a system.  When multiple bootloaders are used (e.g. GRUB
loading iPXE loading Linux) then only one bootloader can ever install
the device path onto a handle.  Subsequent bootloaders must locate the
existing handle and replace the load file protocol instance with their
own.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-15 17:36:47 +00:00
cf9ad00afc [efi] Fix debug message when reading from EFI virtual files
Show the requested range when a caller reads from a virtual file via
the EFI_SIMPLE_FILE_SYSTEM_PROTOCOL interface.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-15 17:20:39 +00:00
76a286530a [image] Check delimiters when parsing command-line key-value arguments
The Linux kernel bzImage image format and the CPIO archive constructor
will parse the image command line for certain arguments of the form
"key=value".  This parsing is currently implemented using strstr() in
a way that can cause a false positive suffix match.  For example, a
command line containing "highmem=<n>" would erroneously be treated as
containing a value for "mem=<n>".

Fix by centralising the logic used for parsing such arguments, and
including a check that the argument immediately follows a whitespace
delimiter (or is at the start of the string).

Reported-by: Filippo Giunchedi <filippo@esaurito.net>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-14 11:13:45 +00:00
3c83843e11 [rng] Check for several functioning RTC interrupts
Commit 74222cd ("[rng] Check for functioning RTC interrupt") added a
check that the RTC is capable of generating interrupts via the legacy
PIC, since this mechanism appears to be broken in some Hyper-V virtual
machines.

Experimentation shows that the RTC is sometimes capable of generating
a single interrupt, but will then generate no subsequent interrupts.
This currently causes rtc_entropy_check() to falsely detect that the
entropy gathering mechanism is functional.

Fix by checking for several RTC interrupts before declaring that it is
a functional entropy source.

Reported-by: Andreas Hammarskjöld <junior@2PintSoftware.com>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-11 15:11:51 +00:00
be8ecaf805 [eisa] Check for system board presence before probing for slots
EISA expansion slot I/O port addresses overlap space that may be
assigned to PCI devices, which can lead to register reads and writes
with unwanted side effects during EISA probing.

Reduce the chances of performing EISA probing on PCI devices by
probing EISA slot vendor and product ID registers only if the EISA
system board vendor ID register indicates that the motherboard
supports EISA.

Debugged-by: Václav Ovsík <vaclav.ovsik@gmail.com>
Tested-by: Václav Ovsík <vaclav.ovsik@gmail.com>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-10 23:34:59 +00:00
62a1d5c0f5 [loong64] Add initial support for LoongArch64
Add support for building a LoongArch64 Linux userspace binary.

Signed-off-by: Xiaotian Wu <wuxiaotian@loongson.cn>
Modified-by: Michael Brown <mcb30@ipxe.org>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-06 21:14:17 +00:00
84cb774390 [test] Include build architecture in test suite banner
The test suites for the various architectures are often run back to
back, and there is currently nothing to visually distinguish one test
run from another.

Include the architecture name within the self-test startup banner, to
aid in visual identification of test results.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-06 21:06:00 +00:00
bfa5262f0e [ci] Cache downloaded packages for GitHub actions
Speed up the "Install packages" step for each CI run by caching the
downloaded packages in /var/cache/apt.

Do not include libc6-dbg:i386 within the cache, since apt seems to
complain if asked to download both gcc-aarch64-linux-gnu and
libc6-dbg:i386 at the same time.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-06 19:59:04 +00:00
ef0a6f4792 [ioapi] Move PAGE_SHIFT to bits/io.h
The PAGE_SHIFT definition is an architectural property, rather than an
aspect of a particular I/O API implementation (of which, in theory,
there may be more than one per architecture).

Reflect this by moving the definition to the top-level bits/io.h for
each architecture.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-06 12:34:21 +00:00
c6901792f0 [build] Allow for per-architecture unprefixed constant operand modifier
Over the years, the undocumented operand modifier used to produce the
unprefixed constant values in __einfo_error() has varied from "%c0" to
"%a0" in commit 1a77466 ("[build] Fix use of inline assembly on GCC
4.8 ARM64 builds") and back to "%c0" in commit 3fb3ffc ("[build] Fix
use of inline assembly on GCC 8 ARM64 builds"), according to the
evolving demands of the toolchain.

LoongArch64 suffers from a similar issue: GCC 13 will allow either,
but the currently released GCC 12 allows only the "%a0" form.

Introduce a macro ASM_NO_PREFIX, defined in bits/compiler.h, to
abstract away this difference and allow different architectures to use
different operand modifiers.

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-05 23:55:14 +00:00
a2bed43939 [xen] Allow for platforms that have no Xen support
The Xen headers support only x86 and ARM.  Allow for platforms such as
LoongArch64 to build despite the absence of Xen support by providing
an architecture-specific <bits/xen.h> that simply does:

  #ifndef _BITS_XEN_H
  #define _BITS_XEN_H
  #include <ipxe/nonxen.h>
  #endif /* _BITS_XEN_H */

Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-05 22:21:36 +00:00
7cc305f7b4 [efi] Enable NET_PROTO_LLDP by default
Requested-by: Christian I. Nilsson <nikize@gmail.com>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-05 18:54:39 +00:00
dc16de3204 [lldp] Add support for the Link Layer Discovery Protocol
Add support for recording LLDP packets and exposing TLV values via the
settings mechanism.  LLDP settings are encoded as

  ${netX.lldp/<prefix>.<type>.<index>.<offset>.<length>}

where

  <type> is the TLV type

  <offset> is the starting offset within the TLV value

  <length> is the length (or zero to read the from <offset> to the end)

  <prefix>, if it has a non-zero value, is the subtype byte string of
  length <offset> to match at the start of the TLV value, up to a
  maximum matched length of 4 bytes

  <index> is the index of the entry matching <type> and <prefix> to be
  accessed, with zero indicating the first matching entry

The <prefix> is designed to accommodate both matching of the OUI
within an organization-specific TLV (e.g. 0x0080c2 for IEEE 802.1
TLVs) and of a subtype byte as found within many TLVs.

This encoding allows most LLDP values to be extracted easily.  For
example

  System name: ${netX.lldp/5.0.0.0:string}

  System description: ${netX.lldp/6.0.0.0:string}

  Port description: ${netX.lldp/4.0.0.0:string}

  Port interface name: ${netX.lldp/5.2.0.1.0:string}

  Chassis MAC address: ${netX.lldp/4.1.0.1.0:hex}

  Management IPv4 address: ${netX.lldp/5.1.8.0.2.4:ipv4}

  Port VLAN ID: ${netX.lldp/0x0080c2.1.127.0.4.2:int16}

  Port VLAN name: ${netX.lldp/0x0080c2.3.127.0.7.0:string}

  Maximum frame size: ${netX.lldp/0x00120f.4.127.0.4.2:uint16}

Originally-implemented-by: Marin Hannache <git@mareo.fr>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-05 18:18:02 +00:00
6c0335adf6 [ci] Update to ubuntu-22.04 GitHub actions runner
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-03 20:08:16 +00:00
8450fa4a7b [dhcp] Ignore DHCPNAK unless originating from the selected DHCP server
RFC 2131 leaves undefined the behaviour of the client in response to a
DHCPNAK that comes from a server other than the selected DHCP server.

A substantial amount of online documentation suggests using multiple
independent DHCP servers with non-overlapping ranges in the same
subnet in order to provide some minimal redundancy.  Experimentation
shows that in this setup, at least ISC dhcpd will send a DHCPNAK in
response to the client's DHCPREQUEST for an address that is not within
the range defined on that server.  (Since the requested address does
lie within the subnet defined on that server, this will happen
regardless of the "authoritative" parameter.)  The client will
therefore receive a DHCPACK from the selected DHCP server along with
one or more DHCPNAKs from each of the non-selected DHCP servers.

Filter out responses from non-selected DHCP servers before checking
for a DHCPNAK, so that these arguably spurious DHCPNAKs will not cause
iPXE to return to the discovery state.

Continue to check for DHCPNAK before filtering out responses for
non-selected lease addresses, since experimentation shows that the
DHCPNAK will usually have an empty yiaddr field.

Reported-by: Anders Blomdell <anders.blomdell@control.lth.se>
Signed-off-by: Michael Brown <mcb30@ipxe.org>
2023-02-03 19:51:58 +00:00
142 changed files with 12047 additions and 1094 deletions

View File

@ -4,21 +4,53 @@ on: push
jobs:
cache:
name: Cache
runs-on: ubuntu-22.04
steps:
- name: Cache permissions
run: |
sudo chown $(id -un) /var/cache/apt/archives
- name: Cache packages
uses: actions/cache@v3
with:
path: /var/cache/apt/archives/*.deb
key: apt-cache-${{ github.run_id }}-${{ github.run_attempt }}
restore-keys: |
apt-cache-
- name: Download packages
run: |
sudo apt update
sudo apt install -y -d -o Acquire::Retries=50 \
mtools syslinux isolinux \
libc6-dev-i386 valgrind \
gcc-arm-none-eabi gcc-aarch64-linux-gnu
x86:
name: x86
runs-on: ubuntu-20.04
runs-on: ubuntu-22.04
needs: cache
steps:
- name: Check out code
uses: actions/checkout@v3
with:
fetch-depth: 0
- name: Cache permissions
run: |
sudo chown $(id -un) /var/cache/apt/archives
- name: Cache packages
uses: actions/cache/restore@v3
with:
path: /var/cache/apt/archives/*.deb
key: apt-cache-${{ github.run_id }}-${{ github.run_attempt }}
- name: Install packages
run: |
sudo dpkg --add-architecture i386
sudo apt update
sudo apt install -y -o Acquire::Retries=50 \
mtools syslinux isolinux \
libc6-dev-i386 libc6-dbg:i386 valgrind
libc6-dev-i386 valgrind \
libgcc-s1:i386 libc6-dbg:i386
- name: Build (BIOS)
run: |
make -j 4 -C src
@ -32,12 +64,21 @@ jobs:
arm32:
name: ARM32
runs-on: ubuntu-20.04
runs-on: ubuntu-22.04
needs: cache
steps:
- name: Check out code
uses: actions/checkout@v3
with:
fetch-depth: 0
- name: Cache permissions
run: |
sudo chown $(id -un) /var/cache/apt/archives
- name: Cache packages
uses: actions/cache/restore@v3
with:
path: /var/cache/apt/archives/*.deb
key: apt-cache-${{ github.run_id }}-${{ github.run_attempt }}
- name: Install packages
run: |
sudo apt update
@ -52,12 +93,21 @@ jobs:
arm64:
name: ARM64
runs-on: ubuntu-20.04
runs-on: ubuntu-22.04
needs: cache
steps:
- name: Check out code
uses: actions/checkout@v3
with:
fetch-depth: 0
- name: Cache permissions
run: |
sudo chown $(id -un) /var/cache/apt/archives
- name: Cache packages
uses: actions/cache/restore@v3
with:
path: /var/cache/apt/archives/*.deb
key: apt-cache-${{ github.run_id }}-${{ github.run_attempt }}
- name: Install packages
run: |
sudo apt update

View File

@ -8,7 +8,7 @@ on:
jobs:
submit:
name: Submit
runs-on: ubuntu-20.04
runs-on: ubuntu-22.04
steps:
- name: Check out code
uses: actions/checkout@v3

View File

@ -1,12 +0,0 @@
#ifndef _BITS_ENTROPY_H
#define _BITS_ENTROPY_H
/** @file
*
* ARM-specific entropy API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_ENTROPY_H */

View File

@ -9,6 +9,9 @@
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** Page shift */
#define PAGE_SHIFT 12
#include <ipxe/arm_io.h>
#endif /* _BITS_IO_H */

View File

@ -20,9 +20,6 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
*
*/
/** Page shift */
#define PAGE_SHIFT 12
/*
* Physical<->Bus address mappings
*

View File

@ -8,6 +8,9 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#ifndef ASSEMBLY
/** Unprefixed constant operand modifier */
#define ASM_NO_PREFIX "c"
#define __asmcall
#define __libgcc

View File

@ -8,6 +8,9 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#ifndef ASSEMBLY
/** Unprefixed constant operand modifier */
#define ASM_NO_PREFIX "c"
#define __asmcall
#define __libgcc

View File

@ -8,6 +8,9 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#ifndef ASSEMBLY
/** Unprefixed constant operand modifier */
#define ASM_NO_PREFIX "c"
/** Declare a function with standard calling conventions */
#define __asmcall __attribute__ (( cdecl, regparm(0) ))

26
src/arch/loong64/Makefile Normal file
View File

@ -0,0 +1,26 @@
# Assembler section type character
#
ASM_TCHAR := @
ASM_TCHAR_OPS := @
# LoongArch64-specific flags
#
CFLAGS += -fstrength-reduce -fomit-frame-pointer
CFLAGS += -falign-jumps=1 -falign-loops=1 -falign-functions=1
# Check if -mno-explicit-relocs is valid
ifeq ($(CCTYPE),gcc)
MNER_TEST = $(CC) -mno-explicit-relocs -x c -c /dev/null -o /dev/null >/dev/null 2>&1
MNER_FLAGS := $(shell $(MNER_TEST) && $(ECHO) '-mno-explicit-relocs')
WORKAROUND_CFLAGS += $(MNER_FLAGS)
endif
# EFI requires -fshort-wchar, and nothing else currently uses wchar_t
CFLAGS += -fshort-wchar
# LoongArch64-specific directories containing source files
SRCDIRS += arch/loong64/core
# Include platform-specific Makefile
MAKEDEPS += arch/loong64/Makefile.$(PLATFORM)
include arch/loong64/Makefile.$(PLATFORM)

View File

@ -0,0 +1,10 @@
# -*- makefile -*- : Force emacs to use Makefile mode
# Starting virtual address
#
LDFLAGS += -Ttext=0x120000000
# Include generic Linux Makefile
#
MAKEDEPS += Makefile.linux
include Makefile.linux

View File

@ -0,0 +1,120 @@
/*
* Copyright (C) 2012 Michael Brown <mbrown@fensystems.co.uk>.
* Copyright (c) 2023, Xiaotian Wu <wuxiaotian@loongson.cn>
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License as
* published by the Free Software Foundation; either version 2 of the
* License, or any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA
* 02110-1301, USA.
*
* You can also choose to distribute this program under the terms of
* the Unmodified Binary Distribution Licence (as given in the file
* COPYING.UBDL), provided that you have satisfied its requirements.
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <stdint.h>
#include <string.h>
#include <ipxe/bigint.h>
/** @file
*
* Big integer support
*/
/**
* Multiply big integers
*
* @v multiplicand0 Element 0 of big integer to be multiplied
* @v multiplier0 Element 0 of big integer to be multiplied
* @v result0 Element 0 of big integer to hold result
* @v size Number of elements
*/
void bigint_multiply_raw ( const uint64_t *multiplicand0,
const uint64_t *multiplier0,
uint64_t *result0, unsigned int size ) {
const bigint_t ( size ) __attribute__ (( may_alias )) *multiplicand =
( ( const void * ) multiplicand0 );
const bigint_t ( size ) __attribute__ (( may_alias )) *multiplier =
( ( const void * ) multiplier0 );
bigint_t ( size * 2 ) __attribute__ (( may_alias )) *result =
( ( void * ) result0 );
unsigned int i;
unsigned int j;
uint64_t multiplicand_element;
uint64_t multiplier_element;
uint64_t *result_elements;
uint64_t discard_low;
uint64_t discard_high;
uint64_t discard_temp_low;
uint64_t discard_temp_high;
/* Zero result */
memset ( result, 0, sizeof ( *result ) );
/* Multiply integers one element at a time */
for ( i = 0 ; i < size ; i++ ) {
multiplicand_element = multiplicand->element[i];
for ( j = 0 ; j < size ; j++ ) {
multiplier_element = multiplier->element[j];
result_elements = &result->element[ i + j ];
/* Perform a single multiply, and add the
* resulting double-element into the result,
* carrying as necessary. The carry can
* never overflow beyond the end of the
* result, since:
*
* a < 2^{n}, b < 2^{n} => ab < 2^{2n}
*/
__asm__ __volatile__ ( "mul.d %1, %6, %7\n\t"
"mulh.du %2, %6, %7\n\t"
"ld.d %3, %0, 0\n\t"
"ld.d %4, %0, 8\n\t"
"add.d %3, %3, %1\n\t"
"sltu $t0, %3, %1\n\t"
"add.d %4, %4, %2\n\t"
"sltu $t1, %4, %2\n\t"
"add.d %4, %4, $t0\n\t"
"sltu $t0, %4, $t0\n\t"
"or $t0, $t0, $t1\n\t"
"st.d %3, %0, 0\n\t"
"st.d %4, %0, 8\n\t"
"addi.d %0, %0, 16\n\t"
"beqz $t0, 2f\n"
"1:\n\t"
"ld.d %3, %0, 0\n\t"
"add.d %3, %3, $t0\n\t"
"sltu $t0, %3, $t0\n\t"
"st.d %3, %0, 0\n\t"
"addi.d %0, %0, 8\n\t"
"bnez $t0, 1b\n"
"2:"
: "+r" ( result_elements ),
"=&r" ( discard_low ),
"=&r" ( discard_high ),
"=r" ( discard_temp_low ),
"=r" ( discard_temp_high ),
"+m" ( *result )
: "r" ( multiplicand_element ),
"r" ( multiplier_element )
: "t0", "t1" );
}
}
}

View File

@ -0,0 +1,266 @@
/*
* Copyright (C) 2016 Michael Brown <mbrown@fensystems.co.uk>.
* Copyright (c) 2023, Xiaotian Wu <wuxiaotian@loongson.cn>
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License as
* published by the Free Software Foundation; either version 2 of the
* License, or any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA
* 02110-1301, USA.
*
* You can also choose to distribute this program under the terms of
* the Unmodified Binary Distribution Licence (as given in the file
* COPYING.UBDL), provided that you have satisfied its requirements.
*/
/** @file
*
* Optimised string operations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <string.h>
/**
* Copy memory area
*
* @v dest Destination address
* @v src Source address
* @v len Length
* @ret dest Destination address
*/
void loong64_memcpy ( void *dest, const void *src, size_t len ) {
void *discard_dest;
void *discard_end;
const void *discard_src;
size_t discard_offset;
unsigned long discard_data;
unsigned long discard_low;
unsigned long discard_high;
/* If length is too short, then just copy individual bytes.
*/
if ( len < 16 ) {
__asm__ __volatile__ ( "beqz %0, 2f\n\t"
"\n1:\n\t"
"addi.d %0, %0, -1\n\t"
"ldx.b %1, %3, %0\n\t"
"stx.b %1, %2, %0\n\t"
"bnez %0, 1b\n\t"
"\n2:\n\t"
: "=&r" ( discard_offset ),
"=&r" ( discard_data )
: "r" ( dest ), "r" ( src ), "0" ( len )
: "memory", "t0" );
return;
}
/* Copy 16 bytes at a time: one initial
* potentially unaligned access, multiple destination-aligned
* accesses, one final potentially unaligned access.
*/
__asm__ __volatile__ ( "ld.d %3, %1, 0\n\t"
"ld.d %4, %1, 8\n\t"
"addi.d %1, %1, 16\n\t"
"st.d %3, %0, 0\n\t"
"st.d %4, %0, 8\n\t"
"addi.d %0, %0, 16\n\t"
"andi %3, %0, 15\n\t"
"sub.d %0, %0, %3\n\t"
"sub.d %1, %1, %3\n\t"
"addi.d $t0, $zero, 0xf\n\t"
"andn %2, %5, $t0\n\t"
"b 2f\n\t"
"\n1:\n\t"
"ld.d %3, %1, 0\n\t"
"ld.d %4, %1, 8\n\t"
"addi.d %1, %1, 16\n\t"
"st.d %3, %0, 0\n\t"
"st.d %4, %0, 8\n\t"
"addi.d %0, %0, 16\n\t"
"\n2:\n\t"
"bne %0, %2, 1b\n\t"
"ld.d %3, %6, -16\n\t"
"ld.d %4, %6, -8\n\t"
"st.d %3, %5, -16\n\t"
"st.d %4, %5, -8\n\t"
: "=&r" ( discard_dest ),
"=&r" ( discard_src ),
"=&r" ( discard_end ),
"=&r" ( discard_low ),
"=&r" ( discard_high )
: "r" ( dest + len ), "r" ( src + len ),
"0" ( dest ), "1" ( src )
: "memory", "t0" );
}
/**
* Zero memory region
*
* @v dest Destination region
* @v len Length
*/
void loong64_bzero ( void *dest, size_t len ) {
size_t discard_offset;
void *discard_dest;
void *discard_end;
/* If length is too short, then just zero individual bytes.
*/
if ( len < 16 ) {
__asm__ __volatile__ ( "beqz %0, 2f\n\t"
"\n1:\n\t"
"addi.d %0, %0, -1\n\t"
"stx.b $zero, %1, %0\n\t"
"bnez %0, 1b\n\t"
"\n2:\n\t"
: "=&r" ( discard_offset )
: "r" ( dest ), "0" ( len )
: "memory" );
return;
}
/* To zero 16 bytes at a time: one initial
* potentially unaligned access, multiple aligned accesses,
* one final potentially unaligned access.
*/
__asm__ __volatile__ ( "st.d $zero, %0, 0\n\t"
"st.d $zero, %0, 8\n\t"
"addi.d %0, %0, 16\n\t"
"addi.w $t0, $zero, 15\n\t"
"andn %0, %0, $t0\n\t"
"addi.w $t0, $zero, 15\n\t"
"andn %1, %2, $t0\n\t"
"b 2f\n\t"
"\n1:\n\t"
"st.d $zero, %0, 0\n\t"
"st.d $zero, %0, 8\n\t"
"addi.d %0, %0, 16\n\t"
"\n2:\n\t"
"bne %0, %1, 1b\n\t"
"st.d $zero, %2, -16\n\t"
"st.d $zero, %2, -8\n\t"
: "=&r" ( discard_dest ),
"=&r" ( discard_end )
: "r" ( dest + len ), "0" ( dest )
: "memory", "t0" );
}
/**
* Fill memory region
*
* @v dest Destination region
* @v len Length
* @v character Fill character
*
* The unusual parameter order is to allow for more efficient
* tail-calling to loong64_memset() when zeroing a region.
*/
void loong64_memset ( void *dest, size_t len, int character ) {
size_t discard_offset;
/* Use optimised zeroing code if applicable */
if ( character == 0 ) {
loong64_bzero ( dest, len );
return;
}
/* Fill one byte at a time. Calling memset() with a non-zero
* value is relatively rare and unlikely to be
* performance-critical.
*/
__asm__ __volatile__ ( "beqz %0, 2f\n\t"
"\n1:\n\t"
"addi.d %0, %0, -1\n\t"
"stx.b %2, %1, %0\n\t"
"bnez %0, 1b\n\t"
"\n2:\n\t"
: "=&r" ( discard_offset )
: "r" ( dest ), "r" ( character ), "0" ( len )
: "memory" );
}
/**
* Copy (possibly overlapping) memory region forwards
*
* @v dest Destination region
* @v src Source region
* @v len Length
*/
void loong64_memmove_forwards ( void *dest, const void *src, size_t len ) {
void *discard_dest;
const void *discard_src;
unsigned long discard_data;
/* Assume memmove() is not performance-critical, and perform a
* bytewise copy for simplicity.
*/
__asm__ __volatile__ ( "b 2f\n\t"
"\n1:\n\t"
"ld.b %2, %1, 0\n\t"
"addi.d %1, %1, 1\n\t"
"st.b %2, %0, 0\n\t"
"addi.d %0, %0, 1\n\t"
"\n2:\n\t"
"bne %0, %3, 1b\n\t"
: "=&r" ( discard_dest ),
"=&r" ( discard_src ),
"=&r" ( discard_data )
: "r" ( dest + len ), "0" ( dest ), "1" ( src )
: "memory" );
}
/**
* Copy (possibly overlapping) memory region backwards
*
* @v dest Destination region
* @v src Source region
* @v len Length
*/
void loong64_memmove_backwards ( void *dest, const void *src, size_t len ) {
size_t discard_offset;
unsigned long discard_data;
/* Assume memmove() is not performance-critical, and perform a
* bytewise copy for simplicity.
*/
__asm__ __volatile__ ( "beqz %0, 2f\n\t"
"\n1:\n\t"
"addi.d %0, %0, -1\n\t"
"ldx.b %1, %3, %0\n\t"
"stx.b %1, %2, %0\n\t"
"bnez %0, 1b\n\t"
"\n2:\n\t"
: "=&r" ( discard_offset ),
"=&r" ( discard_data )
: "r" ( dest ), "r" ( src ), "0" ( len )
: "memory" );
}
/**
* Copy (possibly overlapping) memory region
*
* @v dest Destination region
* @v src Source region
* @v len Length
*/
void loong64_memmove ( void *dest, const void *src, size_t len ) {
if ( dest <= src ) {
loong64_memmove_forwards ( dest, src, len );
} else {
loong64_memmove_backwards ( dest, src, len );
}
}

View File

@ -0,0 +1,53 @@
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL )
.section ".note.GNU-stack", "", %progbits
.text
/*
int setjmp(jmp_buf env);
*/
.globl setjmp
.type setjmp, %function
setjmp:
/* Store registers */
st.d $s0, $a0, 0x0
st.d $s1, $a0, 0x8
st.d $s2, $a0, 0x10
st.d $s3, $a0, 0x18
st.d $s4, $a0, 0x20
st.d $s5, $a0, 0x28
st.d $s6, $a0, 0x30
st.d $s7, $a0, 0x38
st.d $s8, $a0, 0x40
st.d $fp, $a0, 0x48
st.d $sp, $a0, 0x50
st.d $ra, $a0, 0x58
move $a0, $zero
jirl $zero, $ra, 0
.size setjmp, . - setjmp
/*
void longjmp(jmp_buf env, int val);
*/
.globl longjmp
.type longjmp, %function
longjmp:
/* Restore registers */
ld.d $s0, $a0, 0x0
ld.d $s1, $a0, 0x8
ld.d $s2, $a0, 0x10
ld.d $s3, $a0, 0x18
ld.d $s4, $a0, 0x20
ld.d $s5, $a0, 0x28
ld.d $s6, $a0, 0x30
ld.d $s7, $a0, 0x38
ld.d $s8, $a0, 0x40
ld.d $fp, $a0, 0x48
ld.d $sp, $a0, 0x50
ld.d $ra, $a0, 0x58
addi.d $a0, $zero, 1 # a0 = 1
beqz $a1, .exit # if (a1 == 0); goto L0
move $a0, $a1 # a0 = a1
.exit:
jirl $zero, $ra, 0
.size longjmp, . - longjmp

View File

@ -0,0 +1,12 @@
#ifndef _BITS_ACPI_H
#define _BITS_ACPI_H
/** @file
*
* LoongArch64-specific ACPI API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_ACPI_H */

View File

@ -0,0 +1,336 @@
#ifndef _BITS_BIGINT_H
#define _BITS_BIGINT_H
/** @file
*
* Big integer support
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <stdint.h>
#include <string.h>
#include <strings.h>
/** Element of a big integer */
typedef uint64_t bigint_element_t;
/**
* Initialise big integer
*
* @v value0 Element 0 of big integer to initialise
* @v size Number of elements
* @v data Raw data
* @v len Length of raw data
*/
static inline __attribute__ (( always_inline )) void
bigint_init_raw ( uint64_t *value0, unsigned int size,
const void *data, size_t len ) {
size_t pad_len = ( sizeof ( bigint_t ( size ) ) - len );
uint8_t *value_byte = ( ( void * ) value0 );
const uint8_t *data_byte = ( data + len );
/* Copy raw data in reverse order, padding with zeros */
while ( len-- )
*(value_byte++) = *(--data_byte);
while ( pad_len-- )
*(value_byte++) = 0;
}
/**
* Add big integers
*
* @v addend0 Element 0 of big integer to add
* @v value0 Element 0 of big integer to be added to
* @v size Number of elements
*/
static inline __attribute__ (( always_inline )) void
bigint_add_raw ( const uint64_t *addend0, uint64_t *value0,
unsigned int size ) {
bigint_t ( size ) __attribute__ (( may_alias )) *value =
( ( void * ) value0 );
uint64_t *discard_addend;
uint64_t *discard_value;
uint64_t discard_addend_i;
uint64_t discard_value_i;
unsigned int discard_size;
__asm__ __volatile__ ( "move $t0, $zero\n"
"1:\n\t"
"ld.d %3, %0, 0\n\t"
"addi.d %0, %0, 8\n\t"
"ld.d %4, %1, 0\n\t"
"add.d %4, %4, $t0\n\t"
"sltu $t0, %4, $t0\n\t"
"add.d %4, %4, %3\n\t"
"sltu $t1, %4, %3\n\t"
"or $t0, $t0, $t1\n\t"
"st.d %4, %1, 0\n\t"
"addi.d %1, %1, 8\n\t"
"addi.w %2, %2, -1\n\t"
"bnez %2, 1b"
: "=r" ( discard_addend ),
"=r" ( discard_value ),
"=r" ( discard_size ),
"=r" ( discard_addend_i ),
"=r" ( discard_value_i ),
"+m" ( *value )
: "0" ( addend0 ),
"1" ( value0 ),
"2" ( size )
: "t0", "t1" );
}
/**
* Subtract big integers
*
* @v subtrahend0 Element 0 of big integer to subtract
* @v value0 Element 0 of big integer to be subtracted from
* @v size Number of elements
*/
static inline __attribute__ (( always_inline )) void
bigint_subtract_raw ( const uint64_t *subtrahend0, uint64_t *value0,
unsigned int size ) {
uint64_t *discard_subtrahend;
uint64_t *discard_value;
uint64_t discard_subtrahend_i;
uint64_t discard_value_i;
unsigned int discard_size;
unsigned int flag = 0;
discard_subtrahend = (uint64_t*) subtrahend0;
discard_value = value0;
discard_size = size;
do {
discard_subtrahend_i = *discard_subtrahend;
discard_subtrahend++;
discard_value_i = *discard_value;
discard_value_i = discard_value_i - discard_subtrahend_i - flag;
if ( *discard_value < (discard_subtrahend_i + flag)) {
flag = 1;
} else {
flag = 0;
}
*discard_value = discard_value_i;
discard_value++;
discard_size -= 1;
} while (discard_size != 0);
}
/**
* Rotate big integer left
*
* @v value0 Element 0 of big integer
* @v size Number of elements
*/
static inline __attribute__ (( always_inline )) void
bigint_rol_raw ( uint64_t *value0, unsigned int size ) {
uint64_t *discard_value;
uint64_t discard_value_i;
unsigned int discard_size;
uint64_t current_value_i;
unsigned int flag = 0;
discard_value = value0;
discard_size = size;
do {
discard_value_i = *discard_value;
current_value_i = discard_value_i;
discard_value_i += discard_value_i + flag;
if (discard_value_i < current_value_i) {
flag = 1;
} else {
flag = 0;
}
*discard_value = discard_value_i;
discard_value++;
discard_size -= 1;
} while ( discard_size != 0 );
}
/**
* Rotate big integer right
*
* @v value0 Element 0 of big integer
* @v size Number of elements
*/
static inline __attribute__ (( always_inline )) void
bigint_ror_raw ( uint64_t *value0, unsigned int size ) {
uint64_t *discard_value;
uint64_t discard_value_i;
uint64_t discard_value_j;
unsigned int discard_size;
discard_value = value0;
discard_size = size;
discard_value_j = 0;
do {
discard_size -= 1;
discard_value_i = *(discard_value + discard_size);
discard_value_j = (discard_value_j << 63) | (discard_value_i >> 1);
*(discard_value + discard_size) = discard_value_j;
discard_value_j = discard_value_i;
} while ( discard_size > 0 );
}
/**
* Test if big integer is equal to zero
*
* @v value0 Element 0 of big integer
* @v size Number of elements
* @ret is_zero Big integer is equal to zero
*/
static inline __attribute__ (( always_inline, pure )) int
bigint_is_zero_raw ( const uint64_t *value0, unsigned int size ) {
const uint64_t *value = value0;
uint64_t value_i;
do {
value_i = *(value++);
if ( value_i )
break;
} while ( --size );
return ( value_i == 0 );
}
/**
* Compare big integers
*
* @v value0 Element 0 of big integer
* @v reference0 Element 0 of reference big integer
* @v size Number of elements
* @ret geq Big integer is greater than or equal to the reference
*/
static inline __attribute__ (( always_inline, pure )) int
bigint_is_geq_raw ( const uint64_t *value0, const uint64_t *reference0,
unsigned int size ) {
const uint64_t *value = ( value0 + size );
const uint64_t *reference = ( reference0 + size );
uint64_t value_i;
uint64_t reference_i;
do {
value_i = *(--value);
reference_i = *(--reference);
if ( value_i != reference_i )
break;
} while ( --size );
return ( value_i >= reference_i );
}
/**
* Test if bit is set in big integer
*
* @v value0 Element 0 of big integer
* @v size Number of elements
* @v bit Bit to test
* @ret is_set Bit is set
*/
static inline __attribute__ (( always_inline )) int
bigint_bit_is_set_raw ( const uint64_t *value0, unsigned int size,
unsigned int bit ) {
const bigint_t ( size ) __attribute__ (( may_alias )) *value =
( ( const void * ) value0 );
unsigned int index = ( bit / ( 8 * sizeof ( value->element[0] ) ) );
unsigned int subindex = ( bit % ( 8 * sizeof ( value->element[0] ) ) );
return ( !! ( value->element[index] & ( 1UL << subindex ) ) );
}
/**
* Find highest bit set in big integer
*
* @v value0 Element 0 of big integer
* @v size Number of elements
* @ret max_bit Highest bit set + 1 (or 0 if no bits set)
*/
static inline __attribute__ (( always_inline )) int
bigint_max_set_bit_raw ( const uint64_t *value0, unsigned int size ) {
const uint64_t *value = ( value0 + size );
int max_bit = ( 8 * sizeof ( bigint_t ( size ) ) );
uint64_t value_i;
do {
value_i = *(--value);
max_bit -= ( 64 - fls ( value_i ) );
if ( value_i )
break;
} while ( --size );
return max_bit;
}
/**
* Grow big integer
*
* @v source0 Element 0 of source big integer
* @v source_size Number of elements in source big integer
* @v dest0 Element 0 of destination big integer
* @v dest_size Number of elements in destination big integer
*/
static inline __attribute__ (( always_inline )) void
bigint_grow_raw ( const uint64_t *source0, unsigned int source_size,
uint64_t *dest0, unsigned int dest_size ) {
unsigned int pad_size = ( dest_size - source_size );
memcpy ( dest0, source0, sizeof ( bigint_t ( source_size ) ) );
memset ( ( dest0 + source_size ), 0, sizeof ( bigint_t ( pad_size ) ) );
}
/**
* Shrink big integer
*
* @v source0 Element 0 of source big integer
* @v source_size Number of elements in source big integer
* @v dest0 Element 0 of destination big integer
* @v dest_size Number of elements in destination big integer
*/
static inline __attribute__ (( always_inline )) void
bigint_shrink_raw ( const uint64_t *source0, unsigned int source_size __unused,
uint64_t *dest0, unsigned int dest_size ) {
memcpy ( dest0, source0, sizeof ( bigint_t ( dest_size ) ) );
}
/**
* Finalise big integer
*
* @v value0 Element 0 of big integer to finalise
* @v size Number of elements
* @v out Output buffer
* @v len Length of output buffer
*/
static inline __attribute__ (( always_inline )) void
bigint_done_raw ( const uint64_t *value0, unsigned int size __unused,
void *out, size_t len ) {
const uint8_t *value_byte = ( ( const void * ) value0 );
uint8_t *out_byte = ( out + len );
/* Copy raw data in reverse order */
while ( len-- )
*(--out_byte) = *(value_byte++);
}
extern void bigint_multiply_raw ( const uint64_t *multiplicand0,
const uint64_t *multiplier0,
uint64_t *value0, unsigned int size );
#endif /* _BITS_BIGINT_H */

View File

@ -0,0 +1,102 @@
#ifndef _BITS_BITOPS_H
#define _BITS_BITOPS_H
/** @file
*
* loongArch bit operations
*
* We perform atomic bit set and bit clear operations using "ll"
* and "sc". We use the output constraint to inform the
* compiler that any memory from the start of the bit field up to and
* including the byte containing the bit may be modified. (This is
* overkill but shouldn't matter in practice since we're unlikely to
* subsequently read other bits from the same bit field.)
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <stdint.h>
/**
* Test and set bit atomically
*
* @v bit Bit to set
* @v bits Bit field
* @ret old Old value of bit (zero or non-zero)
*/
static inline __attribute__ (( always_inline )) int
test_and_set_bit ( unsigned int bit, volatile void *bits ) {
unsigned int index = ( bit / 64 );
unsigned int offset = ( bit % 64 );
volatile uint64_t *qword = ( ( ( volatile uint64_t * ) bits ) + index );
uint64_t mask = ( 1UL << offset );
uint64_t old;
uint64_t new;
__asm__ __volatile__ ( "1: \n\t"
"ll.d %[old], %[qword] \n\t"
"or %[new], %[old], %[mask] \n\t"
"sc.d %[new], %[qword] \n\t"
"beqz %[new], 1b \n\t"
: [old] "=&r" ( old ),
[new] "=&r" ( new ),
[qword] "+m" ( *qword )
: [mask] "r" ( mask )
: "cc", "memory");
return ( !! ( old & mask ) );
}
/**
* Test and clear bit atomically
*
* @v bit Bit to set
* @v bits Bit field
* @ret old Old value of bit (zero or non-zero)
*/
static inline __attribute__ (( always_inline )) int
test_and_clear_bit ( unsigned int bit, volatile void *bits ) {
unsigned int index = ( bit / 64 );
unsigned int offset = ( bit % 64 );
volatile uint64_t *qword = ( ( ( volatile uint64_t * ) bits ) + index );
uint64_t mask = ( 1UL << offset );
uint64_t old;
uint64_t new;
__asm__ __volatile__ ( "1: \n\t"
"ll.d %[old], %[qword] \n\t"
"andn %[new], %[old], %[mask] \n\t"
"sc.d %[new], %[qword] \n\t"
"beqz %[new], 1b \n\t"
: [old] "=&r" ( old ),
[new] "=&r" ( new ),
[qword] "+m" ( *qword )
: [mask] "r" ( mask )
: "cc", "memory");
return ( !! ( old & mask ) );
}
/**
* Set bit atomically
*
* @v bit Bit to set
* @v bits Bit field
*/
static inline __attribute__ (( always_inline )) void
set_bit ( unsigned int bit, volatile void *bits ) {
test_and_set_bit ( bit, bits );
}
/**
* Clear bit atomically
*
* @v bit Bit to set
* @v bits Bit field
*/
static inline __attribute__ (( always_inline )) void
clear_bit ( unsigned int bit, volatile void *bits ) {
test_and_clear_bit ( bit, bits );
}
#endif /* _BITS_BITOPS_H */

View File

@ -0,0 +1,47 @@
#ifndef _BITS_BYTESWAP_H
#define _BITS_BYTESWAP_H
/** @file
*
* Byte-order swapping functions
*
*/
#include <stdint.h>
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
static inline __attribute__ (( always_inline, const )) uint16_t
__bswap_variable_16 ( uint16_t x ) {
__asm__ ( "revb.2h %0, %1" : "=r" ( x ) : "r" ( x ) );
return x;
}
static inline __attribute__ (( always_inline )) void
__bswap_16s ( uint16_t *x ) {
*x = __bswap_variable_16 ( *x );
}
static inline __attribute__ (( always_inline, const )) uint32_t
__bswap_variable_32 ( uint32_t x ) {
__asm__ ( "revb.2w %0, %1" : "=r" ( x ) : "r" ( x ) );
return x;
}
static inline __attribute__ (( always_inline )) void
__bswap_32s ( uint32_t *x ) {
*x = __bswap_variable_32 ( *x );
}
static inline __attribute__ (( always_inline, const )) uint64_t
__bswap_variable_64 ( uint64_t x ) {
__asm__ ( "revb.d %0, %1" : "=r" ( x ) : "r" ( x ) );
return x;
}
static inline __attribute__ (( always_inline )) void
__bswap_64s ( uint64_t *x ) {
*x = __bswap_variable_64 ( *x );
}
#endif

View File

@ -0,0 +1,19 @@
#ifndef _BITS_COMPILER_H
#define _BITS_COMPILER_H
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** Dummy relocation type */
#define RELOC_TYPE_NONE R_LARCH_NONE
#ifndef ASSEMBLY
/** Unprefixed constant operand modifier */
#define ASM_NO_PREFIX "a"
#define __asmcall
#define __libgcc
#endif /* ASSEMBLY */
#endif /*_BITS_COMPILER_H */

View File

@ -0,0 +1,8 @@
#ifndef _BITS_ENDIAN_H
#define _BITS_ENDIAN_H
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#define __BYTE_ORDER __LITTLE_ENDIAN
#endif /* _BITS_ENDIAN_H */

View File

@ -0,0 +1,19 @@
#ifndef _BITS_ERRFILE_H
#define _BITS_ERRFILE_H
/** @file
*
* LoongArch64-specific error file identifiers
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/**
* @addtogroup errfile Error file identifiers
* @{
*/
/** @} */
#endif /* _BITS_ERRFILE_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_HYPERV_H
#define _BITS_HYPERV_H
/** @file
*
* Hyper-V interface
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_HYPERV_H */

View File

@ -0,0 +1,15 @@
#ifndef _BITS_IO_H
#define _BITS_IO_H
/** @file
*
* LoongArch64-specific I/O API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** Page shift */
#define PAGE_SHIFT 12
#endif /* _BITS_IO_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_IOMAP_H
#define _BITS_IOMAP_H
/** @file
*
* LoongArch64-specific I/O mapping API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_IOMAP_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_NAP_H
#define _BITS_NAP_H
/** @file
*
* LoongArch64-specific CPU sleeping API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_MAP_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_PCI_IO_H
#define _BITS_PCI_IO_H
/** @file
*
* LoongArch64-specific PCI I/O API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_PCI_IO_H */

View File

@ -0,0 +1,28 @@
#ifndef _BITS_PROFILE_H
#define _BITS_PROFILE_H
/** @file
*
* Profiling
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <stdint.h>
/**
* Get profiling timestamp
*
* @ret timestamp Timestamp
*/
static inline __attribute__ (( always_inline )) uint64_t
profile_timestamp ( void ) {
uint64_t cycles;
/* Read cycle counter */
__asm__ __volatile__ ( "rdtime.d %0, $zero\n\t" : "=r" ( cycles ) );
return cycles;
}
#endif /* _BITS_PROFILE_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_REBOOT_H
#define _BITS_REBOOT_H
/** @file
*
* LoongArch64-specific reboot API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_REBOOT_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_SANBOOT_H
#define _BITS_SANBOOT_H
/** @file
*
* LoongArch64-specific sanboot API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_SANBOOT_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_SMBIOS_H
#define _BITS_SMBIOS_H
/** @file
*
* LoongArch64-specific SMBIOS API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_SMBIOS_H */

View File

@ -0,0 +1,23 @@
#ifndef _BITS_STDINT_H
#define _BITS_STDINT_H
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
typedef __SIZE_TYPE__ size_t;
typedef signed long ssize_t;
typedef signed long off_t;
typedef unsigned char uint8_t;
typedef unsigned short uint16_t;
typedef unsigned int uint32_t;
typedef unsigned long long uint64_t;
typedef signed char int8_t;
typedef signed short int16_t;
typedef signed int int32_t;
typedef signed long long int64_t;
typedef unsigned long physaddr_t;
typedef unsigned long intptr_t;
#endif /* _BITS_STDINT_H */

View File

@ -0,0 +1,61 @@
#ifndef _BITS_STRING_H
#define _BITS_STRING_H
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** @file
*
* String functions
*
*/
extern void loong64_bzero ( void *dest, size_t len );
extern void loong64_memset ( void *dest, size_t len, int character );
extern void loong64_memcpy ( void *dest, const void *src, size_t len );
extern void loong64_memmove_forwards ( void *dest, const void *src, size_t len );
extern void loong64_memmove_backwards ( void *dest, const void *src, size_t len );
extern void loong64_memmove ( void *dest, const void *src, size_t len );
/**
* Fill memory region
*
* @v dest Destination region
* @v character Fill character
* @v len Length
* @ret dest Destination region
*/
static inline __attribute__ (( always_inline )) void *
memset ( void *dest, int character, size_t len ) {
loong64_memset ( dest, len, character );
return dest;
}
/**
* Copy memory region
*
* @v dest Destination region
* @v src Source region
* @v len Length
* @ret dest Destination region
*/
static inline __attribute__ (( always_inline )) void *
memcpy ( void *dest, const void *src, size_t len ) {
loong64_memcpy ( dest, src, len );
return dest;
}
/**
* Copy (possibly overlapping) memory region
*
* @v dest Destination region
* @v src Source region
* @v len Length
* @ret dest Destination region
*/
static inline __attribute__ (( always_inline )) void *
memmove ( void *dest, const void *src, size_t len ) {
loong64_memmove ( dest, src, len );
return dest;
}
#endif /* _BITS_STRING_H */

View File

@ -0,0 +1,69 @@
#ifndef _BITS_STRINGS_H
#define _BITS_STRINGS_H
/** @file
*
* String functions
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/**
* Find first (i.e. least significant) set bit
*
* @v value Value
* @ret lsb Least significant bit set in value (LSB=1), or zero
*/
static inline __attribute__ (( always_inline )) int __ffsll ( long long value ){
unsigned long long bits = value;
unsigned long long lsb;
unsigned int lz;
/* Extract least significant set bit */
lsb = ( bits & -bits );
/* Count number of leading zeroes before LSB */
__asm__ ( "clz.d %0, %1" : "=r" ( lz ) : "r" ( lsb ) );
return ( 64 - lz );
}
/**
* Find first (i.e. least significant) set bit
*
* @v value Value
* @ret lsb Least significant bit set in value (LSB=1), or zero
*/
static inline __attribute__ (( always_inline )) int __ffsl ( long value ) {
return __ffsll ( value );
}
/**
* Find last (i.e. most significant) set bit
*
* @v value Value
* @ret msb Most significant bit set in value (LSB=1), or zero
*/
static inline __attribute__ (( always_inline )) int __flsll ( long long value ){
unsigned int lz;
/* Count number of leading zeroes */
__asm__ ( "clz.d %0, %1" : "=r" ( lz ) : "r" ( value ) );
return ( 64 - lz );
}
/**
* Find last (i.e. most significant) set bit
*
* @v value Value
* @ret msb Most significant bit set in value (LSB=1), or zero
*/
static inline __attribute__ (( always_inline )) int __flsl ( long value ) {
return __flsll ( value );
}
#endif /* _BITS_STRINGS_H */

View File

@ -0,0 +1,19 @@
#ifndef _BITS_TCPIP_H
#define _BITS_TCPIP_H
/** @file
*
* Transport-network layer interface
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
static inline __attribute__ (( always_inline )) uint16_t
tcpip_continue_chksum ( uint16_t partial, const void *data, size_t len ) {
/* Not yet optimised */
return generic_tcpip_continue_chksum ( partial, data, len );
}
#endif /* _BITS_TCPIP_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_TIME_H
#define _BITS_TIME_H
/** @file
*
* LoongArch64-specific time API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_TIME_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_UACCESS_H
#define _BITS_UACCESS_H
/** @file
*
* LoongArch64-specific user access API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_UACCESS_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_UART_H
#define _BITS_UART_H
/** @file
*
* 16550-compatible UART
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_UART_H */

View File

@ -0,0 +1,12 @@
#ifndef _BITS_UMALLOC_H
#define _BITS_UMALLOC_H
/** @file
*
* LoongArch64-specific user memory allocation API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#endif /* _BITS_UMALLOC_H */

View File

@ -0,0 +1,13 @@
#ifndef _BITS_XEN_H
#define _BITS_XEN_H
/** @file
*
* Xen interface
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <ipxe/nonxen.h>
#endif /* _BITS_XEN_H */

View File

@ -0,0 +1,45 @@
#ifndef GDBMACH_H
#define GDBMACH_H
/** @file
*
* GDB architecture specifics
*
* This file declares functions for manipulating the machine state and
* debugging context.
*
*/
#include <stdint.h>
typedef unsigned long gdbreg_t;
/* Register snapshot */
enum {
/* Not yet implemented */
GDBMACH_NREGS,
};
#define GDBMACH_SIZEOF_REGS ( GDBMACH_NREGS * sizeof ( gdbreg_t ) )
static inline void gdbmach_set_pc ( gdbreg_t *regs, gdbreg_t pc ) {
/* Not yet implemented */
( void ) regs;
( void ) pc;
}
static inline void gdbmach_set_single_step ( gdbreg_t *regs, int step ) {
/* Not yet implemented */
( void ) regs;
( void ) step;
}
static inline void gdbmach_breakpoint ( void ) {
/* Not yet implemented */
}
extern int gdbmach_set_breakpoint ( int type, unsigned long addr, size_t len,
int enable );
extern void gdbmach_init ( void );
#endif /* GDBMACH_H */

View File

@ -0,0 +1,20 @@
#ifndef _IPXE_EFI_DHCPARCH_H
#define _IPXE_EFI_DHCPARCH_H
/** @file
*
* DHCP client architecture definitions
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <ipxe/dhcp.h>
/** DHCP client architecture */
#define DHCP_ARCH_CLIENT_ARCHITECTURE DHCP_CLIENT_ARCHITECTURE_LOONG64
/** DHCP client network device interface */
#define DHCP_ARCH_CLIENT_NDI 1 /* UNDI */ , 3, 10 /* v3.10 */
#endif /* _IPXE_EFI_DHCPARCH_H */

View File

@ -0,0 +1,53 @@
#ifndef LIMITS_H
#define LIMITS_H 1
/* Number of bits in a `char' */
#define CHAR_BIT 8
/* Minimum and maximum values a `signed char' can hold */
#define SCHAR_MIN (-128)
#define SCHAR_MAX 127
/* Maximum value an `unsigned char' can hold. (Minimum is 0.) */
#define UCHAR_MAX 255
/* Minimum and maximum values a `char' can hold */
#define CHAR_MIN SCHAR_MIN
#define CHAR_MAX SCHAR_MAX
/* Minimum and maximum values a `signed short int' can hold */
#define SHRT_MIN (-32768)
#define SHRT_MAX 32767
/* Maximum value an `unsigned short' can hold. (Minimum is 0.) */
#define USHRT_MAX 65535
/* Minimum and maximum values a `signed int' can hold */
#define INT_MIN (-INT_MAX - 1)
#define INT_MAX 2147483647
/* Maximum value an `unsigned int' can hold. (Minimum is 0.) */
#define UINT_MAX 4294967295U
/* Minimum and maximum values a `signed int' can hold */
#define INT_MAX 2147483647
#define INT_MIN (-INT_MAX - 1)
/* Maximum value an `unsigned int' can hold. (Minimum is 0.) */
#define UINT_MAX 4294967295U
/* Minimum and maximum values a `signed long' can hold */
#define LONG_MAX 9223372036854775807L
#define LONG_MIN (-LONG_MAX - 1L)
/* Maximum value an `unsigned long' can hold. (Minimum is 0.) */
#define ULONG_MAX 18446744073709551615UL
/* Minimum and maximum values a `signed long long' can hold */
#define LLONG_MAX 9223372036854775807LL
#define LLONG_MIN (-LONG_MAX - 1LL)
/* Maximum value an `unsigned long long' can hold. (Minimum is 0.) */
#define ULLONG_MAX 18446744073709551615ULL
#endif /* LIMITS_H */

View File

@ -0,0 +1,31 @@
#ifndef _SETJMP_H
#define _SETJMP_H
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <stdint.h>
/** jump buffer env*/
typedef struct {
uint64_t s0;
uint64_t s1;
uint64_t s2;
uint64_t s3;
uint64_t s4;
uint64_t s5;
uint64_t s6;
uint64_t s7;
uint64_t s8;
uint64_t fp;
uint64_t sp;
uint64_t ra;
} jmp_buf[1];
extern int __asmcall __attribute__ (( returns_twice ))
setjmp ( jmp_buf env );
extern void __asmcall __attribute__ (( noreturn ))
longjmp ( jmp_buf env, int val );
#endif /* _SETJMP_H */

103
src/arch/x86/core/rdrand.c Normal file
View File

@ -0,0 +1,103 @@
/*
* Copyright (C) 2023 Michael Brown <mbrown@fensystems.co.uk>.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License as
* published by the Free Software Foundation; either version 2 of the
* License, or any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA
* 02110-1301, USA.
*
* You can also choose to distribute this program under the terms of
* the Unmodified Binary Distribution Licence (as given in the file
* COPYING.UBDL), provided that you have satisfied its requirements.
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** @file
*
* Hardware random number generator
*
*/
#include <errno.h>
#include <ipxe/cpuid.h>
#include <ipxe/entropy.h>
#include <ipxe/drbg.h>
struct entropy_source rdrand_entropy __entropy_source ( ENTROPY_PREFERRED );
/** Number of times to retry RDRAND instruction */
#define RDRAND_RETRY_COUNT 16
/** Colour for debug messages */
#define colour &rdrand_entropy
/**
* Enable entropy gathering
*
* @ret rc Return status code
*/
static int rdrand_entropy_enable ( void ) {
struct x86_features features;
/* Check that RDRAND is supported */
x86_features ( &features );
if ( ! ( features.intel.ecx & CPUID_FEATURES_INTEL_ECX_RDRAND ) ) {
DBGC ( colour, "RDRAND not supported\n" );
return -ENOTSUP;
}
/* Data returned by RDRAND is theoretically full entropy, up
* to a security strength of 128 bits, so assume that each
* sample contains exactly 8 bits of entropy.
*/
if ( DRBG_SECURITY_STRENGTH > 128 )
return -ENOTSUP;
entropy_init ( &rdrand_entropy, MIN_ENTROPY ( 8.0 ) );
return 0;
}
/**
* Get noise sample
*
* @ret noise Noise sample
* @ret rc Return status code
*/
static int rdrand_get_noise ( noise_sample_t *noise ) {
unsigned int result;
unsigned int discard_c;
unsigned int ok;
/* Issue RDRAND, retrying until CF is set */
__asm__ ( "\n1:\n\t"
"rdrand %0\n\t"
"sbb %1, %1\n\t"
"loopz 1b\n\t"
: "=r" ( result ), "=r" ( ok ), "=c" ( discard_c )
: "2" ( RDRAND_RETRY_COUNT ) );
if ( ! ok ) {
DBGC ( colour, "RDRAND failed to become ready\n" );
return -EBUSY;
}
*noise = result;
return 0;
}
/** Hardware random number generator entropy source */
struct entropy_source rdrand_entropy __entropy_source ( ENTROPY_PREFERRED ) = {
.name = "rdrand",
.enable = rdrand_entropy_enable,
.get_noise = rdrand_get_noise,
};

View File

@ -247,19 +247,17 @@ static void bzimage_update_header ( struct image *image,
*
* @v image bzImage file
* @v bzimg bzImage context
* @v cmdline Kernel command line
* @ret rc Return status code
*/
static int bzimage_parse_cmdline ( struct image *image,
struct bzimage_context *bzimg,
char *cmdline ) {
struct bzimage_context *bzimg ) {
const char *vga;
const char *mem;
char *sep;
char *vga;
char *mem;
char *end;
/* Look for "vga=" */
if ( ( vga = strstr ( cmdline, "vga=" ) ) ) {
vga += 4;
if ( ( vga = image_argument ( image, "vga=" ) ) ) {
sep = strchr ( vga, ' ' );
if ( sep )
*sep = '\0';
@ -270,10 +268,10 @@ static int bzimage_parse_cmdline ( struct image *image,
} else if ( strcmp ( vga, "ask" ) == 0 ) {
bzimg->vid_mode = BZI_VID_MODE_ASK;
} else {
bzimg->vid_mode = strtoul ( vga, &vga, 0 );
if ( *vga ) {
bzimg->vid_mode = strtoul ( vga, &end, 0 );
if ( *end ) {
DBGC ( image, "bzImage %p strange \"vga=\" "
"terminator '%c'\n", image, *vga );
"terminator '%c'\n", image, *end );
}
}
if ( sep )
@ -281,10 +279,9 @@ static int bzimage_parse_cmdline ( struct image *image,
}
/* Look for "mem=" */
if ( ( mem = strstr ( cmdline, "mem=" ) ) ) {
mem += 4;
bzimg->mem_limit = strtoul ( mem, &mem, 0 );
switch ( *mem ) {
if ( ( mem = image_argument ( image, "mem=" ) ) ) {
bzimg->mem_limit = strtoul ( mem, &end, 0 );
switch ( *end ) {
case 'G':
case 'g':
bzimg->mem_limit <<= 10;
@ -302,7 +299,7 @@ static int bzimage_parse_cmdline ( struct image *image,
break;
default:
DBGC ( image, "bzImage %p strange \"mem=\" "
"terminator '%c'\n", image, *mem );
"terminator '%c'\n", image, *end );
break;
}
bzimg->mem_limit -= 1;
@ -316,11 +313,10 @@ static int bzimage_parse_cmdline ( struct image *image,
*
* @v image bzImage image
* @v bzimg bzImage context
* @v cmdline Kernel command line
*/
static void bzimage_set_cmdline ( struct image *image,
struct bzimage_context *bzimg,
const char *cmdline ) {
struct bzimage_context *bzimg ) {
const char *cmdline = ( image->cmdline ? image->cmdline : "" );
size_t cmdline_len;
/* Copy command line down to real-mode portion */
@ -359,8 +355,8 @@ static size_t bzimage_load_initrd ( struct image *image,
size_t offset;
size_t pad_len;
/* Do not include kernel image itself as an initrd */
if ( initrd == image )
/* Skip hidden images */
if ( initrd->flags & IMAGE_HIDDEN )
return 0;
/* Create cpio header for non-prebuilt images */
@ -410,10 +406,6 @@ static int bzimage_check_initrds ( struct image *image,
/* Calculate total loaded length of initrds */
for_each_image ( initrd ) {
/* Skip kernel */
if ( initrd == image )
continue;
/* Calculate length */
len += bzimage_load_initrd ( image, initrd, UNULL );
len = bzimage_align ( len );
@ -528,7 +520,6 @@ static void bzimage_load_initrds ( struct image *image,
*/
static int bzimage_exec ( struct image *image ) {
struct bzimage_context bzimg;
char *cmdline = ( image->cmdline ? image->cmdline : "" );
int rc;
/* Read and parse header from image */
@ -551,7 +542,7 @@ static int bzimage_exec ( struct image *image ) {
}
/* Parse command line for bootloader parameters */
if ( ( rc = bzimage_parse_cmdline ( image, &bzimg, cmdline ) ) != 0)
if ( ( rc = bzimage_parse_cmdline ( image, &bzimg ) ) != 0)
return rc;
/* Check that initrds can be loaded */
@ -568,7 +559,7 @@ static int bzimage_exec ( struct image *image ) {
bzimg.rm_filesz, bzimg.pm_sz );
/* Store command line */
bzimage_set_cmdline ( image, &bzimg, cmdline );
bzimage_set_cmdline ( image, &bzimg );
/* Prepare for exiting. Must do this before loading initrds,
* since loading the initrds will corrupt the external heap.

View File

@ -204,8 +204,8 @@ static int multiboot_add_modules ( struct image *image, physaddr_t start,
break;
}
/* Do not include kernel image itself as a module */
if ( module_image == image )
/* Skip hidden images */
if ( module_image->flags & IMAGE_HIDDEN )
continue;
/* Page-align the module */

View File

@ -1,14 +0,0 @@
#ifndef _BITS_ENTROPY_H
#define _BITS_ENTROPY_H
/** @file
*
* x86-specific entropy API implementations
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <ipxe/rtc_entropy.h>
#endif /* _BITS_ENTROPY_H */

View File

@ -28,6 +28,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#define ERRFILE_cpuid ( ERRFILE_ARCH | ERRFILE_CORE | 0x00110000 )
#define ERRFILE_rdtsc_timer ( ERRFILE_ARCH | ERRFILE_CORE | 0x00120000 )
#define ERRFILE_acpi_timer ( ERRFILE_ARCH | ERRFILE_CORE | 0x00130000 )
#define ERRFILE_rdrand ( ERRFILE_ARCH | ERRFILE_CORE | 0x00140000 )
#define ERRFILE_bootsector ( ERRFILE_ARCH | ERRFILE_IMAGE | 0x00000000 )
#define ERRFILE_bzimage ( ERRFILE_ARCH | ERRFILE_IMAGE | 0x00010000 )

View File

@ -9,6 +9,9 @@
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** Page shift */
#define PAGE_SHIFT 12
#include <ipxe/x86_io.h>
#endif /* _BITS_IO_H */

View File

@ -39,6 +39,9 @@ struct x86_features {
/** Get standard features */
#define CPUID_FEATURES 0x00000001UL
/** RDRAND instruction is supported */
#define CPUID_FEATURES_INTEL_ECX_RDRAND 0x40000000UL
/** Hypervisor is present */
#define CPUID_FEATURES_INTEL_ECX_HYPERVISOR 0x80000000UL

View File

@ -1,62 +0,0 @@
#ifndef _IPXE_RTC_ENTROPY_H
#define _IPXE_RTC_ENTROPY_H
/** @file
*
* RTC-based entropy source
*
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <stdint.h>
#ifdef ENTROPY_RTC
#define ENTROPY_PREFIX_rtc
#else
#define ENTROPY_PREFIX_rtc __rtc_
#endif
/**
* min-entropy per sample
*
* @ret min_entropy min-entropy of each sample
*/
static inline __always_inline min_entropy_t
ENTROPY_INLINE ( rtc, min_entropy_per_sample ) ( void ) {
/* The min-entropy has been measured on several platforms
* using the entropy_sample test code. Modelling the samples
* as independent, and using a confidence level of 99.99%, the
* measurements were as follows:
*
* qemu-kvm : 7.38 bits
* VMware : 7.46 bits
* Physical hardware : 2.67 bits
*
* We choose the lowest of these (2.67 bits) and apply a 50%
* safety margin to allow for some potential non-independence
* of samples.
*/
return MIN_ENTROPY ( 1.3 );
}
extern uint8_t rtc_sample ( void );
/**
* Get noise sample
*
* @ret noise Noise sample
* @ret rc Return status code
*/
static inline __always_inline int
ENTROPY_INLINE ( rtc, get_noise ) ( noise_sample_t *noise ) {
/* Get sample */
*noise = rtc_sample();
/* Always successful */
return 0;
}
#endif /* _IPXE_RTC_ENTROPY_H */

View File

@ -28,9 +28,6 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
*
*/
/** Page shift */
#define PAGE_SHIFT 12
/*
* Physical<->Bus address mappings
*

View File

@ -39,9 +39,14 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <ipxe/cpuid.h>
#include <ipxe/entropy.h>
struct entropy_source rtc_entropy __entropy_source ( ENTROPY_NORMAL );
/** Maximum time to wait for an RTC interrupt, in milliseconds */
#define RTC_MAX_WAIT_MS 100
/** Number of RTC interrupts to check for */
#define RTC_CHECK_COUNT 3
/** RTC interrupt handler */
extern void rtc_isr ( void );
@ -145,6 +150,7 @@ static void rtc_disable_int ( void ) {
* @ret rc Return status code
*/
static int rtc_entropy_check ( void ) {
unsigned int count = 0;
unsigned int i;
/* Check that RTC interrupts are working */
@ -158,14 +164,18 @@ static int rtc_entropy_check ( void ) {
"cli\n\t" );
/* Check for RTC interrupt flag */
if ( rtc_flag )
return 0;
if ( rtc_flag ) {
rtc_flag = 0;
if ( ++count >= RTC_CHECK_COUNT )
return 0;
}
/* Delay */
mdelay ( 1 );
}
DBGC ( &rtc_flag, "RTC timed out waiting for interrupt\n" );
DBGC ( &rtc_flag, "RTC timed out waiting for interrupt %d/%d\n",
( count + 1 ), RTC_CHECK_COUNT );
return -ETIMEDOUT;
}
@ -195,6 +205,21 @@ static int rtc_entropy_enable ( void ) {
if ( ( rc = rtc_entropy_check() ) != 0 )
goto err_check;
/* The min-entropy has been measured on several platforms
* using the entropy_sample test code. Modelling the samples
* as independent, and using a confidence level of 99.99%, the
* measurements were as follows:
*
* qemu-kvm : 7.38 bits
* VMware : 7.46 bits
* Physical hardware : 2.67 bits
*
* We choose the lowest of these (2.67 bits) and apply a 50%
* safety margin to allow for some potential non-independence
* of samples.
*/
entropy_init ( &rtc_entropy, MIN_ENTROPY ( 1.3 ) );
return 0;
err_check:
@ -218,11 +243,12 @@ static void rtc_entropy_disable ( void ) {
}
/**
* Measure a single RTC tick
* Get noise sample
*
* @ret delta Length of RTC tick (in TSC units)
* @ret noise Noise sample
* @ret rc Return status code
*/
uint8_t rtc_sample ( void ) {
static int rtc_get_noise ( noise_sample_t *noise ) {
uint32_t before;
uint32_t after;
uint32_t temp;
@ -257,10 +283,14 @@ uint8_t rtc_sample ( void ) {
: "=a" ( after ), "=d" ( before ), "=Q" ( temp )
: "2" ( 0 ) );
return ( after - before );
*noise = ( after - before );
return 0;
}
PROVIDE_ENTROPY_INLINE ( rtc, min_entropy_per_sample );
PROVIDE_ENTROPY ( rtc, entropy_enable, rtc_entropy_enable );
PROVIDE_ENTROPY ( rtc, entropy_disable, rtc_entropy_disable );
PROVIDE_ENTROPY_INLINE ( rtc, get_noise );
/** RTC entropy source */
struct entropy_source rtc_entropy __entropy_source ( ENTROPY_NORMAL ) = {
.name = "rtc",
.enable = rtc_entropy_enable,
.disable = rtc_entropy_disable,
.get_noise = rtc_get_noise,
};

View File

@ -8,6 +8,9 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#ifndef ASSEMBLY
/** Unprefixed constant operand modifier */
#define ASM_NO_PREFIX "c"
/** Declare a function with standard calling conventions */
#define __asmcall __attribute__ (( regparm(0) ))

View File

@ -290,6 +290,9 @@ REQUIRE_OBJECT ( cert_cmd );
#ifdef IMAGE_MEM_CMD
REQUIRE_OBJECT ( image_mem_cmd );
#endif
#ifdef SHIM_CMD
REQUIRE_OBJECT ( shim_cmd );
#endif
/*
* Drag in miscellaneous objects
@ -352,6 +355,9 @@ REQUIRE_OBJECT ( vram_settings );
#ifdef ACPI_SETTINGS
REQUIRE_OBJECT ( acpi_settings );
#endif
#ifdef EFI_SETTINGS
REQUIRE_OBJECT ( efi_settings );
#endif
/*
* Drag in selected keyboard map

View File

@ -1,10 +1,8 @@
/*
* Copyright (C) 2012 Michael Brown <mbrown@fensystems.co.uk>.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License as
* published by the Free Software Foundation; either version 2 of the
* License, or any later version.
* License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
@ -23,18 +21,31 @@
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <config/entropy.h>
/** @file
*
* Nonexistent entropy source
* Entropy configuration options
*
*
* This source provides no entropy and must NOT be used in a
* security-sensitive environment.
*/
#include <ipxe/entropy.h>
PROVIDE_REQUIRING_SYMBOL();
PROVIDE_ENTROPY_INLINE ( null, min_entropy_per_sample );
PROVIDE_ENTROPY_INLINE ( null, entropy_enable );
PROVIDE_ENTROPY_INLINE ( null, entropy_disable );
PROVIDE_ENTROPY_INLINE ( null, get_noise );
/*
* Drag in entropy sources
*/
#ifdef ENTROPY_RTC
REQUIRE_OBJECT ( rtc_entropy );
#endif
#ifdef ENTROPY_EFITICK
REQUIRE_OBJECT ( efi_entropy );
#endif
#ifdef ENTROPY_EFIRNG
REQUIRE_OBJECT ( efi_rng );
#endif
#ifdef ENTROPY_LINUX
REQUIRE_OBJECT ( linux_entropy );
#endif
#ifdef ENTROPY_RDRAND
REQUIRE_OBJECT ( rdrand );
#endif

View File

@ -49,3 +49,6 @@ REQUIRE_OBJECT ( eth_slow );
#ifdef NET_PROTO_EAPOL
REQUIRE_OBJECT ( eapol );
#endif
#ifdef NET_PROTO_LLDP
REQUIRE_OBJECT ( lldp );
#endif

View File

@ -19,13 +19,15 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#define SMBIOS_EFI
#define SANBOOT_EFI
#define BOFM_EFI
#define ENTROPY_EFI
#define ENTROPY_EFITICK
#define ENTROPY_EFIRNG
#define TIME_EFI
#define REBOOT_EFI
#define ACPI_EFI
#define FDT_EFI
#define NET_PROTO_IPV6 /* IPv6 protocol */
#define NET_PROTO_LLDP /* Link Layer Discovery protocol */
#define DOWNLOAD_PROTO_FILE /* Local filesystem access */
@ -46,9 +48,12 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#define REBOOT_CMD /* Reboot command */
#define EFI_SETTINGS /* EFI variable settings */
#if defined ( __i386__ ) || defined ( __x86_64__ )
#define IOAPI_X86
#define NAP_EFIX86
#define ENTROPY_RDRAND
#define CPUID_CMD /* x86 CPU feature detection command */
#define UNSAFE_STD /* Avoid setting direction flag */
#endif

View File

@ -33,4 +33,8 @@ FILE_LICENCE ( GPL2_OR_LATER );
#define SANBOOT_PROTO_FCP
#define SANBOOT_PROTO_HTTP
#if defined ( __i386__ ) || defined ( __x86_64__ )
#define ENTROPY_RDRAND
#endif
#endif /* CONFIG_DEFAULTS_LINUX_H */

View File

@ -20,6 +20,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#define SMBIOS_PCBIOS
#define SANBOOT_PCBIOS
#define ENTROPY_RTC
#define ENTROPY_RDRAND
#define TIME_RTC
#define REBOOT_PCBIOS
#define ACPI_RSDP

View File

@ -40,6 +40,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#define NET_PROTO_STP /* Spanning Tree protocol */
#define NET_PROTO_LACP /* Link Aggregation control protocol */
#define NET_PROTO_EAPOL /* EAP over LAN protocol */
//#define NET_PROTO_LLDP /* Link Layer Discovery protocol */
/*
* PXE support
@ -149,7 +150,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
//#define POWEROFF_CMD /* Power off command */
//#define IMAGE_TRUST_CMD /* Image trust management commands */
//#define PCI_CMD /* PCI commands */
//#define PARAM_CMD /* Form parameter commands */
//#define PARAM_CMD /* Request parameter commands */
//#define NEIGHBOUR_CMD /* Neighbour management commands */
//#define PING_CMD /* Ping command */
//#define CONSOLE_CMD /* Console command */
@ -159,6 +160,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
//#define CERT_CMD /* Certificate management commands */
//#define IMAGE_MEM_CMD /* Read memory command */
#define IMAGE_ARCHIVE_CMD /* Archive image management commands */
#define SHIM_CMD /* EFI shim command (or dummy command) */
/*
* ROM-specific options

View File

@ -9,6 +9,8 @@
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <config/defaults.h>
#define PCI_SETTINGS /* PCI device settings */
//#define CPUID_SETTINGS /* CPUID settings */
//#define MEMMAP_SETTINGS /* Memory map settings */

View File

@ -77,17 +77,12 @@ size_t cpio_name_len ( struct image *image ) {
*/
static void cpio_parse_cmdline ( struct image *image,
struct cpio_header *cpio ) {
const char *cmdline;
char *arg;
const char *arg;
char *end;
unsigned int mode;
/* Skip image filename */
cmdline = ( cpio_name ( image ) + cpio_name_len ( image ) );
/* Look for "mode=" */
if ( ( arg = strstr ( cmdline, "mode=" ) ) ) {
arg += 5;
if ( ( arg = image_argument ( image, "mode=" ) ) ) {
mode = strtoul ( arg, &end, 8 /* Octal for file mode */ );
if ( *end && ( *end != ' ' ) ) {
DBGC ( image, "CPIO %p strange \"mode=\" "

View File

@ -27,6 +27,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <string.h>
#include <stdlib.h>
#include <stdio.h>
#include <ctype.h>
#include <errno.h>
#include <assert.h>
#include <libgen.h>
@ -55,8 +56,15 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** List of registered images */
struct list_head images = LIST_HEAD_INIT ( images );
/** Image selected for execution */
struct image_tag selected_image __image_tag = {
.name = "SELECTED",
};
/** Currently-executing image */
struct image *current_image;
struct image_tag current_image __image_tag = {
.name = "CURRENT",
};
/** Current image trust requirement */
static int require_trusted_images = 0;
@ -71,8 +79,13 @@ static int require_trusted_images_permanent = 0;
*/
static void free_image ( struct refcnt *refcnt ) {
struct image *image = container_of ( refcnt, struct image, refcnt );
struct image_tag *tag;
DBGC ( image, "IMAGE %s freed\n", image->name );
for_each_table_entry ( tag, IMAGE_TAGS ) {
if ( tag->image == image )
tag->image = NULL;
}
free ( image->name );
free ( image->cmdline );
uri_put ( image->uri );
@ -260,12 +273,6 @@ int register_image ( struct image *image ) {
return rc;
}
/* Avoid ending up with multiple "selected" images on
* re-registration
*/
if ( image_find_selected() )
image->flags &= ~IMAGE_SELECTED;
/* Add to image list */
image_get ( image );
image->flags |= IMAGE_REGISTERED;
@ -311,7 +318,7 @@ void unregister_image ( struct image *image ) {
struct image * find_image ( const char *name ) {
struct image *image;
list_for_each_entry ( image, &images, list ) {
for_each_image ( image ) {
if ( strcmp ( image->name, name ) == 0 )
return image;
}
@ -319,6 +326,23 @@ struct image * find_image ( const char *name ) {
return NULL;
}
/**
* Find image by tag
*
* @v tag Image tag
* @ret image Executable image, or NULL
*/
struct image * find_image_tag ( struct image_tag *tag ) {
struct image *image;
for_each_image ( image ) {
if ( tag->image == image )
return image;
}
return NULL;
}
/**
* Execute image
*
@ -345,14 +369,13 @@ int image_exec ( struct image *image ) {
if ( image->uri )
churi ( image->uri );
/* Preserve record of any currently-running image */
saved_current_image = current_image;
/* Set as currently running image */
saved_current_image = image_tag ( image, &current_image );
/* Take out a temporary reference to the image. This allows
* the image to unregister itself if necessary, without
* automatically freeing itself.
/* Take out a temporary reference to the image, so that it
* does not get freed when temporarily unregistered.
*/
current_image = image_get ( image );
image_get ( image );
/* Check that this image can be executed */
if ( ! ( image->type && image->type->exec ) ) {
@ -370,6 +393,9 @@ int image_exec ( struct image *image ) {
/* Record boot attempt */
syslog ( LOG_NOTICE, "Executing \"%s\"\n", image->name );
/* Temporarily unregister the image during its execution */
unregister_image ( image );
/* Try executing the image */
if ( ( rc = image->type->exec ( image ) ) != 0 ) {
DBGC ( image, "IMAGE %s could not execute: %s\n",
@ -386,6 +412,10 @@ int image_exec ( struct image *image ) {
image->name, strerror ( rc ) );
}
/* Re-register image (unless due to be replaced) */
if ( ! image->replacement )
register_image ( image );
/* Pick up replacement image before we drop the original
* image's temporary reference. The replacement image must
* already be registered, so we don't need to hold a temporary
@ -412,7 +442,7 @@ int image_exec ( struct image *image ) {
image_put ( image );
/* Restore previous currently-running image */
current_image = saved_current_image;
image_tag ( saved_current_image, &current_image );
/* Reset current working directory */
churi ( old_cwuri );
@ -435,7 +465,7 @@ int image_exec ( struct image *image ) {
* registered until the currently-executing image returns.
*/
int image_replace ( struct image *replacement ) {
struct image *image = current_image;
struct image *image = current_image.image;
int rc;
/* Sanity check */
@ -471,37 +501,17 @@ int image_replace ( struct image *replacement ) {
* @ret rc Return status code
*/
int image_select ( struct image *image ) {
struct image *tmp;
/* Unselect all other images */
for_each_image ( tmp )
tmp->flags &= ~IMAGE_SELECTED;
/* Check that this image can be executed */
if ( ! ( image->type && image->type->exec ) )
return -ENOEXEC;
/* Mark image as selected */
image->flags |= IMAGE_SELECTED;
image_tag ( image, &selected_image );
return 0;
}
/**
* Find selected image
*
* @ret image Executable image, or NULL
*/
struct image * image_find_selected ( void ) {
struct image *image;
for_each_image ( image ) {
if ( image->flags & IMAGE_SELECTED )
return image;
}
return NULL;
}
/**
* Change image trust requirement
*
@ -569,3 +579,33 @@ struct image * image_memory ( const char *name, userptr_t data, size_t len ) {
err_alloc_image:
return NULL;
}
/**
* Find argument within image command line
*
* @v image Image
* @v key Argument search key (including trailing delimiter)
* @ret value Argument value, or NULL if not found
*/
const char * image_argument ( struct image *image, const char *key ) {
const char *cmdline = image->cmdline;
const char *search;
const char *match;
const char *next;
/* Find argument */
for ( search = cmdline ; search ; search = next ) {
/* Find next occurrence, if any */
match = strstr ( search, key );
if ( ! match )
break;
next = ( match + strlen ( key ) );
/* Check preceding delimiter, if any */
if ( ( match == cmdline ) || isspace ( match[-1] ) )
return next;
}
return NULL;
}

View File

@ -25,7 +25,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** @file
*
* Form parameters
* Request parameters
*
*/
@ -37,7 +37,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
static LIST_HEAD ( parameters );
/**
* Free form parameter list
* Free request parameter list
*
* @v refcnt Reference count
*/
@ -60,7 +60,7 @@ static void free_parameters ( struct refcnt *refcnt ) {
}
/**
* Find form parameter list by name
* Find request parameter list by name
*
* @v name Parameter list name (may be NULL)
* @ret params Parameter list, or NULL if not found
@ -78,7 +78,7 @@ struct parameters * find_parameters ( const char *name ) {
}
/**
* Create form parameter list
* Create request parameter list
*
* @v name Parameter list name (may be NULL)
* @ret params Parameter list, or NULL on failure
@ -118,15 +118,17 @@ struct parameters * create_parameters ( const char *name ) {
}
/**
* Add form parameter
* Add request parameter
*
* @v params Parameter list
* @v key Parameter key
* @v value Parameter value
* @v flags Parameter flags
* @ret param Parameter, or NULL on failure
*/
struct parameter * add_parameter ( struct parameters *params,
const char *key, const char *value ) {
const char *key, const char *value,
unsigned int flags ) {
struct parameter *param;
size_t key_len;
size_t value_len;
@ -147,11 +149,14 @@ struct parameter * add_parameter ( struct parameters *params,
param->key = key_copy;
strcpy ( value_copy, value );
param->value = value_copy;
param->flags = flags;
/* Add to list of parameters */
list_add_tail ( &param->list, &params->entries );
DBGC ( params, "PARAMS \"%s\" added \"%s\"=\"%s\"\n",
params->name, param->key, param->value );
DBGC ( params, "PARAMS \"%s\" added \"%s\"=\"%s\"%s%s\n",
params->name, param->key, param->value,
( ( param->flags & PARAMETER_FORM ) ? " (form)" : "" ),
( ( param->flags & PARAMETER_HEADER ) ? " (header)" : "" ) );
return param;
}

View File

@ -302,7 +302,7 @@ int parse_autovivified_setting ( char *text, struct named_setting *setting ) {
}
/**
* Parse form parameter list name
* Parse request parameter list name
*
* @v text Text
* @ret params Parameter list

View File

@ -589,6 +589,32 @@ int asn1_signature_algorithm ( const struct asn1_cursor *cursor,
return 0;
}
/**
* Check ASN.1 OID-identified algorithm
*
* @v cursor ASN.1 object cursor
* @v expected Expected algorithm
* @ret rc Return status code
*/
int asn1_check_algorithm ( const struct asn1_cursor *cursor,
struct asn1_algorithm *expected ) {
struct asn1_algorithm *actual;
int rc;
/* Parse algorithm */
if ( ( rc = asn1_algorithm ( cursor, &actual ) ) != 0 )
return rc;
/* Check algorithm matches */
if ( actual != expected ) {
DBGC ( cursor, "ASN1 %p algorithm %s does not match %s\n",
cursor, actual->name, expected->name );
return -ENOTTY_ALGORITHM;
}
return 0;
}
/**
* Parse ASN.1 GeneralizedTime
*

View File

@ -51,59 +51,33 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
__einfo_uniqify ( EINFO_EPIPE, 0x02, "Adaptive proportion test failed" )
/**
* Calculate cutoff value for the repetition count test
* Initialise repetition count test
*
* @ret cutoff Cutoff value
*
* This is the cutoff value for the Repetition Count Test defined in
* ANS X9.82 Part 2 (October 2011 Draft) Section 8.5.2.1.2.
* @v source Entropy source
*/
static inline __attribute__ (( always_inline )) unsigned int
repetition_count_cutoff ( void ) {
double max_repetitions;
unsigned int cutoff;
static void repetition_count_test_init ( struct entropy_source *source ) {
struct entropy_repetition_count_test *test =
&source->repetition_count_test;
/* The cutoff formula for the repetition test is:
*
* C = ( 1 + ( -log2(W) / H_min ) )
*
* where W is set at 2^(-30) (in ANS X9.82 Part 2 (October
* 2011 Draft) Section 8.5.2.1.3.1).
*/
max_repetitions = ( 1 + ( MIN_ENTROPY ( 30 ) /
min_entropy_per_sample() ) );
/* Round up to a whole number of repetitions. We don't have
* the ceil() function available, so do the rounding by hand.
*/
cutoff = max_repetitions;
if ( cutoff < max_repetitions )
cutoff++;
linker_assert ( ( cutoff >= max_repetitions ), rounding_error );
/* Floating-point operations are not allowed in iPXE since we
* never set up a suitable environment. Abort the build
* unless the calculated number of repetitions is a
* compile-time constant.
*/
linker_assert ( __builtin_constant_p ( cutoff ),
repetition_count_cutoff_not_constant );
return cutoff;
/* Sanity checks */
assert ( test->repetition_count == 0 );
assert ( test->cutoff > 0 );
}
/**
* Perform repetition count test
*
* @v source Entropy source
* @v sample Noise sample
* @ret rc Return status code
*
* This is the Repetition Count Test defined in ANS X9.82 Part 2
* (October 2011 Draft) Section 8.5.2.1.2.
*/
static int repetition_count_test ( noise_sample_t sample ) {
static noise_sample_t most_recent_sample;
static unsigned int repetition_count = 0;
static int repetition_count_test ( struct entropy_source *source,
noise_sample_t sample ) {
struct entropy_repetition_count_test *test =
&source->repetition_count_test;
/* A = the most recently seen sample value
* B = the number of times that value A has been seen in a row
@ -116,158 +90,71 @@ static int repetition_count_test ( noise_sample_t sample ) {
* the initial value of most_recent_sample is treated as being
* undefined.)
*/
if ( ( sample == most_recent_sample ) && ( repetition_count > 0 ) ) {
if ( ( sample == test->most_recent_sample ) &&
( test->repetition_count > 0 ) ) {
/* a) If the new sample = A, then B is incremented by one. */
repetition_count++;
test->repetition_count++;
/* i. If B >= C, then an error condition is raised
* due to a failure of the test
*/
if ( repetition_count >= repetition_count_cutoff() )
if ( test->repetition_count >= test->cutoff ) {
DBGC ( source, "ENTROPY %s excessively repeated "
"value %d (%d/%d)\n", source->name, sample,
test->repetition_count, test->cutoff );
return -EPIPE_REPETITION_COUNT_TEST;
}
} else {
/* b) Else:
* i. A = new sample
*/
most_recent_sample = sample;
test->most_recent_sample = sample;
/* ii. B = 1 */
repetition_count = 1;
test->repetition_count = 1;
}
return 0;
}
/**
* Window size for the adaptive proportion test
* Initialise adaptive proportion test
*
* ANS X9.82 Part 2 (October 2011 Draft) Section 8.5.2.1.3.1.1 allows
* five possible window sizes: 16, 64, 256, 4096 and 65536.
*
* We expect to generate relatively few (<256) entropy samples during
* a typical iPXE run; the use of a large window size would mean that
* the test would never complete a single cycle. We use a window size
* of 64, which is the smallest window size that permits values of
* H_min down to one bit per sample.
* @v source Entropy source
*/
#define ADAPTIVE_PROPORTION_WINDOW_SIZE 64
static void adaptive_proportion_test_init ( struct entropy_source *source ) {
struct entropy_adaptive_proportion_test *test =
&source->adaptive_proportion_test;
/**
* Combine adaptive proportion test window size and min-entropy
*
* @v n N (window size)
* @v h H (min-entropy)
* @ret n_h (N,H) combined value
*/
#define APC_N_H( n, h ) ( ( (n) << 8 ) | (h) )
/* Sanity checks */
assert ( test->sample_count == 0 );
assert ( test->repetition_count == 0 );
assert ( test->cutoff > 0 );
/**
* Define a row of the adaptive proportion cutoff table
*
* @v h H (min-entropy)
* @v c16 Cutoff for N=16
* @v c64 Cutoff for N=64
* @v c256 Cutoff for N=256
* @v c4096 Cutoff for N=4096
* @v c65536 Cutoff for N=65536
*/
#define APC_TABLE_ROW( h, c16, c64, c256, c4096, c65536) \
case APC_N_H ( 16, h ) : return c16; \
case APC_N_H ( 64, h ) : return c64; \
case APC_N_H ( 256, h ) : return c256; \
case APC_N_H ( 4096, h ) : return c4096; \
case APC_N_H ( 65536, h ) : return c65536;
/** Value used to represent "N/A" in adaptive proportion cutoff table */
#define APC_NA 0
/**
* Look up value in adaptive proportion test cutoff table
*
* @v n N (window size)
* @v h H (min-entropy)
* @ret cutoff Cutoff
*
* This is the table of cutoff values defined in ANS X9.82 Part 2
* (October 2011 Draft) Section 8.5.2.1.3.1.2.
*/
static inline __attribute__ (( always_inline )) unsigned int
adaptive_proportion_cutoff_lookup ( unsigned int n, unsigned int h ) {
switch ( APC_N_H ( n, h ) ) {
APC_TABLE_ROW ( 1, APC_NA, 51, 168, 2240, 33537 );
APC_TABLE_ROW ( 2, APC_NA, 35, 100, 1193, 17053 );
APC_TABLE_ROW ( 3, 10, 24, 61, 643, 8705 );
APC_TABLE_ROW ( 4, 8, 16, 38, 354, 4473 );
APC_TABLE_ROW ( 5, 6, 12, 25, 200, 2321 );
APC_TABLE_ROW ( 6, 5, 9, 17, 117, 1220 );
APC_TABLE_ROW ( 7, 4, 7, 15, 71, 653 );
APC_TABLE_ROW ( 8, 4, 5, 9, 45, 358 );
APC_TABLE_ROW ( 9, 3, 4, 7, 30, 202 );
APC_TABLE_ROW ( 10, 3, 4, 5, 21, 118 );
APC_TABLE_ROW ( 11, 2, 3, 4, 15, 71 );
APC_TABLE_ROW ( 12, 2, 3, 4, 11, 45 );
APC_TABLE_ROW ( 13, 2, 2, 3, 9, 30 );
APC_TABLE_ROW ( 14, 2, 2, 3, 7, 21 );
APC_TABLE_ROW ( 15, 1, 2, 2, 6, 15 );
APC_TABLE_ROW ( 16, 1, 2, 2, 5, 11 );
APC_TABLE_ROW ( 17, 1, 1, 2, 4, 9 );
APC_TABLE_ROW ( 18, 1, 1, 2, 4, 7 );
APC_TABLE_ROW ( 19, 1, 1, 1, 3, 6 );
APC_TABLE_ROW ( 20, 1, 1, 1, 3, 5 );
default:
return APC_NA;
}
}
/**
* Calculate cutoff value for the adaptive proportion test
*
* @ret cutoff Cutoff value
*
* This is the cutoff value for the Adaptive Proportion Test defined
* in ANS X9.82 Part 2 (October 2011 Draft) Section 8.5.2.1.3.1.2.
*/
static inline __attribute__ (( always_inline )) unsigned int
adaptive_proportion_cutoff ( void ) {
unsigned int h;
unsigned int n;
unsigned int cutoff;
/* Look up cutoff value in cutoff table */
n = ADAPTIVE_PROPORTION_WINDOW_SIZE;
h = ( min_entropy_per_sample() / MIN_ENTROPY_SCALE );
cutoff = adaptive_proportion_cutoff_lookup ( n, h );
/* Fail unless cutoff value is a build-time constant */
linker_assert ( __builtin_constant_p ( cutoff ),
adaptive_proportion_cutoff_not_constant );
/* Fail if cutoff value is N/A */
linker_assert ( ( cutoff != APC_NA ),
adaptive_proportion_cutoff_not_applicable );
return cutoff;
/* Ensure that a new test run starts immediately */
test->sample_count = ADAPTIVE_PROPORTION_WINDOW_SIZE;
}
/**
* Perform adaptive proportion test
*
* @v source Entropy source
* @v sample Noise sample
* @ret rc Return status code
*
* This is the Adaptive Proportion Test for the Most Common Value
* defined in ANS X9.82 Part 2 (October 2011 Draft) Section 8.5.2.1.3.
*/
static int adaptive_proportion_test ( noise_sample_t sample ) {
static noise_sample_t current_counted_sample;
static unsigned int sample_count = ADAPTIVE_PROPORTION_WINDOW_SIZE;
static unsigned int repetition_count;
static int adaptive_proportion_test ( struct entropy_source *source,
noise_sample_t sample ) {
struct entropy_adaptive_proportion_test *test =
&source->adaptive_proportion_test;
/* A = the sample value currently being counted
* B = the number of samples examined in this run of the test so far
* S = the number of samples examined in this run of the test so far
* N = the total number of samples that must be observed in
* one run of the test, also known as the "window size" of
* the test
@ -284,37 +171,41 @@ static int adaptive_proportion_test ( noise_sample_t sample ) {
*/
/* 2. If S = N, then a new run of the test begins: */
if ( sample_count == ADAPTIVE_PROPORTION_WINDOW_SIZE ) {
if ( test->sample_count == ADAPTIVE_PROPORTION_WINDOW_SIZE ) {
/* a. A = the current sample */
current_counted_sample = sample;
test->current_counted_sample = sample;
/* b. S = 0 */
sample_count = 0;
test->sample_count = 0;
/* c. B = 0 */
repetition_count = 0;
test->repetition_count = 0;
} else {
/* Else: (the test is already running)
* a. S = S + 1
*/
sample_count++;
test->sample_count++;
/* b. If A = the current sample, then: */
if ( sample == current_counted_sample ) {
if ( sample == test->current_counted_sample ) {
/* i. B = B + 1 */
repetition_count++;
test->repetition_count++;
/* ii. If S (sic) > C then raise an error
* condition, because the test has
* detected a failure
*/
if ( repetition_count > adaptive_proportion_cutoff() )
if ( test->repetition_count > test->cutoff ) {
DBGC ( source, "ENTROPY %s excessively "
"repeated value %d (%d/%d)\n",
source->name, sample,
test->repetition_count, test->cutoff );
return -EPIPE_ADAPTIVE_PROPORTION_TEST;
}
}
}
@ -324,62 +215,180 @@ static int adaptive_proportion_test ( noise_sample_t sample ) {
/**
* Get entropy sample
*
* @v source Entropy source
* @ret entropy Entropy sample
* @ret rc Return status code
*
* This is the GetEntropy function defined in ANS X9.82 Part 2
* (October 2011 Draft) Section 6.5.1.
*/
static int get_entropy ( entropy_sample_t *entropy ) {
static int rc = 0;
static int get_entropy ( struct entropy_source *source,
entropy_sample_t *entropy ) {
noise_sample_t noise;
int rc;
/* Any failure is permanent */
if ( rc != 0 )
return rc;
if ( ( rc = source->rc ) != 0 )
goto err_broken;
/* Get noise sample */
if ( ( rc = get_noise ( &noise ) ) != 0 )
return rc;
if ( ( rc = get_noise ( source, &noise ) ) != 0 )
goto err_get_noise;
/* Perform Repetition Count Test and Adaptive Proportion Test
* as mandated by ANS X9.82 Part 2 (October 2011 Draft)
* Section 8.5.2.1.1.
*/
if ( ( rc = repetition_count_test ( noise ) ) != 0 )
return rc;
if ( ( rc = adaptive_proportion_test ( noise ) ) != 0 )
return rc;
if ( ( rc = repetition_count_test ( source, noise ) ) != 0 )
goto err_repetition_count_test;
if ( ( rc = adaptive_proportion_test ( source, noise ) ) != 0 )
goto err_adaptive_proportion_test;
/* We do not use any optional conditioning component */
*entropy = noise;
return 0;
err_adaptive_proportion_test:
err_repetition_count_test:
err_get_noise:
source->rc = rc;
err_broken:
return rc;
}
/**
* Calculate number of samples required for startup tests
* Initialise startup test
*
* @ret num_samples Number of samples required
*
* ANS X9.82 Part 2 (October 2011 Draft) Section 8.5.2.1.5 requires
* that at least one full cycle of the continuous tests must be
* performed at start-up.
* @v source Entropy source
*/
static inline __attribute__ (( always_inline )) unsigned int
startup_test_count ( void ) {
unsigned int num_samples;
static void startup_test_init ( struct entropy_source *source ) {
struct entropy_startup_test *test = &source->startup_test;
/* At least max(N,C) samples shall be generated by the noise
* source for start-up testing.
*/
num_samples = repetition_count_cutoff();
if ( num_samples < adaptive_proportion_cutoff() )
num_samples = adaptive_proportion_cutoff();
linker_assert ( __builtin_constant_p ( num_samples ),
startup_test_count_not_constant );
/* Sanity check */
assert ( test->tested == 0 );
assert ( test->count > 0 );
}
return num_samples;
/**
* Perform startup test
*
* @v source Entropy source
* @ret rc Return status code
*/
static int startup_test ( struct entropy_source *source ) {
struct entropy_startup_test *test = &source->startup_test;
entropy_sample_t sample;
int rc;
/* Perform mandatory number of startup tests */
for ( ; test->tested < test->count ; test->tested++ ) {
if ( ( rc = get_entropy ( source, &sample ) ) != 0 ) {
DBGC ( source, "ENTROPY %s failed: %s\n",
source->name, strerror ( rc ) );
return rc;
}
}
return 0;
}
/**
* Enable entropy gathering
*
* @v source Entropy source
* @ret rc Return status code
*/
int entropy_enable ( struct entropy_source *source ) {
int rc;
/* Refuse to enable a previously failed source */
if ( ( rc = source->rc ) != 0 )
return rc;
/* Enable entropy source */
if ( ( rc = source->enable() ) != 0 ) {
DBGC ( source, "ENTROPY %s could not enable: %s\n",
source->name, strerror ( rc ) );
source->rc = rc;
return rc;
}
/* Sanity check */
assert ( source->min_entropy_per_sample > 0 );
/* Initialise test state if this source has not previously been used */
if ( source->startup_test.tested == 0 ) {
repetition_count_test_init ( source );
adaptive_proportion_test_init ( source );
startup_test_init ( source );
}
DBGC ( source, "ENTROPY %s enabled\n", source->name );
return 0;
}
/**
* Enable and test entropy source
*
* @v source Entropy source
* @ret rc Return status code
*/
static int entropy_enable_and_test ( struct entropy_source *source ) {
int rc;
/* Enable source */
if ( ( rc = entropy_enable ( source ) ) != 0 )
goto err_enable;
/* Test source */
if ( ( rc = startup_test ( source ) ) != 0 )
goto err_test;
DBGC ( source, "ENTROPY %s passed %d startup tests\n",
source->name, source->startup_test.count );
return 0;
err_test:
entropy_disable ( source );
err_enable:
assert ( source->rc == rc );
return rc;
}
/**
* Enable first working entropy source
*
* @v source Entropy source to fill in
* @ret rc Return status code
*/
static int entropy_enable_working ( struct entropy_source **source ) {
int rc;
/* Find the first working source */
rc = -ENOENT;
for_each_table_entry ( *source, ENTROPY_SOURCES ) {
if ( ( rc = entropy_enable_and_test ( *source ) ) == 0 )
return 0;
}
DBGC ( *source, "ENTROPY has no working sources: %s\n",
strerror ( rc ) );
return rc;
}
/**
* Disable entropy gathering
*
* @v source Entropy source
*/
void entropy_disable ( struct entropy_source *source ) {
/* Disable entropy gathering, if applicable */
if ( source->disable )
source->disable();
DBGC ( source, "ENTROPY %s disabled\n", source->name );
}
/**
@ -402,7 +411,7 @@ static uint32_t make_next_nonce ( void ) {
/**
* Obtain entropy input temporary buffer
*
* @v num_samples Number of entropy samples
* @v min_entropy Min-entropy required
* @v tmp Temporary buffer
* @v tmp_len Length of temporary buffer
* @ret rc Return status code
@ -412,47 +421,41 @@ static uint32_t make_next_nonce ( void ) {
* and condensing each entropy source output after each GetEntropy
* call) as defined in ANS X9.82 Part 4 (April 2011 Draft) Section
* 13.3.4.2.
*
* To minimise code size, the number of samples required is calculated
* at compilation time.
*/
int get_entropy_input_tmp ( unsigned int num_samples, uint8_t *tmp,
int get_entropy_input_tmp ( min_entropy_t min_entropy, uint8_t *tmp,
size_t tmp_len ) {
static unsigned int startup_tested = 0;
struct entropy_source *source;
struct {
uint32_t nonce;
entropy_sample_t sample;
} __attribute__ (( packed )) data;;
uint8_t df_buf[tmp_len];
min_entropy_t entropy_total;
unsigned int num_samples;
unsigned int i;
int rc;
/* Enable entropy gathering */
if ( ( rc = entropy_enable() ) != 0 )
return rc;
if ( ( rc = entropy_enable_working ( &source ) ) != 0 )
goto err_enable_working;
/* Perform mandatory startup tests, if not yet performed */
for ( ; startup_tested < startup_test_count() ; startup_tested++ ) {
if ( ( rc = get_entropy ( &data.sample ) ) != 0 )
goto err_get_entropy;
}
/* Sanity checks */
assert ( source->startup_test.count > 0 );
assert ( source->startup_test.tested >= source->startup_test.count );
/* 3. entropy_total = 0
*
* (Nothing to do; the number of entropy samples required has
* already been precalculated.)
*/
/* 3. entropy_total = 0 */
entropy_total = MIN_ENTROPY ( 0 );
/* 4. tmp = a fixed n-bit value, such as 0^n */
memset ( tmp, 0, tmp_len );
/* 5. While ( entropy_total < min_entropy ) */
while ( num_samples-- ) {
for ( num_samples = 0 ; entropy_total < min_entropy ; num_samples++ ) {
/* 5.1. ( status, entropy_bitstring, assessed_entropy )
* = GetEntropy()
* 5.2. If status indicates an error, return ( status, Null )
*/
if ( ( rc = get_entropy ( &data.sample ) ) != 0 )
if ( ( rc = get_entropy ( source, &data.sample ) ) != 0 )
goto err_get_entropy;
/* 5.3. nonce = MakeNextNonce() */
@ -466,19 +469,26 @@ int get_entropy_input_tmp ( unsigned int num_samples, uint8_t *tmp,
for ( i = 0 ; i < tmp_len ; i++ )
tmp[i] ^= df_buf[i];
/* 5.5. entropy_total = entropy_total + assessed_entropy
*
* (Nothing to do; the number of entropy samples
* required has already been precalculated.)
*/
/* 5.5. entropy_total = entropy_total + assessed_entropy */
entropy_total += source->min_entropy_per_sample;
}
/* Disable entropy gathering */
entropy_disable();
entropy_disable ( source );
DBGC ( source, "ENTROPY %s gathered %d bits in %d samples\n",
source->name, ( min_entropy / MIN_ENTROPY_SCALE ), num_samples );
return 0;
err_get_entropy:
entropy_disable();
entropy_disable ( source );
assert ( source->rc == rc );
err_enable_working:
return rc;
}
/* Drag in objects via entropy_enable */
REQUIRING_SYMBOL ( entropy_enable );
/* Drag in entropy configuration */
REQUIRE_OBJECT ( config_entropy );

View File

@ -164,7 +164,7 @@ static int rsa_parse_mod_exp ( struct asn1_cursor *modulus,
int is_private;
int rc;
/* Enter subjectPublicKeyInfo/RSAPrivateKey */
/* Enter subjectPublicKeyInfo/privateKeyInfo/RSAPrivateKey */
memcpy ( &cursor, raw, sizeof ( cursor ) );
asn1_enter ( &cursor, ASN1_SEQUENCE );
@ -177,6 +177,23 @@ static int rsa_parse_mod_exp ( struct asn1_cursor *modulus,
/* Skip version */
asn1_skip_any ( &cursor );
/* Enter privateKey, if present */
if ( asn1_check_algorithm ( &cursor,
&rsa_encryption_algorithm ) == 0 ) {
/* Skip privateKeyAlgorithm */
asn1_skip_any ( &cursor );
/* Enter privateKey */
asn1_enter ( &cursor, ASN1_OCTET_STRING );
/* Enter RSAPrivateKey */
asn1_enter ( &cursor, ASN1_SEQUENCE );
/* Skip version */
asn1_skip ( &cursor, ASN1_INTEGER );
}
} else {
/* Public key */

View File

@ -609,6 +609,7 @@ static void scsicmd_read_capacity_cmd ( struct scsi_command *scsicmd,
*/
static void scsicmd_read_capacity_done ( struct scsi_command *scsicmd,
int rc ) {
struct scsi_device *scsidev = scsicmd->scsidev;
struct scsi_read_capacity_private *priv = scsicmd_priv ( scsicmd );
struct scsi_capacity_16 *capacity16 = &priv->capacity.capacity16;
struct scsi_capacity_10 *capacity10 = &priv->capacity.capacity10;
@ -645,6 +646,9 @@ static void scsicmd_read_capacity_done ( struct scsi_command *scsicmd,
}
capacity.max_count = -1U;
/* Allow transport layer to update capacity */
block_capacity ( &scsidev->scsi, &capacity );
/* Return capacity to caller */
block_capacity ( &scsicmd->block, &capacity );

View File

@ -98,8 +98,16 @@ static void eisa_remove ( struct eisa_device *eisa ) {
static int eisabus_probe ( struct root_device *rootdev ) {
struct eisa_device *eisa = NULL;
unsigned int slot;
uint8_t system;
int rc;
/* Check for EISA system board */
system = inb ( EISA_VENDOR_ID );
if ( system & 0x80 ) {
DBG ( "No EISA system board (read %02x)\n", system );
return -ENODEV;
}
for ( slot = EISA_MIN_SLOT ; slot <= EISA_MAX_SLOT ; slot++ ) {
/* Allocate struct eisa_device */
if ( ! eisa )

View File

@ -290,6 +290,18 @@ static int intel_reset ( struct intel_nic *intel ) {
pba, readl ( intel->regs + INTEL_PBA ) );
}
/* The Intel I210's packet buffer size registers reset only on
* power up. If an operating system changes these but then
* the computer recieves a reset signal without losing power,
* the registers will stay the same (but be incompatible with
* other register defaults), thus making the device unable to
* pass traffic.
*/
if ( intel->flags & INTEL_PBSIZE_RST ) {
writel ( INTEL_RXPBS_I210, intel->regs + INTEL_RXPBS );
writel ( INTEL_TXPBS_I210, intel->regs + INTEL_TXPBS );
}
/* Always reset MAC. Required to reset the TX and RX rings. */
writel ( ( ctrl | INTEL_CTRL_RST ), intel->regs + INTEL_CTRL );
mdelay ( INTEL_RESET_DELAY_MS );
@ -1139,7 +1151,7 @@ static struct pci_device_id intel_nics[] = {
PCI_ROM ( 0x8086, 0x1525, "82567v-4", "82567V-4", 0 ),
PCI_ROM ( 0x8086, 0x1526, "82576-5", "82576", 0 ),
PCI_ROM ( 0x8086, 0x1527, "82580-f2", "82580 Fiber", 0 ),
PCI_ROM ( 0x8086, 0x1533, "i210", "I210", 0 ),
PCI_ROM ( 0x8086, 0x1533, "i210", "I210", INTEL_PBSIZE_RST ),
PCI_ROM ( 0x8086, 0x1539, "i211", "I211", 0 ),
PCI_ROM ( 0x8086, 0x153a, "i217lm", "I217-LM", INTEL_NO_PHY_RST ),
PCI_ROM ( 0x8086, 0x153b, "i217v", "I217-V", 0 ),
@ -1147,7 +1159,7 @@ static struct pci_device_id intel_nics[] = {
PCI_ROM ( 0x8086, 0x155a, "i218lm", "I218-LM", INTEL_NO_PHY_RST ),
PCI_ROM ( 0x8086, 0x156f, "i219lm", "I219-LM", INTEL_I219 ),
PCI_ROM ( 0x8086, 0x1570, "i219v", "I219-V", INTEL_I219 ),
PCI_ROM ( 0x8086, 0x157b, "i210-2", "I210", 0 ),
PCI_ROM ( 0x8086, 0x157b, "i210-2", "I210", INTEL_PBSIZE_RST ),
PCI_ROM ( 0x8086, 0x15a0, "i218lm-2", "I218-LM", INTEL_NO_PHY_RST ),
PCI_ROM ( 0x8086, 0x15a1, "i218v-2", "I218-V", 0 ),
PCI_ROM ( 0x8086, 0x15a2, "i218lm-3", "I218-LM", INTEL_NO_PHY_RST ),

View File

@ -138,6 +138,10 @@ struct intel_descriptor {
/** Packet Buffer Size */
#define INTEL_PBS 0x01008UL
/** Receive packet buffer size */
#define INTEL_RXPBS 0x02404UL
#define INTEL_RXPBS_I210 0x000000a2UL /**< I210 power-up default */
/** Receive Descriptor register block */
#define INTEL_RD 0x02800UL
@ -154,6 +158,10 @@ struct intel_descriptor {
/** Receive buffer length */
#define INTEL_RX_MAX_LEN 2048
/** Transmit packet buffer size */
#define INTEL_TXPBS 0x03404UL
#define INTEL_TXPBS_I210 0x04000014UL /**< I210 power-up default */
/** Transmit Descriptor register block */
#define INTEL_TD 0x03800UL
@ -319,6 +327,8 @@ enum intel_flags {
INTEL_NO_ASDE = 0x0008,
/** Reset may cause a complete device hang */
INTEL_RST_HANG = 0x0010,
/** PBSIZE registers must be explicitly reset */
INTEL_PBSIZE_RST = 0x0020,
};
/** The i219 has a seriously broken reset mechanism */

View File

@ -473,6 +473,7 @@ static struct pci_device_id intelx_nics[] = {
PCI_ROM ( 0x8086, 0x10f9, "82599-cx4", "82599 (CX4)", 0 ),
PCI_ROM ( 0x8086, 0x10fb, "82599-sfp", "82599 (SFI/SFP+)", 0 ),
PCI_ROM ( 0x8086, 0x10fc, "82599-xaui", "82599 (XAUI/BX4)", 0 ),
PCI_ROM ( 0x8086, 0x151c, "82599-tn", "82599 (TN)", 0 ),
PCI_ROM ( 0x8086, 0x1528, "x540t", "X540-AT2/X540-BT2", 0 ),
PCI_ROM ( 0x8086, 0x154d, "82599-sfp-sf2", "82599 (SFI/SFP+)", 0 ),
PCI_ROM ( 0x8086, 0x1557, "82599en-sfp", "82599 (Single Port SFI Only)", 0 ),

View File

@ -129,7 +129,7 @@ static int imgsingle_exec ( int argc, char **argv,
&image ) ) != 0 )
goto err_acquire;
} else {
image = image_find_selected();
image = find_image_tag ( &selected_image );
if ( ! image ) {
printf ( "No image selected\n" );
goto err_acquire;

View File

@ -25,7 +25,7 @@ FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
/** @file
*
* Form parameter commands
* Request parameter commands
*
*/
@ -90,12 +90,16 @@ static int params_exec ( int argc, char **argv ) {
struct param_options {
/** Parameter list name */
char *params;
/** Parameter is a header */
int header;
};
/** "param" option list */
static struct option_descriptor param_opts[] = {
OPTION_DESC ( "params", 'p', required_argument,
struct param_options, params, parse_string ),
OPTION_DESC ( "header", 'H', no_argument,
struct param_options, header, parse_flag ),
};
/** "param" command descriptor */
@ -114,6 +118,7 @@ static int param_exec ( int argc, char **argv ) {
struct param_options opts;
char *key;
char *value;
unsigned int flags;
struct parameters *params;
struct parameter *param;
int rc;
@ -132,12 +137,15 @@ static int param_exec ( int argc, char **argv ) {
goto err_parse_value;
}
/* Construct flags */
flags = ( opts.header ? PARAMETER_HEADER : PARAMETER_FORM );
/* Identify parameter list */
if ( ( rc = parse_parameters ( opts.params, &params ) ) != 0 )
goto err_parse_parameters;
/* Add parameter */
param = add_parameter ( params, key, value );
param = add_parameter ( params, key, value, flags );
if ( ! param ) {
rc = -ENOMEM;
goto err_add_parameter;
@ -154,7 +162,7 @@ static int param_exec ( int argc, char **argv ) {
return rc;
}
/** Form parameter commands */
/** Request parameter commands */
struct command param_commands[] __command = {
{
.name = "params",

131
src/hci/commands/shim_cmd.c Normal file
View File

@ -0,0 +1,131 @@
/*
* Copyright (C) 2023 Michael Brown <mbrown@fensystems.co.uk>.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License as
* published by the Free Software Foundation; either version 2 of the
* License, or any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA
* 02110-1301, USA.
*
* You can also choose to distribute this program under the terms of
* the Unmodified Binary Distribution Licence (as given in the file
* COPYING.UBDL), provided that you have satisfied its requirements.
*/
FILE_LICENCE ( GPL2_OR_LATER_OR_UBDL );
#include <getopt.h>
#include <ipxe/command.h>
#include <ipxe/parseopt.h>
#include <ipxe/efi/efi_image.h>
#include <usr/imgmgmt.h>
#include <usr/shimmgmt.h>
/** @file
*
* EFI shim command
*
*/
/* Exist as a dummy command on non-EFI platforms */
#ifdef PLATFORM_efi
#define shim_dummy 0
#else
#define shim_dummy 1
#endif
/** "shim" options */
struct shim_options {
/** Download timeout */
unsigned long timeout;
/** Require third party loader */
int require_loader;
/** Allow PXE base code protocol */
int allow_pxe;
/** Allow SBAT variable access */
int allow_sbat;
};
/** "shim" option list */
static struct option_descriptor shim_opts[] = {
OPTION_DESC ( "timeout", 't', required_argument,
struct shim_options, timeout, parse_timeout ),
OPTION_DESC ( "require-loader", 'l', no_argument,
struct shim_options, require_loader, parse_flag ),
OPTION_DESC ( "allow-pxe", 'p', no_argument,
struct shim_options, allow_pxe, parse_flag ),
OPTION_DESC ( "allow-sbat", 's', no_argument,
struct shim_options, allow_sbat, parse_flag ),
};
/** "shim" command descriptor */
static struct command_descriptor shim_cmd =
COMMAND_DESC ( struct shim_options, shim_opts, 0, 1, NULL );
/**
* The "shim" command
*
* @v argc Argument count
* @v argv Argument list
* @ret rc Return status code
*/
static int shim_exec ( int argc, char **argv ) {
struct shim_options opts;
struct image *image = NULL;
struct image *kernel;
char *name_uri;
int download;
int rc;
/* Do absolutely nothing if this is a non-EFI platform */
if ( shim_dummy ) {
rc = 0;
goto err_dummy;
}
/* Parse options */
if ( ( rc = parse_options ( argc, argv, &shim_cmd, &opts ) ) != 0 )
goto err_parse;
/* Decide whether or not to download images */
kernel = find_image_tag ( &selected_image );
download = ( ! ( kernel && efi_can_load ( kernel ) ) );
/* Parse name/URI string */
name_uri = argv[optind];
/* Acquire image, if applicable */
if ( download && name_uri &&
( ( rc = imgacquire ( name_uri, opts.timeout,
&image ) ) != 0 ) ) {
goto err_image;
}
/* (Un)register as shim */
if ( ( rc = shim ( image, opts.require_loader, opts.allow_pxe,
opts.allow_sbat ) ) != 0 )
goto err_shim;
err_shim:
err_image:
err_parse:
err_dummy:
return rc;
}
/** Shim commands */
struct command shim_commands[] __command = {
{
.name = "shim",
.exec = shim_exec,
},
};

View File

@ -31,6 +31,8 @@ FILE_LICENCE ( GPL2_OR_LATER );
#include <ipxe/efi/efi_wrap.h>
#include <ipxe/efi/efi_pxe.h>
#include <ipxe/efi/efi_driver.h>
#include <ipxe/efi/efi_image.h>
#include <ipxe/efi/efi_shim.h>
#include <ipxe/image.h>
#include <ipxe/init.h>
#include <ipxe/features.h>
@ -109,18 +111,14 @@ efi_image_path ( struct image *image, EFI_DEVICE_PATH_PROTOCOL *parent ) {
*/
static wchar_t * efi_image_cmdline ( struct image *image ) {
wchar_t *cmdline;
size_t len;
len = ( strlen ( image->name ) +
( image->cmdline ?
( 1 /* " " */ + strlen ( image->cmdline ) ) : 0 ) );
cmdline = zalloc ( ( len + 1 /* NUL */ ) * sizeof ( wchar_t ) );
if ( ! cmdline )
/* Allocate and construct command line */
if ( efi_asprintf ( &cmdline, "%s%s%s", image->name,
( image->cmdline ? " " : "" ),
( image->cmdline ? image->cmdline : "" ) ) < 0 ) {
return NULL;
efi_snprintf ( cmdline, ( len + 1 /* NUL */ ), "%s%s%s",
image->name,
( image->cmdline ? " " : "" ),
( image->cmdline ? image->cmdline : "" ) );
}
return cmdline;
}
@ -138,47 +136,65 @@ static int efi_image_exec ( struct image *image ) {
EFI_LOADED_IMAGE_PROTOCOL *image;
void *interface;
} loaded;
struct image *shim;
struct image *exec;
EFI_HANDLE handle;
EFI_MEMORY_TYPE type;
wchar_t *cmdline;
unsigned int toggle;
EFI_STATUS efirc;
int rc;
/* Find an appropriate device handle to use */
snpdev = last_opened_snpdev();
if ( ! snpdev ) {
DBGC ( image, "EFIIMAGE %p could not identify SNP device\n",
image );
DBGC ( image, "EFIIMAGE %s could not identify SNP device\n",
image->name );
rc = -ENODEV;
goto err_no_snpdev;
}
/* Use shim instead of directly executing image if applicable */
shim = ( efi_can_load ( image ) ?
NULL : find_image_tag ( &efi_shim ) );
exec = ( shim ? shim : image );
if ( shim ) {
DBGC ( image, "EFIIMAGE %s executing via %s\n",
image->name, shim->name );
}
/* Re-register as a hidden image to allow for access via file I/O */
toggle = ( ~image->flags & IMAGE_HIDDEN );
image->flags |= IMAGE_HIDDEN;
if ( ( rc = register_image ( image ) ) != 0 )
goto err_register_image;
/* Install file I/O protocols */
if ( ( rc = efi_file_install ( snpdev->handle ) ) != 0 ) {
DBGC ( image, "EFIIMAGE %p could not install file protocol: "
"%s\n", image, strerror ( rc ) );
DBGC ( image, "EFIIMAGE %s could not install file protocol: "
"%s\n", image->name, strerror ( rc ) );
goto err_file_install;
}
/* Install PXE base code protocol */
if ( ( rc = efi_pxe_install ( snpdev->handle, snpdev->netdev ) ) != 0 ){
DBGC ( image, "EFIIMAGE %p could not install PXE protocol: "
"%s\n", image, strerror ( rc ) );
DBGC ( image, "EFIIMAGE %s could not install PXE protocol: "
"%s\n", image->name, strerror ( rc ) );
goto err_pxe_install;
}
/* Install iPXE download protocol */
if ( ( rc = efi_download_install ( snpdev->handle ) ) != 0 ) {
DBGC ( image, "EFIIMAGE %p could not install iPXE download "
"protocol: %s\n", image, strerror ( rc ) );
DBGC ( image, "EFIIMAGE %s could not install iPXE download "
"protocol: %s\n", image->name, strerror ( rc ) );
goto err_download_install;
}
/* Create device path for image */
path = efi_image_path ( image, snpdev->path );
path = efi_image_path ( exec, snpdev->path );
if ( ! path ) {
DBGC ( image, "EFIIMAGE %p could not create device path\n",
image );
DBGC ( image, "EFIIMAGE %s could not create device path\n",
image->name );
rc = -ENOMEM;
goto err_image_path;
}
@ -186,21 +202,30 @@ static int efi_image_exec ( struct image *image ) {
/* Create command line for image */
cmdline = efi_image_cmdline ( image );
if ( ! cmdline ) {
DBGC ( image, "EFIIMAGE %p could not create command line\n",
image );
DBGC ( image, "EFIIMAGE %s could not create command line\n",
image->name );
rc = -ENOMEM;
goto err_cmdline;
}
/* Install shim special handling if applicable */
if ( shim &&
( ( rc = efi_shim_install ( shim, snpdev->handle,
&cmdline ) ) != 0 ) ){
DBGC ( image, "EFIIMAGE %s could not install shim handling: "
"%s\n", image->name, strerror ( rc ) );
goto err_shim_install;
}
/* Attempt loading image */
handle = NULL;
if ( ( efirc = bs->LoadImage ( FALSE, efi_image_handle, path,
user_to_virt ( image->data, 0 ),
image->len, &handle ) ) != 0 ) {
user_to_virt ( exec->data, 0 ),
exec->len, &handle ) ) != 0 ) {
/* Not an EFI image */
rc = -EEFI_LOAD ( efirc );
DBGC ( image, "EFIIMAGE %p could not load: %s\n",
image, strerror ( rc ) );
DBGC ( image, "EFIIMAGE %s could not load: %s\n",
image->name, strerror ( rc ) );
if ( efirc == EFI_SECURITY_VIOLATION ) {
goto err_load_image_security_violation;
} else {
@ -220,8 +245,8 @@ static int efi_image_exec ( struct image *image ) {
/* Some EFI 1.10 implementations seem not to fill in DeviceHandle */
if ( loaded.image->DeviceHandle == NULL ) {
DBGC ( image, "EFIIMAGE %p filling in missing DeviceHandle\n",
image );
DBGC ( image, "EFIIMAGE %s filling in missing DeviceHandle\n",
image->name );
loaded.image->DeviceHandle = snpdev->handle;
}
@ -251,14 +276,14 @@ static int efi_image_exec ( struct image *image ) {
/* Start the image */
if ( ( efirc = bs->StartImage ( handle, NULL, NULL ) ) != 0 ) {
rc = -EEFI_START ( efirc );
DBGC ( image, "EFIIMAGE %p could not start (or returned with "
"error): %s\n", image, strerror ( rc ) );
DBGC ( image, "EFIIMAGE %s could not start (or returned with "
"error): %s\n", image->name, strerror ( rc ) );
goto err_start_image;
}
/* If image was a driver, connect it up to anything available */
if ( type == EfiBootServicesCode ) {
DBGC ( image, "EFIIMAGE %p connecting drivers\n", image );
DBGC ( image, "EFIIMAGE %s connecting drivers\n", image->name );
efi_driver_reconnect_all();
}
@ -286,6 +311,9 @@ static int efi_image_exec ( struct image *image ) {
if ( rc != 0 )
bs->UnloadImage ( handle );
err_load_image:
if ( shim )
efi_shim_uninstall();
err_shim_install:
free ( cmdline );
err_cmdline:
free ( path );
@ -296,6 +324,9 @@ static int efi_image_exec ( struct image *image ) {
err_pxe_install:
efi_file_uninstall ( snpdev->handle );
err_file_install:
unregister_image ( image );
err_register_image:
image->flags ^= toggle;
err_no_snpdev:
return rc;
}
@ -324,8 +355,8 @@ static int efi_image_probe ( struct image *image ) {
image->len, &handle ) ) != 0 ) {
/* Not an EFI image */
rc = -EEFI_LOAD ( efirc );
DBGC ( image, "EFIIMAGE %p could not load: %s\n",
image, strerror ( rc ) );
DBGC ( image, "EFIIMAGE %s could not load: %s\n",
image->name, strerror ( rc ) );
if ( efirc == EFI_SECURITY_VIOLATION ) {
goto err_load_image_security_violation;
} else {
@ -346,9 +377,75 @@ static int efi_image_probe ( struct image *image ) {
return rc;
}
/** EFI image type */
struct image_type efi_image_type __image_type ( PROBE_NORMAL ) = {
.name = "EFI",
.probe = efi_image_probe,
.exec = efi_image_exec,
/**
* Probe EFI PE image
*
* @v image EFI file
* @ret rc Return status code
*
* The extremely broken UEFI Secure Boot model provides no way for us
* to unambiguously determine that a valid EFI executable image was
* rejected by LoadImage() because it failed signature verification.
* We must therefore use heuristics to guess whether not an image that
* was rejected by LoadImage() could still be loaded via a separate PE
* loader such as the UEFI shim.
*/
static int efi_pe_image_probe ( struct image *image ) {
const UINT16 magic = ( ( sizeof ( UINTN ) == sizeof ( uint32_t ) ) ?
EFI_IMAGE_NT_OPTIONAL_HDR32_MAGIC :
EFI_IMAGE_NT_OPTIONAL_HDR64_MAGIC );
union {
EFI_IMAGE_DOS_HEADER dos;
EFI_IMAGE_OPTIONAL_HEADER_UNION pe;
} u;
/* Check for existence of DOS header */
if ( image->len < sizeof ( u.dos ) ) {
DBGC ( image, "EFIIMAGE %s too short for DOS header\n",
image->name );
return -ENOEXEC;
}
copy_from_user ( &u.dos, image->data, 0, sizeof ( u.dos ) );
if ( u.dos.e_magic != EFI_IMAGE_DOS_SIGNATURE ) {
DBGC ( image, "EFIIMAGE %s missing MZ signature\n",
image->name );
return -ENOEXEC;
}
/* Check for existence of PE header */
if ( ( image->len < u.dos.e_lfanew ) ||
( ( image->len - u.dos.e_lfanew ) < sizeof ( u.pe ) ) ) {
DBGC ( image, "EFIIMAGE %s too short for PE header\n",
image->name );
return -ENOEXEC;
}
copy_from_user ( &u.pe, image->data, u.dos.e_lfanew, sizeof ( u.pe ) );
if ( u.pe.Pe32.Signature != EFI_IMAGE_NT_SIGNATURE ) {
DBGC ( image, "EFIIMAGE %s missing PE signature\n",
image->name );
return -ENOEXEC;
}
/* Check PE header magic */
if ( u.pe.Pe32.OptionalHeader.Magic != magic ) {
DBGC ( image, "EFIIMAGE %s incorrect magic %04x\n",
image->name, u.pe.Pe32.OptionalHeader.Magic );
return -ENOEXEC;
}
return 0;
}
/** EFI image types */
struct image_type efi_image_type[] __image_type ( PROBE_NORMAL ) = {
{
.name = "EFI",
.probe = efi_image_probe,
.exec = efi_image_exec,
},
{
.name = "EFIPE",
.probe = efi_pe_image_probe,
.exec = efi_image_exec,
},
};

View File

@ -197,11 +197,6 @@ static int script_exec ( struct image *image ) {
size_t saved_offset;
int rc;
/* Temporarily de-register image, so that a "boot" command
* doesn't throw us into an execution loop.
*/
unregister_image ( image );
/* Preserve state of any currently-running script */
saved_offset = script_offset;
@ -212,10 +207,6 @@ static int script_exec ( struct image *image ) {
/* Restore saved state */
script_offset = saved_offset;
/* Re-register image (unless we have been replaced) */
if ( ! image->replacement )
register_image ( image );
return rc;
}
@ -320,6 +311,7 @@ static int terminate_on_label_found ( int rc ) {
* @ret rc Return status code
*/
static int goto_exec ( int argc, char **argv ) {
struct image *image = current_image.image;
struct goto_options opts;
size_t saved_offset;
int rc;
@ -329,7 +321,7 @@ static int goto_exec ( int argc, char **argv ) {
return rc;
/* Sanity check */
if ( ! current_image ) {
if ( ! image ) {
rc = -ENOTTY;
printf ( "Not in a script: %s\n", strerror ( rc ) );
return rc;
@ -340,10 +332,10 @@ static int goto_exec ( int argc, char **argv ) {
/* Find label */
saved_offset = script_offset;
if ( ( rc = process_script ( current_image, goto_find_label,
if ( ( rc = process_script ( image, goto_find_label,
terminate_on_label_found ) ) != 0 ) {
script_offset = saved_offset;
DBGC ( current_image, "[%04zx] No such label :%s\n",
DBGC ( image, "[%04zx] No such label :%s\n",
script_offset, goto_label );
return rc;
}

View File

@ -262,10 +262,10 @@ static inline void eplatform_discard ( int dummy __unused, ... ) {}
".balign 8\n\t" \
"\n1:\n\t" \
".long ( 4f - 1b )\n\t" \
".long %c0\n\t" \
".long %" ASM_NO_PREFIX "0\n\t" \
".long ( 2f - 1b )\n\t" \
".long ( 3f - 1b )\n\t" \
".long %c1\n\t" \
".long %" ASM_NO_PREFIX "1\n\t" \
"\n2:\t.asciz \"" __einfo_desc ( einfo ) "\"\n\t" \
"\n3:\t.asciz \"" __FILE__ "\"\n\t" \
".balign 8\n\t" \

View File

@ -424,6 +424,8 @@ extern int asn1_digest_algorithm ( const struct asn1_cursor *cursor,
struct asn1_algorithm **algorithm );
extern int asn1_signature_algorithm ( const struct asn1_cursor *cursor,
struct asn1_algorithm **algorithm );
extern int asn1_check_algorithm ( const struct asn1_cursor *cursor,
struct asn1_algorithm *expected );
extern int asn1_generalized_time ( const struct asn1_cursor *cursor,
time_t *time );
extern int asn1_grow ( struct asn1_builder *builder, size_t extra );

View File

@ -188,6 +188,40 @@ typedef INT64 INTN;
#define GCC_ASM_IMPORT(func__) \
.extern _CONCATENATE (__USER_LABEL_PREFIX__, func__)
#if defined (__ARM_FEATURE_BTI_DEFAULT) && __ARM_FEATURE_BTI_DEFAULT == 1
#define AARCH64_BTI_NOTE() \
.ifndef .Lgnu_bti_notesize ;\
.pushsection .note.gnu.property, "a" ;\
.set NT_GNU_PROPERTY_TYPE_0, 0x5 ;\
.set GNU_PROPERTY_AARCH64_FEATURE_1_AND, 0xc0000000 ;\
.set GNU_PROPERTY_AARCH64_FEATURE_1_BTI, 0x1 ;\
.align 3 ;\
.long .Lnamesize ;\
.long .Lgnu_bti_notesize ;\
.long NT_GNU_PROPERTY_TYPE_0 ;\
0: .asciz "GNU" ;\
.set .Lnamesize, . - 0b ;\
.align 3 ;\
1: .long GNU_PROPERTY_AARCH64_FEATURE_1_AND ;\
.long .Lvalsize ;\
2: .long GNU_PROPERTY_AARCH64_FEATURE_1_BTI ;\
.set .Lvalsize, . - 2b ;\
.align 3 ;\
.set .Lgnu_bti_notesize, . - 1b ;\
.popsection ;\
.endif
#define AARCH64_BTI(__type) \
AARCH64_BTI_NOTE() ;\
bti __type
#endif
#endif
#ifndef AARCH64_BTI
#define AARCH64_BTI_NOTE()
#define AARCH64_BTI(__type)
#endif
/**

View File

@ -760,6 +760,40 @@ typedef UINTN *BASE_LIST;
#define OFFSET_OF(TYPE, Field) ((UINTN) &(((TYPE *)0)->Field))
#endif
/**
Returns the alignment requirement of a type.
@param TYPE The name of the type to retrieve the alignment requirement of.
@return Alignment requirement, in Bytes, of TYPE.
**/
#if defined (__cplusplus)
//
// Standard C++ operator.
//
#define ALIGNOF(TYPE) alignof (TYPE)
#elif defined (__GNUC__) || defined (__clang__) || (defined (_MSC_VER) && _MSC_VER >= 1900)
//
// All supported versions of GCC and Clang, as well as MSVC 2015 and later,
// support the standard operator _Alignof.
//
#define ALIGNOF(TYPE) _Alignof (TYPE)
#elif defined (_MSC_EXTENSIONS)
//
// Earlier versions of MSVC, at least MSVC 2008 and later, support the vendor
// extension __alignof.
//
#define ALIGNOF(TYPE) __alignof (TYPE)
#else
//
// For compilers that do not support inbuilt alignof operators, use OFFSET_OF.
// CHAR8 is known to have both a size and an alignment requirement of 1 Byte.
// As such, A must be located exactly at the offset equal to its alignment
// requirement.
//
#define ALIGNOF(TYPE) OFFSET_OF (struct { CHAR8 C; TYPE A; }, A)
#endif
/**
Portable definition for compile time assertions.
Equivalent to C11 static_assert macro from assert.h.
@ -795,12 +829,27 @@ STATIC_ASSERT (sizeof (CHAR16) == 2, "sizeof (CHAR16) does not meet UEFI Specif
STATIC_ASSERT (sizeof (L'A') == 2, "sizeof (L'A') does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (sizeof (L"A") == 4, "sizeof (L\"A\") does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (BOOLEAN) == sizeof (BOOLEAN), "Alignment of BOOLEAN does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (INT8) == sizeof (INT8), "Alignment of INT8 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (UINT8) == sizeof (UINT8), "Alignment of INT16 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (INT16) == sizeof (INT16), "Alignment of INT16 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (UINT16) == sizeof (UINT16), "Alignment of UINT16 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (INT32) == sizeof (INT32), "Alignment of INT32 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (UINT32) == sizeof (UINT32), "Alignment of UINT32 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (INT64) == sizeof (INT64), "Alignment of INT64 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (UINT64) == sizeof (UINT64), "Alignment of UINT64 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (CHAR8) == sizeof (CHAR8), "Alignment of CHAR8 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (CHAR16) == sizeof (CHAR16), "Alignment of CHAR16 does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (INTN) == sizeof (INTN), "Alignment of INTN does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (UINTN) == sizeof (UINTN), "Alignment of UINTN does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (VOID *) == sizeof (VOID *), "Alignment of VOID * does not meet UEFI Specification Data Type requirements");
//
// The following three enum types are used to verify that the compiler
// configuration for enum types is compliant with Section 2.3.1 of the
// UEFI 2.3 Specification. These enum types and enum values are not
// intended to be used. A prefix of '__' is used avoid conflicts with
// other types.
// UEFI 2.3.1 Errata C Specification. These enum types and enum values
// are not intended to be used. A prefix of '__' is used avoid
// conflicts with other types.
//
typedef enum {
__VerifyUint8EnumValue = 0xff
@ -811,12 +860,16 @@ typedef enum {
} __VERIFY_UINT16_ENUM_SIZE;
typedef enum {
__VerifyUint32EnumValue = 0xffffffff
} __VERIFY_UINT32_ENUM_SIZE;
__VerifyInt32EnumValue = 0x7fffffff
} __VERIFY_INT32_ENUM_SIZE;
STATIC_ASSERT (sizeof (__VERIFY_UINT8_ENUM_SIZE) == 4, "Size of enum does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (sizeof (__VERIFY_UINT16_ENUM_SIZE) == 4, "Size of enum does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (sizeof (__VERIFY_UINT32_ENUM_SIZE) == 4, "Size of enum does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (sizeof (__VERIFY_INT32_ENUM_SIZE) == 4, "Size of enum does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (__VERIFY_UINT8_ENUM_SIZE) == sizeof (__VERIFY_UINT8_ENUM_SIZE), "Alignment of enum does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (__VERIFY_UINT16_ENUM_SIZE) == sizeof (__VERIFY_UINT16_ENUM_SIZE), "Alignment of enum does not meet UEFI Specification Data Type requirements");
STATIC_ASSERT (ALIGNOF (__VERIFY_INT32_ENUM_SIZE) == sizeof (__VERIFY_INT32_ENUM_SIZE), "Alignment of enum does not meet UEFI Specification Data Type requirements");
/**
Macro that returns a pointer to the data structure that contains a specified field of
@ -839,6 +892,49 @@ STATIC_ASSERT (sizeof (__VERIFY_UINT32_ENUM_SIZE) == 4, "Size of enum does not m
**/
#define BASE_CR(Record, TYPE, Field) ((TYPE *) ((CHAR8 *) (Record) - OFFSET_OF (TYPE, Field)))
/**
Checks whether a value is a power of two.
@param Value The value to check.
@retval TRUE Value is a power of two.
@retval FALSE Value is not a power of two.
**/
#define IS_POW2(Value) ((Value) != 0U && ((Value) & ((Value) - 1U)) == 0U)
/**
Checks whether a value is aligned by a specified alignment.
@param Value The value to check.
@param Alignment The alignment boundary used to check against.
@retval TRUE Value is aligned by Alignment.
@retval FALSE Value is not aligned by Alignment.
**/
#define IS_ALIGNED(Value, Alignment) (((Value) & ((Alignment) - 1U)) == 0U)
/**
Checks whether a pointer or address is aligned by a specified alignment.
@param Address The pointer or address to check.
@param Alignment The alignment boundary used to check against.
@retval TRUE Address is aligned by Alignment.
@retval FALSE Address is not aligned by Alignment.
**/
#define ADDRESS_IS_ALIGNED(Address, Alignment) IS_ALIGNED ((UINTN) (Address), Alignment)
/**
Determines the addend to add to a value to round it up to the next boundary of
a specified alignment.
@param Value The value to round up.
@param Alignment The alignment boundary used to return the addend.
@return Addend to round Value up to alignment boundary Alignment.
**/
#define ALIGN_VALUE_ADDEND(Value, Alignment) (((Alignment) - (Value)) & ((Alignment) - 1U))
/**
Rounds a value up to the next boundary using a specified alignment.
@ -851,7 +947,7 @@ STATIC_ASSERT (sizeof (__VERIFY_UINT32_ENUM_SIZE) == 4, "Size of enum does not m
@return A value up to the next boundary.
**/
#define ALIGN_VALUE(Value, Alignment) ((Value) + (((Alignment) - (Value)) & ((Alignment) - 1)))
#define ALIGN_VALUE(Value, Alignment) ((Value) + ALIGN_VALUE_ADDEND (Value, Alignment))
/**
Adjust a pointer by adding the minimum offset required for it to be aligned on

View File

@ -90,19 +90,15 @@ FILE_LICENCE ( BSD2_PATENT );
#if defined (_MSC_VER) && _MSC_VER >= 1800
//
// Disable these warnings for VS2013.
//
//
// This warning is for potentially uninitialized local variable, and it may cause false
// positive issues in VS2013 and VS2015 build
// positive issues in VS2015 build
//
#pragma warning ( disable : 4701 )
//
// This warning is for potentially uninitialized local pointer variable, and it may cause
// false positive issues in VS2013 and VS2015 build
// false positive issues in VS2015 build
//
#pragma warning ( disable : 4703 )

View File

@ -103,6 +103,7 @@ typedef struct {
#define EFI_IMAGE_FILE_EXECUTABLE_IMAGE BIT1 ///< 0x0002 File is executable (i.e. no unresolved externel references).
#define EFI_IMAGE_FILE_LINE_NUMS_STRIPPED BIT2 ///< 0x0004 Line numbers stripped from file.
#define EFI_IMAGE_FILE_LOCAL_SYMS_STRIPPED BIT3 ///< 0x0008 Local symbols stripped from file.
#define EFI_IMAGE_FILE_LARGE_ADDRESS_AWARE BIT5 ///< 0x0020 Supports addresses > 2-GB
#define EFI_IMAGE_FILE_BYTES_REVERSED_LO BIT7 ///< 0x0080 Bytes of machine word are reversed.
#define EFI_IMAGE_FILE_32BIT_MACHINE BIT8 ///< 0x0100 32 bit word machine.
#define EFI_IMAGE_FILE_DEBUG_STRIPPED BIT9 ///< 0x0200 Debugging info stripped from file in .DBG file.
@ -579,6 +580,13 @@ typedef struct {
UINT32 AddressOfNameOrdinals;
} EFI_IMAGE_EXPORT_DIRECTORY;
//
// Based export types.
//
#define EFI_IMAGE_EXPORT_ORDINAL_BASE 1
#define EFI_IMAGE_EXPORT_ADDR_SIZE 4
#define EFI_IMAGE_EXPORT_ORDINAL_SIZE 2
///
/// Hint/Name Table.
///
@ -627,7 +635,8 @@ typedef struct {
UINT32 FileOffset; ///< The file pointer to the debug data.
} EFI_IMAGE_DEBUG_DIRECTORY_ENTRY;
#define EFI_IMAGE_DEBUG_TYPE_CODEVIEW 2 ///< The Visual C++ debug information.
#define EFI_IMAGE_DEBUG_TYPE_CODEVIEW 2 ///< The Visual C++ debug information.
#define EFI_IMAGE_DEBUG_TYPE_EX_DLLCHARACTERISTICS 20
///
/// Debug Data Structure defined in Microsoft C++.
@ -671,6 +680,39 @@ typedef struct {
//
} EFI_IMAGE_DEBUG_CODEVIEW_MTOC_ENTRY;
// avoid conflict with windows header files
#ifndef RUNTIME_FUNCTION_INDIRECT
//
// .pdata entries for X64
//
typedef struct {
UINT32 FunctionStartAddress;
UINT32 FunctionEndAddress;
UINT32 UnwindInfoAddress;
} RUNTIME_FUNCTION;
#endif
typedef struct {
UINT8 Version : 3;
UINT8 Flags : 5;
UINT8 SizeOfProlog;
UINT8 CountOfUnwindCodes;
UINT8 FrameRegister : 4;
UINT8 FrameRegisterOffset : 4;
} UNWIND_INFO;
///
/// Extended DLL Characteristics
///
#define EFI_IMAGE_DLLCHARACTERISTICS_EX_CET_COMPAT 0x0001
#define EFI_IMAGE_DLLCHARACTERISTICS_EX_FORWARD_CFI_COMPAT 0x0040
typedef struct {
UINT32 DllCharacteristicsEx;
} EFI_IMAGE_DEBUG_EX_DLLCHARACTERISTICS_ENTRY;
///
/// Resource format.
///

View File

@ -153,6 +153,56 @@ typedef struct {
#define BASE_LIBRARY_JUMP_BUFFER_ALIGNMENT 8
VOID
RiscVSetSupervisorScratch (
IN UINT64
);
UINT64
RiscVGetSupervisorScratch (
VOID
);
VOID
RiscVSetSupervisorStvec (
IN UINT64
);
UINT64
RiscVGetSupervisorStvec (
VOID
);
UINT64
RiscVGetSupervisorTrapCause (
VOID
);
VOID
RiscVSetSupervisorAddressTranslationRegister (
IN UINT64
);
UINT64
RiscVReadTimer (
VOID
);
VOID
RiscVEnableTimerInterrupt (
VOID
);
VOID
RiscVDisableTimerInterrupt (
VOID
);
VOID
RiscVClearPendingTimerInterrupt (
VOID
);
#endif // defined (MDE_CPU_RISCV64)
#if defined (MDE_CPU_LOONGARCH64)

View File

@ -615,11 +615,34 @@ typedef struct {
#define EXCEPT_RISCV_STORE_AMO_ACCESS_FAULT 7
#define EXCEPT_RISCV_ENV_CALL_FROM_UMODE 8
#define EXCEPT_RISCV_ENV_CALL_FROM_SMODE 9
#define EXCEPT_RISCV_ENV_CALL_FROM_HMODE 10
#define EXCEPT_RISCV_ENV_CALL_FROM_VS_MODE 10
#define EXCEPT_RISCV_ENV_CALL_FROM_MMODE 11
#define EXCEPT_RISCV_INST_ACCESS_PAGE_FAULT 12
#define EXCEPT_RISCV_LOAD_ACCESS_PAGE_FAULT 13
#define EXCEPT_RISCV_14 14
#define EXCEPT_RISCV_STORE_ACCESS_PAGE_FAULT 15
#define EXCEPT_RISCV_16 16
#define EXCEPT_RISCV_17 17
#define EXCEPT_RISCV_18 18
#define EXCEPT_RISCV_19 19
#define EXCEPT_RISCV_INST_GUEST_PAGE_FAULT 20
#define EXCEPT_RISCV_LOAD_GUEST_PAGE_FAULT 21
#define EXCEPT_RISCV_VIRTUAL_INSTRUCTION 22
#define EXCEPT_RISCV_STORE_GUEST_PAGE_FAULT 23
#define EXCEPT_RISCV_MAX_EXCEPTIONS (EXCEPT_RISCV_STORE_GUEST_PAGE_FAULT)
#define EXCEPT_RISCV_SOFTWARE_INT 0x0
#define EXCEPT_RISCV_TIMER_INT 0x1
///
/// RISC-V processor exception types for interrupts.
///
#define EXCEPT_RISCV_IS_IRQ(x) ((x & 0x8000000000000000UL) != 0)
#define EXCEPT_RISCV_IRQ_INDEX(x) (x & 0x7FFFFFFFFFFFFFFFUL)
#define EXCEPT_RISCV_IRQ_0 0x8000000000000000UL
#define EXCEPT_RISCV_IRQ_SOFT_FROM_SMODE 0x8000000000000001UL
#define EXCEPT_RISCV_IRQ_SOFT_FROM_VSMODE 0x8000000000000002UL
#define EXCEPT_RISCV_IRQ_SOFT_FROM_MMODE 0x8000000000000003UL
#define EXCEPT_RISCV_IRQ_4 0x8000000000000004UL
#define EXCEPT_RISCV_IRQ_TIMER_FROM_SMODE 0x8000000000000005UL
#define EXCEPT_RISCV_MAX_IRQS (EXCEPT_RISCV_IRQ_INDEX(EXCEPT_RISCV_IRQ_TIMER_FROM_SMODE))
typedef struct {
UINT64 X0;
@ -654,6 +677,9 @@ typedef struct {
UINT64 X29;
UINT64 X30;
UINT64 X31;
UINT64 SEPC;
UINT32 SSTATUS;
UINT32 STVAL;
} EFI_SYSTEM_CONTEXT_RISCV64;
//

View File

@ -0,0 +1,782 @@
/** @file
UEFI Dynamic Host Configuration Protocol 6 Definition, which is used to get IPv6
addresses and other configuration parameters from DHCPv6 servers.
Copyright (c) 2008 - 2018, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.2
**/
#ifndef __EFI_DHCP6_PROTOCOL_H__
#define __EFI_DHCP6_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#define EFI_DHCP6_PROTOCOL_GUID \
{ \
0x87c8bad7, 0x595, 0x4053, {0x82, 0x97, 0xde, 0xde, 0x39, 0x5f, 0x5d, 0x5b } \
}
#define EFI_DHCP6_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0x9fb9a8a1, 0x2f4a, 0x43a6, {0x88, 0x9c, 0xd0, 0xf7, 0xb6, 0xc4, 0x7a, 0xd5 } \
}
typedef struct _EFI_DHCP6_PROTOCOL EFI_DHCP6_PROTOCOL;
typedef enum {
///
/// The EFI DHCPv6 Protocol instance is configured, and start() needs
/// to be called
///
Dhcp6Init = 0x0,
///
/// A Solicit packet is sent out to discover DHCPv6 server, and the EFI
/// DHCPv6 Protocol instance is collecting Advertise packets.
///
Dhcp6Selecting = 0x1,
///
/// A Request is sent out to the DHCPv6 server, and the EFI DHCPv6
/// Protocol instance is waiting for Reply packet.
///
Dhcp6Requesting = 0x2,
///
/// A Decline packet is sent out to indicate one or more addresses of the
/// configured IA are in use by another node, and the EFI DHCPv6.
/// Protocol instance is waiting for Reply packet.
///
Dhcp6Declining = 0x3,
///
/// A Confirm packet is sent out to confirm the IPv6 addresses of the
/// configured IA, and the EFI DHCPv6 Protocol instance is waiting for Reply packet.
///
Dhcp6Confirming = 0x4,
///
/// A Release packet is sent out to release one or more IPv6 addresses of
/// the configured IA, and the EFI DHCPv6 Protocol instance is waiting for Reply packet.
///
Dhcp6Releasing = 0x5,
///
/// The DHCPv6 S.A.R.R process is completed for the configured IA.
///
Dhcp6Bound = 0x6,
///
/// A Renew packet is sent out to extend lifetime for the IPv6 addresses of
/// the configured IA, and the EFI DHCPv6 Protocol instance is waiting for Reply packet.
///
Dhcp6Renewing = 0x7,
///
/// A Rebind packet is sent out to extend lifetime for the IPv6 addresses of
/// the configured IA, and the EFI DHCPv6 Protocol instance is waiting for Reply packet.
///
Dhcp6Rebinding = 0x8
} EFI_DHCP6_STATE;
typedef enum {
///
/// A Solicit packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6SendSolicit = 0x0,
///
/// An Advertise packet is received and will be passed to Dhcp6Callback.
///
Dhcp6RcvdAdvertise = 0x1,
///
/// It is time for Dhcp6Callback to determine whether select the default Advertise
/// packet by RFC 3315 policy, or overwrite it by specific user policy.
///
Dhcp6SelectAdvertise = 0x2,
///
/// A Request packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6SendRequest = 0x3,
///
/// A Reply packet is received and will be passed to Dhcp6Callback.
///
Dhcp6RcvdReply = 0x4,
///
/// A Reconfigure packet is received and will be passed to Dhcp6Callback.
///
Dhcp6RcvdReconfigure = 0x5,
///
/// A Decline packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6SendDecline = 0x6,
///
/// A Confirm packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6SendConfirm = 0x7,
///
/// A Release packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6SendRelease = 0x8,
///
/// A Renew packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6EnterRenewing = 0x9,
///
/// A Rebind packet is about to be sent. The packet is passed to Dhcp6Callback and
/// can be modified or replaced in Dhcp6Callback.
///
Dhcp6EnterRebinding = 0xa
} EFI_DHCP6_EVENT;
///
/// An IA which carries assigned not temporary address.
///
#define EFI_DHCP6_IA_TYPE_NA 3
///
/// An IA which carries assigned temporary address.
///
#define EFI_DHCP6_IA_TYPE_TA 4
#pragma pack(1)
///
/// EFI_DHCP6_PACKET_OPTION
/// defines the format of the DHCPv6 option, See RFC 3315 for more information.
/// This data structure is used to reference option data that is packed in the DHCPv6 packet.
///
typedef struct {
///
/// The DHCPv6 option code, stored in network order.
///
UINT16 OpCode;
///
/// Length of the DHCPv6 option data, stored in network order.
/// From the first byte to the last byte of the Data field.
///
UINT16 OpLen;
///
/// The data for the DHCPv6 option, stored in network order.
///
UINT8 Data[1];
} EFI_DHCP6_PACKET_OPTION;
///
/// EFI_DHCP6_HEADER
/// defines the format of the DHCPv6 header. See RFC 3315 for more information.
///
typedef struct {
///
/// The DHCPv6 transaction ID.
///
UINT32 MessageType : 8;
///
/// The DHCPv6 message type.
///
UINT32 TransactionId : 24;
} EFI_DHCP6_HEADER;
///
/// EFI_DHCP6_PACKET
/// defines the format of the DHCPv6 packet. See RFC 3315 for more information.
///
typedef struct {
///
/// Size of the EFI_DHCP6_PACKET buffer.
///
UINT32 Size;
///
/// Length of the EFI_DHCP6_PACKET from the first byte of the Header field to the last
/// byte of the Option[] field.
///
UINT32 Length;
struct {
///
/// The DHCPv6 packet header.
///
EFI_DHCP6_HEADER Header;
///
/// Start of the DHCPv6 packed option data.
///
UINT8 Option[1];
} Dhcp6;
} EFI_DHCP6_PACKET;
#pragma pack()
typedef struct {
///
/// Length of DUID in octects.
///
UINT16 Length;
///
/// Array of DUID octects.
///
UINT8 Duid[1];
} EFI_DHCP6_DUID;
typedef struct {
///
/// Initial retransmission timeout.
///
UINT32 Irt;
///
/// Maximum retransmission count for one packet. If Mrc is zero, there's no upper limit
/// for retransmission count.
///
UINT32 Mrc;
///
/// Maximum retransmission timeout for each retry. It's the upper bound of the number of
/// retransmission timeout. If Mrt is zero, there is no upper limit for retransmission
/// timeout.
///
UINT32 Mrt;
///
/// Maximum retransmission duration for one packet. It's the upper bound of the numbers
/// the client may retransmit a message. If Mrd is zero, there's no upper limit for
/// retransmission duration.
///
UINT32 Mrd;
} EFI_DHCP6_RETRANSMISSION;
typedef struct {
///
/// The IPv6 address.
///
EFI_IPv6_ADDRESS IpAddress;
///
/// The preferred lifetime in unit of seconds for the IPv6 address.
///
UINT32 PreferredLifetime;
///
/// The valid lifetime in unit of seconds for the IPv6 address.
///
UINT32 ValidLifetime;
} EFI_DHCP6_IA_ADDRESS;
typedef struct {
UINT16 Type; ///< Type for an IA.
UINT32 IaId; ///< The identifier for an IA.
} EFI_DHCP6_IA_DESCRIPTOR;
typedef struct {
///
/// The descriptor for IA.
///
EFI_DHCP6_IA_DESCRIPTOR Descriptor;
///
/// The state of the configured IA.
///
EFI_DHCP6_STATE State;
///
/// Pointer to the cached latest Reply packet. May be NULL if no packet is cached.
///
EFI_DHCP6_PACKET *ReplyPacket;
///
/// Number of IPv6 addresses of the configured IA.
///
UINT32 IaAddressCount;
///
/// List of the IPv6 addresses of the configured IA. When the state of the configured IA is
/// in Dhcp6Bound, Dhcp6Renewing and Dhcp6Rebinding, the IPv6 addresses are usable.
///
EFI_DHCP6_IA_ADDRESS IaAddress[1];
} EFI_DHCP6_IA;
typedef struct {
///
/// Pointer to the DHCPv6 unique identifier. The caller is responsible for freeing this buffer.
///
EFI_DHCP6_DUID *ClientId;
///
/// Pointer to the configured IA of current instance. The caller can free this buffer after
/// using it.
///
EFI_DHCP6_IA *Ia;
} EFI_DHCP6_MODE_DATA;
/**
EFI_DHCP6_CALLBACK is provided by the consumer of the EFI DHCPv6 Protocol instance to
intercept events that occurs in the DHCPv6 S.A.R.R process.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance that is used to configure this
callback function.
@param[in] Context Pointer to the context that is initialized by EFI_DHCP6_PROTOCOL.Configure().
@param[in] CurrentState The current state of the configured IA.
@param[in] Dhcp6Event The event that occurs in the current state, which usually means a state transition.
@param[in] Packet Pointer to the DHCPv6 packet that is about to be sent or has been received.
The EFI DHCPv6 Protocol instance is responsible for freeing the buffer.
@param[out] NewPacket Pointer to the new DHCPv6 packet to overwrite the Packet. NewPacket can not
share the buffer with Packet. If *NewPacket is not NULL, the EFI DHCPv6
Protocol instance is responsible for freeing the buffer.
@retval EFI_SUCCESS Tell the EFI DHCPv6 Protocol instance to continue the DHCPv6 S.A.R.R process.
@retval EFI_ABORTED Tell the EFI DHCPv6 Protocol instance to abort the DHCPv6 S.A.R.R process,
and the state of the configured IA will be transferred to Dhcp6Init.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_CALLBACK)(
IN EFI_DHCP6_PROTOCOL *This,
IN VOID *Context,
IN EFI_DHCP6_STATE CurrentState,
IN EFI_DHCP6_EVENT Dhcp6Event,
IN EFI_DHCP6_PACKET *Packet,
OUT EFI_DHCP6_PACKET **NewPacket OPTIONAL
);
typedef struct {
///
/// The callback function is to intercept various events that occur in the DHCPv6 S.A.R.R
/// process. Set to NULL to ignore all those events.
///
EFI_DHCP6_CALLBACK Dhcp6Callback;
///
/// Pointer to the context that will be passed to Dhcp6Callback.
///
VOID *CallbackContext;
///
/// Number of the DHCPv6 options in the OptionList.
///
UINT32 OptionCount;
///
/// List of the DHCPv6 options to be included in Solicit and Request packet. The buffer
/// can be freed after EFI_DHCP6_PROTOCOL.Configure() returns. Ignored if
/// OptionCount is zero. OptionList should not contain Client Identifier option
/// and any IA option, which will be appended by EFI DHCPv6 Protocol instance
/// automatically.
///
EFI_DHCP6_PACKET_OPTION **OptionList;
///
/// The descriptor for the IA of the EFI DHCPv6 Protocol instance.
///
EFI_DHCP6_IA_DESCRIPTOR IaDescriptor;
///
/// If not NULL, the event will be signaled when any IPv6 address information of the
/// configured IA is updated, including IPv6 address, preferred lifetime and valid
/// lifetime, or the DHCPv6 S.A.R.R process fails. Otherwise, Start(),
/// renewrebind(), decline(), release() and stop() will be blocking
/// operations, and they will wait for the exchange process completion or failure.
///
EFI_EVENT IaInfoEvent;
///
/// If TRUE, the EFI DHCPv6 Protocol instance is willing to accept Reconfigure packet.
/// Otherwise, it will ignore it. Reconfigure Accept option can not be specified through
/// OptionList parameter.
///
BOOLEAN ReconfigureAccept;
///
/// If TRUE, the EFI DHCPv6 Protocol instance will send Solicit packet with Rapid
/// Commit option. Otherwise, Rapid Commit option will not be included in Solicit
/// packet. Rapid Commit option can not be specified through OptionList parameter.
///
BOOLEAN RapidCommit;
///
/// Parameter to control Solicit packet retransmission behavior. The
/// buffer can be freed after EFI_DHCP6_PROTOCOL.Configure() returns.
///
EFI_DHCP6_RETRANSMISSION *SolicitRetransmission;
} EFI_DHCP6_CONFIG_DATA;
/**
EFI_DHCP6_INFO_CALLBACK is provided by the consumer of the EFI DHCPv6 Protocol
instance to intercept events that occurs in the DHCPv6 Information Request exchange process.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance that is used to configure this
callback function.
@param[in] Context Pointer to the context that is initialized in the EFI_DHCP6_PROTOCOL.InfoRequest().
@param[in] Packet Pointer to Reply packet that has been received. The EFI DHCPv6 Protocol instance is
responsible for freeing the buffer.
@retval EFI_SUCCESS Tell the EFI DHCPv6 Protocol instance to finish Information Request exchange process.
@retval EFI_NOT_READY Tell the EFI DHCPv6 Protocol instance to continue Information Request exchange process.
@retval EFI_ABORTED Tell the EFI DHCPv6 Protocol instance to abort the Information Request exchange process.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_INFO_CALLBACK)(
IN EFI_DHCP6_PROTOCOL *This,
IN VOID *Context,
IN EFI_DHCP6_PACKET *Packet
);
/**
Retrieve the current operating mode data and configuration data for the EFI DHCPv6 Protocol instance.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@param[out] Dhcp6ModeData Pointer to the DHCPv6 mode data structure. The caller is responsible for freeing this
structure and each reference buffer.
@param[out] Dhcp6ConfigData Pointer to the DHCPv6 configuration data structure. The caller is responsible for
freeing this structure and each reference buffer.
@retval EFI_SUCCESS The mode data was returned.
@retval EFI_ACCESS_DENIED The EFI DHCPv6 Protocol instance has not been configured when Dhcp6ConfigData is not NULL.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE:
- This is NULL.
- Both Dhcp6ConfigData and Dhcp6ModeData are NULL.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_GET_MODE_DATA)(
IN EFI_DHCP6_PROTOCOL *This,
OUT EFI_DHCP6_MODE_DATA *Dhcp6ModeData OPTIONAL,
OUT EFI_DHCP6_CONFIG_DATA *Dhcp6ConfigData OPTIONAL
);
/**
Initialize or clean up the configuration data for the EFI DHCPv6 Protocol instance.
The Configure() function is used to initialize or clean up the configuration data of the EFI
DHCPv6 Protocol instance.
- When Dhcp6CfgData is not NULL and Configure() is called successfully, the
configuration data will be initialized in the EFI DHCPv6 Protocol instance and the state of the
configured IA will be transferred into Dhcp6Init.
- When Dhcp6CfgData is NULL and Configure() is called successfully, the configuration
data will be cleaned up and no IA will be associated with the EFI DHCPv6 Protocol instance.
To update the configuration data for an EFI DCHPv6 Protocol instance, the original data must be
cleaned up before setting the new configuration data.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@param[in] Dhcp6CfgData Pointer to the DHCPv6 configuration data structure.
@retval EFI_SUCCESS The mode data was returned.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE
- This is NULL.
- OptionCount > 0 and OptionList is NULL.
- OptionList is not NULL, and Client Id option, Reconfigure Accept option,
Rapid Commit option or any IA option is specified in the OptionList.
- IaDescriptor.Type is neither EFI_DHCP6_IA_TYPE_NA nor EFI_DHCP6_IA_TYPE_NA.
- IaDescriptor is not unique.
- Both IaInfoEvent and SolicitRetransimssion are NULL.
- SolicitRetransmission is not NULL, and both SolicitRetransimssion->Mrc and
SolicitRetransmission->Mrd are zero.
@retval EFI_ACCESS_DENIED The EFI DHCPv6 Protocol instance has been already configured
when Dhcp6CfgData is not NULL.
The EFI DHCPv6 Protocol instance has already started the
DHCPv6 S.A.R.R when Dhcp6CfgData is NULL.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_CONFIGURE)(
IN EFI_DHCP6_PROTOCOL *This,
IN EFI_DHCP6_CONFIG_DATA *Dhcp6CfgData OPTIONAL
);
/**
Start the DHCPv6 S.A.R.R process.
The Start() function starts the DHCPv6 S.A.R.R process. This function can be called only when
the state of the configured IA is in the Dhcp6Init state. If the DHCPv6 S.A.R.R process completes
successfully, the state of the configured IA will be transferred through Dhcp6Selecting and
Dhcp6Requesting to Dhcp6Bound state. The update of the IPv6 addresses will be notified through
EFI_DHCP6_CONFIG_DATA.IaInfoEvent. At the time when each event occurs in this process, the
callback function set by EFI_DHCP6_PROTOCOL.Configure() will be called and the user can take
this opportunity to control the process. If EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL, the
Start() function call is a blocking operation. It will return after the DHCPv6 S.A.R.R process
completes or aborted by users. If the process is aborted by system or network error, the state of
the configured IA will be transferred to Dhcp6Init. The Start() function can be called again to
restart the process.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@retval EFI_SUCCESS The DHCPv6 S.A.R.R process is completed and at least one IPv6
address has been bound to the configured IA when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL.
The DHCPv6 S.A.R.R process is started when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is not NULL.
@retval EFI_ACCESS_DENIED The EFI DHCPv6 Child instance hasn't been configured.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_ALREADY_STARTED The DHCPv6 S.A.R.R process has already started.
@retval EFI_DEVICE_ERROR An unexpected network or system error occurred.
@retval EFI_NO_RESPONSE The DHCPv6 S.A.R.R process failed because of no response.
@retval EFI_NO_MAPPING No IPv6 address has been bound to the configured IA after the
DHCPv6 S.A.R.R process.
@retval EFI_ABORTED The DHCPv6 S.A.R.R process aborted by user.
@retval EFI_NO_MEDIA There was a media error.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_START)(
IN EFI_DHCP6_PROTOCOL *This
);
/**
Request configuration information without the assignment of any IA addresses of the client.
The InfoRequest() function is used to request configuration information without the assignment
of any IPv6 address of the client. Client sends out Information Request packet to obtain
the required configuration information, and DHCPv6 server responds with Reply packet containing
the information for the client. The received Reply packet will be passed to the user by
ReplyCallback function. If user returns EFI_NOT_READY from ReplyCallback, the EFI DHCPv6
Protocol instance will continue to receive other Reply packets unless timeout according to
the Retransmission parameter. Otherwise, the Information Request exchange process will be
finished successfully if user returns EFI_SUCCESS from ReplyCallback.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@param[in] SendClientId If TRUE, the EFI DHCPv6 Protocol instance will build Client
Identifier option and include it into Information Request
packet. If FALSE, Client Identifier option will not be included.
Client Identifier option can not be specified through OptionList
parameter.
@param[in] OptionRequest Pointer to the Option Request option in the Information Request
packet. Option Request option can not be specified through
OptionList parameter.
@param[in] OptionCount Number of options in OptionList.
@param[in] OptionList List of other DHCPv6 options. These options will be appended
to the Option Request option. The caller is responsible for
freeing this buffer. Type is defined in EFI_DHCP6_PROTOCOL.GetModeData().
@param[in] Retransmission Parameter to control Information Request packet retransmission
behavior. The buffer can be freed after EFI_DHCP6_PROTOCOL.InfoRequest()
returns.
@param[in] TimeoutEvent If not NULL, this event is signaled when the information request
exchange aborted because of no response. If NULL, the function
call is a blocking operation; and it will return after the
information-request exchange process finish or aborted by users.
@param[in] ReplyCallback The callback function is to intercept various events that occur
in the Information Request exchange process. It should not be
set to NULL.
@param[in] CallbackContext Pointer to the context that will be passed to ReplyCallback.
@retval EFI_SUCCESS The DHCPv6 S.A.R.R process is completed and at least one IPv6
@retval EFI_SUCCESS The DHCPv6 information request exchange process completed
when TimeoutEvent is NULL. Information Request packet has been
sent to DHCPv6 server when TimeoutEvent is not NULL.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE:
- This is NULL.
- OptionRequest is NULL or OptionRequest->OpCode is invalid.
- OptionCount > 0 and OptionList is NULL.
- OptionList is not NULL, and Client Identify option or
Option Request option is specified in the OptionList.
- Retransimssion is NULL.
- Both Retransimssion->Mrc and Retransmission->Mrd are zero.
- ReplyCallback is NULL.
@retval EFI_DEVICE_ERROR An unexpected network or system error occurred.
@retval EFI_NO_RESPONSE The DHCPv6 information request exchange process failed
because of no response, or not all requested-options are
responded by DHCPv6 servers when Timeout happened.
@retval EFI_ABORTED The DHCPv6 information request exchange process aborted by user.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_INFO_REQUEST)(
IN EFI_DHCP6_PROTOCOL *This,
IN BOOLEAN SendClientId,
IN EFI_DHCP6_PACKET_OPTION *OptionRequest,
IN UINT32 OptionCount,
IN EFI_DHCP6_PACKET_OPTION *OptionList[] OPTIONAL,
IN EFI_DHCP6_RETRANSMISSION *Retransmission,
IN EFI_EVENT TimeoutEvent OPTIONAL,
IN EFI_DHCP6_INFO_CALLBACK ReplyCallback,
IN VOID *CallbackContext OPTIONAL
);
/**
Manually extend the valid and preferred lifetimes for the IPv6 addresses of the configured
IA and update other configuration parameters by sending Renew or Rebind packet.
The RenewRebind() function is used to manually extend the valid and preferred lifetimes for the
IPv6 addresses of the configured IA and update other configuration parameters by sending Renew or
Rebind packet.
- When RebindRequest is FALSE and the state of the configured IA is Dhcp6Bound, it
will send Renew packet to the previously DHCPv6 server and transfer the state of the configured
IA to Dhcp6Renewing. If valid Reply packet received, the state transfers to Dhcp6Bound
and the valid and preferred timer restarts. If fails, the state transfers to Dhcp6Bound but the
timer continues.
- When RebindRequest is TRUE and the state of the configured IA is Dhcp6Bound, it will
send Rebind packet. If valid Reply packet received, the state transfers to Dhcp6Bound and the
valid and preferred timer restarts. If fails, the state transfers to Dhcp6Init and the IA can't
be used.
@param[in] This Pointer to the EFI_DHCP4_PROTOCOL instance.
@param[in] RebindRequest If TRUE, it will send Rebind packet and enter the Dhcp6Rebinding state.
Otherwise, it will send Renew packet and enter the Dhcp6Renewing state.
@retval EFI_SUCCESS The DHCPv6 renew/rebind exchange process has completed and at
least one IPv6 address of the configured IA has been bound again
when EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL.
The EFI DHCPv6 Protocol instance has sent Renew or Rebind packet
when EFI_DHCP6_CONFIG_DATA.IaInfoEvent is not NULL.
@retval EFI_ACCESS_DENIED The EFI DHCPv6 Child instance hasn't been configured, or the state
of the configured IA is not in Dhcp6Bound.
@retval EFI_ALREADY_STARTED The state of the configured IA has already entered Dhcp6Renewing
when RebindRequest is FALSE.
The state of the configured IA has already entered Dhcp6Rebinding
when RebindRequest is TRUE.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_DEVICE_ERROR An unexpected system or system error occurred.
@retval EFI_NO_RESPONSE The DHCPv6 renew/rebind exchange process failed because of no response.
@retval EFI_NO_MAPPING No IPv6 address has been bound to the configured IA after the DHCPv6
renew/rebind exchange process.
@retval EFI_ABORTED The DHCPv6 renew/rebind exchange process aborted by user.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_RENEW_REBIND)(
IN EFI_DHCP6_PROTOCOL *This,
IN BOOLEAN RebindRequest
);
/**
Inform that one or more IPv6 addresses assigned by a server are already in use by
another node.
The Decline() function is used to manually decline the assignment of IPv6 addresses, which
have been already used by another node. If all IPv6 addresses of the configured IA are declined
through this function, the state of the IA will switch through Dhcp6Declining to Dhcp6Init,
otherwise, the state of the IA will restore to Dhcp6Bound after the declining process. The
Decline() can only be called when the IA is in Dhcp6Bound state. If the
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL, this function is a blocking operation. It
will return after the declining process finishes, or aborted by user.
@param[in] This Pointer to the EFI_DHCP4_PROTOCOL instance.
@param[in] AddressCount Number of declining IPv6 addresses.
@param[in] Addresses Pointer to the buffer stored all the declining IPv6 addresses.
@retval EFI_SUCCESS The DHCPv6 decline exchange process has completed when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL.
The EFI DHCPv6 Protocol instance has sent Decline packet when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is not NULL.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE
- This is NULL.
- AddressCount is zero or Addresses is NULL.
@retval EFI_NOT_FOUND Any specified IPv6 address is not correlated with the configured IA
for this instance.
@retval EFI_ACCESS_DENIED The EFI DHCPv6 Child instance hasn't been configured, or the
state of the configured IA is not in Dhcp6Bound.
@retval EFI_DEVICE_ERROR An unexpected network or system error occurred.
@retval EFI_ABORTED The DHCPv6 decline exchange process aborted by user.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_DECLINE)(
IN EFI_DHCP6_PROTOCOL *This,
IN UINT32 AddressCount,
IN EFI_IPv6_ADDRESS *Addresses
);
/**
Release one or more IPv6 addresses associated with the configured IA for current instance.
The Release() function is used to manually release the one or more IPv6 address. If AddressCount
is zero, it will release all IPv6 addresses of the configured IA. If all IPv6 addresses of the IA
are released through this function, the state of the IA will switch through Dhcp6Releasing to
Dhcp6Init, otherwise, the state of the IA will restore to Dhcp6Bound after the releasing process.
The Release() can only be called when the IA is in Dhcp6Bound state. If the
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL, the function is a blocking operation. It will return
after the releasing process finishes, or aborted by user.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@param[in] AddressCount Number of releasing IPv6 addresses.
@param[in] Addresses Pointer to the buffer stored all the releasing IPv6 addresses.
Ignored if AddressCount is zero.
@retval EFI_SUCCESS The DHCPv6 release exchange process has completed when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL.
The EFI DHCPv6 Protocol instance has sent Release packet when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is not NULL.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE
- This is NULL.
- AddressCount is not zero or Addresses is NULL.
@retval EFI_NOT_FOUND Any specified IPv6 address is not correlated with the configured
IA for this instance.
@retval EFI_ACCESS_DENIED The EFI DHCPv6 Child instance hasn't been configured, or the
state of the configured IA is not in Dhcp6Bound.
@retval EFI_DEVICE_ERROR An unexpected network or system error occurred.
@retval EFI_ABORTED The DHCPv6 release exchange process aborted by user.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_RELEASE)(
IN EFI_DHCP6_PROTOCOL *This,
IN UINT32 AddressCount,
IN EFI_IPv6_ADDRESS *Addresses
);
/**
Stop the DHCPv6 S.A.R.R process.
The Stop() function is used to stop the DHCPv6 S.A.R.R process. If this function is called
successfully, all the IPv6 addresses of the configured IA will be released and the state of
the configured IA will be transferred to Dhcp6Init.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@retval EFI_SUCCESS The DHCPv6 S.A.R.R process has been stopped when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is NULL.
The EFI DHCPv6 Protocol instance has sent Release packet if
need release or has been stopped if needn't, when
EFI_DHCP6_CONFIG_DATA.IaInfoEvent is not NULL.
@retval EFI_INVALID_PARAMETER This is NULL.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_STOP)(
IN EFI_DHCP6_PROTOCOL *This
);
/**
Parse the option data in the DHCPv6 packet.
The Parse() function is used to retrieve the option list in the DHCPv6 packet.
@param[in] This Pointer to the EFI_DHCP6_PROTOCOL instance.
@param[in] Packet Pointer to packet to be parsed.
@param[in] OptionCount On input, the number of entries in the PacketOptionList.
On output, the number of DHCPv6 options in the Packet.
@param[in] PacketOptionList List of pointers to the DHCPv6 options in the Packet.
The OpCode and OpLen in EFI_DHCP6_PACKET_OPTION are
both stored in network byte order.
@retval EFI_SUCCESS The packet was successfully parsed.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE
- This is NULL.
- Packet is NULL.
- Packet is not a well-formed DHCPv6 packet.
- OptionCount is NULL.
- *OptionCount is not zero and PacketOptionList is NULL.
@retval EFI_BUFFER_TOO_SMALL *OptionCount is smaller than the number of options that were
found in the Packet.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DHCP6_PARSE)(
IN EFI_DHCP6_PROTOCOL *This,
IN EFI_DHCP6_PACKET *Packet,
IN OUT UINT32 *OptionCount,
OUT EFI_DHCP6_PACKET_OPTION *PacketOptionList[] OPTIONAL
);
///
/// The EFI DHCPv6 Protocol is used to get IPv6 addresses and other configuration parameters
/// from DHCPv6 servers.
///
struct _EFI_DHCP6_PROTOCOL {
EFI_DHCP6_GET_MODE_DATA GetModeData;
EFI_DHCP6_CONFIGURE Configure;
EFI_DHCP6_START Start;
EFI_DHCP6_INFO_REQUEST InfoRequest;
EFI_DHCP6_RENEW_REBIND RenewRebind;
EFI_DHCP6_DECLINE Decline;
EFI_DHCP6_RELEASE Release;
EFI_DHCP6_STOP Stop;
EFI_DHCP6_PARSE Parse;
};
extern EFI_GUID gEfiDhcp6ProtocolGuid;
extern EFI_GUID gEfiDhcp6ServiceBindingProtocolGuid;
#endif

View File

@ -0,0 +1,538 @@
/** @file
This file defines the EFI Domain Name Service Binding Protocol interface. It is split
into the following two main sections:
DNSv4 Service Binding Protocol (DNSv4SB)
DNSv4 Protocol (DNSv4)
Copyright (c) 2015 - 2018, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.5
**/
#ifndef __EFI_DNS4_PROTOCOL_H__
#define __EFI_DNS4_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#define EFI_DNS4_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0xb625b186, 0xe063, 0x44f7, {0x89, 0x5, 0x6a, 0x74, 0xdc, 0x6f, 0x52, 0xb4 } \
}
#define EFI_DNS4_PROTOCOL_GUID \
{ \
0xae3d28cc, 0xe05b, 0x4fa1, {0xa0, 0x11, 0x7e, 0xb5, 0x5a, 0x3f, 0x14, 0x1 } \
}
typedef struct _EFI_DNS4_PROTOCOL EFI_DNS4_PROTOCOL;
///
/// EFI_DNS4_CONFIG_DATA
///
typedef struct {
///
/// Count of the DNS servers. When used with GetModeData(),
/// this field is the count of originally configured servers when
/// Configure() was called for this instance. When used with
/// Configure() this is the count of caller-supplied servers. If the
/// DnsServerListCount is zero, the DNS server configuration
/// will be retrieved from DHCP server automatically.
///
UINTN DnsServerListCount;
///
/// Pointer to DNS server list containing DnsServerListCount entries or NULL
/// if DnsServerListCountis 0. For Configure(), this will be NULL when there are
/// no caller supplied server addresses, and, the DNS instance will retrieve
/// DNS server from DHCP Server. The provided DNS server list is
/// recommended to be filled up in the sequence of preference. When
/// used with GetModeData(), the buffer containing the list will
/// be allocated by the driver implementing this protocol and must be
/// freed by the caller. When used with Configure(), the buffer
/// containing the list will be allocated and released by the caller.
///
EFI_IPv4_ADDRESS *DnsServerList;
///
/// Set to TRUE to use the default IP address/subnet mask and default routing table.
///
BOOLEAN UseDefaultSetting;
///
/// If TRUE, enable DNS cache function for this DNS instance. If FALSE, all DNS
/// query will not lookup local DNS cache.
///
BOOLEAN EnableDnsCache;
///
/// Use the protocol number defined in "Links to UEFI-Related
/// Documents"(http://uefi.org/uefi) under the heading "IANA
/// Protocol Numbers". Only TCP or UDP are supported, and other
/// protocol values are invalid. An implementation can choose to
/// support only UDP, or both TCP and UDP.
///
UINT8 Protocol;
///
/// If UseDefaultSetting is FALSE indicates the station address to use.
///
EFI_IPv4_ADDRESS StationIp;
///
/// If UseDefaultSetting is FALSE indicates the subnet mask to use.
///
EFI_IPv4_ADDRESS SubnetMask;
///
/// Local port number. Set to zero to use the automatically assigned port number.
///
UINT16 LocalPort;
///
/// Retry number if no response received after RetryInterval.
///
UINT32 RetryCount;
///
/// Minimum interval of retry is 2 second. If the retry interval is less than 2
/// seconds, then use the 2 seconds.
///
UINT32 RetryInterval;
} EFI_DNS4_CONFIG_DATA;
///
/// EFI_DNS4_CACHE_ENTRY
///
typedef struct {
///
/// Host name.
///
CHAR16 *HostName;
///
/// IP address of this host.
///
EFI_IPv4_ADDRESS *IpAddress;
///
/// Time in second unit that this entry will remain in DNS cache. A value of zero
/// means that this entry is permanent. A nonzero value will override the existing
/// one if this entry to be added is dynamic entry. Implementations may set its
/// default timeout value for the dynamically created DNS cache entry after one DNS
/// resolve succeeds.
///
UINT32 Timeout;
} EFI_DNS4_CACHE_ENTRY;
///
/// EFI_DNS4_MODE_DATA
///
typedef struct {
///
/// The configuration data of this instance.
///
EFI_DNS4_CONFIG_DATA DnsConfigData;
///
/// Number of configured DNS server. Each DNS instance has its own DNS server
/// configuration.
///
UINT32 DnsServerCount;
///
/// Pointer to common list of addresses of all configured DNS server
/// used by EFI_DNS4_PROTOCOL instances. List will include
/// DNS servers configured by this or any other EFI_DNS4_PROTOCOL instance.
/// The storage for this list is allocated by the driver publishing this
/// protocol, and must be freed by the caller.
///
EFI_IPv4_ADDRESS *DnsServerList;
///
/// Number of DNS Cache entries. The DNS Cache is shared among all DNS instances.
///
UINT32 DnsCacheCount;
///
/// Pointer to a buffer containing DnsCacheCount DNS Cache
/// entry structures. The storage for this list is allocated by the driver
/// publishing this protocol and must be freed by caller.
///
EFI_DNS4_CACHE_ENTRY *DnsCacheList;
} EFI_DNS4_MODE_DATA;
///
/// DNS_HOST_TO_ADDR_DATA
///
typedef struct {
///
/// Number of the returned IP addresses.
///
UINT32 IpCount;
///
/// Pointer to the all the returned IP addresses.
///
EFI_IPv4_ADDRESS *IpList;
} DNS_HOST_TO_ADDR_DATA;
///
/// DNS_ADDR_TO_HOST_DATA
///
typedef struct {
///
/// Pointer to the primary name for this host address. It's the caller's
/// responsibility to free the response memory.
///
CHAR16 *HostName;
} DNS_ADDR_TO_HOST_DATA;
///
/// DNS_RESOURCE_RECORD
///
typedef struct {
///
/// The Owner name.
///
CHAR8 *QName;
///
/// The Type Code of this RR.
///
UINT16 QType;
///
/// The CLASS code of this RR.
///
UINT16 QClass;
///
/// 32 bit integer which specify the time interval that the resource record may be
/// cached before the source of the information should again be consulted. Zero means
/// this RR can not be cached.
///
UINT32 TTL;
///
/// 16 big integer which specify the length of RData.
///
UINT16 DataLength;
///
/// A string of octets that describe the resource, the format of this information
/// varies according to QType and QClass difference.
///
CHAR8 *RData;
} DNS_RESOURCE_RECORD;
///
/// DNS_GENERAL_LOOKUP_DATA
///
typedef struct {
///
/// Number of returned matching RRs.
///
UINTN RRCount;
///
/// Pointer to the all the returned matching RRs. It's caller responsibility to free
/// the allocated memory to hold the returned RRs.
///
DNS_RESOURCE_RECORD *RRList;
} DNS_GENERAL_LOOKUP_DATA;
///
/// EFI_DNS4_COMPLETION_TOKEN
///
typedef struct {
///
/// This Event will be signaled after the Status field is updated by the EFI DNS
/// protocol driver. The type of Event must be EFI_NOTIFY_SIGNAL.
///
EFI_EVENT Event;
///
/// Will be set to one of the following values:
/// EFI_SUCCESS: The host name to address translation completed successfully.
/// EFI_NOT_FOUND: No matching Resource Record (RR) is found.
/// EFI_TIMEOUT: No DNS server reachable, or RetryCount was exhausted without
/// response from all specified DNS servers.
/// EFI_DEVICE_ERROR: An unexpected system or network error occurred.
/// EFI_NO_MEDIA: There was a media error.
///
EFI_STATUS Status;
///
/// Retry number if no response received after RetryInterval. If zero, use the
/// parameter configured through Dns.Configure() interface.
///
UINT32 RetryCount;
///
/// Minimum interval of retry is 2 second. If the retry interval is less than 2
/// seconds, then use the 2 seconds. If zero, use the parameter configured through
/// Dns.Configure() interface.
UINT32 RetryInterval;
///
/// DNSv4 completion token data
///
union {
///
/// When the Token is used for host name to address translation, H2AData is a pointer
/// to the DNS_HOST_TO_ADDR_DATA.
///
DNS_HOST_TO_ADDR_DATA *H2AData;
///
/// When the Token is used for host address to host name translation, A2HData is a
/// pointer to the DNS_ADDR_TO_HOST_DATA.
///
DNS_ADDR_TO_HOST_DATA *A2HData;
///
/// When the Token is used for a general lookup function, GLookupDATA is a pointer to
/// the DNS_GENERAL_LOOKUP_DATA.
///
DNS_GENERAL_LOOKUP_DATA *GLookupData;
} RspData;
} EFI_DNS4_COMPLETION_TOKEN;
/**
Retrieve mode data of this DNS instance.
This function is used to retrieve DNS mode data for this DNS instance.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[out] DnsModeData Point to the mode data.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_NOT_STARTED When DnsConfigData is queried, no configuration data
is available because this instance has not been
configured.
@retval EFI_INVALID_PARAMETER This is NULL or DnsModeData is NULL.
@retval EFI_OUT_OF_RESOURCES Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_GET_MODE_DATA)(
IN EFI_DNS4_PROTOCOL *This,
OUT EFI_DNS4_MODE_DATA *DnsModeData
);
/**
Configure this DNS instance.
This function is used to configure DNS mode data for this DNS instance.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[in] DnsConfigData Point to the Configuration data.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_UNSUPPORTED The designated protocol is not supported.
@retval EFI_INVALID_PARAMETER This is NULL.
The StationIp address provided in DnsConfigData is not a
valid unicast.
DnsServerList is NULL while DnsServerListCount
is not ZERO.
DnsServerListCount is ZERO while DnsServerList
is not NULL
@retval EFI_OUT_OF_RESOURCES The DNS instance data or required space could not be
allocated.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred. The
EFI DNSv4 Protocol instance is not configured.
@retval EFI_ALREADY_STARTED Second call to Configure() with DnsConfigData. To
reconfigure the instance the caller must call Configure()
with NULL first to return driver to unconfigured state.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_CONFIGURE)(
IN EFI_DNS4_PROTOCOL *This,
IN EFI_DNS4_CONFIG_DATA *DnsConfigData
);
/**
Host name to host address translation.
The HostNameToIp () function is used to translate the host name to host IP address. A
type A query is used to get the one or more IP addresses for this host.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[in] HostName Host name.
@param[in] Token Point to the completion token to translate host name
to host address.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token.Event is NULL.
HostName is NULL. HostName string is unsupported format.
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_NOT_STARTED This instance has not been started.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_HOST_NAME_TO_IP)(
IN EFI_DNS4_PROTOCOL *This,
IN CHAR16 *HostName,
IN EFI_DNS4_COMPLETION_TOKEN *Token
);
/**
IPv4 address to host name translation also known as Reverse DNS lookup.
The IpToHostName() function is used to translate the host address to host name. A type PTR
query is used to get the primary name of the host. Support of this function is optional.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[in] IpAddress Ip Address.
@param[in] Token Point to the completion token to translate host
address to host name.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_UNSUPPORTED This function is not supported.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token.Event is NULL.
IpAddress is not valid IP address .
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_ALREADY_STARTED This Token is being used in another DNS session.
@retval EFI_OUT_OF_RESOURCES Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_IP_TO_HOST_NAME)(
IN EFI_DNS4_PROTOCOL *This,
IN EFI_IPv4_ADDRESS IpAddress,
IN EFI_DNS4_COMPLETION_TOKEN *Token
);
/**
Retrieve arbitrary information from the DNS server.
This GeneralLookup() function retrieves arbitrary information from the DNS. The caller
supplies a QNAME, QTYPE, and QCLASS, and all of the matching RRs are returned. All
RR content (e.g., TTL) was returned. The caller need parse the returned RR to get
required information. The function is optional.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[in] QName Pointer to Query Name.
@param[in] QType Query Type.
@param[in] QClass Query Name.
@param[in] Token Point to the completion token to retrieve arbitrary
information.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_UNSUPPORTED This function is not supported. Or the requested
QType is not supported
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token.Event is NULL.
QName is NULL.
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_ALREADY_STARTED This Token is being used in another DNS session.
@retval EFI_OUT_OF_RESOURCES Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_GENERAL_LOOKUP)(
IN EFI_DNS4_PROTOCOL *This,
IN CHAR8 *QName,
IN UINT16 QType,
IN UINT16 QClass,
IN EFI_DNS4_COMPLETION_TOKEN *Token
);
/**
This function is to update the DNS Cache.
The UpdateDnsCache() function is used to add/delete/modify DNS cache entry. DNS cache
can be normally dynamically updated after the DNS resolve succeeds. This function
provided capability to manually add/delete/modify the DNS cache.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[in] DeleteFlag If FALSE, this function is to add one entry to the
DNS Cahce. If TRUE, this function will delete
matching DNS Cache entry.
@param[in] Override If TRUE, the maching DNS cache entry will be
overwritten with the supplied parameter. If FALSE,
EFI_ACCESS_DENIED will be returned if the entry to
be added is already existed.
@param[in] DnsCacheEntry Pointer to DNS Cache entry.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
DnsCacheEntry.HostName is NULL.
DnsCacheEntry.IpAddress is NULL.
DnsCacheEntry.Timeout is zero.
@retval EFI_ACCESS_DENIED The DNS cache entry already exists and Override is
not TRUE.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_UPDATE_DNS_CACHE)(
IN EFI_DNS4_PROTOCOL *This,
IN BOOLEAN DeleteFlag,
IN BOOLEAN Override,
IN EFI_DNS4_CACHE_ENTRY DnsCacheEntry
);
/**
Polls for incoming data packets and processes outgoing data packets.
The Poll() function can be used by network drivers and applications to increase the
rate that data packets are moved between the communications device and the transmit
and receive queues.
In some systems, the periodic timer event in the managed network driver may not poll
the underlying communications device fast enough to transmit and/or receive all data
packets without missing incoming packets or dropping outgoing packets. Drivers and
applications that are experiencing packet loss should try calling the Poll()
function more often.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_NOT_STARTED This EFI DNS Protocol instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_TIMEOUT Data was dropped out of the transmit and/or receive
queue. Consider increasing the polling rate.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_POLL)(
IN EFI_DNS4_PROTOCOL *This
);
/**
Abort an asynchronous DNS operation, including translation between IP and Host, and
general look up behavior.
The Cancel() function is used to abort a pending resolution request. After calling
this function, Token.Status will be set to EFI_ABORTED and then Token.Event will be
signaled. If the token is not in one of the queues, which usually means that the
asynchronous operation has completed, this function will not signal the token and
EFI_NOT_FOUND is returned.
@param[in] This Pointer to EFI_DNS4_PROTOCOL instance.
@param[in] Token Pointer to a token that has been issued by
EFI_DNS4_PROTOCOL.HostNameToIp (),
EFI_DNS4_PROTOCOL.IpToHostName() or
EFI_DNS4_PROTOCOL.GeneralLookup().
If NULL, all pending tokens are aborted.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_NOT_STARTED This EFI DNS4 Protocol instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NOT_FOUND When Token is not NULL, and the asynchronous DNS
operation was not found in the transmit queue. It
was either completed or was not issued by
HostNameToIp(), IpToHostName() or GeneralLookup().
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS4_CANCEL)(
IN EFI_DNS4_PROTOCOL *This,
IN EFI_DNS4_COMPLETION_TOKEN *Token
);
///
/// The EFI_DNS4_Protocol provides the function to get the host name and address
/// mapping, also provides pass through interface to retrieve arbitrary information
/// from DNS.
///
struct _EFI_DNS4_PROTOCOL {
EFI_DNS4_GET_MODE_DATA GetModeData;
EFI_DNS4_CONFIGURE Configure;
EFI_DNS4_HOST_NAME_TO_IP HostNameToIp;
EFI_DNS4_IP_TO_HOST_NAME IpToHostName;
EFI_DNS4_GENERAL_LOOKUP GeneralLookUp;
EFI_DNS4_UPDATE_DNS_CACHE UpdateDnsCache;
EFI_DNS4_POLL Poll;
EFI_DNS4_CANCEL Cancel;
};
extern EFI_GUID gEfiDns4ServiceBindingProtocolGuid;
extern EFI_GUID gEfiDns4ProtocolGuid;
#endif

View File

@ -0,0 +1,535 @@
/** @file
This file defines the EFI DNSv6 (Domain Name Service version 6) Protocol. It is split
into the following two main sections:
DNSv6 Service Binding Protocol (DNSv6SB)
DNSv6 Protocol (DNSv6)
Copyright (c) 2015 - 2018, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.5
**/
#ifndef __EFI_DNS6_PROTOCOL_H__
#define __EFI_DNS6_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#define EFI_DNS6_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0x7f1647c8, 0xb76e, 0x44b2, {0xa5, 0x65, 0xf7, 0xf, 0xf1, 0x9c, 0xd1, 0x9e } \
}
#define EFI_DNS6_PROTOCOL_GUID \
{ \
0xca37bc1f, 0xa327, 0x4ae9, {0x82, 0x8a, 0x8c, 0x40, 0xd8, 0x50, 0x6a, 0x17 } \
}
typedef struct _EFI_DNS6_PROTOCOL EFI_DNS6_PROTOCOL;
///
/// EFI_DNS6_CONFIG_DATA
///
typedef struct {
///
/// If TRUE, enable DNS cache function for this DNS instance. If FALSE, all DNS query
/// will not lookup local DNS cache.
///
BOOLEAN EnableDnsCache;
///
/// Use the protocol number defined in
/// http://www.iana.org/assignments/protocol-numbers. Beside TCP/UDP, Other protocol
/// is invalid value. An implementation can choose to support UDP, or both TCP and UDP.
///
UINT8 Protocol;
///
/// The local IP address to use. Set to zero to let the underlying IPv6
/// driver choose a source address. If not zero it must be one of the
/// configured IP addresses in the underlying IPv6 driver.
///
EFI_IPv6_ADDRESS StationIp;
///
/// Local port number. Set to zero to use the automatically assigned port number.
///
UINT16 LocalPort;
///
/// Count of the DNS servers. When used with GetModeData(),
/// this field is the count of originally configured servers when
/// Configure() was called for this instance. When used with
/// Configure() this is the count of caller-supplied servers. If the
/// DnsServerListCount is zero, the DNS server configuration
/// will be retrieved from DHCP server automatically.
///
UINT32 DnsServerCount;
///
/// Pointer to DNS server list containing DnsServerListCount
/// entries or NULL if DnsServerListCount is 0. For Configure(),
/// this will be NULL when there are no caller supplied server addresses
/// and the DNS instance will retrieve DNS server from DHCP Server.
/// The provided DNS server list is recommended to be filled up in the sequence
/// of preference. When used with GetModeData(), the buffer containing the list
/// will be allocated by the driver implementing this protocol and must be
/// freed by the caller. When used with Configure(), the buffer
/// containing the list will be allocated and released by the caller.
///
EFI_IPv6_ADDRESS *DnsServerList;
///
/// Retry number if no response received after RetryInterval.
///
UINT32 RetryCount;
///
/// Minimum interval of retry is 2 second. If the retry interval is less than 2
/// seconds, then use the 2 seconds.
UINT32 RetryInterval;
} EFI_DNS6_CONFIG_DATA;
///
/// EFI_DNS6_CACHE_ENTRY
///
typedef struct {
///
/// Host name. This should be interpreted as Unicode characters.
///
CHAR16 *HostName;
///
/// IP address of this host.
///
EFI_IPv6_ADDRESS *IpAddress;
///
/// Time in second unit that this entry will remain in DNS cache. A value of zero means
/// that this entry is permanent. A nonzero value will override the existing one if
/// this entry to be added is dynamic entry. Implementations may set its default
/// timeout value for the dynamically created DNS cache entry after one DNS resolve
/// succeeds.
UINT32 Timeout;
} EFI_DNS6_CACHE_ENTRY;
///
/// EFI_DNS6_MODE_DATA
///
typedef struct {
///
/// The configuration data of this instance.
///
EFI_DNS6_CONFIG_DATA DnsConfigData;
///
/// Number of configured DNS6 servers.
///
UINT32 DnsServerCount;
///
/// Pointer to common list of addresses of all configured DNS server used by EFI_DNS6_PROTOCOL
/// instances. List will include DNS servers configured by this or any other EFI_DNS6_PROTOCOL
/// instance. The storage for this list is allocated by the driver publishing this protocol,
/// and must be freed by the caller.
///
EFI_IPv6_ADDRESS *DnsServerList;
///
/// Number of DNS Cache entries. The DNS Cache is shared among all DNS instances.
///
UINT32 DnsCacheCount;
///
/// Pointer to a buffer containing DnsCacheCount DNS Cache
/// entry structures. The storage for thislist is allocated by the driver
/// publishing this protocol and must be freed by caller.
///
EFI_DNS6_CACHE_ENTRY *DnsCacheList;
} EFI_DNS6_MODE_DATA;
///
/// DNS6_HOST_TO_ADDR_DATA
///
typedef struct {
///
/// Number of the returned IP address.
///
UINT32 IpCount;
///
/// Pointer to the all the returned IP address.
///
EFI_IPv6_ADDRESS *IpList;
} DNS6_HOST_TO_ADDR_DATA;
///
/// DNS6_ADDR_TO_HOST_DATA
///
typedef struct {
///
/// Pointer to the primary name for this host address. It's the caller's
/// responsibility to free the response memory.
///
CHAR16 *HostName;
} DNS6_ADDR_TO_HOST_DATA;
///
/// DNS6_RESOURCE_RECORD
///
typedef struct {
///
/// The Owner name.
///
CHAR8 *QName;
///
/// The Type Code of this RR.
///
UINT16 QType;
///
/// The CLASS code of this RR.
///
UINT16 QClass;
///
/// 32 bit integer which specify the time interval that the resource record may be
/// cached before the source of the information should again be consulted. Zero means
/// this RR cannot be cached.
///
UINT32 TTL;
///
/// 16 big integer which specify the length of RData.
///
UINT16 DataLength;
///
/// A string of octets that describe the resource, the format of this information
/// varies according to QType and QClass difference.
///
CHAR8 *RData;
} DNS6_RESOURCE_RECORD;
///
/// DNS6_GENERAL_LOOKUP_DATA
///
typedef struct {
///
/// Number of returned matching RRs.
///
UINTN RRCount;
///
/// Pointer to the all the returned matching RRs. It's caller responsibility to free
/// the allocated memory to hold the returned RRs.
///
DNS6_RESOURCE_RECORD *RRList;
} DNS6_GENERAL_LOOKUP_DATA;
///
/// EFI_DNS6_COMPLETION_TOKEN
///
typedef struct {
///
/// This Event will be signaled after the Status field is updated by the EFI DNSv6
/// protocol driver. The type of Event must be EFI_NOTIFY_SIGNAL.
///
EFI_EVENT Event;
///
/// Will be set to one of the following values:
/// EFI_SUCCESS: The host name to address translation completed successfully.
/// EFI_NOT_FOUND: No matching Resource Record (RR) is found.
/// EFI_TIMEOUT: No DNS server reachable, or RetryCount was exhausted without
/// response from all specified DNS servers.
/// EFI_DEVICE_ERROR: An unexpected system or network error occurred.
/// EFI_NO_MEDIA: There was a media error.
///
EFI_STATUS Status;
///
/// The parameter configured through DNSv6.Configure() interface. Retry number if no
/// response received after RetryInterval.
///
UINT32 RetryCount;
///
/// The parameter configured through DNSv6.Configure() interface. Minimum interval of
/// retry is 2 seconds. If the retry interval is less than 2 seconds, then use the 2
/// seconds.
///
UINT32 RetryInterval;
///
/// DNSv6 completion token data
///
union {
///
/// When the Token is used for host name to address translation, H2AData is a pointer
/// to the DNS6_HOST_TO_ADDR_DATA.
///
DNS6_HOST_TO_ADDR_DATA *H2AData;
///
/// When the Token is used for host address to host name translation, A2HData is a
/// pointer to the DNS6_ADDR_TO_HOST_DATA.
///
DNS6_ADDR_TO_HOST_DATA *A2HData;
///
/// When the Token is used for a general lookup function, GLookupDATA is a pointer to
/// the DNS6_GENERAL_LOOKUP_DATA.
///
DNS6_GENERAL_LOOKUP_DATA *GLookupData;
} RspData;
} EFI_DNS6_COMPLETION_TOKEN;
/**
Retrieve mode data of this DNS instance.
This function is used to retrieve DNS mode data for this DNS instance.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[out] DnsModeData Pointer to the caller-allocated storage for the
EFI_DNS6_MODE_DATA data.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_NOT_STARTED When DnsConfigData is queried, no configuration data
is available because this instance has not been
configured.
@retval EFI_INVALID_PARAMETER This is NULL or DnsModeData is NULL.
@retval EFI_OUT_OF_RESOURCE Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_GET_MODE_DATA)(
IN EFI_DNS6_PROTOCOL *This,
OUT EFI_DNS6_MODE_DATA *DnsModeData
);
/**
Configure this DNS instance.
The Configure() function is used to set and change the configuration data for this
EFI DNSv6 Protocol driver instance. Reset the DNS instance if DnsConfigData is NULL.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[in] DnsConfigData Pointer to the configuration data structure. All associated
storage to be allocated and released by caller.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER This is NULL.
The StationIp address provided in DnsConfigData is not zero and not a valid unicast.
DnsServerList is NULL while DnsServerList Count is not ZERO.
DnsServerList Count is ZERO while DnsServerList is not NULL.
@retval EFI_OUT_OF_RESOURCES The DNS instance data or required space could not be allocated.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred. The
EFI DNSv6 Protocol instance is not configured.
@retval EFI_UNSUPPORTED The designated protocol is not supported.
@retval EFI_ALREADY_STARTED Second call to Configure() with DnsConfigData. To
reconfigure the instance the caller must call Configure() with
NULL first to return driver to unconfigured state.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_CONFIGURE)(
IN EFI_DNS6_PROTOCOL *This,
IN EFI_DNS6_CONFIG_DATA *DnsConfigData
);
/**
Host name to host address translation.
The HostNameToIp () function is used to translate the host name to host IP address. A
type AAAA query is used to get the one or more IPv6 addresses for this host.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[in] HostName Host name.
@param[in] Token Point to the completion token to translate host name
to host address.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token.Event is NULL.
HostName is NULL or buffer contained unsupported characters.
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_ALREADY_STARTED This Token is being used in another DNS session.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_OUT_OF_RESOURCES Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_HOST_NAME_TO_IP)(
IN EFI_DNS6_PROTOCOL *This,
IN CHAR16 *HostName,
IN EFI_DNS6_COMPLETION_TOKEN *Token
);
/**
Host address to host name translation.
The IpToHostName () function is used to translate the host address to host name. A
type PTR query is used to get the primary name of the host. Implementation can choose
to support this function or not.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[in] IpAddress Ip Address.
@param[in] Token Point to the completion token to translate host
address to host name.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_UNSUPPORTED This function is not supported.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token.Event is NULL.
IpAddress is not valid IP address.
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_OUT_OF_RESOURCES Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_IP_TO_HOST_NAME)(
IN EFI_DNS6_PROTOCOL *This,
IN EFI_IPv6_ADDRESS IpAddress,
IN EFI_DNS6_COMPLETION_TOKEN *Token
);
/**
This function provides capability to retrieve arbitrary information from the DNS
server.
This GeneralLookup() function retrieves arbitrary information from the DNS. The caller
supplies a QNAME, QTYPE, and QCLASS, and all of the matching RRs are returned. All
RR content (e.g., TTL) was returned. The caller need parse the returned RR to get
required information. The function is optional. Implementation can choose to support
it or not.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[in] QName Pointer to Query Name.
@param[in] QType Query Type.
@param[in] QClass Query Name.
@param[in] Token Point to the completion token to retrieve arbitrary
information.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_UNSUPPORTED This function is not supported. Or the requested
QType is not supported
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token.Event is NULL.
QName is NULL.
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_OUT_OF_RESOURCES Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_GENERAL_LOOKUP)(
IN EFI_DNS6_PROTOCOL *This,
IN CHAR8 *QName,
IN UINT16 QType,
IN UINT16 QClass,
IN EFI_DNS6_COMPLETION_TOKEN *Token
);
/**
This function is to update the DNS Cache.
The UpdateDnsCache() function is used to add/delete/modify DNS cache entry. DNS cache
can be normally dynamically updated after the DNS resolve succeeds. This function
provided capability to manually add/delete/modify the DNS cache.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[in] DeleteFlag If FALSE, this function is to add one entry to the
DNS Cahce. If TRUE, this function will delete
matching DNS Cache entry.
@param[in] Override If TRUE, the maching DNS cache entry will be
overwritten with the supplied parameter. If FALSE,
EFI_ACCESS_DENIED will be returned if the entry to
be added is already existed.
@param[in] DnsCacheEntry Pointer to DNS Cache entry.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
DnsCacheEntry.HostName is NULL.
DnsCacheEntry.IpAddress is NULL.
DnsCacheEntry.Timeout is zero.
@retval EFI_ACCESS_DENIED The DNS cache entry already exists and Override is
not TRUE.
@retval EFI_OUT_OF_RESOURCE Failed to allocate needed resources.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_UPDATE_DNS_CACHE)(
IN EFI_DNS6_PROTOCOL *This,
IN BOOLEAN DeleteFlag,
IN BOOLEAN Override,
IN EFI_DNS6_CACHE_ENTRY DnsCacheEntry
);
/**
Polls for incoming data packets and processes outgoing data packets.
The Poll() function can be used by network drivers and applications to increase the
rate that data packets are moved between the communications device and the transmit
and receive queues.
In some systems, the periodic timer event in the managed network driver may not poll
the underlying communications device fast enough to transmit and/or receive all data
packets without missing incoming packets or dropping outgoing packets. Drivers and
applications that are experiencing packet loss should try calling the Poll()
function more often.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_NOT_STARTED This EFI DNS Protocol instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NO_MAPPING There is no source address is available for use.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_TIMEOUT Data was dropped out of the transmit and/or receive
queue. Consider increasing the polling rate.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_POLL)(
IN EFI_DNS6_PROTOCOL *This
);
/**
Abort an asynchronous DNS operation, including translation between IP and Host, and
general look up behavior.
The Cancel() function is used to abort a pending resolution request. After calling
this function, Token.Status will be set to EFI_ABORTED and then Token.Event will be
signaled. If the token is not in one of the queues, which usually means that the
asynchronous operation has completed, this function will not signal the token and
EFI_NOT_FOUND is returned.
@param[in] This Pointer to EFI_DNS6_PROTOCOL instance.
@param[in] Token Pointer to a token that has been issued by
EFI_DNS6_PROTOCOL.HostNameToIp (),
EFI_DNS6_PROTOCOL.IpToHostName() or
EFI_DNS6_PROTOCOL.GeneralLookup().
If NULL, all pending tokens are aborted.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_NOT_STARTED This EFI DNS6 Protocol instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NO_MAPPING There's no source address is available for use.
@retval EFI_NOT_FOUND When Token is not NULL, and the asynchronous DNS
operation was not found in the transmit queue. It
was either completed or was not issued by
HostNameToIp(), IpToHostName() or GeneralLookup().
**/
typedef
EFI_STATUS
(EFIAPI *EFI_DNS6_CANCEL)(
IN EFI_DNS6_PROTOCOL *This,
IN EFI_DNS6_COMPLETION_TOKEN *Token
);
///
/// The EFI_DNS6_PROTOCOL provides the function to get the host name and address
/// mapping, also provide pass through interface to retrieve arbitrary information from
/// DNSv6.
///
struct _EFI_DNS6_PROTOCOL {
EFI_DNS6_GET_MODE_DATA GetModeData;
EFI_DNS6_CONFIGURE Configure;
EFI_DNS6_HOST_NAME_TO_IP HostNameToIp;
EFI_DNS6_IP_TO_HOST_NAME IpToHostName;
EFI_DNS6_GENERAL_LOOKUP GeneralLookUp;
EFI_DNS6_UPDATE_DNS_CACHE UpdateDnsCache;
EFI_DNS6_POLL Poll;
EFI_DNS6_CANCEL Cancel;
};
extern EFI_GUID gEfiDns6ServiceBindingProtocolGuid;
extern EFI_GUID gEfiDns6ProtocolGuid;
#endif

View File

@ -0,0 +1,516 @@
/** @file
This file defines the EFI HTTP Protocol interface. It is split into
the following two main sections:
HTTP Service Binding Protocol (HTTPSB)
HTTP Protocol (HTTP)
Copyright (c) 2016 - 2018, Intel Corporation. All rights reserved.<BR>
(C) Copyright 2015-2017 Hewlett Packard Enterprise Development LP<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.5
**/
#ifndef __EFI_HTTP_PROTOCOL_H__
#define __EFI_HTTP_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#define EFI_HTTP_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0xbdc8e6af, 0xd9bc, 0x4379, {0xa7, 0x2a, 0xe0, 0xc4, 0xe7, 0x5d, 0xae, 0x1c } \
}
#define EFI_HTTP_PROTOCOL_GUID \
{ \
0x7a59b29b, 0x910b, 0x4171, {0x82, 0x42, 0xa8, 0x5a, 0x0d, 0xf2, 0x5b, 0x5b } \
}
typedef struct _EFI_HTTP_PROTOCOL EFI_HTTP_PROTOCOL;
///
/// EFI_HTTP_VERSION
///
typedef enum {
HttpVersion10,
HttpVersion11,
HttpVersionUnsupported
} EFI_HTTP_VERSION;
///
/// EFI_HTTP_METHOD
///
typedef enum {
HttpMethodGet,
HttpMethodPost,
HttpMethodPatch,
HttpMethodOptions,
HttpMethodConnect,
HttpMethodHead,
HttpMethodPut,
HttpMethodDelete,
HttpMethodTrace,
HttpMethodMax
} EFI_HTTP_METHOD;
///
/// EFI_HTTP_STATUS_CODE
///
typedef enum {
HTTP_STATUS_UNSUPPORTED_STATUS = 0,
HTTP_STATUS_100_CONTINUE,
HTTP_STATUS_101_SWITCHING_PROTOCOLS,
HTTP_STATUS_200_OK,
HTTP_STATUS_201_CREATED,
HTTP_STATUS_202_ACCEPTED,
HTTP_STATUS_203_NON_AUTHORITATIVE_INFORMATION,
HTTP_STATUS_204_NO_CONTENT,
HTTP_STATUS_205_RESET_CONTENT,
HTTP_STATUS_206_PARTIAL_CONTENT,
HTTP_STATUS_300_MULTIPLE_CHOICES,
HTTP_STATUS_301_MOVED_PERMANENTLY,
HTTP_STATUS_302_FOUND,
HTTP_STATUS_303_SEE_OTHER,
HTTP_STATUS_304_NOT_MODIFIED,
HTTP_STATUS_305_USE_PROXY,
HTTP_STATUS_307_TEMPORARY_REDIRECT,
HTTP_STATUS_400_BAD_REQUEST,
HTTP_STATUS_401_UNAUTHORIZED,
HTTP_STATUS_402_PAYMENT_REQUIRED,
HTTP_STATUS_403_FORBIDDEN,
HTTP_STATUS_404_NOT_FOUND,
HTTP_STATUS_405_METHOD_NOT_ALLOWED,
HTTP_STATUS_406_NOT_ACCEPTABLE,
HTTP_STATUS_407_PROXY_AUTHENTICATION_REQUIRED,
HTTP_STATUS_408_REQUEST_TIME_OUT,
HTTP_STATUS_409_CONFLICT,
HTTP_STATUS_410_GONE,
HTTP_STATUS_411_LENGTH_REQUIRED,
HTTP_STATUS_412_PRECONDITION_FAILED,
HTTP_STATUS_413_REQUEST_ENTITY_TOO_LARGE,
HTTP_STATUS_414_REQUEST_URI_TOO_LARGE,
HTTP_STATUS_415_UNSUPPORTED_MEDIA_TYPE,
HTTP_STATUS_416_REQUESTED_RANGE_NOT_SATISFIED,
HTTP_STATUS_417_EXPECTATION_FAILED,
HTTP_STATUS_500_INTERNAL_SERVER_ERROR,
HTTP_STATUS_501_NOT_IMPLEMENTED,
HTTP_STATUS_502_BAD_GATEWAY,
HTTP_STATUS_503_SERVICE_UNAVAILABLE,
HTTP_STATUS_504_GATEWAY_TIME_OUT,
HTTP_STATUS_505_HTTP_VERSION_NOT_SUPPORTED,
HTTP_STATUS_308_PERMANENT_REDIRECT
} EFI_HTTP_STATUS_CODE;
///
/// EFI_HTTPv4_ACCESS_POINT
///
typedef struct {
///
/// Set to TRUE to instruct the EFI HTTP instance to use the default address
/// information in every TCP connection made by this instance. In addition, when set
/// to TRUE, LocalAddress and LocalSubnet are ignored.
///
BOOLEAN UseDefaultAddress;
///
/// If UseDefaultAddress is set to FALSE, this defines the local IP address to be
/// used in every TCP connection opened by this instance.
///
EFI_IPv4_ADDRESS LocalAddress;
///
/// If UseDefaultAddress is set to FALSE, this defines the local subnet to be used
/// in every TCP connection opened by this instance.
///
EFI_IPv4_ADDRESS LocalSubnet;
///
/// This defines the local port to be used in
/// every TCP connection opened by this instance.
///
UINT16 LocalPort;
} EFI_HTTPv4_ACCESS_POINT;
///
/// EFI_HTTPv6_ACCESS_POINT
///
typedef struct {
///
/// Local IP address to be used in every TCP connection opened by this instance.
///
EFI_IPv6_ADDRESS LocalAddress;
///
/// Local port to be used in every TCP connection opened by this instance.
///
UINT16 LocalPort;
} EFI_HTTPv6_ACCESS_POINT;
///
/// EFI_HTTP_CONFIG_DATA_ACCESS_POINT
///
typedef struct {
///
/// HTTP version that this instance will support.
///
EFI_HTTP_VERSION HttpVersion;
///
/// Time out (in milliseconds) when blocking for requests.
///
UINT32 TimeOutMillisec;
///
/// Defines behavior of EFI DNS and TCP protocols consumed by this instance. If
/// FALSE, this instance will use EFI_DNS4_PROTOCOL and EFI_TCP4_PROTOCOL. If TRUE,
/// this instance will use EFI_DNS6_PROTOCOL and EFI_TCP6_PROTOCOL.
///
BOOLEAN LocalAddressIsIPv6;
union {
///
/// When LocalAddressIsIPv6 is FALSE, this points to the local address, subnet, and
/// port used by the underlying TCP protocol.
///
EFI_HTTPv4_ACCESS_POINT *IPv4Node;
///
/// When LocalAddressIsIPv6 is TRUE, this points to the local IPv6 address and port
/// used by the underlying TCP protocol.
///
EFI_HTTPv6_ACCESS_POINT *IPv6Node;
} AccessPoint;
} EFI_HTTP_CONFIG_DATA;
///
/// EFI_HTTP_REQUEST_DATA
///
typedef struct {
///
/// The HTTP method (e.g. GET, POST) for this HTTP Request.
///
EFI_HTTP_METHOD Method;
///
/// The URI of a remote host. From the information in this field, the HTTP instance
/// will be able to determine whether to use HTTP or HTTPS and will also be able to
/// determine the port number to use. If no port number is specified, port 80 (HTTP)
/// is assumed. See RFC 3986 for more details on URI syntax.
///
CHAR16 *Url;
} EFI_HTTP_REQUEST_DATA;
///
/// EFI_HTTP_RESPONSE_DATA
///
typedef struct {
///
/// Response status code returned by the remote host.
///
EFI_HTTP_STATUS_CODE StatusCode;
} EFI_HTTP_RESPONSE_DATA;
///
/// EFI_HTTP_HEADER
///
typedef struct {
///
/// Null terminated string which describes a field name. See RFC 2616 Section 14 for
/// detailed information about field names.
///
CHAR8 *FieldName;
///
/// Null terminated string which describes the corresponding field value. See RFC 2616
/// Section 14 for detailed information about field values.
///
CHAR8 *FieldValue;
} EFI_HTTP_HEADER;
///
/// EFI_HTTP_MESSAGE
///
typedef struct {
///
/// HTTP message data.
///
union {
///
/// When the token is used to send a HTTP request, Request is a pointer to storage that
/// contains such data as URL and HTTP method.
///
EFI_HTTP_REQUEST_DATA *Request;
///
/// When used to await a response, Response points to storage containing HTTP response
/// status code.
///
EFI_HTTP_RESPONSE_DATA *Response;
} Data;
///
/// Number of HTTP header structures in Headers list. On request, this count is
/// provided by the caller. On response, this count is provided by the HTTP driver.
///
UINTN HeaderCount;
///
/// Array containing list of HTTP headers. On request, this array is populated by the
/// caller. On response, this array is allocated and populated by the HTTP driver. It
/// is the responsibility of the caller to free this memory on both request and
/// response.
///
EFI_HTTP_HEADER *Headers;
///
/// Length in bytes of the HTTP body. This can be zero depending on the HttpMethod type.
///
UINTN BodyLength;
///
/// Body associated with the HTTP request or response. This can be NULL depending on
/// the HttpMethod type.
///
VOID *Body;
} EFI_HTTP_MESSAGE;
///
/// EFI_HTTP_TOKEN
///
typedef struct {
///
/// This Event will be signaled after the Status field is updated by the EFI HTTP
/// Protocol driver. The type of Event must be EFI_NOTIFY_SIGNAL. The Task Priority
/// Level (TPL) of Event must be lower than or equal to TPL_CALLBACK.
///
EFI_EVENT Event;
///
/// Status will be set to one of the following value if the HTTP request is
/// successfully sent or if an unexpected error occurs:
/// EFI_SUCCESS: The HTTP request was successfully sent to the remote host.
/// EFI_HTTP_ERROR: The response message was successfully received but contains a
/// HTTP error. The response status code is returned in token.
/// EFI_ABORTED: The HTTP request was cancelled by the caller and removed from
/// the transmit queue.
/// EFI_TIMEOUT: The HTTP request timed out before reaching the remote host.
/// EFI_DEVICE_ERROR: An unexpected system or network error occurred.
///
EFI_STATUS Status;
///
/// Pointer to storage containing HTTP message data.
///
EFI_HTTP_MESSAGE *Message;
} EFI_HTTP_TOKEN;
/**
Returns the operational parameters for the current HTTP child instance.
The GetModeData() function is used to read the current mode data (operational
parameters) for this HTTP protocol instance.
@param[in] This Pointer to EFI_HTTP_PROTOCOL instance.
@param[out] HttpConfigData Point to buffer for operational parameters of this
HTTP instance. It is the responsibility of the caller
to allocate the memory for HttpConfigData and
HttpConfigData->AccessPoint.IPv6Node/IPv4Node. In fact,
it is recommended to allocate sufficient memory to record
IPv6Node since it is big enough for all possibilities.
@retval EFI_SUCCESS Operation succeeded.
@retval EFI_INVALID_PARAMETER This is NULL.
HttpConfigData is NULL.
HttpConfigData->AccessPoint.IPv4Node or
HttpConfigData->AccessPoint.IPv6Node is NULL.
@retval EFI_NOT_STARTED This EFI HTTP Protocol instance has not been started.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_HTTP_GET_MODE_DATA)(
IN EFI_HTTP_PROTOCOL *This,
OUT EFI_HTTP_CONFIG_DATA *HttpConfigData
);
/**
Initialize or brutally reset the operational parameters for this EFI HTTP instance.
The Configure() function does the following:
When HttpConfigData is not NULL Initialize this EFI HTTP instance by configuring
timeout, local address, port, etc.
When HttpConfigData is NULL, reset this EFI HTTP instance by closing all active
connections with remote hosts, canceling all asynchronous tokens, and flush request
and response buffers without informing the appropriate hosts.
No other EFI HTTP function can be executed by this instance until the Configure()
function is executed and returns successfully.
@param[in] This Pointer to EFI_HTTP_PROTOCOL instance.
@param[in] HttpConfigData Pointer to the configure data to configure the instance.
@retval EFI_SUCCESS Operation succeeded.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
HttpConfigData->LocalAddressIsIPv6 is FALSE and
HttpConfigData->AccessPoint.IPv4Node is NULL.
HttpConfigData->LocalAddressIsIPv6 is TRUE and
HttpConfigData->AccessPoint.IPv6Node is NULL.
@retval EFI_ALREADY_STARTED Reinitialize this HTTP instance without calling
Configure() with NULL to reset it.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_OUT_OF_RESOURCES Could not allocate enough system resources when
executing Configure().
@retval EFI_UNSUPPORTED One or more options in ConfigData are not supported
in the implementation.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_HTTP_CONFIGURE)(
IN EFI_HTTP_PROTOCOL *This,
IN EFI_HTTP_CONFIG_DATA *HttpConfigData OPTIONAL
);
/**
The Request() function queues an HTTP request to this HTTP instance,
similar to Transmit() function in the EFI TCP driver. When the HTTP request is sent
successfully, or if there is an error, Status in token will be updated and Event will
be signaled.
@param[in] This Pointer to EFI_HTTP_PROTOCOL instance.
@param[in] Token Pointer to storage containing HTTP request token.
@retval EFI_SUCCESS Outgoing data was processed.
@retval EFI_NOT_STARTED This EFI HTTP Protocol instance has not been started.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_TIMEOUT Data was dropped out of the transmit or receive queue.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token->Message is NULL.
Token->Message->Body is not NULL,
Token->Message->BodyLength is non-zero, and
Token->Message->Data is NULL, but a previous call to
Request()has not been completed successfully.
@retval EFI_OUT_OF_RESOURCES Could not allocate enough system resources.
@retval EFI_UNSUPPORTED The HTTP method is not supported in current implementation.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_HTTP_REQUEST)(
IN EFI_HTTP_PROTOCOL *This,
IN EFI_HTTP_TOKEN *Token
);
/**
Abort an asynchronous HTTP request or response token.
The Cancel() function aborts a pending HTTP request or response transaction. If
Token is not NULL and the token is in transmit or receive queues when it is being
cancelled, its Token->Status will be set to EFI_ABORTED and then Token->Event will
be signaled. If the token is not in one of the queues, which usually means that the
asynchronous operation has completed, EFI_NOT_FOUND is returned. If Token is NULL,
all asynchronous tokens issued by Request() or Response() will be aborted.
@param[in] This Pointer to EFI_HTTP_PROTOCOL instance.
@param[in] Token Point to storage containing HTTP request or response
token.
@retval EFI_SUCCESS Request and Response queues are successfully flushed.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NOT_STARTED This instance hasn't been configured.
@retval EFI_NOT_FOUND The asynchronous request or response token is not
found.
@retval EFI_UNSUPPORTED The implementation does not support this function.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_HTTP_CANCEL)(
IN EFI_HTTP_PROTOCOL *This,
IN EFI_HTTP_TOKEN *Token
);
/**
The Response() function queues an HTTP response to this HTTP instance, similar to
Receive() function in the EFI TCP driver. When the HTTP Response is received successfully,
or if there is an error, Status in token will be updated and Event will be signaled.
The HTTP driver will queue a receive token to the underlying TCP instance. When data
is received in the underlying TCP instance, the data will be parsed and Token will
be populated with the response data. If the data received from the remote host
contains an incomplete or invalid HTTP header, the HTTP driver will continue waiting
(asynchronously) for more data to be sent from the remote host before signaling
Event in Token.
It is the responsibility of the caller to allocate a buffer for Body and specify the
size in BodyLength. If the remote host provides a response that contains a content
body, up to BodyLength bytes will be copied from the receive buffer into Body and
BodyLength will be updated with the amount of bytes received and copied to Body. This
allows the client to download a large file in chunks instead of into one contiguous
block of memory. Similar to HTTP request, if Body is not NULL and BodyLength is
non-zero and all other fields are NULL or 0, the HTTP driver will queue a receive
token to underlying TCP instance. If data arrives in the receive buffer, up to
BodyLength bytes of data will be copied to Body. The HTTP driver will then update
BodyLength with the amount of bytes received and copied to Body.
If the HTTP driver does not have an open underlying TCP connection with the host
specified in the response URL, Request() will return EFI_ACCESS_DENIED. This is
consistent with RFC 2616 recommendation that HTTP clients should attempt to maintain
an open TCP connection between client and host.
@param[in] This Pointer to EFI_HTTP_PROTOCOL instance.
@param[in] Token Pointer to storage containing HTTP response token.
@retval EFI_SUCCESS Allocation succeeded.
@retval EFI_NOT_STARTED This EFI HTTP Protocol instance has not been
initialized.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
This is NULL.
Token is NULL.
Token->Message->Headers is NULL.
Token->Message is NULL.
Token->Message->Body is not NULL,
Token->Message->BodyLength is non-zero, and
Token->Message->Data is NULL, but a previous call to
Response() has not been completed successfully.
@retval EFI_OUT_OF_RESOURCES Could not allocate enough system resources.
@retval EFI_ACCESS_DENIED An open TCP connection is not present with the host
specified by response URL.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_HTTP_RESPONSE)(
IN EFI_HTTP_PROTOCOL *This,
IN EFI_HTTP_TOKEN *Token
);
/**
The Poll() function can be used by network drivers and applications to increase the
rate that data packets are moved between the communication devices and the transmit
and receive queues.
In some systems, the periodic timer event in the managed network driver may not poll
the underlying communications device fast enough to transmit and/or receive all data
packets without missing incoming packets or dropping outgoing packets. Drivers and
applications that are experiencing packet loss should try calling the Poll() function
more often.
@param[in] This Pointer to EFI_HTTP_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed..
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NOT_READY No incoming or outgoing data is processed.
@retval EFI_NOT_STARTED This EFI HTTP Protocol instance has not been started.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_HTTP_POLL)(
IN EFI_HTTP_PROTOCOL *This
);
///
/// The EFI HTTP protocol is designed to be used by EFI drivers and applications to
/// create and transmit HTTP Requests, as well as handle HTTP responses that are
/// returned by a remote host. This EFI protocol uses and relies on an underlying EFI
/// TCP protocol.
///
struct _EFI_HTTP_PROTOCOL {
EFI_HTTP_GET_MODE_DATA GetModeData;
EFI_HTTP_CONFIGURE Configure;
EFI_HTTP_REQUEST Request;
EFI_HTTP_CANCEL Cancel;
EFI_HTTP_RESPONSE Response;
EFI_HTTP_POLL Poll;
};
extern EFI_GUID gEfiHttpServiceBindingProtocolGuid;
extern EFI_GUID gEfiHttpProtocolGuid;
#endif

View File

@ -0,0 +1,318 @@
/** @file
This file provides a definition of the EFI IPv4 Configuration II
Protocol.
Copyright (c) 2015 - 2018, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.5
**/
#ifndef __EFI_IP4CONFIG2_PROTOCOL_H__
#define __EFI_IP4CONFIG2_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#include <ipxe/efi/Protocol/Ip4.h>
#define EFI_IP4_CONFIG2_PROTOCOL_GUID \
{ \
0x5b446ed1, 0xe30b, 0x4faa, {0x87, 0x1a, 0x36, 0x54, 0xec, 0xa3, 0x60, 0x80 } \
}
typedef struct _EFI_IP4_CONFIG2_PROTOCOL EFI_IP4_CONFIG2_PROTOCOL;
///
/// EFI_IP4_CONFIG2_DATA_TYPE
///
typedef enum {
///
/// The interface information of the communication device this EFI
/// IPv4 Configuration II Protocol instance manages. This type of
/// data is read only. The corresponding Data is of type
/// EFI_IP4_CONFIG2_INTERFACE_INFO.
///
Ip4Config2DataTypeInterfaceInfo,
///
/// The general configuration policy for the EFI IPv4 network stack
/// running on the communication device this EFI IPv4
/// Configuration II Protocol instance manages. The policy will
/// affect other configuration settings. The corresponding Data is of
/// type EFI_IP4_CONFIG2_POLICY.
///
Ip4Config2DataTypePolicy,
///
/// The station addresses set manually for the EFI IPv4 network
/// stack. It is only configurable when the policy is
/// Ip4Config2PolicyStatic. The corresponding Data is of
/// type EFI_IP4_CONFIG2_MANUAL_ADDRESS. When DataSize
/// is 0 and Data is NULL, the existing configuration is cleared
/// from the EFI IPv4 Configuration II Protocol instance.
///
Ip4Config2DataTypeManualAddress,
///
/// The gateway addresses set manually for the EFI IPv4 network
/// stack running on the communication device this EFI IPv4
/// Configuration II Protocol manages. It is not configurable when
/// the policy is Ip4Config2PolicyDhcp. The gateway
/// addresses must be unicast IPv4 addresses. The corresponding
/// Data is a pointer to an array of EFI_IPv4_ADDRESS instances.
/// When DataSize is 0 and Data is NULL, the existing configuration
/// is cleared from the EFI IPv4 Configuration II Protocol instance.
///
Ip4Config2DataTypeGateway,
///
/// The DNS server list for the EFI IPv4 network stack running on
/// the communication device this EFI IPv4 Configuration II
/// Protocol manages. It is not configurable when the policy is
/// Ip4Config2PolicyDhcp. The DNS server addresses must be
/// unicast IPv4 addresses. The corresponding Data is a pointer to
/// an array of EFI_IPv4_ADDRESS instances. When DataSize
/// is 0 and Data is NULL, the existing configuration is cleared
/// from the EFI IPv4 Configuration II Protocol instance.
///
Ip4Config2DataTypeDnsServer,
Ip4Config2DataTypeMaximum
} EFI_IP4_CONFIG2_DATA_TYPE;
///
/// EFI_IP4_CONFIG2_INTERFACE_INFO related definitions
///
#define EFI_IP4_CONFIG2_INTERFACE_INFO_NAME_SIZE 32
///
/// EFI_IP4_CONFIG2_INTERFACE_INFO
///
typedef struct {
///
/// The name of the interface. It is a NULL-terminated Unicode string.
///
CHAR16 Name[EFI_IP4_CONFIG2_INTERFACE_INFO_NAME_SIZE];
///
/// The interface type of the network interface. See RFC 1700,
/// section "Number Hardware Type".
///
UINT8 IfType;
///
/// The size, in bytes, of the network interface's hardware address.
///
UINT32 HwAddressSize;
///
/// The hardware address for the network interface.
///
EFI_MAC_ADDRESS HwAddress;
///
/// The station IPv4 address of this EFI IPv4 network stack.
///
EFI_IPv4_ADDRESS StationAddress;
///
/// The subnet address mask that is associated with the station address.
///
EFI_IPv4_ADDRESS SubnetMask;
///
/// Size of the following RouteTable, in bytes. May be zero.
///
UINT32 RouteTableSize;
///
/// The route table of the IPv4 network stack runs on this interface.
/// Set to NULL if RouteTableSize is zero. Type EFI_IP4_ROUTE_TABLE is defined in
/// EFI_IP4_PROTOCOL.GetModeData().
///
EFI_IP4_ROUTE_TABLE *RouteTable OPTIONAL;
} EFI_IP4_CONFIG2_INTERFACE_INFO;
///
/// EFI_IP4_CONFIG2_POLICY
///
typedef enum {
///
/// Under this policy, the Ip4Config2DataTypeManualAddress,
/// Ip4Config2DataTypeGateway and Ip4Config2DataTypeDnsServer configuration
/// data are required to be set manually. The EFI IPv4 Protocol will get all
/// required configuration such as IPv4 address, subnet mask and
/// gateway settings from the EFI IPv4 Configuration II protocol.
///
Ip4Config2PolicyStatic,
///
/// Under this policy, the Ip4Config2DataTypeManualAddress,
/// Ip4Config2DataTypeGateway and Ip4Config2DataTypeDnsServer configuration data are
/// not allowed to set via SetData(). All of these configurations are retrieved from DHCP
/// server or other auto-configuration mechanism.
///
Ip4Config2PolicyDhcp,
Ip4Config2PolicyMax
} EFI_IP4_CONFIG2_POLICY;
///
/// EFI_IP4_CONFIG2_MANUAL_ADDRESS
///
typedef struct {
///
/// The IPv4 unicast address.
///
EFI_IPv4_ADDRESS Address;
///
/// The subnet mask.
///
EFI_IPv4_ADDRESS SubnetMask;
} EFI_IP4_CONFIG2_MANUAL_ADDRESS;
/**
Set the configuration for the EFI IPv4 network stack running on the communication device this EFI
IPv4 Configuration II Protocol instance manages.
This function is used to set the configuration data of type DataType for the EFI IPv4 network stack
running on the communication device this EFI IPv4 Configuration II Protocol instance manages.
The successfully configured data is valid after system reset or power-off.
The DataSize is used to calculate the count of structure instances in the Data for some
DataType that multiple structure instances are allowed.
This function is always non-blocking. When setting some typeof configuration data, an
asynchronous process is invoked to check the correctness of the data, such as doing address conflict
detection on the manually set local IPv4 address. EFI_NOT_READY is returned immediately to
indicate that such an asynchronous process is invoked and the process is not finished yet. The caller
willing to get the result of the asynchronous process is required to call RegisterDataNotify()
to register an event on the specified configuration data. Once the event is signaled, the caller can call
GetData()to get back the configuration data in order to know the result. For other types of
configuration data that do not require an asynchronous configuration process, the result of the
operation is immediately returned.
@param[in] This Pointer to the EFI_IP4_CONFIG2_PROTOCOL instance.
@param[in] DataType The type of data to set.
@param[in] DataSize Size of the buffer pointed to by Data in bytes.
@param[in] Data The data buffer to set. The type ofthe data buffer is associated
with the DataType.
@retval EFI_SUCCESS The specified configuration data for the EFI IPv4 network stack is set
successfully.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
This is NULL.
One or more fields in Data and DataSize do not match the
requirement of the data type indicated by DataType.
@retval EFI_WRITE_PROTECTED The specified configuration data is read-only or the specified configuration
data can not be set under the current policy.
@retval EFI_ACCESS_DENIED Another set operation on the specified configuration data is already in process.
@retval EFI_NOT_READY An asynchronous process is invoked to set the specified configuration data and
the process is not finished yet.
@retval EFI_BAD_BUFFER_SIZE The DataSize does not match the size of the type indicated by DataType.
@retval EFI_UNSUPPORTED This DataType is not supported.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_DEVICE_ERROR An unexpected system error or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP4_CONFIG2_SET_DATA)(
IN EFI_IP4_CONFIG2_PROTOCOL *This,
IN EFI_IP4_CONFIG2_DATA_TYPE DataType,
IN UINTN DataSize,
IN VOID *Data
);
/**
Get the configuration data for the EFI IPv4 network stack running on the communication device this
EFI IPv4 Configuration II Protocol instance manages.
This function returns the configuration data of type DataType for the EFI IPv4 network stack
running on the communication device this EFI IPv4 Configuration II Protocol instance manages.
The caller is responsible for allocating the buffer usedto return the specified configuration data and
the required size will be returned to the caller if the size of the buffer is too small.
EFI_NOT_READY is returned if the specified configuration data is not ready due to an already in
progress asynchronous configuration process. The caller can call RegisterDataNotify() to
register an event on the specified configuration data. Once the asynchronous configuration process is
finished, the event will be signaled and a subsequent GetData() call will return the specified
configuration data.
@param[in] This Pointer to the EFI_IP4_CONFIG2_PROTOCOL instance.
@param[in] DataType The type of data to get.
@param[out] DataSize On input, in bytes, the size of Data. On output, in bytes, the size
of buffer required to store the specified configuration data.
@param[in] Data The data buffer in which the configuration data is returned. The
type of the data buffer is associated with the DataType. Ignored
if DataSize is 0.
@retval EFI_SUCCESS The specified configuration data is got successfully.
@retval EFI_INVALID_PARAMETER One or more of the followings are TRUE:
This is NULL.
DataSize is NULL.
Data is NULL if *DataSizeis not zero.
@retval EFI_BUFFER_TOO_SMALL The size of Data is too small for the specified configuration data
and the required size is returned in DataSize.
@retval EFI_NOT_READY The specified configuration data is not ready due to an already in
progress asynchronous configuration process.
@retval EFI_NOT_FOUND The specified configuration data is not found.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP4_CONFIG2_GET_DATA)(
IN EFI_IP4_CONFIG2_PROTOCOL *This,
IN EFI_IP4_CONFIG2_DATA_TYPE DataType,
IN OUT UINTN *DataSize,
IN VOID *Data OPTIONAL
);
/**
Register an event that is to be signaled whenever a configuration process on the specified
configuration data is done.
This function registers an event that is to be signaled whenever a configuration process on the
specified configuration data is done. An event can be registered for different DataType
simultaneously and the caller is responsible for determining which type of configuration data causes
the signaling of the event in such case.
@param[in] This Pointer to the EFI_IP4_CONFIG2_PROTOCOL instance.
@param[in] DataType The type of data to unregister the event for.
@param[in] Event The event to register.
@retval EFI_SUCCESS The notification event for the specified configuration data is
registered.
@retval EFI_INVALID_PARAMETER This is NULL or Event is NULL.
@retval EFI_UNSUPPORTED The configuration data type specified by DataType is not supported.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_ACCESS_DENIED The Event is already registered for the DataType.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP4_CONFIG2_REGISTER_NOTIFY)(
IN EFI_IP4_CONFIG2_PROTOCOL *This,
IN EFI_IP4_CONFIG2_DATA_TYPE DataType,
IN EFI_EVENT Event
);
/**
Remove a previously registered event for the specified configuration data.
This function removes a previously registeredevent for the specified configuration data.
@param[in] This Pointer to the EFI_IP4_CONFIG2_PROTOCOL instance.
@param[in] DataType The type of data to remove the previously registered event for.
@param[in] Event The event to unregister.
@retval EFI_SUCCESS The event registered for the specified configuration data is removed.
@retval EFI_INVALID_PARAMETER This is NULL or Event is NULL.
@retval EFI_NOT_FOUND The Eventhas not been registered for the specified DataType.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP4_CONFIG2_UNREGISTER_NOTIFY)(
IN EFI_IP4_CONFIG2_PROTOCOL *This,
IN EFI_IP4_CONFIG2_DATA_TYPE DataType,
IN EFI_EVENT Event
);
///
/// The EFI_IP4_CONFIG2_PROTOCOL is designed to be the central repository for the common
/// configurations and the administrator configurable settings for the EFI IPv4 network stack.
/// An EFI IPv4 Configuration II Protocol instance will be installed on each communication device that
/// the EFI IPv4 network stack runs on.
///
struct _EFI_IP4_CONFIG2_PROTOCOL {
EFI_IP4_CONFIG2_SET_DATA SetData;
EFI_IP4_CONFIG2_GET_DATA GetData;
EFI_IP4_CONFIG2_REGISTER_NOTIFY RegisterDataNotify;
EFI_IP4_CONFIG2_UNREGISTER_NOTIFY UnregisterDataNotify;
};
extern EFI_GUID gEfiIp4Config2ProtocolGuid;
#endif

View File

@ -0,0 +1,948 @@
/** @file
This file defines the EFI IPv6 (Internet Protocol version 6)
Protocol interface. It is split into the following three main
sections:
- EFI IPv6 Service Binding Protocol
- EFI IPv6 Variable (deprecated in UEFI 2.4B)
- EFI IPv6 Protocol
The EFI IPv6 Protocol provides basic network IPv6 packet I/O services,
which includes support for Neighbor Discovery Protocol (ND), Multicast
Listener Discovery Protocol (MLD), and a subset of the Internet Control
Message Protocol (ICMPv6).
Copyright (c) 2008 - 2014, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.2
**/
#ifndef __EFI_IP6_PROTOCOL_H__
#define __EFI_IP6_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#include <ipxe/efi/Protocol/ManagedNetwork.h>
#define EFI_IP6_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0xec835dd3, 0xfe0f, 0x617b, {0xa6, 0x21, 0xb3, 0x50, 0xc3, 0xe1, 0x33, 0x88 } \
}
#define EFI_IP6_PROTOCOL_GUID \
{ \
0x2c8759d5, 0x5c2d, 0x66ef, {0x92, 0x5f, 0xb6, 0x6c, 0x10, 0x19, 0x57, 0xe2 } \
}
typedef struct _EFI_IP6_PROTOCOL EFI_IP6_PROTOCOL;
///
/// EFI_IP6_ADDRESS_PAIR is deprecated in the UEFI 2.4B and should not be used any more.
/// The definition in here is only present to provide backwards compatability.
///
typedef struct {
///
/// The EFI IPv6 Protocol instance handle that is using this address/prefix pair.
///
EFI_HANDLE InstanceHandle;
///
/// IPv6 address in network byte order.
///
EFI_IPv6_ADDRESS Ip6Address;
///
/// The length of the prefix associated with the Ip6Address.
///
UINT8 PrefixLength;
} EFI_IP6_ADDRESS_PAIR;
///
/// EFI_IP6_VARIABLE_DATA is deprecated in the UEFI 2.4B and should not be used any more.
/// The definition in here is only present to provide backwards compatability.
///
typedef struct {
///
/// The handle of the driver that creates this entry.
///
EFI_HANDLE DriverHandle;
///
/// The number of IPv6 address pairs that follow this data structure.
///
UINT32 AddressCount;
///
/// List of IPv6 address pairs that are currently in use.
///
EFI_IP6_ADDRESS_PAIR AddressPairs[1];
} EFI_IP6_VARIABLE_DATA;
///
/// ICMPv6 type definitions for error messages
///
///@{
#define ICMP_V6_DEST_UNREACHABLE 0x1
#define ICMP_V6_PACKET_TOO_BIG 0x2
#define ICMP_V6_TIME_EXCEEDED 0x3
#define ICMP_V6_PARAMETER_PROBLEM 0x4
///@}
///
/// ICMPv6 type definition for informational messages
///
///@{
#define ICMP_V6_ECHO_REQUEST 0x80
#define ICMP_V6_ECHO_REPLY 0x81
#define ICMP_V6_LISTENER_QUERY 0x82
#define ICMP_V6_LISTENER_REPORT 0x83
#define ICMP_V6_LISTENER_DONE 0x84
#define ICMP_V6_ROUTER_SOLICIT 0x85
#define ICMP_V6_ROUTER_ADVERTISE 0x86
#define ICMP_V6_NEIGHBOR_SOLICIT 0x87
#define ICMP_V6_NEIGHBOR_ADVERTISE 0x88
#define ICMP_V6_REDIRECT 0x89
#define ICMP_V6_LISTENER_REPORT_2 0x8F
///@}
///
/// ICMPv6 code definitions for ICMP_V6_DEST_UNREACHABLE
///
///@{
#define ICMP_V6_NO_ROUTE_TO_DEST 0x0
#define ICMP_V6_COMM_PROHIBITED 0x1
#define ICMP_V6_BEYOND_SCOPE 0x2
#define ICMP_V6_ADDR_UNREACHABLE 0x3
#define ICMP_V6_PORT_UNREACHABLE 0x4
#define ICMP_V6_SOURCE_ADDR_FAILED 0x5
#define ICMP_V6_ROUTE_REJECTED 0x6
///@}
///
/// ICMPv6 code definitions for ICMP_V6_TIME_EXCEEDED
///
///@{
#define ICMP_V6_TIMEOUT_HOP_LIMIT 0x0
#define ICMP_V6_TIMEOUT_REASSEMBLE 0x1
///@}
///
/// ICMPv6 code definitions for ICMP_V6_PARAMETER_PROBLEM
///
///@{
#define ICMP_V6_ERRONEOUS_HEADER 0x0
#define ICMP_V6_UNRECOGNIZE_NEXT_HDR 0x1
#define ICMP_V6_UNRECOGNIZE_OPTION 0x2
///@}
///
/// EFI_IP6_CONFIG_DATA
/// is used to report and change IPv6 session parameters.
///
typedef struct {
///
/// For the IPv6 packet to send and receive, this is the default value
/// of the 'Next Header' field in the last IPv6 extension header or in
/// the IPv6 header if there are no extension headers. Ignored when
/// AcceptPromiscuous is TRUE.
///
UINT8 DefaultProtocol;
///
/// Set to TRUE to receive all IPv6 packets that get through the
/// receive filters.
/// Set to FALSE to receive only the DefaultProtocol IPv6
/// packets that get through the receive filters. Ignored when
/// AcceptPromiscuous is TRUE.
///
BOOLEAN AcceptAnyProtocol;
///
/// Set to TRUE to receive ICMP error report packets. Ignored when
/// AcceptPromiscuous or AcceptAnyProtocol is TRUE.
///
BOOLEAN AcceptIcmpErrors;
///
/// Set to TRUE to receive all IPv6 packets that are sent to any
/// hardware address or any protocol address. Set to FALSE to stop
/// receiving all promiscuous IPv6 packets.
///
BOOLEAN AcceptPromiscuous;
///
/// The destination address of the packets that will be transmitted.
/// Ignored if it is unspecified.
///
EFI_IPv6_ADDRESS DestinationAddress;
///
/// The station IPv6 address that will be assigned to this EFI IPv6
/// Protocol instance. This field can be set and changed only when
/// the EFI IPv6 driver is transitioning from the stopped to the started
/// states. If the StationAddress is specified, the EFI IPv6 Protocol
/// driver will deliver only incoming IPv6 packets whose destination
/// matches this IPv6 address exactly. The StationAddress is required
/// to be one of currently configured IPv6 addresses. An address
/// containing all zeroes is also accepted as a special case. Under this
/// situation, the IPv6 driver is responsible for binding a source
/// address to this EFI IPv6 protocol instance according to the source
/// address selection algorithm. Only incoming packets destined to
/// the selected address will be delivered to the user. And the
/// selected station address can be retrieved through later
/// GetModeData() call. If no address is available for selecting,
/// EFI_NO_MAPPING will be returned, and the station address will
/// only be successfully bound to this EFI IPv6 protocol instance
/// after IP6ModeData.IsConfigured changed to TRUE.
///
EFI_IPv6_ADDRESS StationAddress;
///
/// TrafficClass field in transmitted IPv6 packets. Default value
/// is zero.
///
UINT8 TrafficClass;
///
/// HopLimit field in transmitted IPv6 packets.
///
UINT8 HopLimit;
///
/// FlowLabel field in transmitted IPv6 packets. Default value is
/// zero.
///
UINT32 FlowLabel;
///
/// The timer timeout value (number of microseconds) for the
/// receive timeout event to be associated with each assembled
/// packet. Zero means do not drop assembled packets.
///
UINT32 ReceiveTimeout;
///
/// The timer timeout value (number of microseconds) for the
/// transmit timeout event to be associated with each outgoing
/// packet. Zero means do not drop outgoing packets.
///
UINT32 TransmitTimeout;
} EFI_IP6_CONFIG_DATA;
///
/// EFI_IP6_ADDRESS_INFO
///
typedef struct {
EFI_IPv6_ADDRESS Address; ///< The IPv6 address.
UINT8 PrefixLength; ///< The length of the prefix associated with the Address.
} EFI_IP6_ADDRESS_INFO;
///
/// EFI_IP6_ROUTE_TABLE
/// is the entry structure that is used in routing tables
///
typedef struct {
///
/// The IPv6 address of the gateway to be used as the next hop for
/// packets to this prefix. If the IPv6 address is all zeros, then the
/// prefix is on-link.
///
EFI_IPv6_ADDRESS Gateway;
///
/// The destination prefix to be routed.
///
EFI_IPv6_ADDRESS Destination;
///
/// The length of the prefix associated with the Destination.
///
UINT8 PrefixLength;
} EFI_IP6_ROUTE_TABLE;
///
/// EFI_IP6_NEIGHBOR_STATE
///
typedef enum {
///
/// Address resolution is being performed on this entry. Specially,
/// Neighbor Solicitation has been sent to the solicited-node
/// multicast address of the target, but corresponding Neighbor
/// Advertisement has not been received.
///
EfiNeighborInComplete,
///
/// Positive confirmation was received that the forward path to the
/// neighbor was functioning properly.
///
EfiNeighborReachable,
///
/// Reachable Time has elapsed since the last positive confirmation
/// was received. In this state, the forward path to the neighbor was
/// functioning properly.
///
EfiNeighborStale,
///
/// This state is an optimization that gives upper-layer protocols
/// additional time to provide reachability confirmation.
///
EfiNeighborDelay,
///
/// A reachability confirmation is actively sought by retransmitting
/// Neighbor Solicitations every RetransTimer milliseconds until a
/// reachability confirmation is received.
///
EfiNeighborProbe
} EFI_IP6_NEIGHBOR_STATE;
///
/// EFI_IP6_NEIGHBOR_CACHE
/// is the entry structure that is used in neighbor cache. It records a set
/// of entries about individual neighbors to which traffic has been sent recently.
///
typedef struct {
EFI_IPv6_ADDRESS Neighbor; ///< The on-link unicast/anycast IP address of the neighbor.
EFI_MAC_ADDRESS LinkAddress; ///< Link-layer address of the neighbor.
EFI_IP6_NEIGHBOR_STATE State; ///< State of this neighbor cache entry.
} EFI_IP6_NEIGHBOR_CACHE;
///
/// EFI_IP6_ICMP_TYPE
/// is used to describe those ICMP messages that are supported by this EFI
/// IPv6 Protocol driver.
///
typedef struct {
UINT8 Type; ///< The type of ICMP message.
UINT8 Code; ///< The code of the ICMP message.
} EFI_IP6_ICMP_TYPE;
///
/// EFI_IP6_MODE_DATA
///
typedef struct {
///
/// Set to TRUE after this EFI IPv6 Protocol instance is started.
/// All other fields in this structure are undefined until this field is TRUE.
/// Set to FALSE when the EFI IPv6 Protocol instance is stopped.
///
BOOLEAN IsStarted;
///
/// The maximum packet size, in bytes, of the packet which the upper layer driver could feed.
///
UINT32 MaxPacketSize;
///
/// Current configuration settings. Undefined until IsStarted is TRUE.
///
EFI_IP6_CONFIG_DATA ConfigData;
///
/// Set to TRUE when the EFI IPv6 Protocol instance is configured.
/// The instance is configured when it has a station address and
/// corresponding prefix length.
/// Set to FALSE when the EFI IPv6 Protocol instance is not configured.
///
BOOLEAN IsConfigured;
///
/// Number of configured IPv6 addresses on this interface.
///
UINT32 AddressCount;
///
/// List of currently configured IPv6 addresses and corresponding
/// prefix lengths assigned to this interface. It is caller's
/// responsibility to free this buffer.
///
EFI_IP6_ADDRESS_INFO *AddressList;
///
/// Number of joined multicast groups. Undefined until
/// IsConfigured is TRUE.
///
UINT32 GroupCount;
///
/// List of joined multicast group addresses. It is caller's
/// responsibility to free this buffer. Undefined until
/// IsConfigured is TRUE.
///
EFI_IPv6_ADDRESS *GroupTable;
///
/// Number of entries in the routing table. Undefined until
/// IsConfigured is TRUE.
///
UINT32 RouteCount;
///
/// Routing table entries. It is caller's responsibility to free this buffer.
///
EFI_IP6_ROUTE_TABLE *RouteTable;
///
/// Number of entries in the neighbor cache. Undefined until
/// IsConfigured is TRUE.
///
UINT32 NeighborCount;
///
/// Neighbor cache entries. It is caller's responsibility to free this
/// buffer. Undefined until IsConfigured is TRUE.
///
EFI_IP6_NEIGHBOR_CACHE *NeighborCache;
///
/// Number of entries in the prefix table. Undefined until
/// IsConfigured is TRUE.
///
UINT32 PrefixCount;
///
/// On-link Prefix table entries. It is caller's responsibility to free this
/// buffer. Undefined until IsConfigured is TRUE.
///
EFI_IP6_ADDRESS_INFO *PrefixTable;
///
/// Number of entries in the supported ICMP types list.
///
UINT32 IcmpTypeCount;
///
/// Array of ICMP types and codes that are supported by this EFI
/// IPv6 Protocol driver. It is caller's responsibility to free this
/// buffer.
///
EFI_IP6_ICMP_TYPE *IcmpTypeList;
} EFI_IP6_MODE_DATA;
///
/// EFI_IP6_HEADER
/// The fields in the IPv6 header structure are defined in the Internet
/// Protocol version6 specification.
///
#pragma pack(1)
typedef struct _EFI_IP6_HEADER {
UINT8 TrafficClassH : 4;
UINT8 Version : 4;
UINT8 FlowLabelH : 4;
UINT8 TrafficClassL : 4;
UINT16 FlowLabelL;
UINT16 PayloadLength;
UINT8 NextHeader;
UINT8 HopLimit;
EFI_IPv6_ADDRESS SourceAddress;
EFI_IPv6_ADDRESS DestinationAddress;
} EFI_IP6_HEADER;
#pragma pack()
///
/// EFI_IP6_FRAGMENT_DATA
/// describes the location and length of the IPv6 packet
/// fragment to transmit or that has been received.
///
typedef struct _EFI_IP6_FRAGMENT_DATA {
UINT32 FragmentLength; ///< Length of fragment data. This field may not be set to zero.
VOID *FragmentBuffer; ///< Pointer to fragment data. This field may not be set to NULL.
} EFI_IP6_FRAGMENT_DATA;
///
/// EFI_IP6_RECEIVE_DATA
///
typedef struct _EFI_IP6_RECEIVE_DATA {
///
/// Time when the EFI IPv6 Protocol driver accepted the packet.
/// Ignored if it is zero.
///
EFI_TIME TimeStamp;
///
/// After this event is signaled, the receive data structure is released
/// and must not be referenced.
///
EFI_EVENT RecycleSignal;
///
/// Length of the IPv6 packet headers, including both the IPv6
/// header and any extension headers.
///
UINT32 HeaderLength;
///
/// Pointer to the IPv6 packet header. If the IPv6 packet was
/// fragmented, this argument is a pointer to the header in the first
/// fragment.
///
EFI_IP6_HEADER *Header;
///
/// Sum of the lengths of IPv6 packet buffers in FragmentTable. May
/// be zero.
///
UINT32 DataLength;
///
/// Number of IPv6 payload fragments. May be zero.
///
UINT32 FragmentCount;
///
/// Array of payload fragment lengths and buffer pointers.
///
EFI_IP6_FRAGMENT_DATA FragmentTable[1];
} EFI_IP6_RECEIVE_DATA;
///
/// EFI_IP6_OVERRIDE_DATA
/// The information and flags in the override data structure will override
/// default parameters or settings for one Transmit() function call.
///
typedef struct _EFI_IP6_OVERRIDE_DATA {
UINT8 Protocol; ///< Protocol type override.
UINT8 HopLimit; ///< Hop-Limit override.
UINT32 FlowLabel; ///< Flow-Label override.
} EFI_IP6_OVERRIDE_DATA;
///
/// EFI_IP6_TRANSMIT_DATA
///
typedef struct _EFI_IP6_TRANSMIT_DATA {
///
/// The destination IPv6 address. If it is unspecified,
/// ConfigData.DestinationAddress will be used instead.
///
EFI_IPv6_ADDRESS DestinationAddress;
///
/// If not NULL, the IPv6 transmission control override data.
///
EFI_IP6_OVERRIDE_DATA *OverrideData;
///
/// Total length in byte of the IPv6 extension headers specified in
/// ExtHdrs.
///
UINT32 ExtHdrsLength;
///
/// Pointer to the IPv6 extension headers. The IP layer will append
/// the required extension headers if they are not specified by
/// ExtHdrs. Ignored if ExtHdrsLength is zero.
///
VOID *ExtHdrs;
///
/// The protocol of first extension header in ExtHdrs. Ignored if
/// ExtHdrsLength is zero.
///
UINT8 NextHeader;
///
/// Total length in bytes of the FragmentTable data to transmit.
///
UINT32 DataLength;
///
/// Number of entries in the fragment data table.
///
UINT32 FragmentCount;
///
/// Start of the fragment data table.
///
EFI_IP6_FRAGMENT_DATA FragmentTable[1];
} EFI_IP6_TRANSMIT_DATA;
///
/// EFI_IP6_COMPLETION_TOKEN
/// structures are used for both transmit and receive operations.
///
typedef struct {
///
/// This Event will be signaled after the Status field is updated by
/// the EFI IPv6 Protocol driver. The type of Event must be EFI_NOTIFY_SIGNAL.
///
EFI_EVENT Event;
///
/// Will be set to one of the following values:
/// - EFI_SUCCESS: The receive or transmit completed
/// successfully.
/// - EFI_ABORTED: The receive or transmit was aborted
/// - EFI_TIMEOUT: The transmit timeout expired.
/// - EFI_ICMP_ERROR: An ICMP error packet was received.
/// - EFI_DEVICE_ERROR: An unexpected system or network
/// error occurred.
/// - EFI_SECURITY_VIOLATION: The transmit or receive was
/// failed because of an IPsec policy check.
/// - EFI_NO_MEDIA: There was a media error.
///
EFI_STATUS Status;
union {
///
/// When the Token is used for receiving, RxData is a pointer to the EFI_IP6_RECEIVE_DATA.
///
EFI_IP6_RECEIVE_DATA *RxData;
///
/// When the Token is used for transmitting, TxData is a pointer to the EFI_IP6_TRANSMIT_DATA.
///
EFI_IP6_TRANSMIT_DATA *TxData;
} Packet;
} EFI_IP6_COMPLETION_TOKEN;
/**
Gets the current operational settings for this instance of the EFI IPv6 Protocol driver.
The GetModeData() function returns the current operational mode data for this driver instance.
The data fields in EFI_IP6_MODE_DATA are read only. This function is used optionally to
retrieve the operational mode data of underlying networks or drivers..
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[out] Ip6ModeData Pointer to the EFI IPv6 Protocol mode data structure.
@param[out] MnpConfigData Pointer to the managed network configuration data structure.
@param[out] SnpModeData Pointer to the simple network mode data structure.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_OUT_OF_RESOURCES The required mode data could not be allocated.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_GET_MODE_DATA)(
IN EFI_IP6_PROTOCOL *This,
OUT EFI_IP6_MODE_DATA *Ip6ModeData OPTIONAL,
OUT EFI_MANAGED_NETWORK_CONFIG_DATA *MnpConfigData OPTIONAL,
OUT EFI_SIMPLE_NETWORK_MODE *SnpModeData OPTIONAL
);
/**
Assigns an IPv6 address and subnet mask to this EFI IPv6 Protocol driver instance.
The Configure() function is used to set, change, or reset the operational parameters and filter
settings for this EFI IPv6 Protocol instance. Until these parameters have been set, no network traffic
can be sent or received by this instance. Once the parameters have been reset (by calling this
function with Ip6ConfigData set to NULL), no more traffic can be sent or received until these
parameters have been set again. Each EFI IPv6 Protocol instance can be started and stopped
independently of each other by enabling or disabling their receive filter settings with the
Configure() function.
If Ip6ConfigData.StationAddress is a valid non-zero IPv6 unicast address, it is required
to be one of the currently configured IPv6 addresses list in the EFI IPv6 drivers, or else
EFI_INVALID_PARAMETER will be returned. If Ip6ConfigData.StationAddress is
unspecified, the IPv6 driver will bind a source address according to the source address selection
algorithm. Clients could frequently call GetModeData() to check get currently configured IPv6
address list in the EFI IPv6 driver. If both Ip6ConfigData.StationAddress and
Ip6ConfigData.Destination are unspecified, when transmitting the packet afterwards, the
source address filled in each outgoing IPv6 packet is decided based on the destination of this packet. .
If operational parameters are reset or changed, any pending transmit and receive requests will be
cancelled. Their completion token status will be set to EFI_ABORTED and their events will be
signaled.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] Ip6ConfigData Pointer to the EFI IPv6 Protocol configuration data structure.
@retval EFI_SUCCESS The driver instance was successfully opened.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- Ip6ConfigData.StationAddress is neither zero nor
a unicast IPv6 address.
- Ip6ConfigData.StationAddress is neither zero nor
one of the configured IP addresses in the EFI IPv6 driver.
- Ip6ConfigData.DefaultProtocol is illegal.
@retval EFI_OUT_OF_RESOURCES The EFI IPv6 Protocol driver instance data could not be allocated.
@retval EFI_NO_MAPPING The IPv6 driver was responsible for choosing a source address for
this instance, but no source address was available for use.
@retval EFI_ALREADY_STARTED The interface is already open and must be stopped before the IPv6
address or prefix length can be changed.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred. The EFI IPv6
Protocol driver instance is not opened.
@retval EFI_UNSUPPORTED Default protocol specified through
Ip6ConfigData.DefaulProtocol isn't supported.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_CONFIGURE)(
IN EFI_IP6_PROTOCOL *This,
IN EFI_IP6_CONFIG_DATA *Ip6ConfigData OPTIONAL
);
/**
Joins and leaves multicast groups.
The Groups() function is used to join and leave multicast group sessions. Joining a group will
enable reception of matching multicast packets. Leaving a group will disable reception of matching
multicast packets. Source-Specific Multicast isn't required to be supported.
If JoinFlag is FALSE and GroupAddress is NULL, all joined groups will be left.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] JoinFlag Set to TRUE to join the multicast group session and FALSE to leave.
@param[in] GroupAddress Pointer to the IPv6 multicast address.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_INVALID_PARAMETER One or more of the following is TRUE:
- This is NULL.
- JoinFlag is TRUE and GroupAddress is NULL.
- GroupAddress is not NULL and *GroupAddress is
not a multicast IPv6 address.
- GroupAddress is not NULL and *GroupAddress is in the
range of SSM destination address.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_OUT_OF_RESOURCES System resources could not be allocated.
@retval EFI_UNSUPPORTED This EFI IPv6 Protocol implementation does not support multicast groups.
@retval EFI_ALREADY_STARTED The group address is already in the group table (when
JoinFlag is TRUE).
@retval EFI_NOT_FOUND The group address is not in the group table (when JoinFlag is FALSE).
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_GROUPS)(
IN EFI_IP6_PROTOCOL *This,
IN BOOLEAN JoinFlag,
IN EFI_IPv6_ADDRESS *GroupAddress OPTIONAL
);
/**
Adds and deletes routing table entries.
The Routes() function adds a route to or deletes a route from the routing table.
Routes are determined by comparing the leftmost PrefixLength bits of Destination with
the destination IPv6 address arithmetically. The gateway address must be on the same subnet as the
configured station address.
The default route is added with Destination and PrefixLegth both set to all zeros. The
default route matches all destination IPv6 addresses that do not match any other routes.
All EFI IPv6 Protocol instances share a routing table.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] DeleteRoute Set to TRUE to delete this route from the routing table. Set to
FALSE to add this route to the routing table. Destination,
PrefixLength and Gateway are used as the key to each
route entry.
@param[in] Destination The address prefix of the subnet that needs to be routed.
@param[in] PrefixLength The prefix length of Destination. Ignored if Destination
is NULL.
@param[in] GatewayAddress The unicast gateway IPv6 address for this route.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_NOT_STARTED The driver instance has not been started.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- When DeleteRoute is TRUE, both Destination and
GatewayAddress are NULL.
- When DeleteRoute is FALSE, either Destination or
GatewayAddress is NULL.
- *GatewayAddress is not a valid unicast IPv6 address.
- *GatewayAddress is one of the local configured IPv6
addresses.
@retval EFI_OUT_OF_RESOURCES Could not add the entry to the routing table.
@retval EFI_NOT_FOUND This route is not in the routing table (when DeleteRoute is TRUE).
@retval EFI_ACCESS_DENIED The route is already defined in the routing table (when
DeleteRoute is FALSE).
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_ROUTES)(
IN EFI_IP6_PROTOCOL *This,
IN BOOLEAN DeleteRoute,
IN EFI_IPv6_ADDRESS *Destination OPTIONAL,
IN UINT8 PrefixLength,
IN EFI_IPv6_ADDRESS *GatewayAddress OPTIONAL
);
/**
Add or delete Neighbor cache entries.
The Neighbors() function is used to add, update, or delete an entry from neighbor cache.
IPv6 neighbor cache entries are typically inserted and updated by the network protocol driver as
network traffic is processed. Most neighbor cache entries will time out and be deleted if the network
traffic stops. Neighbor cache entries that were inserted by Neighbors() may be static (will not
timeout) or dynamic (will time out).
The implementation should follow the neighbor cache timeout mechanism which is defined in
RFC4861. The default neighbor cache timeout value should be tuned for the expected network
environment
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] DeleteFlag Set to TRUE to delete the specified cache entry, set to FALSE to
add (or update, if it already exists and Override is TRUE) the
specified cache entry. TargetIp6Address is used as the key
to find the requested cache entry.
@param[in] TargetIp6Address Pointer to Target IPv6 address.
@param[in] TargetLinkAddress Pointer to link-layer address of the target. Ignored if NULL.
@param[in] Timeout Time in 100-ns units that this entry will remain in the neighbor
cache, it will be deleted after Timeout. A value of zero means that
the entry is permanent. A non-zero value means that the entry is
dynamic.
@param[in] Override If TRUE, the cached link-layer address of the matching entry will
be overridden and updated; if FALSE, EFI_ACCESS_DENIED
will be returned if a corresponding cache entry already existed.
@retval EFI_SUCCESS The data has been queued for transmission.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- TargetIpAddress is NULL.
- *TargetLinkAddress is invalid when not NULL.
- *TargetIpAddress is not a valid unicast IPv6 address.
- *TargetIpAddress is one of the local configured IPv6
addresses.
@retval EFI_OUT_OF_RESOURCES Could not add the entry to the neighbor cache.
@retval EFI_NOT_FOUND This entry is not in the neighbor cache (when DeleteFlag is
TRUE or when DeleteFlag is FALSE while
TargetLinkAddress is NULL.).
@retval EFI_ACCESS_DENIED The to-be-added entry is already defined in the neighbor cache,
and that entry is tagged as un-overridden (when DeleteFlag
is FALSE).
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_NEIGHBORS)(
IN EFI_IP6_PROTOCOL *This,
IN BOOLEAN DeleteFlag,
IN EFI_IPv6_ADDRESS *TargetIp6Address,
IN EFI_MAC_ADDRESS *TargetLinkAddress,
IN UINT32 Timeout,
IN BOOLEAN Override
);
/**
Places outgoing data packets into the transmit queue.
The Transmit() function places a sending request in the transmit queue of this
EFI IPv6 Protocol instance. Whenever the packet in the token is sent out or some
errors occur, the event in the token will be signaled and the status is updated.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] Token Pointer to the transmit token.
@retval EFI_SUCCESS The data has been queued for transmission.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_NO_MAPPING The IPv6 driver was responsible for choosing a source address for
this transmission, but no source address was available for use.
@retval EFI_INVALID_PARAMETER One or more of the following is TRUE:
- This is NULL.
- Token is NULL.
- Token.Event is NULL.
- Token.Packet.TxData is NULL.
- Token.Packet.ExtHdrsLength is not zero and Token.Packet.ExtHdrs is NULL.
- Token.Packet.FragmentCount is zero.
- One or more of the Token.Packet.TxData.FragmentTable[].FragmentLength fields is zero.
- One or more of the Token.Packet.TxData.FragmentTable[].FragmentBuffer fields is NULL.
- Token.Packet.TxData.DataLength is zero or not equal to the sum of fragment lengths.
- Token.Packet.TxData.DestinationAddress is non-zero when DestinationAddress is configured as
non-zero when doing Configure() for this EFI IPv6 protocol instance.
- Token.Packet.TxData.DestinationAddress is unspecified when DestinationAddress is unspecified
when doing Configure() for this EFI IPv6 protocol instance.
@retval EFI_ACCESS_DENIED The transmit completion token with the same Token.Event
was already in the transmit queue.
@retval EFI_NOT_READY The completion token could not be queued because the transmit
queue is full.
@retval EFI_NOT_FOUND Not route is found to destination address.
@retval EFI_OUT_OF_RESOURCES Could not queue the transmit data.
@retval EFI_BUFFER_TOO_SMALL Token.Packet.TxData.TotalDataLength is too
short to transmit.
@retval EFI_BAD_BUFFER_SIZE If Token.Packet.TxData.DataLength is beyond the
maximum that which can be described through the Fragment Offset
field in Fragment header when performing fragmentation.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_TRANSMIT)(
IN EFI_IP6_PROTOCOL *This,
IN EFI_IP6_COMPLETION_TOKEN *Token
);
/**
Places a receiving request into the receiving queue.
The Receive() function places a completion token into the receive packet queue.
This function is always asynchronous.
The Token.Event field in the completion token must be filled in by the caller
and cannot be NULL. When the receive operation completes, the EFI IPv6 Protocol
driver updates the Token.Status and Token.Packet.RxData fields and the Token.Event
is signaled.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] Token Pointer to a token that is associated with the receive data descriptor.
@retval EFI_SUCCESS The receive completion token was cached.
@retval EFI_NOT_STARTED This EFI IPv6 Protocol instance has not been started.
@retval EFI_NO_MAPPING When IP6 driver responsible for binding source address to this instance,
while no source address is available for use.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- Token is NULL.
- Token.Event is NULL.
@retval EFI_OUT_OF_RESOURCES The receive completion token could not be queued due to a lack of system
resources (usually memory).
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
The EFI IPv6 Protocol instance has been reset to startup defaults.
@retval EFI_ACCESS_DENIED The receive completion token with the same Token.Event was already
in the receive queue.
@retval EFI_NOT_READY The receive request could not be queued because the receive queue is full.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_RECEIVE)(
IN EFI_IP6_PROTOCOL *This,
IN EFI_IP6_COMPLETION_TOKEN *Token
);
/**
Abort an asynchronous transmit or receive request.
The Cancel() function is used to abort a pending transmit or receive request.
If the token is in the transmit or receive request queues, after calling this
function, Token->Status will be set to EFI_ABORTED and then Token->Event will
be signaled. If the token is not in one of the queues, which usually means the
asynchronous operation has completed, this function will not signal the token
and EFI_NOT_FOUND is returned.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@param[in] Token Pointer to a token that has been issued by
EFI_IP6_PROTOCOL.Transmit() or
EFI_IP6_PROTOCOL.Receive(). If NULL, all pending
tokens are aborted. Type EFI_IP6_COMPLETION_TOKEN is
defined in EFI_IP6_PROTOCOL.Transmit().
@retval EFI_SUCCESS The asynchronous I/O request was aborted and
Token->Event was signaled. When Token is NULL, all
pending requests were aborted and their events were signaled.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_NOT_FOUND When Token is not NULL, the asynchronous I/O request was
not found in the transmit or receive queue. It has either completed
or was not issued by Transmit() and Receive().
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_CANCEL)(
IN EFI_IP6_PROTOCOL *This,
IN EFI_IP6_COMPLETION_TOKEN *Token OPTIONAL
);
/**
Polls for incoming data packets and processes outgoing data packets.
The Poll() function polls for incoming data packets and processes outgoing data
packets. Network drivers and applications can call the EFI_IP6_PROTOCOL.Poll()
function to increase the rate that data packets are moved between the communications
device and the transmit and receive queues.
In some systems the periodic timer event may not poll the underlying communications
device fast enough to transmit and/or receive all data packets without missing
incoming packets or dropping outgoing packets. Drivers and applications that are
experiencing packet loss should try calling the EFI_IP6_PROTOCOL.Poll() function
more often.
@param[in] This Pointer to the EFI_IP6_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_NOT_STARTED This EFI IPv6 Protocol instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_NOT_READY No incoming or outgoing data is processed.
@retval EFI_TIMEOUT Data was dropped out of the transmit and/or receive queue.
Consider increasing the polling rate.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_POLL)(
IN EFI_IP6_PROTOCOL *This
);
///
/// The EFI IPv6 Protocol implements a simple packet-oriented interface that can be
/// used by drivers, daemons, and applications to transmit and receive network packets.
///
struct _EFI_IP6_PROTOCOL {
EFI_IP6_GET_MODE_DATA GetModeData;
EFI_IP6_CONFIGURE Configure;
EFI_IP6_GROUPS Groups;
EFI_IP6_ROUTES Routes;
EFI_IP6_NEIGHBORS Neighbors;
EFI_IP6_TRANSMIT Transmit;
EFI_IP6_RECEIVE Receive;
EFI_IP6_CANCEL Cancel;
EFI_IP6_POLL Poll;
};
extern EFI_GUID gEfiIp6ServiceBindingProtocolGuid;
extern EFI_GUID gEfiIp6ProtocolGuid;
#endif

View File

@ -0,0 +1,369 @@
/** @file
This file provides a definition of the EFI IPv6 Configuration
Protocol.
Copyright (c) 2008 - 2018, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
**/
#ifndef __EFI_IP6CONFIG_PROTOCOL_H__
#define __EFI_IP6CONFIG_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#include <ipxe/efi/Protocol/Ip6.h>
#define EFI_IP6_CONFIG_PROTOCOL_GUID \
{ \
0x937fe521, 0x95ae, 0x4d1a, {0x89, 0x29, 0x48, 0xbc, 0xd9, 0x0a, 0xd3, 0x1a } \
}
typedef struct _EFI_IP6_CONFIG_PROTOCOL EFI_IP6_CONFIG_PROTOCOL;
///
/// EFI_IP6_CONFIG_DATA_TYPE
///
typedef enum {
///
/// The interface information of the communication
/// device this EFI IPv6 Configuration Protocol instance manages.
/// This type of data is read only.The corresponding Data is of type
/// EFI_IP6_CONFIG_INTERFACE_INFO.
///
Ip6ConfigDataTypeInterfaceInfo,
///
/// The alternative interface ID for the
/// communication device this EFI IPv6 Configuration Protocol
/// instance manages if the link local IPv6 address generated from
/// the interfaced ID based on the default source the EFI IPv6
/// Protocol uses is a duplicate address. The length of the interface
/// ID is 64 bit. The corresponding Data is of type
/// EFI_IP6_CONFIG_INTERFACE_ID.
///
Ip6ConfigDataTypeAltInterfaceId,
///
/// The general configuration policy for the EFI IPv6 network
/// stack running on the communication device this EFI IPv6
/// Configuration Protocol instance manages. The policy will affect
/// other configuration settings. The corresponding Data is of type
/// EFI_IP6_CONFIG_POLICY.
///
Ip6ConfigDataTypePolicy,
///
/// The number of consecutive
/// Neighbor Solicitation messages sent while performing Duplicate
/// Address Detection on a tentative address. A value of zero
/// indicates that Duplicate Address Detection will not be performed
/// on tentative addresses. The corresponding Data is of type
/// EFI_IP6_CONFIG_DUP_ADDR_DETECT_TRANSMITS.
///
Ip6ConfigDataTypeDupAddrDetectTransmits,
///
/// The station addresses set manually for the EFI
/// IPv6 network stack. It is only configurable when the policy is
/// Ip6ConfigPolicyManual. The corresponding Data is a
/// pointer to an array of EFI_IPv6_ADDRESS instances. When
/// DataSize is 0 and Data is NULL, the existing configuration
/// is cleared from the EFI IPv6 Configuration Protocol instance.
///
Ip6ConfigDataTypeManualAddress,
///
/// The gateway addresses set manually for the EFI IPv6
/// network stack running on the communication device this EFI
/// IPv6 Configuration Protocol manages. It is not configurable when
/// the policy is Ip6ConfigPolicyAutomatic. The gateway
/// addresses must be unicast IPv6 addresses. The corresponding
/// Data is a pointer to an array of EFI_IPv6_ADDRESS instances.
/// When DataSize is 0 and Data is NULL, the existing configuration
/// is cleared from the EFI IPv6 Configuration Protocol instance.
///
Ip6ConfigDataTypeGateway,
///
/// The DNS server list for the EFI IPv6 network stack
/// running on the communication device this EFI IPv6
/// Configuration Protocol manages. It is not configurable when the
/// policy is Ip6ConfigPolicyAutomatic.The DNS server
/// addresses must be unicast IPv6 addresses. The corresponding
/// Data is a pointer to an array of EFI_IPv6_ADDRESS instances.
/// When DataSize is 0 and Data is NULL, the existing configuration
/// is cleared from the EFI IPv6 Configuration Protocol instance.
///
Ip6ConfigDataTypeDnsServer,
///
/// The number of this enumeration memebers.
///
Ip6ConfigDataTypeMaximum
} EFI_IP6_CONFIG_DATA_TYPE;
///
/// EFI_IP6_CONFIG_INTERFACE_INFO
/// describes the operational state of the interface this
/// EFI IPv6 Configuration Protocol instance manages.
///
typedef struct {
///
/// The name of the interface. It is a NULL-terminated string.
///
CHAR16 Name[32];
///
/// The interface type of the network interface.
///
UINT8 IfType;
///
/// The size, in bytes, of the network interface's hardware address.
///
UINT32 HwAddressSize;
///
/// The hardware address for the network interface.
///
EFI_MAC_ADDRESS HwAddress;
///
/// Number of EFI_IP6_ADDRESS_INFO structures pointed to by AddressInfo.
///
UINT32 AddressInfoCount;
///
/// Pointer to an array of EFI_IP6_ADDRESS_INFO instances
/// which contain the local IPv6 addresses and the corresponding
/// prefix length information. Set to NULL if AddressInfoCount
/// is zero.
///
EFI_IP6_ADDRESS_INFO *AddressInfo;
///
/// Number of route table entries in the following RouteTable.
///
UINT32 RouteCount;
///
/// The route table of the IPv6 network stack runs on this interface.
/// Set to NULL if RouteCount is zero.
///
EFI_IP6_ROUTE_TABLE *RouteTable;
} EFI_IP6_CONFIG_INTERFACE_INFO;
///
/// EFI_IP6_CONFIG_INTERFACE_ID
/// describes the 64-bit interface ID.
///
typedef struct {
UINT8 Id[8];
} EFI_IP6_CONFIG_INTERFACE_ID;
///
/// EFI_IP6_CONFIG_POLICY
/// defines the general configuration policy the EFI IPv6
/// Configuration Protocol supports.
///
typedef enum {
///
/// Under this policy, the IpI6ConfigDataTypeManualAddress,
/// Ip6ConfigDataTypeGateway and Ip6ConfigDataTypeDnsServer
/// configuration data are required to be set manually.
/// The EFI IPv6 Protocol will get all required configuration
/// such as address, prefix and gateway settings from the EFI
/// IPv6 Configuration protocol.
///
Ip6ConfigPolicyManual,
///
/// Under this policy, the IpI6ConfigDataTypeManualAddress,
/// Ip6ConfigDataTypeGateway and Ip6ConfigDataTypeDnsServer
/// configuration data are not allowed to set via SetData().
/// All of these configurations are retrieved from some auto
/// configuration mechanism.
/// The EFI IPv6 Protocol will use the IPv6 stateless address
/// autoconfiguration mechanism and/or the IPv6 stateful address
/// autoconfiguration mechanism described in the related RFCs to
/// get address and other configuration information
///
Ip6ConfigPolicyAutomatic
} EFI_IP6_CONFIG_POLICY;
///
/// EFI_IP6_CONFIG_DUP_ADDR_DETECT_TRANSMITS
/// describes the number of consecutive Neighbor Solicitation messages sent
/// while performing Duplicate Address Detection on a tentative address.
/// The default value for a newly detected communication device is 1.
///
typedef struct {
UINT32 DupAddrDetectTransmits; ///< The number of consecutive Neighbor Solicitation messages sent.
} EFI_IP6_CONFIG_DUP_ADDR_DETECT_TRANSMITS;
///
/// EFI_IP6_CONFIG_MANUAL_ADDRESS
/// is used to set the station address information for the EFI IPv6 network
/// stack manually when the policy is Ip6ConfigPolicyManual.
///
typedef struct {
EFI_IPv6_ADDRESS Address; ///< The IPv6 unicast address.
BOOLEAN IsAnycast; ///< Set to TRUE if Address is anycast.
UINT8 PrefixLength; ///< The length, in bits, of the prefix associated with this Address.
} EFI_IP6_CONFIG_MANUAL_ADDRESS;
/**
Set the configuration for the EFI IPv6 network stack running on the communication
device this EFI IPv6 Configuration Protocol instance manages.
This function is used to set the configuration data of type DataType for the EFI
IPv6 network stack running on the communication device this EFI IPv6 Configuration
Protocol instance manages.
The DataSize is used to calculate the count of structure instances in the Data for
some DataType that multiple structure instances are allowed.
This function is always non-blocking. When setting some type of configuration data,
an asynchronous process is invoked to check the correctness of the data, such as
doing Duplicate Address Detection on the manually set local IPv6 addresses.
EFI_NOT_READY is returned immediately to indicate that such an asynchronous process
is invoked and the process is not finished yet. The caller willing to get the result
of the asynchronous process is required to call RegisterDataNotify() to register an
event on the specified configuration data. Once the event is signaled, the caller
can call GetData() to get back the configuration data in order to know the result.
For other types of configuration data that do not require an asynchronous configuration
process, the result of the operation is immediately returned.
@param[in] This Pointer to the EFI_IP6_CONFIG_PROTOCOL instance.
@param[in] DataType The type of data to set.
@param[in] DataSize Size of the buffer pointed to by Data in bytes.
@param[in] Data The data buffer to set. The type of the data buffer is
associated with the DataType.
@retval EFI_SUCCESS The specified configuration data for the EFI IPv6
network stack is set successfully.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
- This is NULL.
- One or more fields in Data and DataSize do not match the
requirement of the data type indicated by DataType.
@retval EFI_WRITE_PROTECTED The specified configuration data is read-only or the specified
configuration data can not be set under the current policy
@retval EFI_ACCESS_DENIED Another set operation on the specified configuration
data is already in process.
@retval EFI_NOT_READY An asynchronous process is invoked to set the specified
configuration data and the process is not finished yet.
@retval EFI_BAD_BUFFER_SIZE The DataSize does not match the size of the type
indicated by DataType.
@retval EFI_UNSUPPORTED This DataType is not supported.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_DEVICE_ERROR An unexpected system error or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_CONFIG_SET_DATA)(
IN EFI_IP6_CONFIG_PROTOCOL *This,
IN EFI_IP6_CONFIG_DATA_TYPE DataType,
IN UINTN DataSize,
IN VOID *Data
);
/**
Get the configuration data for the EFI IPv6 network stack running on the communication
device this EFI IPv6 Configuration Protocol instance manages.
This function returns the configuration data of type DataType for the EFI IPv6 network
stack running on the communication device this EFI IPv6 Configuration Protocol instance
manages.
The caller is responsible for allocating the buffer used to return the specified
configuration data and the required size will be returned to the caller if the size of
the buffer is too small.
EFI_NOT_READY is returned if the specified configuration data is not ready due to an
already in progress asynchronous configuration process. The caller can call RegisterDataNotify()
to register an event on the specified configuration data. Once the asynchronous configuration
process is finished, the event will be signaled and a subsequent GetData() call will return
the specified configuration data.
@param[in] This Pointer to the EFI_IP6_CONFIG_PROTOCOL instance.
@param[in] DataType The type of data to get.
@param[in,out] DataSize On input, in bytes, the size of Data. On output, in bytes, the
size of buffer required to store the specified configuration data.
@param[in] Data The data buffer in which the configuration data is returned. The
type of the data buffer is associated with the DataType.
@retval EFI_SUCCESS The specified configuration data is got successfully.
@retval EFI_INVALID_PARAMETER One or more of the followings are TRUE:
- This is NULL.
- DataSize is NULL.
- Data is NULL if *DataSize is not zero.
@retval EFI_BUFFER_TOO_SMALL The size of Data is too small for the specified configuration data
and the required size is returned in DataSize.
@retval EFI_NOT_READY The specified configuration data is not ready due to an already in
progress asynchronous configuration process.
@retval EFI_NOT_FOUND The specified configuration data is not found.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_CONFIG_GET_DATA)(
IN EFI_IP6_CONFIG_PROTOCOL *This,
IN EFI_IP6_CONFIG_DATA_TYPE DataType,
IN OUT UINTN *DataSize,
IN VOID *Data OPTIONAL
);
/**
Register an event that is to be signaled whenever a configuration process on the specified
configuration data is done.
This function registers an event that is to be signaled whenever a configuration process
on the specified configuration data is done. An event can be registered for different DataType
simultaneously and the caller is responsible for determining which type of configuration data
causes the signaling of the event in such case.
@param[in] This Pointer to the EFI_IP6_CONFIG_PROTOCOL instance.
@param[in] DataType The type of data to unregister the event for.
@param[in] Event The event to register.
@retval EFI_SUCCESS The notification event for the specified configuration data is
registered.
@retval EFI_INVALID_PARAMETER This is NULL or Event is NULL.
@retval EFI_UNSUPPORTED The configuration data type specified by DataType is not
supported.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_ACCESS_DENIED The Event is already registered for the DataType.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_CONFIG_REGISTER_NOTIFY)(
IN EFI_IP6_CONFIG_PROTOCOL *This,
IN EFI_IP6_CONFIG_DATA_TYPE DataType,
IN EFI_EVENT Event
);
/**
Remove a previously registered event for the specified configuration data.
This function removes a previously registered event for the specified configuration data.
@param[in] This Pointer to the EFI_IP6_CONFIG_PROTOCOL instance.
@param[in] DataType The type of data to remove the previously registered event for.
@param[in] Event The event to unregister.
@retval EFI_SUCCESS The event registered for the specified configuration data is removed.
@retval EFI_INVALID_PARAMETER This is NULL or Event is NULL.
@retval EFI_NOT_FOUND The Event has not been registered for the specified
DataType.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_IP6_CONFIG_UNREGISTER_NOTIFY)(
IN EFI_IP6_CONFIG_PROTOCOL *This,
IN EFI_IP6_CONFIG_DATA_TYPE DataType,
IN EFI_EVENT Event
);
///
/// The EFI_IP6_CONFIG_PROTOCOL provides the mechanism to set and get various
/// types of configurations for the EFI IPv6 network stack.
///
struct _EFI_IP6_CONFIG_PROTOCOL {
EFI_IP6_CONFIG_SET_DATA SetData;
EFI_IP6_CONFIG_GET_DATA GetData;
EFI_IP6_CONFIG_REGISTER_NOTIFY RegisterDataNotify;
EFI_IP6_CONFIG_UNREGISTER_NOTIFY UnregisterDataNotify;
};
extern EFI_GUID gEfiIp6ConfigProtocolGuid;
#endif

View File

@ -0,0 +1,820 @@
/** @file
UEFI Multicast Trivial File Transfer Protocol v6 Definition, which is built upon
the EFI UDPv6 Protocol and provides basic services for client-side unicast and/or
multicast TFTP operations.
Copyright (c) 2008 - 2011, Intel Corporation. All rights reserved.<BR>
(C) Copyright 2016 Hewlett Packard Enterprise Development LP<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.2
**/
#ifndef __EFI_MTFTP6_PROTOCOL_H__
#define __EFI_MTFTP6_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#define EFI_MTFTP6_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0xd9760ff3, 0x3cca, 0x4267, {0x80, 0xf9, 0x75, 0x27, 0xfa, 0xfa, 0x42, 0x23 } \
}
#define EFI_MTFTP6_PROTOCOL_GUID \
{ \
0xbf0a78ba, 0xec29, 0x49cf, {0xa1, 0xc9, 0x7a, 0xe5, 0x4e, 0xab, 0x6a, 0x51 } \
}
typedef struct _EFI_MTFTP6_PROTOCOL EFI_MTFTP6_PROTOCOL;
typedef struct _EFI_MTFTP6_TOKEN EFI_MTFTP6_TOKEN;
///
/// MTFTP Packet OpCodes
///@{
#define EFI_MTFTP6_OPCODE_RRQ 1 ///< The MTFTPv6 packet is a read request.
#define EFI_MTFTP6_OPCODE_WRQ 2 ///< The MTFTPv6 packet is a write request.
#define EFI_MTFTP6_OPCODE_DATA 3 ///< The MTFTPv6 packet is a data packet.
#define EFI_MTFTP6_OPCODE_ACK 4 ///< The MTFTPv6 packet is an acknowledgement packet.
#define EFI_MTFTP6_OPCODE_ERROR 5 ///< The MTFTPv6 packet is an error packet.
#define EFI_MTFTP6_OPCODE_OACK 6 ///< The MTFTPv6 packet is an option acknowledgement packet.
#define EFI_MTFTP6_OPCODE_DIR 7 ///< The MTFTPv6 packet is a directory query packet.
#define EFI_MTFTP6_OPCODE_DATA8 8 ///< The MTFTPv6 packet is a data packet with a big block number.
#define EFI_MTFTP6_OPCODE_ACK8 9 ///< The MTFTPv6 packet is an acknowledgement packet with a big block number.
///@}
///
/// MTFTP ERROR Packet ErrorCodes
///@{
///
/// The error code is not defined. See the error message in the packet (if any) for details.
///
#define EFI_MTFTP6_ERRORCODE_NOT_DEFINED 0
///
/// The file was not found.
///
#define EFI_MTFTP6_ERRORCODE_FILE_NOT_FOUND 1
///
/// There was an access violation.
///
#define EFI_MTFTP6_ERRORCODE_ACCESS_VIOLATION 2
///
/// The disk was full or its allocation was exceeded.
///
#define EFI_MTFTP6_ERRORCODE_DISK_FULL 3
///
/// The MTFTPv6 operation was illegal.
///
#define EFI_MTFTP6_ERRORCODE_ILLEGAL_OPERATION 4
///
/// The transfer ID is unknown.
///
#define EFI_MTFTP6_ERRORCODE_UNKNOWN_TRANSFER_ID 5
///
/// The file already exists.
///
#define EFI_MTFTP6_ERRORCODE_FILE_ALREADY_EXISTS 6
///
/// There is no such user.
///
#define EFI_MTFTP6_ERRORCODE_NO_SUCH_USER 7
///
/// The request has been denied due to option negotiation.
///
#define EFI_MTFTP6_ERRORCODE_REQUEST_DENIED 8
///@}
#pragma pack(1)
///
/// EFI_MTFTP6_REQ_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_RRQ for a read request
/// or OpCode = EFI_MTFTP6_OPCODE_WRQ for a write request.
///
UINT16 OpCode;
///
/// The file name to be downloaded or uploaded.
///
UINT8 Filename[1];
} EFI_MTFTP6_REQ_HEADER;
///
/// EFI_MTFTP6_OACK_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_OACK.
///
UINT16 OpCode;
///
/// The option strings in the option acknowledgement packet.
///
UINT8 Data[1];
} EFI_MTFTP6_OACK_HEADER;
///
/// EFI_MTFTP6_DATA_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_DATA.
///
UINT16 OpCode;
///
/// Block number of this data packet.
///
UINT16 Block;
///
/// The content of this data packet.
///
UINT8 Data[1];
} EFI_MTFTP6_DATA_HEADER;
///
/// EFI_MTFTP6_ACK_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_ACK.
///
UINT16 OpCode;
///
/// The block number of the data packet that is being acknowledged.
///
UINT16 Block[1];
} EFI_MTFTP6_ACK_HEADER;
///
/// EFI_MTFTP6_DATA8_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_DATA8.
///
UINT16 OpCode;
///
/// The block number of data packet.
///
UINT64 Block;
///
/// The content of this data packet.
///
UINT8 Data[1];
} EFI_MTFTP6_DATA8_HEADER;
///
/// EFI_MTFTP6_ACK8_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_ACK8.
///
UINT16 OpCode;
///
/// The block number of the data packet that is being acknowledged.
///
UINT64 Block[1];
} EFI_MTFTP6_ACK8_HEADER;
///
/// EFI_MTFTP6_ERROR_HEADER
///
typedef struct {
///
/// For this packet type, OpCode = EFI_MTFTP6_OPCODE_ERROR.
///
UINT16 OpCode;
///
/// The error number as defined by the MTFTPv6 packet error codes.
///
UINT16 ErrorCode;
///
/// Error message string.
///
UINT8 ErrorMessage[1];
} EFI_MTFTP6_ERROR_HEADER;
///
/// EFI_MTFTP6_PACKET
///
typedef union {
UINT16 OpCode; ///< Type of packets as defined by the MTFTPv6 packet opcodes.
EFI_MTFTP6_REQ_HEADER Rrq; ///< Read request packet header.
EFI_MTFTP6_REQ_HEADER Wrq; ///< write request packet header.
EFI_MTFTP6_OACK_HEADER Oack; ///< Option acknowledge packet header.
EFI_MTFTP6_DATA_HEADER Data; ///< Data packet header.
EFI_MTFTP6_ACK_HEADER Ack; ///< Acknowledgement packet header.
EFI_MTFTP6_DATA8_HEADER Data8; ///< Data packet header with big block number.
EFI_MTFTP6_ACK8_HEADER Ack8; ///< Acknowledgement header with big block number.
EFI_MTFTP6_ERROR_HEADER Error; ///< Error packet header.
} EFI_MTFTP6_PACKET;
#pragma pack()
///
/// EFI_MTFTP6_CONFIG_DATA
///
typedef struct {
///
/// The local IP address to use. Set to zero to let the underlying IPv6
/// driver choose a source address. If not zero it must be one of the
/// configured IP addresses in the underlying IPv6 driver.
///
EFI_IPv6_ADDRESS StationIp;
///
/// Local port number. Set to zero to use the automatically assigned port number.
///
UINT16 LocalPort;
///
/// The IP address of the MTFTPv6 server.
///
EFI_IPv6_ADDRESS ServerIp;
///
/// The initial MTFTPv6 server port number. Request packets are
/// sent to this port. This number is almost always 69 and using zero
/// defaults to 69.
UINT16 InitialServerPort;
///
/// The number of times to transmit MTFTPv6 request packets and wait for a response.
///
UINT16 TryCount;
///
/// The number of seconds to wait for a response after sending the MTFTPv6 request packet.
///
UINT16 TimeoutValue;
} EFI_MTFTP6_CONFIG_DATA;
///
/// EFI_MTFTP6_MODE_DATA
///
typedef struct {
///
/// The configuration data of this instance.
///
EFI_MTFTP6_CONFIG_DATA ConfigData;
///
/// The number of option strings in the following SupportedOptions array.
///
UINT8 SupportedOptionCount;
///
/// An array of null-terminated ASCII option strings that are recognized and supported by
/// this EFI MTFTPv6 Protocol driver implementation. The buffer is
/// read only to the caller and the caller should NOT free the buffer.
///
UINT8 **SupportedOptions;
} EFI_MTFTP6_MODE_DATA;
///
/// EFI_MTFTP_OVERRIDE_DATA
///
typedef struct {
///
/// IP address of the MTFTPv6 server. If set to all zero, the value that
/// was set by the EFI_MTFTP6_PROTOCOL.Configure() function will be used.
///
EFI_IPv6_ADDRESS ServerIp;
///
/// MTFTPv6 server port number. If set to zero, it will use the value
/// that was set by the EFI_MTFTP6_PROTOCOL.Configure() function.
///
UINT16 ServerPort;
///
/// Number of times to transmit MTFTPv6 request packets and wait
/// for a response. If set to zero, the value that was set by
/// theEFI_MTFTP6_PROTOCOL.Configure() function will be used.
///
UINT16 TryCount;
///
/// Number of seconds to wait for a response after sending the
/// MTFTPv6 request packet. If set to zero, the value that was set by
/// the EFI_MTFTP6_PROTOCOL.Configure() function will be used.
///
UINT16 TimeoutValue;
} EFI_MTFTP6_OVERRIDE_DATA;
///
/// EFI_MTFTP6_OPTION
///
typedef struct {
UINT8 *OptionStr; ///< Pointer to the null-terminated ASCII MTFTPv6 option string.
UINT8 *ValueStr; ///< Pointer to the null-terminated ASCII MTFTPv6 value string.
} EFI_MTFTP6_OPTION;
/**
EFI_MTFTP6_TIMEOUT_CALLBACK is a callback function that the caller provides to capture the
timeout event in the EFI_MTFTP6_PROTOCOL.ReadFile(), EFI_MTFTP6_PROTOCOL.WriteFile() or
EFI_MTFTP6_PROTOCOL.ReadDirectory() functions.
Whenever a timeout occurs, the EFI MTFTPv6 Protocol driver will call the EFI_MTFTP6_TIMEOUT_CALLBACK
function to notify the caller of the timeout event. Any status code other than EFI_SUCCESS
that is returned from this function will abort the current download process.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] Token The token that the caller provided in the EFI_MTFTP6_PROTOCOl.ReadFile(),
WriteFile() or ReadDirectory() function.
@param[in] PacketLen Indicates the length of the packet.
@param[in] Packet Pointer to an MTFTPv6 packet.
@retval EFI_SUCCESS Operation success.
@retval Others Aborts session.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_CHECK_PACKET)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_TOKEN *Token,
IN UINT16 PacketLen,
IN EFI_MTFTP6_PACKET *Packet
);
/**
EFI_MTFTP6_TIMEOUT_CALLBACK is a callback function that the caller provides to capture the
timeout event in the EFI_MTFTP6_PROTOCOL.ReadFile(), EFI_MTFTP6_PROTOCOL.WriteFile() or
EFI_MTFTP6_PROTOCOL.ReadDirectory() functions.
Whenever a timeout occurs, the EFI MTFTPv6 Protocol driver will call the EFI_MTFTP6_TIMEOUT_CALLBACK
function to notify the caller of the timeout event. Any status code other than EFI_SUCCESS
that is returned from this function will abort the current download process.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] Token The token that is provided in the EFI_MTFTP6_PROTOCOL.ReadFile() or
EFI_MTFTP6_PROTOCOL.WriteFile() or EFI_MTFTP6_PROTOCOL.ReadDirectory()
functions by the caller.
@retval EFI_SUCCESS Operation success.
@retval Others Aborts session.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_TIMEOUT_CALLBACK)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_TOKEN *Token
);
/**
EFI_MTFTP6_PACKET_NEEDED is a callback function that the caller provides to feed data to the
EFI_MTFTP6_PROTOCOL.WriteFile() function.
EFI_MTFTP6_PACKET_NEEDED provides another mechanism for the caller to provide data to upload
other than a static buffer. The EFI MTFTP6 Protocol driver always calls EFI_MTFTP6_PACKET_NEEDED
to get packet data from the caller if no static buffer was given in the initial call to
EFI_MTFTP6_PROTOCOL.WriteFile() function. Setting *Length to zero signals the end of the session.
Returning a status code other than EFI_SUCCESS aborts the session.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] Token The token provided in the EFI_MTFTP6_PROTOCOL.WriteFile() by the caller.
@param[in, out] Length Indicates the length of the raw data wanted on input, and the
length the data available on output.
@param[out] Buffer Pointer to the buffer where the data is stored.
@retval EFI_SUCCESS Operation success.
@retval Others Aborts session.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_PACKET_NEEDED)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_TOKEN *Token,
IN OUT UINT16 *Length,
OUT VOID **Buffer
);
struct _EFI_MTFTP6_TOKEN {
///
/// The status that is returned to the caller at the end of the operation
/// to indicate whether this operation completed successfully.
/// Defined Status values are listed below.
///
EFI_STATUS Status;
///
/// The event that will be signaled when the operation completes. If
/// set to NULL, the corresponding function will wait until the read or
/// write operation finishes. The type of Event must be EVT_NOTIFY_SIGNAL.
///
EFI_EVENT Event;
///
/// If not NULL, the data that will be used to override the existing
/// configure data.
///
EFI_MTFTP6_OVERRIDE_DATA *OverrideData;
///
/// Pointer to the null-terminated ASCII file name string.
///
UINT8 *Filename;
///
/// Pointer to the null-terminated ASCII mode string. If NULL, octet is used.
///
UINT8 *ModeStr;
///
/// Number of option/value string pairs.
///
UINT32 OptionCount;
///
/// Pointer to an array of option/value string pairs. Ignored if
/// OptionCount is zero. Both a remote server and this driver
/// implementation should support these options. If one or more
/// options are unrecognized by this implementation, it is sent to the
/// remote server without being changed.
///
EFI_MTFTP6_OPTION *OptionList;
///
/// On input, the size, in bytes, of Buffer. On output, the number
/// of bytes transferred.
///
UINT64 BufferSize;
///
/// Pointer to the data buffer. Data that is downloaded from the
/// MTFTPv6 server is stored here. Data that is uploaded to the
/// MTFTPv6 server is read from here. Ignored if BufferSize is zero.
///
VOID *Buffer;
///
/// Pointer to the context that will be used by CheckPacket,
/// TimeoutCallback and PacketNeeded.
///
VOID *Context;
///
/// Pointer to the callback function to check the contents of the
/// received packet.
///
EFI_MTFTP6_CHECK_PACKET CheckPacket;
///
/// Pointer to the function to be called when a timeout occurs.
///
EFI_MTFTP6_TIMEOUT_CALLBACK TimeoutCallback;
///
/// Pointer to the function to provide the needed packet contents.
/// Only used in WriteFile() operation.
///
EFI_MTFTP6_PACKET_NEEDED PacketNeeded;
};
/**
Read the current operational settings.
The GetModeData() function reads the current operational settings of this EFI MTFTPv6
Protocol driver instance.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[out] ModeData The buffer in which the EFI MTFTPv6 Protocol driver mode
data is returned.
@retval EFI_SUCCESS The configuration data was successfully returned.
@retval EFI_OUT_OF_RESOURCES The required mode data could not be allocated.
@retval EFI_INVALID_PARAMETER This is NULL or ModeData is NULL.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_GET_MODE_DATA)(
IN EFI_MTFTP6_PROTOCOL *This,
OUT EFI_MTFTP6_MODE_DATA *ModeData
);
/**
Initializes, changes, or resets the default operational setting for this EFI MTFTPv6
Protocol driver instance.
The Configure() function is used to set and change the configuration data for this EFI
MTFTPv6 Protocol driver instance. The configuration data can be reset to startup defaults by calling
Configure() with MtftpConfigData set to NULL. Whenever the instance is reset, any
pending operation is aborted. By changing the EFI MTFTPv6 Protocol driver instance configuration
data, the client can connect to different MTFTPv6 servers. The configuration parameters in
MtftpConfigData are used as the default parameters in later MTFTPv6 operations and can be
overridden in later operations.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] MtftpConfigData Pointer to the configuration data structure.
@retval EFI_SUCCESS The EFI MTFTPv6 Protocol instance was configured successfully.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE:
- This is NULL.
- MtftpConfigData.StationIp is neither zero nor one
of the configured IP addresses in the underlying IPv6 driver.
- MtftpCofigData.ServerIp is not a valid IPv6 unicast address.
@retval EFI_ACCESS_DENIED - The configuration could not be changed at this time because there
is some MTFTP background operation in progress.
- MtftpCofigData.LocalPort is already in use.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for use.
@retval EFI_OUT_OF_RESOURCES The EFI MTFTPv6 Protocol driver instance data could not be
allocated.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred. The EFI
MTFTPv6 Protocol driver instance is not configured.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_CONFIGURE)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_CONFIG_DATA *MtftpConfigData OPTIONAL
);
/**
Get information about a file from an MTFTPv6 server.
The GetInfo() function assembles an MTFTPv6 request packet with options, sends it to the
MTFTPv6 server, and may return an MTFTPv6 OACK, MTFTPv6 ERROR, or ICMP ERROR packet.
Retries occur only if no response packets are received from the MTFTPv6 server before the
timeout expires.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] OverrideData Data that is used to override the existing parameters. If NULL, the
default parameters that were set in the EFI_MTFTP6_PROTOCOL.Configure()
function are used.
@param[in] Filename Pointer to null-terminated ASCII file name string.
@param[in] ModeStr Pointer to null-terminated ASCII mode string. If NULL, octet will be used
@param[in] OptionCount Number of option/value string pairs in OptionList.
@param[in] OptionList Pointer to array of option/value string pairs. Ignored if
OptionCount is zero.
@param[out] PacketLength The number of bytes in the returned packet.
@param[out] Packet The pointer to the received packet. This buffer must be freed by
the caller.
@retval EFI_SUCCESS An MTFTPv6 OACK packet was received and is in the Packet.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- Filename is NULL
- OptionCount is not zero and OptionList is NULL.
- One or more options in OptionList have wrong format.
- PacketLength is NULL.
- OverrideData.ServerIp is not valid unicast IPv6 addresses.
@retval EFI_UNSUPPORTED One or more options in the OptionList are unsupported by
this implementation.
@retval EFI_NOT_STARTED The EFI MTFTPv6 Protocol driver has not been started.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for use.
@retval EFI_ACCESS_DENIED The previous operation has not completed yet.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_TFTP_ERROR An MTFTPv6 ERROR packet was received and is in the Packet.
@retval EFI_NETWORK_UNREACHABLE An ICMP network unreachable error packet was received and the Packet is set to NULL.
@retval EFI_HOST_UNREACHABLE An ICMP host unreachable error packet was received and the Packet is set to NULL.
@retval EFI_PROTOCOL_UNREACHABLE An ICMP protocol unreachable error packet was received and the Packet is set to NULL.
@retval EFI_PORT_UNREACHABLE An ICMP port unreachable error packet was received and the Packet is set to NULL.
@retval EFI_ICMP_ERROR Some other ICMP ERROR packet was received and the Packet is set to NULL.
@retval EFI_PROTOCOL_ERROR An unexpected MTFTPv6 packet was received and is in the Packet.
@retval EFI_TIMEOUT No responses were received from the MTFTPv6 server.
@retval EFI_DEVICE_ERROR An unexpected network error or system error occurred.
@retval EFI_NO_MEDIA There was a media error.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_GET_INFO)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_OVERRIDE_DATA *OverrideData OPTIONAL,
IN UINT8 *Filename,
IN UINT8 *ModeStr OPTIONAL,
IN UINT8 OptionCount,
IN EFI_MTFTP6_OPTION *OptionList OPTIONAL,
OUT UINT32 *PacketLength,
OUT EFI_MTFTP6_PACKET **Packet OPTIONAL
);
/**
Parse the options in an MTFTPv6 OACK packet.
The ParseOptions() function parses the option fields in an MTFTPv6 OACK packet and
returns the number of options that were found and optionally a list of pointers to
the options in the packet.
If one or more of the option fields are not valid, then EFI_PROTOCOL_ERROR is returned
and *OptionCount and *OptionList stop at the last valid option.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] PacketLen Length of the OACK packet to be parsed.
@param[in] Packet Pointer to the OACK packet to be parsed.
@param[out] OptionCount Pointer to the number of options in the following OptionList.
@param[out] OptionList Pointer to EFI_MTFTP6_OPTION storage. Each pointer in the
OptionList points to the corresponding MTFTP option buffer
in the Packet. Call the EFI Boot Service FreePool() to
release the OptionList if the options in this OptionList
are not needed any more.
@retval EFI_SUCCESS The OACK packet was valid and the OptionCount and
OptionList parameters have been updated.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- PacketLen is 0.
- Packet is NULL or Packet is not a valid MTFTPv6 packet.
- OptionCount is NULL.
@retval EFI_NOT_FOUND No options were found in the OACK packet.
@retval EFI_OUT_OF_RESOURCES Storage for the OptionList array can not be allocated.
@retval EFI_PROTOCOL_ERROR One or more of the option fields is invalid.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_PARSE_OPTIONS)(
IN EFI_MTFTP6_PROTOCOL *This,
IN UINT32 PacketLen,
IN EFI_MTFTP6_PACKET *Packet,
OUT UINT32 *OptionCount,
OUT EFI_MTFTP6_OPTION **OptionList OPTIONAL
);
/**
Download a file from an MTFTPv6 server.
The ReadFile() function is used to initialize and start an MTFTPv6 download process and
optionally wait for completion. When the download operation completes, whether successfully or
not, the Token.Status field is updated by the EFI MTFTPv6 Protocol driver and then
Token.Event is signaled if it is not NULL.
Data can be downloaded from the MTFTPv6 server into either of the following locations:
- A fixed buffer that is pointed to by Token.Buffer
- A download service function that is pointed to by Token.CheckPacket
If both Token.Buffer and Token.CheckPacket are used, then Token.CheckPacket
will be called first. If the call is successful, the packet will be stored in Token.Buffer.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] Token Pointer to the token structure to provide the parameters that are
used in this operation.
@retval EFI_SUCCESS The data file has been transferred successfully.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_BUFFER_TOO_SMALL BufferSize is not zero but not large enough to hold the
downloaded data in downloading process.
@retval EFI_ABORTED Current operation is aborted by user.
@retval EFI_NETWORK_UNREACHABLE An ICMP network unreachable error packet was received.
@retval EFI_HOST_UNREACHABLE An ICMP host unreachable error packet was received.
@retval EFI_PROTOCOL_UNREACHABLE An ICMP protocol unreachable error packet was received.
@retval EFI_PORT_UNREACHABLE An ICMP port unreachable error packet was received.
@retval EFI_ICMP_ERROR An ICMP ERROR packet was received.
@retval EFI_TIMEOUT No responses were received from the MTFTPv6 server.
@retval EFI_TFTP_ERROR An MTFTPv6 ERROR packet was received.
@retval EFI_DEVICE_ERROR An unexpected network error or system error occurred.
@retval EFI_NO_MEDIA There was a media error.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_READ_FILE)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_TOKEN *Token
);
/**
Send a file to an MTFTPv6 server. May be unsupported in some implementations.
The WriteFile() function is used to initialize an uploading operation with the given option list
and optionally wait for completion. If one or more of the options is not supported by the server, the
unsupported options are ignored and a standard TFTP process starts instead. When the upload
process completes, whether successfully or not, Token.Event is signaled, and the EFI MTFTPv6
Protocol driver updates Token.Status.
The caller can supply the data to be uploaded in the following two modes:
- Through the user-provided buffer
- Through a callback function
With the user-provided buffer, the Token.BufferSize field indicates the length of the buffer,
and the driver will upload the data in the buffer. With an EFI_MTFTP6_PACKET_NEEDED
callback function, the driver will call this callback function to get more data from the user to upload.
See the definition of EFI_MTFTP6_PACKET_NEEDED for more information. These two modes
cannot be used at the same time. The callback function will be ignored if the user provides the
buffer.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] Token Pointer to the token structure to provide the parameters that are
used in this operation.
@retval EFI_SUCCESS The upload session has started.
@retval EFI_UNSUPPORTED The operation is not supported by this implementation.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- Token is NULL.
- Token.Filename is NULL.
- Token.OptionCount is not zero and Token.OptionList is NULL.
- One or more options in Token.OptionList have wrong format.
- Token.Buffer and Token.PacketNeeded are both NULL.
- Token.OverrideData.ServerIp is not valid unicast IPv6 addresses.
@retval EFI_UNSUPPORTED One or more options in the Token.OptionList are not
supported by this implementation.
@retval EFI_NOT_STARTED The EFI MTFTPv6 Protocol driver has not been started.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for use.
@retval EFI_ALREADY_STARTED This Token is already being used in another MTFTPv6 session.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_ACCESS_DENIED The previous operation has not completed yet.
@retval EFI_DEVICE_ERROR An unexpected network error or system error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_WRITE_FILE)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_TOKEN *Token
);
/**
Download a data file directory from an MTFTPv6 server. May be unsupported in some implementations.
The ReadDirectory() function is used to return a list of files on the MTFTPv6 server that are
logically (or operationally) related to Token.Filename. The directory request packet that is sent
to the server is built with the option list that was provided by caller, if present.
The file information that the server returns is put into either of the following locations:
- A fixed buffer that is pointed to by Token.Buffer
- A download service function that is pointed to by Token.CheckPacket
If both Token.Buffer and Token.CheckPacket are used, then Token.CheckPacket
will be called first. If the call is successful, the packet will be stored in Token.Buffer.
The returned directory listing in the Token.Buffer or EFI_MTFTP6_PACKET consists of a list
of two or three variable-length ASCII strings, each terminated by a null character, for each file in the
directory. If the multicast option is involved, the first field of each directory entry is the static
multicast IP address and UDP port number that is associated with the file name. The format of the
field is ip:ip:ip:ip:port. If the multicast option is not involved, this field and its terminating
null character are not present.
The next field of each directory entry is the file name and the last field is the file information string.
The information string contains the file size and the create/modify timestamp. The format of the
information string is filesize yyyy-mm-dd hh:mm:ss:ffff. The timestamp is
Coordinated Universal Time (UTC; also known as Greenwich Mean Time [GMT]).
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@param[in] Token Pointer to the token structure to provide the parameters that are
used in this operation.
@retval EFI_SUCCESS The MTFTPv6 related file "directory" has been downloaded.
@retval EFI_UNSUPPORTED The EFI MTFTPv6 Protocol driver does not support this function.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- Token is NULL.
- Token.Filename is NULL.
- Token.OptionCount is not zero and Token.OptionList is NULL.
- One or more options in Token.OptionList have wrong format.
- Token.Buffer and Token.CheckPacket are both NULL.
- Token.OverrideData.ServerIp is not valid unicast IPv6 addresses.
@retval EFI_UNSUPPORTED One or more options in the Token.OptionList are not
supported by this implementation.
@retval EFI_NOT_STARTED The EFI MTFTPv6 Protocol driver has not been started.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for use.
@retval EFI_ALREADY_STARTED This Token is already being used in another MTFTPv6 session.
@retval EFI_OUT_OF_RESOURCES Required system resources could not be allocated.
@retval EFI_ACCESS_DENIED The previous operation has not completed yet.
@retval EFI_DEVICE_ERROR An unexpected network error or system error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_READ_DIRECTORY)(
IN EFI_MTFTP6_PROTOCOL *This,
IN EFI_MTFTP6_TOKEN *Token
);
/**
Polls for incoming data packets and processes outgoing data packets.
The Poll() function can be used by network drivers and applications to increase the rate that data
packets are moved between the communications device and the transmit and receive queues.
In some systems, the periodic timer event in the managed network driver may not poll the
underlying communications device fast enough to transmit and/or receive all data packets without
missing incoming packets or dropping outgoing packets. Drivers and applications that are
experiencing packet loss should try calling the Poll() function more often.
@param[in] This Pointer to the EFI_MTFTP6_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_NOT_STARTED This EFI MTFTPv6 Protocol instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_TIMEOUT Data was dropped out of the transmit and/or receive queue.
Consider increasing the polling rate.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_MTFTP6_POLL)(
IN EFI_MTFTP6_PROTOCOL *This
);
///
/// The EFI_MTFTP6_PROTOCOL is designed to be used by UEFI drivers and applications to transmit
/// and receive data files. The EFI MTFTPv6 Protocol driver uses the underlying EFI UDPv6 Protocol
/// driver and EFI IPv6 Protocol driver.
///
struct _EFI_MTFTP6_PROTOCOL {
EFI_MTFTP6_GET_MODE_DATA GetModeData;
EFI_MTFTP6_CONFIGURE Configure;
EFI_MTFTP6_GET_INFO GetInfo;
EFI_MTFTP6_PARSE_OPTIONS ParseOptions;
EFI_MTFTP6_READ_FILE ReadFile;
EFI_MTFTP6_WRITE_FILE WriteFile;
EFI_MTFTP6_READ_DIRECTORY ReadDirectory;
EFI_MTFTP6_POLL Poll;
};
extern EFI_GUID gEfiMtftp6ServiceBindingProtocolGuid;
extern EFI_GUID gEfiMtftp6ProtocolGuid;
#endif

View File

@ -0,0 +1,31 @@
#ifndef _IPXE_EFI_SHIM_LOCK_PROTOCOL_H
#define _IPXE_EFI_SHIM_LOCK_PROTOCOL_H
/** @file
*
* EFI "shim lock" protocol
*
*/
FILE_LICENCE ( BSD3 );
#define EFI_SHIM_LOCK_PROTOCOL_GUID \
{ 0x605dab50, 0xe046, 0x4300, \
{ 0xab, 0xb6, 0x3d, 0xd8, 0x10, 0xdd, 0x8b, 0x23 } }
#define SHIMAPI __asmcall
typedef
EFI_STATUS SHIMAPI
(*EFI_SHIM_LOCK_VERIFY) (
IN VOID *buffer,
IN UINT32 size
);
typedef struct _EFI_SHIM_LOCK_PROTOCOL {
EFI_SHIM_LOCK_VERIFY Verify;
VOID *Reserved1;
VOID *Reserved2;
} EFI_SHIM_LOCK_PROTOCOL;
#endif /*_IPXE_EFI_SHIM_LOCK_PROTOCOL_H */

View File

@ -0,0 +1,858 @@
/** @file
EFI TCPv6(Transmission Control Protocol version 6) Protocol Definition
The EFI TCPv6 Service Binding Protocol is used to locate EFI TCPv6 Protocol drivers to create
and destroy child of the driver to communicate with other host using TCP protocol.
The EFI TCPv6 Protocol provides services to send and receive data stream.
Copyright (c) 2008 - 2014, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.2
**/
#ifndef __EFI_TCP6_PROTOCOL_H__
#define __EFI_TCP6_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#include <ipxe/efi/Protocol/ManagedNetwork.h>
#include <ipxe/efi/Protocol/Ip6.h>
#define EFI_TCP6_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0xec20eb79, 0x6c1a, 0x4664, {0x9a, 0x0d, 0xd2, 0xe4, 0xcc, 0x16, 0xd6, 0x64 } \
}
#define EFI_TCP6_PROTOCOL_GUID \
{ \
0x46e44855, 0xbd60, 0x4ab7, {0xab, 0x0d, 0xa6, 0x79, 0xb9, 0x44, 0x7d, 0x77 } \
}
typedef struct _EFI_TCP6_PROTOCOL EFI_TCP6_PROTOCOL;
///
/// EFI_TCP6_SERVICE_POINT is deprecated in the UEFI 2.4B and should not be used any more.
/// The definition in here is only present to provide backwards compatability.
///
typedef struct {
///
/// The EFI TCPv6 Protocol instance handle that is using this
/// address/port pair.
///
EFI_HANDLE InstanceHandle;
///
/// The local IPv6 address to which this TCP instance is bound. Set
/// to 0::/128, if this TCP instance is configured to listen on all
/// available source addresses.
///
EFI_IPv6_ADDRESS LocalAddress;
///
/// The local port number in host byte order.
///
UINT16 LocalPort;
///
/// The remote IPv6 address. It may be 0::/128 if this TCP instance is
/// not connected to any remote host.
///
EFI_IPv6_ADDRESS RemoteAddress;
///
/// The remote port number in host byte order. It may be zero if this
/// TCP instance is not connected to any remote host.
///
UINT16 RemotePort;
} EFI_TCP6_SERVICE_POINT;
///
/// EFI_TCP6_VARIABLE_DATA is deprecated in the UEFI 2.4B and should not be used any more.
/// The definition in here is only present to provide backwards compatability.
///
typedef struct {
EFI_HANDLE DriverHandle; ///< The handle of the driver that creates this entry.
UINT32 ServiceCount; ///< The number of address/port pairs following this data structure.
EFI_TCP6_SERVICE_POINT Services[1]; ///< List of address/port pairs that are currently in use.
} EFI_TCP6_VARIABLE_DATA;
///
/// EFI_TCP6_ACCESS_POINT
///
typedef struct {
///
/// The local IP address assigned to this TCP instance. The EFI
/// TCPv6 driver will only deliver incoming packets whose
/// destination addresses exactly match the IP address. Set to zero to
/// let the underlying IPv6 driver choose a source address. If not zero
/// it must be one of the configured IP addresses in the underlying
/// IPv6 driver.
///
EFI_IPv6_ADDRESS StationAddress;
///
/// The local port number to which this EFI TCPv6 Protocol instance
/// is bound. If the instance doesn't care the local port number, set
/// StationPort to zero to use an ephemeral port.
///
UINT16 StationPort;
///
/// The remote IP address to which this EFI TCPv6 Protocol instance
/// is connected. If ActiveFlag is FALSE (i.e. a passive TCPv6
/// instance), the instance only accepts connections from the
/// RemoteAddress. If ActiveFlag is TRUE the instance will
/// connect to the RemoteAddress, i.e., outgoing segments will be
/// sent to this address and only segments from this address will be
/// delivered to the application. When ActiveFlag is FALSE, it
/// can be set to zero and means that incoming connection requests
/// from any address will be accepted.
///
EFI_IPv6_ADDRESS RemoteAddress;
///
/// The remote port to which this EFI TCPv6 Protocol instance
/// connects or from which connection request will be accepted by
/// this EFI TCPv6 Protocol instance. If ActiveFlag is FALSE it
/// can be zero and means that incoming connection request from
/// any port will be accepted. Its value can not be zero when
/// ActiveFlag is TRUE.
///
UINT16 RemotePort;
///
/// Set it to TRUE to initiate an active open. Set it to FALSE to
/// initiate a passive open to act as a server.
///
BOOLEAN ActiveFlag;
} EFI_TCP6_ACCESS_POINT;
///
/// EFI_TCP6_OPTION
///
typedef struct {
///
/// The size of the TCP receive buffer.
///
UINT32 ReceiveBufferSize;
///
/// The size of the TCP send buffer.
///
UINT32 SendBufferSize;
///
/// The length of incoming connect request queue for a passive
/// instance. When set to zero, the value is implementation specific.
///
UINT32 MaxSynBackLog;
///
/// The maximum seconds a TCP instance will wait for before a TCP
/// connection established. When set to zero, the value is
/// implementation specific.
///
UINT32 ConnectionTimeout;
///
/// The number of times TCP will attempt to retransmit a packet on
/// an established connection. When set to zero, the value is
/// implementation specific.
///
UINT32 DataRetries;
///
/// How many seconds to wait in the FIN_WAIT_2 states for a final
/// FIN flag before the TCP instance is closed. This timeout is in
/// effective only if the application has called Close() to
/// disconnect the connection completely. It is also called
/// FIN_WAIT_2 timer in other implementations. When set to zero,
/// it should be disabled because the FIN_WAIT_2 timer itself is
/// against the standard. The default value is 60.
///
UINT32 FinTimeout;
///
/// How many seconds to wait in TIME_WAIT state before the TCP
/// instance is closed. The timer is disabled completely to provide a
/// method to close the TCP connection quickly if it is set to zero. It
/// is against the related RFC documents.
///
UINT32 TimeWaitTimeout;
///
/// The maximum number of TCP keep-alive probes to send before
/// giving up and resetting the connection if no response from the
/// other end. Set to zero to disable keep-alive probe.
///
UINT32 KeepAliveProbes;
///
/// The number of seconds a connection needs to be idle before TCP
/// sends out periodical keep-alive probes. When set to zero, the
/// value is implementation specific. It should be ignored if keep-
/// alive probe is disabled.
///
UINT32 KeepAliveTime;
///
/// The number of seconds between TCP keep-alive probes after the
/// periodical keep-alive probe if no response. When set to zero, the
/// value is implementation specific. It should be ignored if keep-
/// alive probe is disabled.
///
UINT32 KeepAliveInterval;
///
/// Set it to TRUE to enable the Nagle algorithm as defined in
/// RFC896. Set it to FALSE to disable it.
///
BOOLEAN EnableNagle;
///
/// Set it to TRUE to enable TCP timestamps option as defined in
/// RFC1323. Set to FALSE to disable it.
///
BOOLEAN EnableTimeStamp;
///
/// Set it to TRUE to enable TCP window scale option as defined in
/// RFC1323. Set it to FALSE to disable it.
///
BOOLEAN EnableWindowScaling;
///
/// Set it to TRUE to enable selective acknowledge mechanism
/// described in RFC 2018. Set it to FALSE to disable it.
/// Implementation that supports SACK can optionally support
/// DSAK as defined in RFC 2883.
///
BOOLEAN EnableSelectiveAck;
///
/// Set it to TRUE to enable path MTU discovery as defined in
/// RFC 1191. Set to FALSE to disable it.
///
BOOLEAN EnablePathMtuDiscovery;
} EFI_TCP6_OPTION;
///
/// EFI_TCP6_CONFIG_DATA
///
typedef struct {
///
/// TrafficClass field in transmitted IPv6 packets.
///
UINT8 TrafficClass;
///
/// HopLimit field in transmitted IPv6 packets.
///
UINT8 HopLimit;
///
/// Used to specify TCP communication end settings for a TCP instance.
///
EFI_TCP6_ACCESS_POINT AccessPoint;
///
/// Used to configure the advance TCP option for a connection. If set
/// to NULL, implementation specific options for TCP connection will be used.
///
EFI_TCP6_OPTION *ControlOption;
} EFI_TCP6_CONFIG_DATA;
///
/// EFI_TCP6_CONNECTION_STATE
///
typedef enum {
Tcp6StateClosed = 0,
Tcp6StateListen = 1,
Tcp6StateSynSent = 2,
Tcp6StateSynReceived = 3,
Tcp6StateEstablished = 4,
Tcp6StateFinWait1 = 5,
Tcp6StateFinWait2 = 6,
Tcp6StateClosing = 7,
Tcp6StateTimeWait = 8,
Tcp6StateCloseWait = 9,
Tcp6StateLastAck = 10
} EFI_TCP6_CONNECTION_STATE;
///
/// EFI_TCP6_COMPLETION_TOKEN
/// is used as a common header for various asynchronous tokens.
///
typedef struct {
///
/// The Event to signal after request is finished and Status field is
/// updated by the EFI TCPv6 Protocol driver.
///
EFI_EVENT Event;
///
/// The result of the completed operation.
///
EFI_STATUS Status;
} EFI_TCP6_COMPLETION_TOKEN;
///
/// EFI_TCP6_CONNECTION_TOKEN
/// will be set if the active open succeeds or an unexpected
/// error happens.
///
typedef struct {
///
/// The Status in the CompletionToken will be set to one of
/// the following values if the active open succeeds or an unexpected
/// error happens:
/// EFI_SUCCESS: The active open succeeds and the instance's
/// state is Tcp6StateEstablished.
/// EFI_CONNECTION_RESET: The connect fails because the connection is reset
/// either by instance itself or the communication peer.
/// EFI_CONNECTION_REFUSED: The receiving or transmission operation fails because this
/// connection is refused.
/// EFI_ABORTED: The active open is aborted.
/// EFI_TIMEOUT: The connection establishment timer expires and
/// no more specific information is available.
/// EFI_NETWORK_UNREACHABLE: The active open fails because
/// an ICMP network unreachable error is received.
/// EFI_HOST_UNREACHABLE: The active open fails because an
/// ICMP host unreachable error is received.
/// EFI_PROTOCOL_UNREACHABLE: The active open fails
/// because an ICMP protocol unreachable error is received.
/// EFI_PORT_UNREACHABLE: The connection establishment
/// timer times out and an ICMP port unreachable error is received.
/// EFI_ICMP_ERROR: The connection establishment timer times
/// out and some other ICMP error is received.
/// EFI_DEVICE_ERROR: An unexpected system or network error occurred.
/// EFI_SECURITY_VIOLATION: The active open was failed because of IPSec policy check.
/// EFI_NO_MEDIA: There was a media error.
///
EFI_TCP6_COMPLETION_TOKEN CompletionToken;
} EFI_TCP6_CONNECTION_TOKEN;
///
/// EFI_TCP6_LISTEN_TOKEN
/// returns when list operation finishes.
///
typedef struct {
///
/// The Status in CompletionToken will be set to the
/// following value if accept finishes:
/// EFI_SUCCESS: A remote peer has successfully established a
/// connection to this instance. A new TCP instance has also been
/// created for the connection.
/// EFI_CONNECTION_RESET: The accept fails because the connection is reset either
/// by instance itself or communication peer.
/// EFI_ABORTED: The accept request has been aborted.
/// EFI_SECURITY_VIOLATION: The accept operation was failed because of IPSec policy check.
///
EFI_TCP6_COMPLETION_TOKEN CompletionToken;
EFI_HANDLE NewChildHandle;
} EFI_TCP6_LISTEN_TOKEN;
///
/// EFI_TCP6_FRAGMENT_DATA
/// allows multiple receive or transmit buffers to be specified. The
/// purpose of this structure is to provide scattered read and write.
///
typedef struct {
UINT32 FragmentLength; ///< Length of data buffer in the fragment.
VOID *FragmentBuffer; ///< Pointer to the data buffer in the fragment.
} EFI_TCP6_FRAGMENT_DATA;
///
/// EFI_TCP6_RECEIVE_DATA
/// When TCPv6 driver wants to deliver received data to the application,
/// it will pick up the first queued receiving token, update its
/// Token->Packet.RxData then signal the Token->CompletionToken.Event.
///
typedef struct {
///
/// Whether the data is urgent. When this flag is set, the instance is in
/// urgent mode.
///
BOOLEAN UrgentFlag;
///
/// When calling Receive() function, it is the byte counts of all
/// Fragmentbuffer in FragmentTable allocated by user.
/// When the token is signaled by TCPv6 driver it is the length of
/// received data in the fragments.
///
UINT32 DataLength;
///
/// Number of fragments.
///
UINT32 FragmentCount;
///
/// An array of fragment descriptors.
///
EFI_TCP6_FRAGMENT_DATA FragmentTable[1];
} EFI_TCP6_RECEIVE_DATA;
///
/// EFI_TCP6_TRANSMIT_DATA
/// The EFI TCPv6 Protocol user must fill this data structure before sending a packet.
/// The packet may contain multiple buffers in non-continuous memory locations.
///
typedef struct {
///
/// Push If TRUE, data must be transmitted promptly, and the PUSH bit in
/// the last TCP segment created will be set. If FALSE, data
/// transmission may be delayed to combine with data from
/// subsequent Transmit()s for efficiency.
///
BOOLEAN Push;
///
/// The data in the fragment table are urgent and urgent point is in
/// effect if TRUE. Otherwise those data are NOT considered urgent.
///
BOOLEAN Urgent;
///
/// Length of the data in the fragments.
///
UINT32 DataLength;
///
/// Number of fragments.
///
UINT32 FragmentCount;
///
/// An array of fragment descriptors.
///
EFI_TCP6_FRAGMENT_DATA FragmentTable[1];
} EFI_TCP6_TRANSMIT_DATA;
///
/// EFI_TCP6_IO_TOKEN
/// returns When transmission finishes or meets any unexpected error.
///
typedef struct {
///
/// When transmission finishes or meets any unexpected error it will
/// be set to one of the following values:
/// EFI_SUCCESS: The receiving or transmission operation
/// completes successfully.
/// EFI_CONNECTION_FIN: The receiving operation fails because the communication peer
/// has closed the connection and there is no more data in the
/// receive buffer of the instance.
/// EFI_CONNECTION_RESET: The receiving or transmission operation fails
/// because this connection is reset either by instance
/// itself or the communication peer.
/// EFI_ABORTED: The receiving or transmission is aborted.
/// EFI_TIMEOUT: The transmission timer expires and no more
/// specific information is available.
/// EFI_NETWORK_UNREACHABLE: The transmission fails
/// because an ICMP network unreachable error is received.
/// EFI_HOST_UNREACHABLE: The transmission fails because an
/// ICMP host unreachable error is received.
/// EFI_PROTOCOL_UNREACHABLE: The transmission fails
/// because an ICMP protocol unreachable error is received.
/// EFI_PORT_UNREACHABLE: The transmission fails and an
/// ICMP port unreachable error is received.
/// EFI_ICMP_ERROR: The transmission fails and some other
/// ICMP error is received.
/// EFI_DEVICE_ERROR: An unexpected system or network error occurs.
/// EFI_SECURITY_VIOLATION: The receiving or transmission
/// operation was failed because of IPSec policy check
/// EFI_NO_MEDIA: There was a media error.
///
EFI_TCP6_COMPLETION_TOKEN CompletionToken;
union {
///
/// When this token is used for receiving, RxData is a pointer to
/// EFI_TCP6_RECEIVE_DATA.
///
EFI_TCP6_RECEIVE_DATA *RxData;
///
/// When this token is used for transmitting, TxData is a pointer to
/// EFI_TCP6_TRANSMIT_DATA.
///
EFI_TCP6_TRANSMIT_DATA *TxData;
} Packet;
} EFI_TCP6_IO_TOKEN;
///
/// EFI_TCP6_CLOSE_TOKEN
/// returns when close operation finishes.
///
typedef struct {
///
/// When close finishes or meets any unexpected error it will be set
/// to one of the following values:
/// EFI_SUCCESS: The close operation completes successfully.
/// EFI_ABORTED: User called configure with NULL without close stopping.
/// EFI_SECURITY_VIOLATION: The close operation was failed because of IPSec policy check.
///
EFI_TCP6_COMPLETION_TOKEN CompletionToken;
///
/// Abort the TCP connection on close instead of the standard TCP
/// close process when it is set to TRUE. This option can be used to
/// satisfy a fast disconnect.
///
BOOLEAN AbortOnClose;
} EFI_TCP6_CLOSE_TOKEN;
/**
Get the current operational status.
The GetModeData() function copies the current operational settings of this EFI TCPv6
Protocol instance into user-supplied buffers. This function can also be used to retrieve
the operational setting of underlying drivers such as IPv6, MNP, or SNP.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[out] Tcp6State The buffer in which the current TCP state is returned.
@param[out] Tcp6ConfigData The buffer in which the current TCP configuration is returned.
@param[out] Ip6ModeData The buffer in which the current IPv6 configuration data used by
the TCP instance is returned.
@param[out] MnpConfigData The buffer in which the current MNP configuration data used
indirectly by the TCP instance is returned.
@param[out] SnpModeData The buffer in which the current SNP mode data used indirectly by
the TCP instance is returned.
@retval EFI_SUCCESS The mode data was read.
@retval EFI_NOT_STARTED No configuration data is available because this instance hasn't
been started.
@retval EFI_INVALID_PARAMETER This is NULL.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_GET_MODE_DATA)(
IN EFI_TCP6_PROTOCOL *This,
OUT EFI_TCP6_CONNECTION_STATE *Tcp6State OPTIONAL,
OUT EFI_TCP6_CONFIG_DATA *Tcp6ConfigData OPTIONAL,
OUT EFI_IP6_MODE_DATA *Ip6ModeData OPTIONAL,
OUT EFI_MANAGED_NETWORK_CONFIG_DATA *MnpConfigData OPTIONAL,
OUT EFI_SIMPLE_NETWORK_MODE *SnpModeData OPTIONAL
);
/**
Initialize or brutally reset the operational parameters for this EFI TCPv6 instance.
The Configure() function does the following:
- Initialize this TCP instance, i.e., initialize the communication end settings and
specify active open or passive open for an instance.
- Reset this TCP instance brutally, i.e., cancel all pending asynchronous tokens, flush
transmission and receiving buffer directly without informing the communication peer.
No other TCPv6 Protocol operation except Poll() can be executed by this instance until
it is configured properly. For an active TCP instance, after a proper configuration it
may call Connect() to initiates the three-way handshake. For a passive TCP instance,
its state will transit to Tcp6StateListen after configuration, and Accept() may be
called to listen the incoming TCP connection requests. If Tcp6ConfigData is set to NULL,
the instance is reset. Resetting process will be done brutally, the state machine will
be set to Tcp6StateClosed directly, the receive queue and transmit queue will be flushed,
and no traffic is allowed through this instance.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] Tcp6ConfigData Pointer to the configure data to configure the instance.
If Tcp6ConfigData is set to NULL, the instance is reset.
@retval EFI_SUCCESS The operational settings are set, changed, or reset
successfully.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for
use.
@retval EFI_INVALID_PARAMETER One or more of the following conditions are TRUE:
- This is NULL.
- Tcp6ConfigData->AccessPoint.StationAddress is neither zero nor
one of the configured IP addresses in the underlying IPv6 driver.
- Tcp6ConfigData->AccessPoint.RemoteAddress isn't a valid unicast
IPv6 address.
- Tcp6ConfigData->AccessPoint.RemoteAddress is zero or
Tcp6ConfigData->AccessPoint.RemotePort is zero when
Tcp6ConfigData->AccessPoint.ActiveFlag is TRUE.
- A same access point has been configured in other TCP
instance properly.
@retval EFI_ACCESS_DENIED Configuring TCP instance when it is configured without
calling Configure() with NULL to reset it.
@retval EFI_UNSUPPORTED One or more of the control options are not supported in
the implementation.
@retval EFI_OUT_OF_RESOURCES Could not allocate enough system resources when
executing Configure().
@retval EFI_DEVICE_ERROR An unexpected network or system error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_CONFIGURE)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_CONFIG_DATA *Tcp6ConfigData OPTIONAL
);
/**
Initiate a nonblocking TCP connection request for an active TCP instance.
The Connect() function will initiate an active open to the remote peer configured
in current TCP instance if it is configured active. If the connection succeeds or
fails due to any error, the ConnectionToken->CompletionToken.Event will be signaled
and ConnectionToken->CompletionToken.Status will be updated accordingly. This
function can only be called for the TCP instance in Tcp6StateClosed state. The
instance will transfer into Tcp6StateSynSent if the function returns EFI_SUCCESS.
If TCP three-way handshake succeeds, its state will become Tcp6StateEstablished,
otherwise, the state will return to Tcp6StateClosed.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] ConnectionToken Pointer to the connection token to return when the TCP three
way handshake finishes.
@retval EFI_SUCCESS The connection request is successfully initiated and the state of
this TCP instance has been changed to Tcp6StateSynSent.
@retval EFI_NOT_STARTED This EFI TCPv6 Protocol instance has not been configured.
@retval EFI_ACCESS_DENIED One or more of the following conditions are TRUE:
- This instance is not configured as an active one.
- This instance is not in Tcp6StateClosed state.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
- This is NULL.
- ConnectionToken is NULL.
- ConnectionToken->CompletionToken.Event is NULL.
@retval EFI_OUT_OF_RESOURCES The driver can't allocate enough resource to initiate the active open.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_CONNECT)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_CONNECTION_TOKEN *ConnectionToken
);
/**
Listen on the passive instance to accept an incoming connection request. This is a
nonblocking operation.
The Accept() function initiates an asynchronous accept request to wait for an incoming
connection on the passive TCP instance. If a remote peer successfully establishes a
connection with this instance, a new TCP instance will be created and its handle will
be returned in ListenToken->NewChildHandle. The newly created instance is configured
by inheriting the passive instance's configuration and is ready for use upon return.
The new instance is in the Tcp6StateEstablished state.
The ListenToken->CompletionToken.Event will be signaled when a new connection is
accepted, user aborts the listen or connection is reset.
This function only can be called when current TCP instance is in Tcp6StateListen state.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] ListenToken Pointer to the listen token to return when operation finishes.
@retval EFI_SUCCESS The listen token has been queued successfully.
@retval EFI_NOT_STARTED This EFI TCPv6 Protocol instance has not been configured.
@retval EFI_ACCESS_DENIED One or more of the following are TRUE:
- This instance is not a passive instance.
- This instance is not in Tcp6StateListen state.
- The same listen token has already existed in the listen
token queue of this TCP instance.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
- This is NULL.
- ListenToken is NULL.
- ListentToken->CompletionToken.Event is NULL.
@retval EFI_OUT_OF_RESOURCES Could not allocate enough resource to finish the operation.
@retval EFI_DEVICE_ERROR Any unexpected and not belonged to above category error.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_ACCEPT)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_LISTEN_TOKEN *ListenToken
);
/**
Queues outgoing data into the transmit queue.
The Transmit() function queues a sending request to this TCP instance along with the
user data. The status of the token is updated and the event in the token will be
signaled once the data is sent out or some error occurs.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] Token Pointer to the completion token to queue to the transmit queue.
@retval EFI_SUCCESS The data has been queued for transmission.
@retval EFI_NOT_STARTED This EFI TCPv6 Protocol instance has not been configured.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a
source address for this instance, but no source address was
available for use.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
- This is NULL.
- Token is NULL.
- Token->CompletionToken.Event is NULL.
- Token->Packet.TxData is NULL.
- Token->Packet.FragmentCount is zero.
- Token->Packet.DataLength is not equal to the sum of fragment lengths.
@retval EFI_ACCESS_DENIED One or more of the following conditions are TRUE:
- A transmit completion token with the same Token->
CompletionToken.Event was already in the
transmission queue.
- The current instance is in Tcp6StateClosed state.
- The current instance is a passive one and it is in
Tcp6StateListen state.
- User has called Close() to disconnect this connection.
@retval EFI_NOT_READY The completion token could not be queued because the
transmit queue is full.
@retval EFI_OUT_OF_RESOURCES Could not queue the transmit data because of resource
shortage.
@retval EFI_NETWORK_UNREACHABLE There is no route to the destination network or address.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_TRANSMIT)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_IO_TOKEN *Token
);
/**
Places an asynchronous receive request into the receiving queue.
The Receive() function places a completion token into the receive packet queue. This
function is always asynchronous. The caller must allocate the Token->CompletionToken.Event
and the FragmentBuffer used to receive data. The caller also must fill the DataLength which
represents the whole length of all FragmentBuffer. When the receive operation completes, the
EFI TCPv6 Protocol driver updates the Token->CompletionToken.Status and Token->Packet.RxData
fields and the Token->CompletionToken.Event is signaled. If got data the data and its length
will be copied into the FragmentTable, at the same time the full length of received data will
be recorded in the DataLength fields. Providing a proper notification function and context
for the event will enable the user to receive the notification and receiving status. That
notification function is guaranteed to not be re-entered.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] Token Pointer to a token that is associated with the receive data
descriptor.
@retval EFI_SUCCESS The receive completion token was cached.
@retval EFI_NOT_STARTED This EFI TCPv6 Protocol instance has not been configured.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for use.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- Token is NULL.
- Token->CompletionToken.Event is NULL.
- Token->Packet.RxData is NULL.
- Token->Packet.RxData->DataLength is 0.
- The Token->Packet.RxData->DataLength is not the
sum of all FragmentBuffer length in FragmentTable.
@retval EFI_OUT_OF_RESOURCES The receive completion token could not be queued due to a lack of
system resources (usually memory).
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
The EFI TCPv6 Protocol instance has been reset to startup defaults.
@retval EFI_ACCESS_DENIED One or more of the following conditions is TRUE:
- A receive completion token with the same Token->CompletionToken.Event
was already in the receive queue.
- The current instance is in Tcp6StateClosed state.
- The current instance is a passive one and it is in
Tcp6StateListen state.
- User has called Close() to disconnect this connection.
@retval EFI_CONNECTION_FIN The communication peer has closed the connection and there is no
any buffered data in the receive buffer of this instance
@retval EFI_NOT_READY The receive request could not be queued because the receive queue is full.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_RECEIVE)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_IO_TOKEN *Token
);
/**
Disconnecting a TCP connection gracefully or reset a TCP connection. This function is a
nonblocking operation.
Initiate an asynchronous close token to TCP driver. After Close() is called, any buffered
transmission data will be sent by TCP driver and the current instance will have a graceful close
working flow described as RFC 793 if AbortOnClose is set to FALSE, otherwise, a rest packet
will be sent by TCP driver to fast disconnect this connection. When the close operation completes
successfully the TCP instance is in Tcp6StateClosed state, all pending asynchronous
operations are signaled and any buffers used for TCP network traffic are flushed.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] CloseToken Pointer to the close token to return when operation finishes.
@retval EFI_SUCCESS The Close() is called successfully.
@retval EFI_NOT_STARTED This EFI TCPv6 Protocol instance has not been configured.
@retval EFI_ACCESS_DENIED One or more of the following are TRUE:
- CloseToken or CloseToken->CompletionToken.Event is already in use.
- Previous Close() call on this instance has not finished.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
- This is NULL.
- CloseToken is NULL.
- CloseToken->CompletionToken.Event is NULL.
@retval EFI_OUT_OF_RESOURCES Could not allocate enough resource to finish the operation.
@retval EFI_DEVICE_ERROR Any unexpected and not belonged to above category error.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_CLOSE)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_CLOSE_TOKEN *CloseToken
);
/**
Abort an asynchronous connection, listen, transmission or receive request.
The Cancel() function aborts a pending connection, listen, transmit or
receive request.
If Token is not NULL and the token is in the connection, listen, transmission
or receive queue when it is being cancelled, its Token->Status will be set
to EFI_ABORTED and then Token->Event will be signaled.
If the token is not in one of the queues, which usually means that the
asynchronous operation has completed, EFI_NOT_FOUND is returned.
If Token is NULL all asynchronous token issued by Connect(), Accept(),
Transmit() and Receive() will be aborted.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@param[in] Token Pointer to a token that has been issued by
EFI_TCP6_PROTOCOL.Connect(),
EFI_TCP6_PROTOCOL.Accept(),
EFI_TCP6_PROTOCOL.Transmit() or
EFI_TCP6_PROTOCOL.Receive(). If NULL, all pending
tokens issued by above four functions will be aborted. Type
EFI_TCP6_COMPLETION_TOKEN is defined in
EFI_TCP_PROTOCOL.Connect().
@retval EFI_SUCCESS The asynchronous I/O request is aborted and Token->Event
is signaled.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NOT_STARTED This instance hasn't been configured.
@retval EFI_NOT_FOUND The asynchronous I/O request isn't found in the transmission or
receive queue. It has either completed or wasn't issued by
Transmit() and Receive().
@retval EFI_UNSUPPORTED The implementation does not support this function.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_CANCEL)(
IN EFI_TCP6_PROTOCOL *This,
IN EFI_TCP6_COMPLETION_TOKEN *Token OPTIONAL
);
/**
Poll to receive incoming data and transmit outgoing segments.
The Poll() function increases the rate that data is moved between the network
and application and can be called when the TCP instance is created successfully.
Its use is optional.
@param[in] This Pointer to the EFI_TCP6_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_NOT_READY No incoming or outgoing data is processed.
@retval EFI_TIMEOUT Data was dropped out of the transmission or receive queue.
Consider increasing the polling rate.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_TCP6_POLL)(
IN EFI_TCP6_PROTOCOL *This
);
///
/// EFI_TCP6_PROTOCOL
/// defines the EFI TCPv6 Protocol child to be used by any network drivers or
/// applications to send or receive data stream. It can either listen on a
/// specified port as a service or actively connect to remote peer as a client.
/// Each instance has its own independent settings.
///
struct _EFI_TCP6_PROTOCOL {
EFI_TCP6_GET_MODE_DATA GetModeData;
EFI_TCP6_CONFIGURE Configure;
EFI_TCP6_CONNECT Connect;
EFI_TCP6_ACCEPT Accept;
EFI_TCP6_TRANSMIT Transmit;
EFI_TCP6_RECEIVE Receive;
EFI_TCP6_CLOSE Close;
EFI_TCP6_CANCEL Cancel;
EFI_TCP6_POLL Poll;
};
extern EFI_GUID gEfiTcp6ServiceBindingProtocolGuid;
extern EFI_GUID gEfiTcp6ProtocolGuid;
#endif

View File

@ -0,0 +1,576 @@
/** @file
The EFI UDPv6 (User Datagram Protocol version 6) Protocol Definition, which is built upon
the EFI IPv6 Protocol and provides simple packet-oriented services to transmit and receive
UDP packets.
Copyright (c) 2008 - 2018, Intel Corporation. All rights reserved.<BR>
SPDX-License-Identifier: BSD-2-Clause-Patent
@par Revision Reference:
This Protocol is introduced in UEFI Specification 2.2
**/
#ifndef __EFI_UDP6_PROTOCOL_H__
#define __EFI_UDP6_PROTOCOL_H__
FILE_LICENCE ( BSD2_PATENT );
#include <ipxe/efi/Protocol/Ip6.h>
#define EFI_UDP6_SERVICE_BINDING_PROTOCOL_GUID \
{ \
0x66ed4721, 0x3c98, 0x4d3e, {0x81, 0xe3, 0xd0, 0x3d, 0xd3, 0x9a, 0x72, 0x54 } \
}
#define EFI_UDP6_PROTOCOL_GUID \
{ \
0x4f948815, 0xb4b9, 0x43cb, {0x8a, 0x33, 0x90, 0xe0, 0x60, 0xb3, 0x49, 0x55 } \
}
///
/// EFI_UDP6_SERVICE_POINT is deprecated in the UEFI 2.4B and should not be used any more.
/// The definition in here is only present to provide backwards compatability.
///
typedef struct {
///
/// The EFI UDPv6 Protocol instance handle that is using this address/port pair.
///
EFI_HANDLE InstanceHandle;
///
/// The IPv6 address to which this instance of the EFI UDPv6 Protocol is bound.
/// Set to 0::/128, if this instance is used to listen all packets from any
/// source address.
///
EFI_IPv6_ADDRESS LocalAddress;
///
/// The port number in host byte order on which the service is listening.
///
UINT16 LocalPort;
///
/// The IPv6 address of the remote host. May be 0::/128 if it is not connected
/// to any remote host or connected with more than one remote host.
///
EFI_IPv6_ADDRESS RemoteAddress;
///
/// The port number in host byte order on which the remote host is
/// listening. Maybe zero if it is not connected to any remote host.
///
UINT16 RemotePort;
} EFI_UDP6_SERVICE_POINT;
///
/// EFI_UDP6_VARIABLE_DATA is deprecated in the UEFI 2.4B and should not be used any more.
/// The definition in here is only present to provide backwards compatability.
///
typedef struct {
///
/// The handle of the driver that creates this entry.
///
EFI_HANDLE DriverHandle;
///
/// The number of address/port pairs that follow this data structure.
///
UINT32 ServiceCount;
///
/// List of address/port pairs that are currently in use.
///
EFI_UDP6_SERVICE_POINT Services[1];
} EFI_UDP6_VARIABLE_DATA;
typedef struct _EFI_UDP6_PROTOCOL EFI_UDP6_PROTOCOL;
///
/// EFI_UDP6_FRAGMENT_DATA allows multiple receive or transmit buffers to be specified.
/// The purpose of this structure is to avoid copying the same packet multiple times.
///
typedef struct {
UINT32 FragmentLength; ///< Length of the fragment data buffer.
VOID *FragmentBuffer; ///< Pointer to the fragment data buffer.
} EFI_UDP6_FRAGMENT_DATA;
///
/// The EFI_UDP6_SESSION_DATA is used to retrieve the settings when receiving packets or
/// to override the existing settings (only DestinationAddress and DestinationPort can
/// be overridden) of this EFI UDPv6 Protocol instance when sending packets.
///
typedef struct {
///
/// Address from which this packet is sent. This field should not be used when
/// sending packets.
///
EFI_IPv6_ADDRESS SourceAddress;
///
/// Port from which this packet is sent. It is in host byte order. This field should
/// not be used when sending packets.
///
UINT16 SourcePort;
///
/// Address to which this packet is sent. When sending packet, it'll be ignored
/// if it is zero.
///
EFI_IPv6_ADDRESS DestinationAddress;
///
/// Port to which this packet is sent. When sending packet, it'll be
/// ignored if it is zero.
///
UINT16 DestinationPort;
} EFI_UDP6_SESSION_DATA;
typedef struct {
///
/// Set to TRUE to accept UDP packets that are sent to any address.
///
BOOLEAN AcceptPromiscuous;
///
/// Set to TRUE to accept UDP packets that are sent to any port.
///
BOOLEAN AcceptAnyPort;
///
/// Set to TRUE to allow this EFI UDPv6 Protocol child instance to open a port number
/// that is already being used by another EFI UDPv6 Protocol child instance.
///
BOOLEAN AllowDuplicatePort;
///
/// TrafficClass field in transmitted IPv6 packets.
///
UINT8 TrafficClass;
///
/// HopLimit field in transmitted IPv6 packets.
///
UINT8 HopLimit;
///
/// The receive timeout value (number of microseconds) to be associated with each
/// incoming packet. Zero means do not drop incoming packets.
///
UINT32 ReceiveTimeout;
///
/// The transmit timeout value (number of microseconds) to be associated with each
/// outgoing packet. Zero means do not drop outgoing packets.
///
UINT32 TransmitTimeout;
///
/// The station IP address that will be assigned to this EFI UDPv6 Protocol instance.
/// The EFI UDPv6 and EFI IPv6 Protocol drivers will only deliver incoming packets
/// whose destination matches this IP address exactly. Address 0::/128 is also accepted
/// as a special case. Under this situation, underlying IPv6 driver is responsible for
/// binding a source address to this EFI IPv6 protocol instance according to source
/// address selection algorithm. Only incoming packet from the selected source address
/// is delivered. This field can be set and changed only when the EFI IPv6 driver is
/// transitioning from the stopped to the started states. If no address is available
/// for selecting, the EFI IPv6 Protocol driver will use EFI_IP6_CONFIG_PROTOCOL to
/// retrieve the IPv6 address.
EFI_IPv6_ADDRESS StationAddress;
///
/// The port number to which this EFI UDPv6 Protocol instance is bound. If a client
/// of the EFI UDPv6 Protocol does not care about the port number, set StationPort
/// to zero. The EFI UDPv6 Protocol driver will assign a random port number to transmitted
/// UDP packets. Ignored it if AcceptAnyPort is TRUE.
///
UINT16 StationPort;
///
/// The IP address of remote host to which this EFI UDPv6 Protocol instance is connecting.
/// If RemoteAddress is not 0::/128, this EFI UDPv6 Protocol instance will be connected to
/// RemoteAddress; i.e., outgoing packets of this EFI UDPv6 Protocol instance will be sent
/// to this address by default and only incoming packets from this address will be delivered
/// to client. Ignored for incoming filtering if AcceptPromiscuous is TRUE.
EFI_IPv6_ADDRESS RemoteAddress;
///
/// The port number of the remote host to which this EFI UDPv6 Protocol instance is connecting.
/// If it is not zero, outgoing packets of this EFI UDPv6 Protocol instance will be sent to
/// this port number by default and only incoming packets from this port will be delivered
/// to client. Ignored if RemoteAddress is 0::/128 and ignored for incoming filtering if
/// AcceptPromiscuous is TRUE.
UINT16 RemotePort;
} EFI_UDP6_CONFIG_DATA;
///
/// The EFI UDPv6 Protocol client must fill this data structure before sending a packet.
/// The packet may contain multiple buffers that may be not in a continuous memory location.
///
typedef struct {
///
/// If not NULL, the data that is used to override the transmitting settings.Only the two
/// filed UdpSessionData.DestinationAddress and UdpSessionData.DestionPort can be used as
/// the transmitting setting filed.
///
EFI_UDP6_SESSION_DATA *UdpSessionData;
///
/// Sum of the fragment data length. Must not exceed the maximum UDP packet size.
///
UINT32 DataLength;
///
/// Number of fragments.
///
UINT32 FragmentCount;
///
/// Array of fragment descriptors.
///
EFI_UDP6_FRAGMENT_DATA FragmentTable[1];
} EFI_UDP6_TRANSMIT_DATA;
///
/// EFI_UDP6_RECEIVE_DATA is filled by the EFI UDPv6 Protocol driver when this EFI UDPv6
/// Protocol instance receives an incoming packet. If there is a waiting token for incoming
/// packets, the CompletionToken.Packet.RxData field is updated to this incoming packet and
/// the CompletionToken.Event is signaled. The EFI UDPv6 Protocol client must signal the
/// RecycleSignal after processing the packet.
/// FragmentTable could contain multiple buffers that are not in the continuous memory locations.
/// The EFI UDPv6 Protocol client might need to combine two or more buffers in FragmentTable to
/// form their own protocol header.
///
typedef struct {
///
/// Time when the EFI UDPv6 Protocol accepted the packet.
///
EFI_TIME TimeStamp;
///
/// Indicates the event to signal when the received data has been processed.
///
EFI_EVENT RecycleSignal;
///
/// The UDP session data including SourceAddress, SourcePort, DestinationAddress,
/// and DestinationPort.
///
EFI_UDP6_SESSION_DATA UdpSession;
///
/// The sum of the fragment data length.
///
UINT32 DataLength;
///
/// Number of fragments. Maybe zero.
///
UINT32 FragmentCount;
///
/// Array of fragment descriptors. Maybe zero.
///
EFI_UDP6_FRAGMENT_DATA FragmentTable[1];
} EFI_UDP6_RECEIVE_DATA;
///
/// The EFI_UDP6_COMPLETION_TOKEN structures are used for both transmit and receive operations.
/// When used for transmitting, the Event and TxData fields must be filled in by the EFI UDPv6
/// Protocol client. After the transmit operation completes, the Status field is updated by the
/// EFI UDPv6 Protocol and the Event is signaled.
/// When used for receiving, only the Event field must be filled in by the EFI UDPv6 Protocol
/// client. After a packet is received, RxData and Status are filled in by the EFI UDPv6 Protocol
/// and the Event is signaled.
///
typedef struct {
///
/// This Event will be signaled after the Status field is updated by the EFI UDPv6 Protocol
/// driver. The type of Event must be EVT_NOTIFY_SIGNAL.
///
EFI_EVENT Event;
///
/// Will be set to one of the following values:
/// - EFI_SUCCESS: The receive or transmit operation completed successfully.
/// - EFI_ABORTED: The receive or transmit was aborted.
/// - EFI_TIMEOUT: The transmit timeout expired.
/// - EFI_NETWORK_UNREACHABLE: The destination network is unreachable. RxData is set to
/// NULL in this situation.
/// - EFI_HOST_UNREACHABLE: The destination host is unreachable. RxData is set to NULL in
/// this situation.
/// - EFI_PROTOCOL_UNREACHABLE: The UDP protocol is unsupported in the remote system.
/// RxData is set to NULL in this situation.
/// - EFI_PORT_UNREACHABLE: No service is listening on the remote port. RxData is set to
/// NULL in this situation.
/// - EFI_ICMP_ERROR: Some other Internet Control Message Protocol (ICMP) error report was
/// received. For example, packets are being sent too fast for the destination to receive them
/// and the destination sent an ICMP source quench report. RxData is set to NULL in this situation.
/// - EFI_DEVICE_ERROR: An unexpected system or network error occurred.
/// - EFI_SECURITY_VIOLATION: The transmit or receive was failed because of IPsec policy check.
/// - EFI_NO_MEDIA: There was a media error.
///
EFI_STATUS Status;
union {
///
/// When this token is used for receiving, RxData is a pointer to EFI_UDP6_RECEIVE_DATA.
///
EFI_UDP6_RECEIVE_DATA *RxData;
///
/// When this token is used for transmitting, TxData is a pointer to EFI_UDP6_TRANSMIT_DATA.
///
EFI_UDP6_TRANSMIT_DATA *TxData;
} Packet;
} EFI_UDP6_COMPLETION_TOKEN;
/**
Read the current operational settings.
The GetModeData() function copies the current operational settings of this EFI UDPv6 Protocol
instance into user-supplied buffers. This function is used optionally to retrieve the operational
mode data of underlying networks or drivers.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@param[out] Udp6ConfigData The buffer in which the current UDP configuration data is returned.
@param[out] Ip6ModeData The buffer in which the current EFI IPv6 Protocol mode data is returned.
@param[out] MnpConfigData The buffer in which the current managed network configuration data is
returned.
@param[out] SnpModeData The buffer in which the simple network mode data is returned.
@retval EFI_SUCCESS The mode data was read.
@retval EFI_NOT_STARTED When Udp6ConfigData is queried, no configuration data is available
because this instance has not been started.
@retval EFI_INVALID_PARAMETER This is NULL.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_GET_MODE_DATA)(
IN EFI_UDP6_PROTOCOL *This,
OUT EFI_UDP6_CONFIG_DATA *Udp6ConfigData OPTIONAL,
OUT EFI_IP6_MODE_DATA *Ip6ModeData OPTIONAL,
OUT EFI_MANAGED_NETWORK_CONFIG_DATA *MnpConfigData OPTIONAL,
OUT EFI_SIMPLE_NETWORK_MODE *SnpModeData OPTIONAL
);
/**
Initializes, changes, or resets the operational parameters for this instance of the EFI UDPv6
Protocol.
The Configure() function is used to do the following:
- Initialize and start this instance of the EFI UDPv6 Protocol.
- Change the filtering rules and operational parameters.
- Reset this instance of the EFI UDPv6 Protocol.
Until these parameters are initialized, no network traffic can be sent or received by this instance.
This instance can be also reset by calling Configure() with UdpConfigData set to NULL.
Once reset, the receiving queue and transmitting queue are flushed and no traffic is allowed through
this instance.
With different parameters in UdpConfigData, Configure() can be used to bind this instance to specified
port.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@param[in] UdpConfigData Pointer to the buffer contained the configuration data.
@retval EFI_SUCCESS The configuration settings were set, changed, or reset successfully.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available for use.
@retval EFI_INVALID_PARAMETER One or more following conditions are TRUE:
- This is NULL.
- UdpConfigData.StationAddress neither zero nor one of the configured IP
addresses in the underlying IPv6 driver.
- UdpConfigData.RemoteAddress is not a valid unicast IPv6 address if it
is not zero.
@retval EFI_ALREADY_STARTED The EFI UDPv6 Protocol instance is already started/configured and must be
stopped/reset before it can be reconfigured. Only TrafficClass, HopLimit,
ReceiveTimeout, and TransmitTimeout can be reconfigured without stopping
the current instance of the EFI UDPv6 Protocol.
@retval EFI_ACCESS_DENIED UdpConfigData.AllowDuplicatePort is FALSE and UdpConfigData.StationPort
is already used by other instance.
@retval EFI_OUT_OF_RESOURCES The EFI UDPv6 Protocol driver cannot allocate memory for this EFI UDPv6
Protocol instance.
@retval EFI_DEVICE_ERROR An unexpected network or system error occurred and this instance was not
opened.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_CONFIGURE)(
IN EFI_UDP6_PROTOCOL *This,
IN EFI_UDP6_CONFIG_DATA *UdpConfigData OPTIONAL
);
/**
Joins and leaves multicast groups.
The Groups() function is used to join or leave one or more multicast group.
If the JoinFlag is FALSE and the MulticastAddress is NULL, then all currently joined groups are left.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@param[in] JoinFlag Set to TRUE to join a multicast group. Set to FALSE to leave one
or all multicast groups.
@param[in] MulticastAddress Pointer to multicast group address to join or leave.
@retval EFI_SUCCESS The operation completed successfully.
@retval EFI_NOT_STARTED The EFI UDPv6 Protocol instance has not been started.
@retval EFI_OUT_OF_RESOURCES Could not allocate resources to join the group.
@retval EFI_INVALID_PARAMETER One or more of the following conditions is TRUE:
- This is NULL.
- JoinFlag is TRUE and MulticastAddress is NULL.
- JoinFlag is TRUE and *MulticastAddress is not a valid multicast address.
@retval EFI_ALREADY_STARTED The group address is already in the group table (when JoinFlag is TRUE).
@retval EFI_NOT_FOUND The group address is not in the group table (when JoinFlag is FALSE).
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_GROUPS)(
IN EFI_UDP6_PROTOCOL *This,
IN BOOLEAN JoinFlag,
IN EFI_IPv6_ADDRESS *MulticastAddress OPTIONAL
);
/**
Queues outgoing data packets into the transmit queue.
The Transmit() function places a sending request to this instance of the EFI UDPv6 Protocol,
alongside the transmit data that was filled by the user. Whenever the packet in the token is
sent out or some errors occur, the Token.Event will be signaled and Token.Status is updated.
Providing a proper notification function and context for the event will enable the user to
receive the notification and transmitting status.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@param[in] Token Pointer to the completion token that will be placed into the
transmit queue.
@retval EFI_SUCCESS The data has been queued for transmission.
@retval EFI_NOT_STARTED This EFI UDPv6 Protocol instance has not been started.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available
for use.
@retval EFI_INVALID_PARAMETER One or more of the following are TRUE:
- This is NULL.
- Token is NULL.
- Token.Event is NULL.
- Token.Packet.TxData is NULL.
- Token.Packet.TxData.FragmentCount is zero.
- Token.Packet.TxData.DataLength is not equal to the sum of fragment
lengths.
- One or more of the Token.Packet.TxData.FragmentTable[].FragmentLength
fields is zero.
- One or more of the Token.Packet.TxData.FragmentTable[].FragmentBuffer
fields is NULL.
- Token.Packet.TxData.UdpSessionData.DestinationAddress is not zero
and is not valid unicast Ipv6 address if UdpSessionData is not NULL.
- Token.Packet.TxData.UdpSessionData is NULL and this instance's
UdpConfigData.RemoteAddress is unspecified.
- Token.Packet.TxData.UdpSessionData.DestinationAddress is non-zero
when DestinationAddress is configured as non-zero when doing Configure()
for this EFI Udp6 protocol instance.
- Token.Packet.TxData.UdpSesionData.DestinationAddress is zero when
DestinationAddress is unspecified when doing Configure() for this
EFI Udp6 protocol instance.
@retval EFI_ACCESS_DENIED The transmit completion token with the same Token.Event was already
in the transmit queue.
@retval EFI_NOT_READY The completion token could not be queued because the transmit queue
is full.
@retval EFI_OUT_OF_RESOURCES Could not queue the transmit data.
@retval EFI_NOT_FOUND There is no route to the destination network or address.
@retval EFI_BAD_BUFFER_SIZE The data length is greater than the maximum UDP packet size.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_TRANSMIT)(
IN EFI_UDP6_PROTOCOL *This,
IN EFI_UDP6_COMPLETION_TOKEN *Token
);
/**
Places an asynchronous receive request into the receiving queue.
The Receive() function places a completion token into the receive packet queue. This function is
always asynchronous.
The caller must fill in the Token.Event field in the completion token, and this field cannot be
NULL. When the receive operation completes, the EFI UDPv6 Protocol driver updates the Token.Status
and Token.Packet.RxData fields and the Token.Event is signaled.
Providing a proper notification function and context for the event will enable the user to receive
the notification and receiving status. That notification function is guaranteed to not be re-entered.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@param[in] Token Pointer to a token that is associated with the receive data descriptor.
@retval EFI_SUCCESS The receive completion token was cached.
@retval EFI_NOT_STARTED This EFI UDPv6 Protocol instance has not been started.
@retval EFI_NO_MAPPING The underlying IPv6 driver was responsible for choosing a source
address for this instance, but no source address was available
for use.
@retval EFI_INVALID_PARAMETER One or more of the following is TRUE:
- This is NULL.
- Token is NULL.
- Token.Event is NULL.
@retval EFI_OUT_OF_RESOURCES The receive completion token could not be queued due to a lack of system
resources (usually memory).
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred. The EFI UDPv6 Protocol
instance has been reset to startup defaults.
@retval EFI_ACCESS_DENIED A receive completion token with the same Token.Event was already in
the receive queue.
@retval EFI_NOT_READY The receive request could not be queued because the receive queue is full.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_RECEIVE)(
IN EFI_UDP6_PROTOCOL *This,
IN EFI_UDP6_COMPLETION_TOKEN *Token
);
/**
Aborts an asynchronous transmit or receive request.
The Cancel() function is used to abort a pending transmit or receive request. If the token is in the
transmit or receive request queues, after calling this function, Token.Status will be set to
EFI_ABORTED and then Token.Event will be signaled. If the token is not in one of the queues,
which usually means that the asynchronous operation has completed, this function will not signal the
token and EFI_NOT_FOUND is returned.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@param[in] Token Pointer to a token that has been issued by EFI_UDP6_PROTOCOL.Transmit()
or EFI_UDP6_PROTOCOL.Receive().If NULL, all pending tokens are aborted.
@retval EFI_SUCCESS The asynchronous I/O request was aborted and Token.Event was signaled.
When Token is NULL, all pending requests are aborted and their events
are signaled.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_NOT_STARTED This instance has not been started.
@retval EFI_NOT_FOUND When Token is not NULL, the asynchronous I/O request was not found in
the transmit or receive queue. It has either completed or was not issued
by Transmit() and Receive().
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_CANCEL)(
IN EFI_UDP6_PROTOCOL *This,
IN EFI_UDP6_COMPLETION_TOKEN *Token OPTIONAL
);
/**
Polls for incoming data packets and processes outgoing data packets.
The Poll() function can be used by network drivers and applications to increase the rate that data
packets are moved between the communications device and the transmit and receive queues.
In some systems, the periodic timer event in the managed network driver may not poll the underlying
communications device fast enough to transmit and/or receive all data packets without missing incoming
packets or dropping outgoing packets. Drivers and applications that are experiencing packet loss should
try calling the Poll() function more often.
@param[in] This Pointer to the EFI_UDP6_PROTOCOL instance.
@retval EFI_SUCCESS Incoming or outgoing data was processed.
@retval EFI_INVALID_PARAMETER This is NULL.
@retval EFI_DEVICE_ERROR An unexpected system or network error occurred.
@retval EFI_TIMEOUT Data was dropped out of the transmit and/or receive queue.
Consider increasing the polling rate.
**/
typedef
EFI_STATUS
(EFIAPI *EFI_UDP6_POLL)(
IN EFI_UDP6_PROTOCOL *This
);
///
/// The EFI_UDP6_PROTOCOL defines an EFI UDPv6 Protocol session that can be used by any network drivers,
/// applications, or daemons to transmit or receive UDP packets. This protocol instance can either be
/// bound to a specified port as a service or connected to some remote peer as an active client.
/// Each instance has its own settings, such as group table, that are independent from each other.
///
struct _EFI_UDP6_PROTOCOL {
EFI_UDP6_GET_MODE_DATA GetModeData;
EFI_UDP6_CONFIGURE Configure;
EFI_UDP6_GROUPS Groups;
EFI_UDP6_TRANSMIT Transmit;
EFI_UDP6_RECEIVE Receive;
EFI_UDP6_CANCEL Cancel;
EFI_UDP6_POLL Poll;
};
extern EFI_GUID gEfiUdp6ServiceBindingProtocolGuid;
extern EFI_GUID gEfiUdp6ProtocolGuid;
#endif

View File

@ -467,8 +467,8 @@ EFI_STATUS
(EFIAPI *EFI_CREATE_EVENT)(
IN UINT32 Type,
IN EFI_TPL NotifyTpl,
IN EFI_EVENT_NOTIFY NotifyFunction,
IN VOID *NotifyContext,
IN EFI_EVENT_NOTIFY NotifyFunction OPTIONAL,
IN VOID *NotifyContext OPTIONAL,
OUT EFI_EVENT *Event
);

View File

@ -23,20 +23,6 @@ FILE_LICENCE ( BSD2_PATENT );
#pragma pack()
#endif
#if defined (__GNUC__) && defined (__pic__) && !defined (USING_LTO) && !defined (__APPLE__)
//
// Mark all symbol declarations and references as hidden, meaning they will
// not be subject to symbol preemption. This allows the compiler to refer to
// symbols directly using relative references rather than via the GOT, which
// contains absolute symbol addresses that are subject to runtime relocation.
//
// The LTO linker will not emit GOT based relocations when all symbol
// references can be resolved locally, and so there is no need to set the
// pragma in that case (and doing so will cause other issues).
//
#pragma GCC visibility push (hidden)
#endif
#if defined (__INTEL_COMPILER)
//
// Disable ICC's remark #869: "Parameter" was never referenced warning.
@ -104,19 +90,15 @@ FILE_LICENCE ( BSD2_PATENT );
#if defined (_MSC_VER) && _MSC_VER >= 1800
//
// Disable these warnings for VS2013.
//
//
// This warning is for potentially uninitialized local variable, and it may cause false
// positive issues in VS2013 and VS2015 build
// positive issues in VS2015 build
//
#pragma warning ( disable : 4701 )
//
// This warning is for potentially uninitialized local pointer variable, and it may cause
// false positive issues in VS2013 and VS2015 build
// false positive issues in VS2015 build
//
#pragma warning ( disable : 4703 )

View File

@ -43,10 +43,19 @@ FILE_LICENCE ( GPL2_OR_LATER );
* checking somewhat useless. Work around this bizarre sabotage
* attempt by redefining EFI_HANDLE as a pointer to an anonymous
* structure.
*
* EFI headers perform some ABI validation checks via _Static_assert()
* that may fail when EFI headers are included on a non-EFI platform.
* Temporarily disable static assertions to allow these headers to be
* included.
*/
#define EFI_HANDLE STUPID_EFI_HANDLE
#ifndef PLATFORM_efi
#define _Static_assert(expr, msg)
#endif
#include <ipxe/efi/Uefi/UefiBaseType.h>
#undef EFI_HANDLE
#undef _Static_assert
typedef struct {} *EFI_HANDLE;
/* Include the top-level EFI header files */
@ -175,14 +184,26 @@ extern EFI_GUID efi_console_control_protocol_guid;
extern EFI_GUID efi_device_path_protocol_guid;
extern EFI_GUID efi_dhcp4_protocol_guid;
extern EFI_GUID efi_dhcp4_service_binding_protocol_guid;
extern EFI_GUID efi_dhcp6_protocol_guid;
extern EFI_GUID efi_dhcp6_service_binding_protocol_guid;
extern EFI_GUID efi_disk_io_protocol_guid;
extern EFI_GUID efi_dns4_protocol_guid;
extern EFI_GUID efi_dns4_service_binding_protocol_guid;
extern EFI_GUID efi_dns6_protocol_guid;
extern EFI_GUID efi_dns6_service_binding_protocol_guid;
extern EFI_GUID efi_driver_binding_protocol_guid;
extern EFI_GUID efi_graphics_output_protocol_guid;
extern EFI_GUID efi_hii_config_access_protocol_guid;
extern EFI_GUID efi_hii_font_protocol_guid;
extern EFI_GUID efi_http_protocol_guid;
extern EFI_GUID efi_http_service_binding_protocol_guid;
extern EFI_GUID efi_ip4_protocol_guid;
extern EFI_GUID efi_ip4_config_protocol_guid;
extern EFI_GUID efi_ip4_config2_protocol_guid;
extern EFI_GUID efi_ip4_service_binding_protocol_guid;
extern EFI_GUID efi_ip6_protocol_guid;
extern EFI_GUID efi_ip6_config_protocol_guid;
extern EFI_GUID efi_ip6_service_binding_protocol_guid;
extern EFI_GUID efi_load_file_protocol_guid;
extern EFI_GUID efi_load_file2_protocol_guid;
extern EFI_GUID efi_loaded_image_protocol_guid;
@ -191,12 +212,15 @@ extern EFI_GUID efi_managed_network_protocol_guid;
extern EFI_GUID efi_managed_network_service_binding_protocol_guid;
extern EFI_GUID efi_mtftp4_protocol_guid;
extern EFI_GUID efi_mtftp4_service_binding_protocol_guid;
extern EFI_GUID efi_mtftp6_protocol_guid;
extern EFI_GUID efi_mtftp6_service_binding_protocol_guid;
extern EFI_GUID efi_nii_protocol_guid;
extern EFI_GUID efi_nii31_protocol_guid;
extern EFI_GUID efi_pci_io_protocol_guid;
extern EFI_GUID efi_pci_root_bridge_io_protocol_guid;
extern EFI_GUID efi_pxe_base_code_protocol_guid;
extern EFI_GUID efi_serial_io_protocol_guid;
extern EFI_GUID efi_shim_lock_protocol_guid;
extern EFI_GUID efi_simple_file_system_protocol_guid;
extern EFI_GUID efi_simple_network_protocol_guid;
extern EFI_GUID efi_simple_pointer_protocol_guid;
@ -206,9 +230,13 @@ extern EFI_GUID efi_simple_text_output_protocol_guid;
extern EFI_GUID efi_tcg_protocol_guid;
extern EFI_GUID efi_tcp4_protocol_guid;
extern EFI_GUID efi_tcp4_service_binding_protocol_guid;
extern EFI_GUID efi_tcp6_protocol_guid;
extern EFI_GUID efi_tcp6_service_binding_protocol_guid;
extern EFI_GUID efi_tree_protocol_guid;
extern EFI_GUID efi_udp4_protocol_guid;
extern EFI_GUID efi_udp4_service_binding_protocol_guid;
extern EFI_GUID efi_udp6_protocol_guid;
extern EFI_GUID efi_udp6_service_binding_protocol_guid;
extern EFI_GUID efi_uga_draw_protocol_guid;
extern EFI_GUID efi_unicode_collation_protocol_guid;
extern EFI_GUID efi_usb_hc_protocol_guid;
@ -241,6 +269,7 @@ efi_handle_name ( EFI_HANDLE handle );
extern void dbg_efi_opener ( EFI_HANDLE handle, EFI_GUID *protocol,
EFI_OPEN_PROTOCOL_INFORMATION_ENTRY *opener );
extern void dbg_efi_openers ( EFI_HANDLE handle, EFI_GUID *protocol );
extern void dbg_efi_protocol ( EFI_HANDLE handle, EFI_GUID *protocol );
extern void dbg_efi_protocols ( EFI_HANDLE handle );
#define DBG_EFI_OPENER_IF( level, handle, protocol, \
@ -275,6 +304,12 @@ extern void dbg_efi_protocols ( EFI_HANDLE handle );
DBG_DC_IF ( level ); \
} while ( 0 )
#define DBGC_EFI_PROTOCOL_IF( level, id, ... ) do { \
DBG_AC_IF ( level, id ); \
DBG_EFI_PROTOCOL_IF ( level, __VA_ARGS__ ); \
DBG_DC_IF ( level ); \
} while ( 0 )
#define DBGC_EFI_PROTOCOLS_IF( level, id, ... ) do { \
DBG_AC_IF ( level, id ); \
DBG_EFI_PROTOCOLS_IF ( level, __VA_ARGS__ ); \
@ -285,6 +320,8 @@ extern void dbg_efi_protocols ( EFI_HANDLE handle );
DBGC_EFI_OPENER_IF ( LOG, ##__VA_ARGS__ )
#define DBGC_EFI_OPENERS( ... ) \
DBGC_EFI_OPENERS_IF ( LOG, ##__VA_ARGS__ )
#define DBGC_EFI_PROTOCOL( ... ) \
DBGC_EFI_PROTOCOL_IF ( LOG, ##__VA_ARGS__ )
#define DBGC_EFI_PROTOCOLS( ... ) \
DBGC_EFI_PROTOCOLS_IF ( LOG, ##__VA_ARGS__ )
@ -292,6 +329,8 @@ extern void dbg_efi_protocols ( EFI_HANDLE handle );
DBGC_EFI_OPENER_IF ( EXTRA, ##__VA_ARGS__ )
#define DBGC2_EFI_OPENERS( ... ) \
DBGC_EFI_OPENERS_IF ( EXTRA, ##__VA_ARGS__ )
#define DBGC2_EFI_PROTOCOL( ... ) \
DBGC_EFI_PROTOCOL_IF ( EXTRA, ##__VA_ARGS__ )
#define DBGC2_EFI_PROTOCOLS( ... ) \
DBGC_EFI_PROTOCOLS_IF ( EXTRA, ##__VA_ARGS__ )
@ -299,6 +338,8 @@ extern void dbg_efi_protocols ( EFI_HANDLE handle );
DBGC_EFI_OPENER_IF ( PROFILE, ##__VA_ARGS__ )
#define DBGCP_EFI_OPENERS( ... ) \
DBGC_EFI_OPENERS_IF ( PROFILE, ##__VA_ARGS__ )
#define DBGCP_EFI_PROTOCOL( ... ) \
DBGC_EFI_PROTOCOL_IF ( PROFILE, ##__VA_ARGS__ )
#define DBGCP_EFI_PROTOCOLS( ... ) \
DBGC_EFI_PROTOCOLS_IF ( PROFILE, ##__VA_ARGS__ )

Some files were not shown because too many files have changed in this diff Show More