Increase the size of cactus-tertiary partition to match update in
manifest. Part of effort to use cactus-tertiary partition in StMM/HOB
testing.
Dependent on
https://review.trustedfirmware.org/c/TF-A/tf-a-tests/+/35383
Signed-off-by: Kathleen Capella <kathleen.capella@arm.com>
Signed-off-by: J-Alves <joao.alves@arm.com>
Change-Id: I5b91400848e2cf5d04d1c7442874a7a4b9847399
When using ARM_LINUX_KERNEL_AS_BL33, set defaults for the below for
increased build time efficiency:
PRELOADED_BL33_BASE=0x80080000
This address supports older kernels before v5.7
ARM_PRELOADED_DTB_BASE=0x87F00000 (only in RESET_TO_BL31)
1MiB before the address 0x88000000 in FVP. 1MiB seems enough for the
device tree blob (DTB).
Change-Id: I0396b597485e163b43f7c6677c04fcc08db55aa8
Signed-off-by: Salman Nabi <salman.nabi@arm.com>
Add initrd properties to the device tree blob at build time, giving
users the ability to run a linux kernel and successfully boot it to
the terminal. Users can boot a linux kernel in a normal flow as well
as in RESET_TO_BL31. This function is an extension of the build time
option "ARM_LINUX_KERNEL_AS_BL33=1".
The build time options INITRD_SIZE or INITRD_PATH will trigger the
insertion of initrd properties in to the DTB. If both options are
provided then the INITRD_SIZE will take precedence.
The available options are:
INITRD_SIZE: Provide the initrd size in dec or hex (hex format must
precede with '0x'.
Example: INITRD_SIZE=0x1000000
INITRD_PATH: Provide an initrd path for the build time to find its
exact size.
INITRD_BASE: A required build time option that sets the initrd base
address in hex format. A default value can be set by the platform.
Example: INITRD_BASE=0x90000000
Change-Id: Ief8de5f00c453509bcc6e978e0a95d768f1f509c
Signed-off-by: Salman Nabi <salman.nabi@arm.com>
* changes:
feat(drtm): retrieve DLME image authentication features
feat(drtm): log No-Action Event in Event Log for DRTM measurements
feat(fvp): add stub function to retrieve DLME image auth features
feat(drtm): introduce plat API for DLME authentication features
feat(drtm): ensure event types aligns with DRTM specification v1.1
fix(drtm): add missing DLME data regions for min size requirement
feat(fvp): add stub platform function to get ACPI table region size
feat(drtm): add platform API to retrieve ACPI tables region size
Adding PSA Crypto MBedTLS specific jump table to allow use of ROMLIB, to
be included when PSA_CRYPTO=1 and enabled.
Signed-off-by: Lauren Wehrmeister <lauren.wehrmeister@arm.com>
Change-Id: Iff7f0e3c5cba6b89f1732f6c80d3060498e3675d
DLME image authentication features are currently not supported on FVP.
This patch introduces a stub function in fvp_drtm_stub.c as a
placeholder for retrieving DLME image authentication features.
Change-Id: I6d274834245774c5442d67ee93fcd641f3a9cd1a
Signed-off-by: Manish V Badarkhe <Manish.Badarkhe@arm.com>
Introduces a stub platform function for FVP to retrieve the ACPI table
region size.
Change-Id: Icbf1ae0cb89c393502de2c2f4f66df6b510e6b81
Signed-off-by: Manish V Badarkhe <Manish.Badarkhe@arm.com>
* changes:
refactor(cpus): declare runtime errata correctly
perf(cpus): make reset errata do fewer branches
perf(cpus): inline the init_cpu_data_ptr function
perf(cpus): inline the reset function
perf(cpus): inline the cpu_get_rev_var call
perf(cpus): inline cpu_rev_var checks
refactor(cpus): register DSU errata with the errata framework's wrappers
refactor(cpus): convert checker functions to standard helpers
refactor(cpus): convert the Cortex-A65 to use the errata framework
fix(cpus): declare reset errata correctly
The existing DSU errata workarounds hijack the errata framework's inner
workings to register with it. However, that is undesirable as any change
to the framework may end up missing these workarounds. So convert the
checks and workarounds to macros and have them included with the
standard wrappers.
The only problem with this is the is_scu_present_in_dsu weak function.
Fortunately, it is only needed for 2 of the errata and only on 3 cores.
So drop it, assuming the default behaviour and have the callers handle
the exception.
Change-Id: Iefa36325804ea093e938f867b9a6f49a6984b8ae
Signed-off-by: Boyan Karatotev <boyan.karatotev@arm.com>
To pass SMMUv3 Realm Page 0 address to RMM
in Boot Manifest, BL31 needs to read SMMU_ROOT_IDR0
register. BL31 at EL3 runs in Root mode, but
CoreSight and peripherals at DEVICE0_BASE
(0x2000_0000) including SMMUv3 at 0x2B40_0000 are
mapped as MT_SECURE which results in RAZ access
to all SMMUv3 registers after enabling MMU.
This patch changes MT_SECURE mapping to EL3_PAS
resulting in MT_SECURE (ENABLE_RME = 0), and
MT_ROOT (ENABLE_RME = 1).
Change-Id: I3d9ae7c86e4836dd6722fa64116a14d8c8aed8da
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
* changes:
fix(qemu): statically allocate bitlocks array
feat(qemu): update for renamed struct memory_bank
feat(fvp): increase GPT PPS to 1TB
feat(gpt): statically allocate bitlocks array
chore(gpt): define PPS in platform header files
feat(fvp): allocate L0 GPT at the top of SRAM
feat(fvp): change size of PCIe memory region 2
feat(rmm): add PCIe IO info to Boot manifest
feat(fvp): define single Root region
* changes:
fix(cpus): clear CPUPWRCTLR_EL1.CORE_PWRDN_EN_BIT on reset
chore(docs): drop the "wfi" from `pwr_domain_pwr_down_wfi`
chore(psci): drop skip_wfi variable
feat(arm): convert arm platforms to expect a wakeup
fix(cpus): avoid SME related loss of context on powerdown
feat(psci): allow cores to wake up from powerdown
refactor: panic after calling psci_power_down_wfi()
refactor(cpus): undo errata mitigations
feat(cpus): add sysreg_bit_toggle
- Increase PPS for FVP from 64GB to 1TB.
- GPT L0 table for 1TB PPS requires 8KB memory.
- Set FVP_TRUSTED_SRAM_SIZE to 384 with ENABLE_RME=1
option.
- Add 256MB of PCIe memory region 1 and 3GB of
PCIe memory region 2 to FVP PAS regions array.
Change-Id: Icadd528576f53c55b5d461ff4dcd357429ba622a
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
Statically allocate 'gpt_bitlock' array of fine-grained
'bitlock_t' data structures in arm_bl31_setup.c.
The amount of memory needed for this array is controlled
by 'RME_GPT_BITLOCK_BLOCK' build option and 'PLAT_ARM_PPS'
macro defined in platform_def.h which specifies the size
of protected physical address space in bytes.
'PLAT_ARM_PPS' takes values from 4GB to 4PB supported by
Arm architecture.
Change-Id: Icf620b5039e45df6828d58fca089cad83b0bc669
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
This patch allocates level 0 GPT at the top of SRAM
for FVP. This helps to meet L0 GPT alignment requirements
and prevent the occurrence of possible unused gaps in SRAM.
Load addresses for FVP TB_FW, SOC_FW and TOS_FW DTBs are
defined in fvp_fw_config.dts via ARM_BL_RAM_BASE macro.
Change-Id: Iaa52e302373779d9fdbaf4e1ba40c10aa8d1f8bd
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
- Add PCIe and SMMUv3 related information to DTS for
configurations with ENABLE_RME=1.
- Add entries for PCIe IO memory regions to Boot manifest
- Update RMMD_MANIFEST_VERSION_MINOR from 3 to 4.
- Read PCIe related information from DTB and write it to
Boot manifest.
- Rename structures that used to describe DRAM layout
and now describe both DRAM and PCIe IO memory regions:
- ns_dram_bank -> memory_bank
- ns_dram_info -> memory_info.
Change-Id: Ib75d1af86076f724f5c330074e231f1c2ba8e21d
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
For FVP model define single Root PAS which
includes EL3 DRAM data, L1 GPTs and SCP TZC.
This allows to decrease the number of PAS
regions passed to GPT library and use GPT
mapping with Contiguous descriptor of
larger block size.
Change-Id: I70f6babaebc14e5e0bce033783ec423c8a26c542
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
Now that all errata flags are all conveniently in a single list we can
make sweeping decisions about their values. The first use-case is to
enable all errata in TF-A. This is useful for CI runs where it is
impractical to list every single one. This should help with the long
standing issue of errata not being built or tested.
Also add missing CPUs with errata to `ENABLE_ERRATA_ALL` to enable all
errata builds in CI.
Signed-off-by: Govindraj Raja <govindraj.raja@arm.com>
Signed-off-by: Boyan Karatotev <boyan.karatotev@arm.com>
Change-Id: I2b456d304d7bf3215c7c4f4fd70b56ecbcb09979
Newer cores in upcoming platforms may refuse to power down. The PSCI
library is already prepared for this so convert platform code to also
allow this. This is simple - drop the `wfi` + panic and let common code
deal with the fallout. The end result will be the same (sans the
message) except the platform will have fewer responsibilities. The only
exception is for cores being signalled to power off gracefully ahead of
system reset. That path must also be terminal so replace the end with
the same psci_pwrdown_cpu_end() to behave the same as the generic
implementation. It will handle wakeups and panic, hoping that the system
gets reset from under it. The dmb is upgraded to a dsb so no functional
change.
Change-Id: I381f96bec8532bda6ccdac65de57971aac42e7e8
Signed-off-by: Boyan Karatotev <boyan.karatotev@arm.com>
Travis' and Gelas' TRMs tell us to disable SME (set PSTATE.{ZA, SM} to
0) when we're attempting to power down. What they don't tell us is that
if this isn't done, the powerdown request will be rejected. On the
CPU_OFF path that's not a problem - we can force SVCR to 0 and be
certain the core will power off.
On the suspend to powerdown path, however, we cannot do this. The TRM
also tells us that the sequence could also be aborted on eg. GIC
interrupts. If this were to happen when we have overwritten SVCR to 0,
upon a return to the caller they would experience a loss of context. We
know that at least Linux may call into PSCI with SVCR != 0. One option
is to save the entire SME context which would be quite expensive just to
work around. Another option is to downgrade the request to a normal
suspend when SME was left on. This option is better as this is expected
to happen rarely enough to ignore the wasted power and we don't want to
burden the generic (correct) path with needless context management.
Signed-off-by: Boyan Karatotev <boyan.karatotev@arm.com>
Change-Id: I698fa8490ebf51461f6aa8bba84f9827c5c46ad4
The simplistic view of a core's powerdown sequence is that power is
atomically cut upon calling `wfi`. However, it turns out that it has
lots to do - it has to talk to the interconnect to exit coherency, clean
caches, check for RAS errors, etc. These take significant amounts of
time and are certainly not atomic. As such there is a significant window
of opportunity for external events to happen. Many of these steps are
not destructive to context, so theoretically, the core can just "give
up" half way (or roll certain actions back) and carry on running. The
point in this sequence after which roll back is not possible is called
the point of no return.
One of these actions is the checking for RAS errors. It is possible for
one to happen during this lengthy sequence, or at least remain
undiscovered until that point. If the core were to continue powerdown
when that happens, there would be no (easy) way to inform anyone about
it. Rejecting the powerdown and letting software handle the error is the
best way to implement this.
Arm cores since at least the a510 have included this exact feature. So
far it hasn't been deemed necessary to account for it in firmware due to
the low likelihood of this happening. However, events like GIC wakeup
requests are much more probable. Older cores will powerdown and
immediately power back up when this happens. Travis and Gelas include a
feature similar to the RAS case above, called powerdown abandon. The
idea is that this will improve the latency to service the interrupt by
saving on work which the core and software need to do.
So far firmware has relied on the `wfi` being the point of no return and
if it doesn't explicitly detect a pending interrupt quite early on, it
will embark onto a sequence that it expects to end with shutdown. To
accommodate for it not being a point of no return, we must undo all of
the system management we did, just like in the warm boot entrypoint.
To achieve that, the pwr_domain_pwr_down_wfi hook must not be terminal.
Most recent platforms do some platform management and finish on the
standard `wfi`, followed by a panic or an endless loop as this is
expected to not return. To make this generic, any platform that wishes
to support wakeups must instead let common code call
`psci_power_down_wfi()` right after. Besides wakeups, this lets common
code handle powerdown errata better as well.
Then, the CPU_OFF case is simple - PSCI does not allow it to return. So
the best that can be done is to attempt the `wfi` a few times (the
choice of 32 is arbitrary) in the hope that the wakeup is transient. If
it isn't, the only choice is to panic, as the system is likely to be in
a bad state, eg. interrupts weren't routed away. The same applies for
SYSTEM_OFF, SYSTEM_RESET, and SYSTEM_RESET2. There the panic won't
matter as the system is going offline one way or another. The RAS case
will be considered in a separate patch.
Now, the CPU_SUSPEND case is more involved. First, to powerdown it must
wipe its context as it is not written on warm boot. But it cannot be
overwritten in case of a wakeup. To avoid the catch 22, save a copy that
will only be used if powerdown fails. That is about 500 bytes on the
stack so it hopefully doesn't tip anyone over any limits. In future that
can be avoided by having a core manage its own context.
Second, when the core wakes up, it must undo anything it did to prepare
for poweroff, which for the cores we care about, is writing
CPUPWRCTLR_EL1.CORE_PWRDN_EN. The least intrusive for the cpu library
way of doing this is to simply call the power off hook again and have
the hook toggle the bit. If in the future there need to be more complex
sequences, their direction can be advised on the value of this bit.
Third, do the actual "resume". Most of the logic is already there for
the retention suspend, so that only needs a small touch up to apply to
the powerdown case as well. The missing bit is the powerdown specific
state management. Luckily, the warmboot entrypoint does exactly that
already too, so steal that and we're done.
All of this is hidden behind a FEAT_PABANDON flag since it has a large
memory and runtime cost that we don't want to burden non pabandon cores
with.
Finally, do some function renaming to better reflect their purpose and
make names a little bit more consistent.
Change-Id: I2405b59300c2e24ce02e266f91b7c51474c1145f
Signed-off-by: Boyan Karatotev <boyan.karatotev@arm.com>
FEAT_MOPS, mandatory from Arm v8.8, is typically managed in EL2.
However, in configurations where NS_EL2 is not enabled,
EL3 must set the HCRX_EL2.MSCEn bit to 1 to enable the feature.
This patch ensures FEAT_MOPS is enabled by setting HCRX_EL2.MSCEn to 1.
Change-Id: Ic4960e0cc14a44279156b79ded50de475b3b21c5
Signed-off-by: Arvind Ram Prakash <arvind.ramprakash@arm.com>
For a couple of releases now we have officially withdrawn support for
building TF-A on Windows using the native environment, relying instead
on POSIX emulation layers like MSYS2, Mingw64, Cygwin or WSL.
This change removes the remainder of the OS compatibility layer
entirely, and migrates the build system over to explicitly relying on a
POSIX environment.
Change-Id: I8fb60d998162422e958009afd17eab826e3bc39b
Signed-off-by: Chris Kay <chris.kay@arm.com>
The commit
1922875233 ("fix(spm-mm): carve out NS buffer TZC400 region")
removes overlaps of ns shared buffer in secure memory region.
Unfortunately, this separation increases 1 region and over maximum
number of TZC programmable regions when they include
extended memory map regions (DRAM3 to DRAM6).
This causes boot failure of StandaloneMm with spmc_el3 && sp_el0 with
ASSERT: drivers/arm/tzc/tzc400.c:256.
To fix this, like SPM_MM, exclude setting extended memory map regions when
it uses SPMC_AT_EL3 && SPC_AT_EL3_SEL0_SP.
Signed-off-by: Levi Yun <yeoreum.yun@arm.com>
Change-Id: I2d40bea066ca030050dfe951218cd17171010676
Support StandaloneMm running with FF-A as S-EL0 SP
when TF-A is built with EL3 SPMC partition manager.
For this
1. add manifest file describing StandaloneMm partition.
2. add number of page mapping area.
3. StandaloneMm should use SRAM with 512K.
while enabling, StandaloneMm, BL1 image requires more size:
aarch64-none-elf/bin/ld: BL31 image has exceeded its limit.
aarch64-none-elf/bin/ld: region `RAM' overflowed by 16384 bytes
So, when using SRAM size with 512K configuration,
increase size limit of BL1 binary.
Signed-off-by: Levi Yun <yeoreum.yun@arm.com>
Change-Id: Idaa1db510340ebb812cfd13588610b2eea941918
Mbed-TLS requires platforms to allocate it a heap for it's own internal
usage. This heap is typically between shared by BL1 and BL2 to conserve
memory.The base address and size of the heap are conveyed from BL1 to
BL2 through the config TB_FW_CONFIG.
This slightly awkward approach necessitates declaring a placeholder node
in the DTS. At runtime, this node is populated with the actual values of
the heap information. Instead, since this is dynamic information, and
simple to represent through C structures, transmit it to later stages
using the firmware handoff framework.
With this migration, remove references to TB_FW_CONFIG when firmware
handoff is enabled, as it is no longer needed. The setup code now relies
solely on TL structures to configure the TB firmware
Change-Id: Iff00dc742924a055b8bd304f15eec03ce3c6d1ef
Signed-off-by: Harrison Mutai <harrison.mutai@arm.com>
The initialization logic for the secure transfer list is currently
scattered and duplicated across platform setup code. This not only leads
to inefficiency but also complicates access to transfer lists from other
parts of the code without invoking setup functions. For instance,
arm_bl2_setup_next_ep_info acts as a thin wrapper in arm_bl2_setup.c to
provide access to the secure transfer list.
To streamline the interface, all setup code has been consolidated into a
central location.
Change-Id: I99d2a567ff39df88baa57e7e08607fccb8af189c
Signed-off-by: Harrison Mutai <harrison.mutai@arm.com>
This patch enables support of FEAT_FPMR by enabling access
to FPMR register. It achieves it by setting the EnFPM bit of
SCR_EL3. This feature is currently enabled for NS world only.
Reference:
https://developer.arm.com/documentation/109697/2024_09/
Feature-descriptions/The-Armv9-5-architecture-extension?lang=en
Change-Id: I580c409b9b22f8ead0737502280fb9093a3d5dd2
Signed-off-by: Arvind Ram Prakash <arvind.ramprakash@arm.com>
To produce PHIT HOB list in FVP, add build path for hob library.
Signed-off-by: Levi Yun <yeoreum.yun@arm.com>
Change-Id: I8f4905433bd1cc6f4c9247197b9bd69041f50fd7
The ROMLIB build currently has a strong dependency on MbedTLS. This
patch has been introduced to remove this dependency, making it more
flexible.
Change-Id: If8c4cc7cf557687f40b235a4b8f931cfb70943fd
Signed-off-by: Manish V Badarkhe <Manish.Badarkhe@arm.com>
Add basic CPU library code to support the Alto CPU.
Change-Id: I45958be99c4a350a32a9e511d3705fb568b97236
Signed-off-by: Igor Podgainõi <igor.podgainoi@arm.com>
The name field of console_info structure was missed
in checksum calculation. This is corrected by adding
a new helper checksum_calc() which computes the
checksum in a field agnostic manner.
Change-Id: I5c39ee43f1fa20872c37846e3feeabd0525a47ae
Signed-off-by: AlexeiFedorov <Alexei.Fedorov@arm.com>
Armv8.6 introduced the FEAT_LS64 extension, which provides a 64 *byte*
store instruction. A related instruction is ST64BV0, which will replace
the lowest 32 bits of the data with a value taken from the ACCDATA_EL1
system register (so that EL0 cannot alter them).
Using that ST64BV0 instruction and accessing the ACCDATA_EL1 system
register is guarded by two SCR_EL3 bits, which we should set to avoid a
trap into EL3, when lower ELs use one of those.
Add the required bits and pieces to make this feature usable:
- Add the ENABLE_FEAT_LS64_ACCDATA build option (defaulting to 0).
- Add the CPUID and SCR_EL3 bit definitions associated with FEAT_LS64.
- Add a feature check to check for the existing four variants of the
LS64 feature and detect future extensions.
- Add code to save and restore the ACCDATA_EL1 register on
secure/non-secure context switches.
- Enable the feature with runtime detection for FVP and Arm FPGA.
Please note that the *basic* FEAT_LS64 feature does not feature any trap
bits, it's only the addition of the ACCDATA_EL1 system register that
adds these traps and the SCR_EL3 bits.
Change-Id: Ie3e2ca2d9c4fbbd45c0cc6089accbb825579138a
Signed-off-by: Andre Przywara <andre.przywara@arm.com>
This patch disables trapping to EL3 when the FEAT_D128
specific registers are accessed by setting the SCR_EL3.D128En bit.
If FEAT_D128 is implemented, then FEAT_SYSREG128 is implemented.
With FEAT_SYSREG128 certain system registers are treated as 128-bit,
so we should be context saving and restoring 128-bits instead of 64-bit
when FEAT_D128 is enabled.
FEAT_SYSREG128 adds support for MRRS and MSRR instruction which
helps us to read write to 128-bit system register.
Refer to Arm Architecture Manual for further details.
Change the FVP platform to default to handling this as a dynamic option
so the right decision can be made by the code at runtime.
Change-Id: I1a53db5eac29e56c8fbdcd4961ede3abfcb2411a
Signed-off-by: Jayanth Dodderi Chidanand <jayanthdodderi.chidanand@arm.com>
Signed-off-by: Govindraj Raja <govindraj.raja@arm.com>
All new FVP's have incorporated the following PYSR bits
bit 31 is cluster ON status
bit 30 is core ON status
bit 29 is thread ON status
So add support to check cluster power ON which is supported from
affinity-level-2
But older cores with no DSU still uses affinity-level-1 for cluster
power-on status.
Ref: https://developer.arm.com/documentation/100964/1125/Base-Platform/Base---components
Change-Id: Id86811b14685d9ca900021301e5e8b7d52189963
Signed-off-by: Govindraj Raja <govindraj.raja@arm.com>
The default dts doesn't describe the core topology correctly - it uses a
two level affinity, while new cores use 3 level with MPIDR_EL1.MT set.
As a result Linux doesn't discover secondary cores correctly unless this
is specifically provided on the command line. CI already accounts for
this in tf_config/fvp-dynamiq-aarch64-only.
Change-Id: I137b213cfc48d98b8856c113d4ec0bf6474d3e2d
Signed-off-by: Boyan Karatotev <boyan.karatotev@arm.com>
Add the basic CPU library code to support Cortex-A720AE.
The overall library code is adapted based on Cortex-A720 code.
Signed-off-by: David Hu <david.hu2@arm.com>
Signed-off-by: Ahmed Azeem <ahmed.azeem@arm.com>
Change-Id: I3d64dc5a3098cc823e656a5ad3ea05cd71598dc6
Add basic CPU library code to support the Arcadia CPU.
Change-Id: Iecb0634dc6dcb34e9b5fda4902335530d237cc43
Signed-off-by: Govindraj Raja <govindraj.raja@arm.com>
Add required SMCs by RMM to push attestation signing requests to EL3
and get responses. EL3 may then choose to push these requests to a HES
as suitable for a platform. This patch also supports the new
RMM_EL3_FEATURES interface, that RMM can use to query for support for
HES based signing. The new interface exposes a feature register with
different bits defining different discoverable features. This new
interface is available starting the 0.4 version of the RMM-EL3
interface, causing the version to bump up. This patch also adds a
platform port for FVP that implements the platform hooks required to
enable the new SMCs, but it does not push to a HES and instead copies a
zeroed buffer in EL3.
Change-Id: I69c110252835122a9533e71bdcce10b5f2a686b2
Signed-off-by: Raghu Krishnamurthy <raghupathyk@nvidia.com>
