Squashes these original commits for release/v5.4 backport traceability:
- 9b289dc5ad6 ci: apply idf-ci 1.x
- 381df980d57 ci: remove pip-cache and other unused jobs
- 32375a0a15e ci: apply common-scripts CI refactor
The digest length and the condition that reserves it at the end of RTC RAM were
duplicated in seven places. Hold the reservation in a hidden Kconfig value that
is zero when the feature does not apply, so every consumer subtracts it
unconditionally, and derive ESP_SECURE_BOOT_DIGEST_LEN from it.
Pointer arithmetic on rtc_retain_mem_t* subtracted ESP_SECURE_BOOT_DIGEST_LEN
in struct units instead of bytes. Cast through uintptr_t so retain mem stays
below the ROM verified-image digest region on deep-sleep wake.
Partial backport of !51265 (bootloader_common_loader.c only).
For CONFIG_BOOTLOADER_SKIP_VALIDATE_IN_DEEP_SLEEP enabled and exit from
deep sleep case the secure boot signature verification must be skipped
to improve the wakeup performance.
Closes https://github.com/espressif/esp-idf/issues/15590
- The API esp_flash_encryption_set_release_mode() by defualt programs
the XTS-AES pseudo round level efuse to level low but did not considered
any existing value that would have been programmed in the efuse bit.
For secure update without secure boot case, the encryption length for
app image must consider signature block length as well. This was
correctly handled for secure boot case but not for secure update without
secure boot.
For secure app verification during OTA update case, the image was
getting memory mapped twice and hence the failure in verification.
Modified from memory mapped flash read to SPI flash read approach
for the MMU page size from image header.
Regression from 07318a4987
Closes https://github.com/espressif/esp-idf/issues/15936
flash 32-bit-addr is an experimental feature that has multiple
dependencies, e.g. flash chip vendor, etc.
If CONFIG_BOOTLOADER_CACHE_32BIT_ADDR_QUAD_FLASH can be enabled
successfully and tests are passed, we can allow images to be
placed on higher-than-16MB flash addresses
esp_ptr_in_rtc_iram_fast logic should be executed if
SOC_RTC_FAST_MEM_SUPPORTED is set but it should also be executed
if IRAM and DRAM region mapping is the same. Remove the
SOC_RTC_IRAM_LOW != SOC_RTC_DRAM_LOW part of the check.
Update heap component to use the modify function appropriately.
- Secure boot V2 verification failed when multiple keys are used to sign the bootloader
and the application is signed with a key other than the first key that is used to
sign the bootloader.
- The issue was introduced as a regression from the commit `ff16ce43`.
This commit fixes the issue when trying to allocate memory
with the MALLOC_CAP_EXEC in RTC memory. Prior to the fix,
the heap allocator was returning an address in RTC DRAM.
To fix this issue:
- modified memory_layout.c of the concerned targets to fill the iram_address
field in the rtc entry of the soc_memory_region array properly.
- modified heap component related functions to return IRAM address when
an allocation in RTC memory with MALLOC_CAP_EXEC is requested.
Closes https://github.com/espressif/esp-idf/issues/14835
For the SoCs that support configurable MMU page size, it is possible
that the bootloader and application are built with different MMU page
size configuration. This mismatch is not supported at the moment and
application verification fails (at bootup or during OTA update).
Configuring MMU page size helps to optimize the flash space by having
smaller alignment and padding (secure) requirements. Please note that
the MMU page size is tied with the flash size configuration at the
moment (`ESPTOOLPY_FLASHSIZE_XMB`).
This MR ensures that application verification happens using the MMU page
size configured in its binary header. Thus, bootloader and application
can now have different MMU page sizes and different combinations shall
be supported.