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feat(esp_system): base support on p4

pull/12000/head
Armando 2023-07-21 12:36:57 +08:00 zatwierdzone przez Armando (Dou Yiwen)
rodzic fd096c012d
commit a336b94527
17 zmienionych plików z 1306 dodań i 11 usunięć
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4
components/esp_system/Kconfig
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@ -101,6 +101,7 @@ menu "ESP System Settings"
default y if IDF_TARGET_ESP32S3
default y if IDF_TARGET_ESP32C6
default n if IDF_TARGET_ESP32H2 # IDF-5667
default y if IDF_TARGET_ESP32P4
depends on SOC_RTC_FAST_MEM_SUPPORTED
config ESP_SYSTEM_ALLOW_RTC_FAST_MEM_AS_HEAP
@ -316,6 +317,7 @@ menu "ESP System Settings"
default 20 if IDF_TARGET_ESP32C2
default 21 if IDF_TARGET_ESP32C3
default 16 if IDF_TARGET_ESP32C6
default 37 if IDF_TARGET_ESP32P4
default 24 if IDF_TARGET_ESP32H2
default 43
help
@ -333,6 +335,7 @@ menu "ESP System Settings"
default 19 if IDF_TARGET_ESP32C2
default 20 if IDF_TARGET_ESP32C3
default 17 if IDF_TARGET_ESP32C6
default 38 if IDF_TARGET_ESP32P4
default 23 if IDF_TARGET_ESP32H2
default 44
help
@ -596,6 +599,7 @@ menu "IPC (Inter-Processor Call)"
config ESP_IPC_ISR_ENABLE
bool
default n if IDF_TARGET_ESP32P4 # TODO: IDF-7769
default y if !FREERTOS_UNICORE
help
The IPC ISR feature is similar to the IPC feature except that the callback function is executed in the

17
components/esp_system/crosscore_int.c
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@ -1,5 +1,5 @@
/*
* SPDX-FileCopyrightText: 2015-2022 Espressif Systems (Shanghai) CO LTD
* SPDX-FileCopyrightText: 2015-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
@ -24,6 +24,9 @@
#else
#include "soc/system_reg.h"
#endif
#if CONFIG_IDF_TARGET_ESP32P4
#include "soc/hp_system_reg.h"
#endif
#define REASON_YIELD BIT(0)
#define REASON_FREQ_SWITCH BIT(1)
@ -66,6 +69,12 @@ static void IRAM_ATTR esp_crosscore_isr(void *arg) {
} else {
WRITE_PERI_REG(SYSTEM_CPU_INTR_FROM_CPU_1_REG, 0);
}
#elif CONFIG_IDF_TARGET_ESP32P4
if (esp_cpu_get_core_id() == 0) {
WRITE_PERI_REG(HP_SYSTEM_CPU_INT_FROM_CPU_0_REG, 0);
} else {
WRITE_PERI_REG(HP_SYSTEM_CPU_INT_FROM_CPU_1_REG, 0);
}
#elif CONFIG_IDF_TARGET_ARCH_RISCV
WRITE_PERI_REG(SYSTEM_CPU_INTR_FROM_CPU_0_REG, 0);
#endif
@ -147,6 +156,12 @@ static void IRAM_ATTR esp_crosscore_int_send(int core_id, uint32_t reason_mask)
} else {
WRITE_PERI_REG(SYSTEM_CPU_INTR_FROM_CPU_1_REG, SYSTEM_CPU_INTR_FROM_CPU_1);
}
#elif CONFIG_IDF_TARGET_ESP32P4
if (core_id==0) {
WRITE_PERI_REG(HP_SYSTEM_CPU_INT_FROM_CPU_0_REG, HP_SYSTEM_CPU_INT_FROM_CPU_0);
} else {
WRITE_PERI_REG(HP_SYSTEM_CPU_INT_FROM_CPU_1_REG, HP_SYSTEM_CPU_INT_FROM_CPU_1);
}
#elif CONFIG_IDF_TARGET_ARCH_RISCV
WRITE_PERI_REG(SYSTEM_CPU_INTR_FROM_CPU_0_REG, SYSTEM_CPU_INTR_FROM_CPU_0);
#endif

2
components/esp_system/fpga_overrides.c
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@ -24,6 +24,8 @@
#include "esp_private/esp_pmu.h"
#elif CONFIG_IDF_TARGET_ESP32H2
#include "esp32h2/rom/rtc.h"
#elif CONFIG_IDF_TARGET_ESP32P4
#include "esp32p4/rom/rtc.h"
#endif
#include "esp_log.h"
#include "esp_rom_sys.h"

2
components/esp_system/include/esp_private/critical_section.h
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@ -20,7 +20,7 @@
extern "C" {
#endif
#if CONFIG_IDF_TARGET_ESP32 || CONFIG_IDF_TARGET_ESP32S3 || CONFIG_IDF_TARGET_ESP32S2
#if CONFIG_IDF_TARGET_ESP32 || CONFIG_IDF_TARGET_ESP32S3 || CONFIG_IDF_TARGET_ESP32S2 || CONFIG_IDF_TARGET_ESP32P4
/**
* This macro also helps users switching between spinlock declarations/definitions for multi-/single core environments
* if the macros below aren't sufficient.

2
components/esp_system/int_wdt.c
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@ -1,5 +1,5 @@
/*
* SPDX-FileCopyrightText: 2015-2022 Espressif Systems (Shanghai) CO LTD
* SPDX-FileCopyrightText: 2015-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/

131
components/esp_system/ld/esp32p4/memory.ld.in
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@ -0,0 +1,131 @@
/*
* SPDX-FileCopyrightText: 2022 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
/**
* ESP32-P4 Linker Script Memory Layout
* This file describes the memory layout (memory blocks) by virtual memory addresses.
* This linker script is passed through the C preprocessor to include configuration options.
* Please use preprocessor features sparingly!
* Restrict to simple macros with numeric values, and/or #if/#endif blocks.
*/
#include "sdkconfig.h"
#include "ld.common"
/**
* physical memory is mapped twice to the vritual address (IRAM and DRAM).
* `I_D_SRAM_OFFSET` is the offset between the two locations of the same physical memory
*/
#define SRAM_IRAM_START 0x4ff00000
#define SRAM_DRAM_START 0x4ff00000
#define I_D_SRAM_OFFSET (SRAM_IRAM_START - SRAM_DRAM_START)
#define SRAM_DRAM_END 0x4ff30bd0 - I_D_SRAM_OFFSET /* 2nd stage bootloader iram_loader_seg start address */
#define SRAM_IRAM_ORG (SRAM_IRAM_START)
#define SRAM_DRAM_ORG (SRAM_DRAM_START)
#define I_D_SRAM_SIZE SRAM_DRAM_END - SRAM_DRAM_ORG
#if CONFIG_APP_BUILD_USE_FLASH_SECTIONS
/**
* TODO: IDF-7890
*/
#define IDROM_SEG_SIZE (CONFIG_MMU_PAGE_SIZE << 10)
#endif
#define DRAM0_0_SEG_LEN I_D_SRAM_SIZE
MEMORY
{
/**
* All these values assume the flash cache is on, and have the blocks this uses subtracted from the length
* of the various regions. The 'data access port' dram/drom regions map to the same iram/irom regions but
* are connected to the data port of the CPU and eg allow byte-wise access.
*/
/* TCM */
tcm_idram_seg (RX) : org = 0x30100000, len = 0x2000
/* IRAM for PRO CPU. */
iram0_0_seg (RX) : org = SRAM_IRAM_ORG, len = I_D_SRAM_SIZE
#if CONFIG_APP_BUILD_USE_FLASH_SECTIONS
/* Flash mapped instruction data */
irom_seg (RX) : org = 0x40000020, len = IDROM_SEG_SIZE - 0x20
/**
* (0x20 offset above is a convenience for the app binary image generation.
* Flash cache has 64KB pages. The .bin file which is flashed to the chip
* has a 0x18 byte file header, and each segment has a 0x08 byte segment
* header. Setting this offset makes it simple to meet the flash cache MMU's
* constraint that (paddr % 64KB == vaddr % 64KB).)
*/
#endif // CONFIG_APP_BUILD_USE_FLASH_SECTIONS
/**
* Shared data RAM, excluding memory reserved for ROM bss/data/stack.
* Enabling Bluetooth & Trace Memory features in menuconfig will decrease the amount of RAM available.
*/
dram0_0_seg (RW) : org = SRAM_DRAM_ORG, len = DRAM0_0_SEG_LEN
#if CONFIG_APP_BUILD_USE_FLASH_SECTIONS
/* Flash mapped constant data */
drom_seg (R) : org = 0x40000020, len = IDROM_SEG_SIZE - 0x20
/* (See irom_seg for meaning of 0x20 offset in the above.) */
#endif // CONFIG_APP_BUILD_USE_FLASH_SECTIONS
/**
* lp ram memory (RWX). Persists over deep sleep. // TODO: IDF-5667
*/
#if CONFIG_ULP_COPROC_ENABLED
lp_ram_seg(RW) : org = 0x50108000 + CONFIG_ULP_COPROC_RESERVE_MEM,
len = 0x8000 - CONFIG_ULP_COPROC_RESERVE_MEM
#else
lp_ram_seg(RW) : org = 0x50108000 , len = 0x8000
#endif // CONFIG_ULP_COPROC_ENABLED
}
/* Heap ends at top of dram0_0_seg */
_heap_end = 0x50000000;
_data_seg_org = ORIGIN(rtc_data_seg);
/**
* The lines below define location alias for .rtc.data section
* P4 has no distinguished LP(RTC) fast and slow memory sections, instead, there is a unified LP_RAM section
* Thus, the following region segments are not configurable like on other targets
*/
REGION_ALIAS("rtc_iram_seg", lp_ram_seg );
REGION_ALIAS("rtc_data_seg", rtc_iram_seg );
REGION_ALIAS("rtc_slow_seg", rtc_iram_seg );
REGION_ALIAS("rtc_data_location", rtc_iram_seg );
#if CONFIG_APP_BUILD_USE_FLASH_SECTIONS
REGION_ALIAS("default_code_seg", irom_seg);
#else
REGION_ALIAS("default_code_seg", iram0_0_seg);
#endif // CONFIG_APP_BUILD_USE_FLASH_SECTIONS
#if CONFIG_APP_BUILD_USE_FLASH_SECTIONS
REGION_ALIAS("default_rodata_seg", drom_seg);
#else
REGION_ALIAS("default_rodata_seg", dram0_0_seg);
#endif // CONFIG_APP_BUILD_USE_FLASH_SECTIONS
/**
* If rodata default segment is placed in `drom_seg`, then flash's first rodata section must
* also be first in the segment.
*/
#if CONFIG_APP_BUILD_USE_FLASH_SECTIONS
ASSERT(_flash_rodata_dummy_start == ORIGIN(default_rodata_seg),
".flash_rodata_dummy section must be placed at the beginning of the rodata segment.")
#endif
#if CONFIG_ESP_SYSTEM_USE_EH_FRAME
ASSERT ((__eh_frame_end > __eh_frame), "Error: eh_frame size is null!");
ASSERT ((__eh_frame_hdr_end > __eh_frame_hdr), "Error: eh_frame_hdr size is null!");
#endif

441
components/esp_system/ld/esp32p4/sections.ld.in 100644
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@ -0,0 +1,441 @@
/*
* SPDX-FileCopyrightText: 2022 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
/* Default entry point */
ENTRY(call_start_cpu0);
SECTIONS
{
/**
* RTC fast memory holds RTC wake stub code,
* including from any source file named rtc_wake_stub*.c
*/
.rtc.text :
{
. = ALIGN(4);
_rtc_fast_start = ABSOLUTE(.);
mapping[rtc_text]
*rtc_wake_stub*.*(.literal .text .literal.* .text.*)
*(.rtc_text_end_test)
/* 16B padding for possible CPU prefetch and 4B alignment for PMS split lines */
. += _esp_memprot_prefetch_pad_size;
. = ALIGN(4);
_rtc_text_end = ABSOLUTE(.);
} > lp_ram_seg
/**
* This section located in RTC FAST Memory area.
* It holds data marked with RTC_FAST_ATTR attribute.
* See the file "esp_attr.h" for more information.
*/
.rtc.force_fast :
{
. = ALIGN(4);
_rtc_force_fast_start = ABSOLUTE(.);
mapping[rtc_force_fast]
*(.rtc.force_fast .rtc.force_fast.*)
. = ALIGN(4) ;
_rtc_force_fast_end = ABSOLUTE(.);
} > lp_ram_seg
/**
* RTC data section holds RTC wake stub
* data/rodata, including from any source file
* named rtc_wake_stub*.c and the data marked with
* RTC_DATA_ATTR, RTC_RODATA_ATTR attributes.
*/
.rtc.data :
{
_rtc_data_start = ABSOLUTE(.);
mapping[rtc_data]
*rtc_wake_stub*.*(.data .rodata .data.* .rodata.* .srodata.*)
_rtc_data_end = ABSOLUTE(.);
} > lp_ram_seg
/* RTC bss, from any source file named rtc_wake_stub*.c */
.rtc.bss (NOLOAD) :
{
_rtc_bss_start = ABSOLUTE(.);
*rtc_wake_stub*.*(.bss .bss.* .sbss .sbss.*)
*rtc_wake_stub*.*(COMMON)
mapping[rtc_bss]
_rtc_bss_end = ABSOLUTE(.);
} > lp_ram_seg
/**
* This section holds data that should not be initialized at power up
* and will be retained during deep sleep.
* User data marked with RTC_NOINIT_ATTR will be placed
* into this section. See the file "esp_attr.h" for more information.
*/
.rtc_noinit (NOLOAD):
{
. = ALIGN(4);
_rtc_noinit_start = ABSOLUTE(.);
*(.rtc_noinit .rtc_noinit.*)
. = ALIGN(4) ;
_rtc_noinit_end = ABSOLUTE(.);
} > lp_ram_seg
/**
* This section located in RTC SLOW Memory area.
* It holds data marked with RTC_SLOW_ATTR attribute.
* See the file "esp_attr.h" for more information.
*/
.rtc.force_slow :
{
. = ALIGN(4);
_rtc_force_slow_start = ABSOLUTE(.);
*(.rtc.force_slow .rtc.force_slow.*)
. = ALIGN(4) ;
_rtc_force_slow_end = ABSOLUTE(.);
} > lp_ram_seg
/* Get size of rtc slow data based on rtc_data_location alias */
_rtc_slow_length = (ORIGIN(rtc_slow_seg) == ORIGIN(rtc_data_location))
? (_rtc_force_slow_end - _rtc_data_start)
: (_rtc_force_slow_end - _rtc_force_slow_start);
_rtc_fast_length = (ORIGIN(rtc_slow_seg) == ORIGIN(rtc_data_location))
? (_rtc_force_fast_end - _rtc_fast_start)
: (_rtc_noinit_end - _rtc_fast_start);
ASSERT((_rtc_slow_length <= LENGTH(rtc_slow_seg)),
"RTC_SLOW segment data does not fit.")
ASSERT((_rtc_fast_length <= LENGTH(rtc_data_seg)),
"RTC_FAST segment data does not fit.")
.tcm.text :
{
/* Code marked as running out of TCM */
_tcm_text_start = ABSOLUTE(.);
mapping[tcm_text]
_tcm_text_end = ABSOLUTE(.);
} > tcm_idram_seg
.tcm.data :
{
_tcm_data_start = ABSOLUTE(.);
mapping[tcm_data]
_tcm_data_end = ABSOLUTE(.);
. = ALIGN(4);
} > tcm_idram_seg
.iram0.text :
{
_iram_start = ABSOLUTE(.);
/* Vectors go to start of IRAM */
ASSERT(ABSOLUTE(.) % 0x100 == 0, "vector address must be 256 byte aligned");
KEEP(*(.exception_vectors.text));
. = ALIGN(4);
_invalid_pc_placeholder = ABSOLUTE(.);
/* Code marked as running out of IRAM */
_iram_text_start = ABSOLUTE(.);
mapping[iram0_text]
} > iram0_0_seg
/* Marks the end of IRAM code segment */
.iram0.text_end (NOLOAD) :
{
/* ESP32-C6 memprot requires 16B padding for possible CPU prefetch and 512B alignment for PMS split lines */
. += _esp_memprot_prefetch_pad_size;
. = ALIGN(_esp_memprot_align_size);
/* iram_end_test section exists for use by memprot unit tests only */
*(.iram_end_test)
_iram_text_end = ABSOLUTE(.);
} > iram0_0_seg
.iram0.data :
{
. = ALIGN(16);
_iram_data_start = ABSOLUTE(.);
mapping[iram0_data]
_iram_data_end = ABSOLUTE(.);
} > iram0_0_seg
.iram0.bss (NOLOAD) :
{
. = ALIGN(16);
_iram_bss_start = ABSOLUTE(.);
mapping[iram0_bss]
_iram_bss_end = ABSOLUTE(.);
. = ALIGN(16);
_iram_end = ABSOLUTE(.);
} > iram0_0_seg
/**
* This section is required to skip .iram0.text area because iram0_0_seg and
* dram0_0_seg reflect the same address space on different buses.
*/
.dram0.dummy (NOLOAD):
{
. = ORIGIN(dram0_0_seg) + _iram_end - _iram_start;
} > dram0_0_seg
.dram0.data :
{
_data_start = ABSOLUTE(.);
*(.gnu.linkonce.d.*)
*(.data1)
__global_pointer$ = . + 0x800;
*(.sdata)
*(.sdata.*)
*(.gnu.linkonce.s.*)
*(.gnu.linkonce.s2.*)
*(.jcr)
mapping[dram0_data]
_data_end = ABSOLUTE(.);
. = ALIGN(4);
} > dram0_0_seg
/**
* This section holds data that should not be initialized at power up.
* The section located in Internal SRAM memory region. The macro _NOINIT
* can be used as attribute to place data into this section.
* See the "esp_attr.h" file for more information.
*/
.noinit (NOLOAD):
{
. = ALIGN(4);
_noinit_start = ABSOLUTE(.);
*(.noinit .noinit.*)
. = ALIGN(4) ;
_noinit_end = ABSOLUTE(.);
} > dram0_0_seg
/* Shared RAM */
.dram0.bss (NOLOAD) :
{
. = ALIGN (8);
_bss_start = ABSOLUTE(.);
mapping[dram0_bss]
*(.dynsbss)
*(.sbss)
*(.sbss.*)
*(.gnu.linkonce.sb.*)
*(.scommon)
*(.sbss2)
*(.sbss2.*)
*(.gnu.linkonce.sb2.*)
*(.dynbss)
*(.share.mem)
*(.gnu.linkonce.b.*)
. = ALIGN (8);
_bss_end = ABSOLUTE(.);
} > dram0_0_seg
ASSERT(((_bss_end - ORIGIN(dram0_0_seg)) <= LENGTH(dram0_0_seg)), "DRAM segment data does not fit.")
.flash.text :
{
_stext = .;
_instruction_reserved_start = ABSOLUTE(.); /* This is a symbol marking the flash.text start, this can be used for mmu driver to maintain virtual address */
_text_start = ABSOLUTE(.);
mapping[flash_text]
*(.stub .gnu.warning .gnu.linkonce.literal.* .gnu.linkonce.t.*.literal .gnu.linkonce.t.*)
*(.irom0.text) /* catch stray ICACHE_RODATA_ATTR */
*(.fini.literal)
*(.fini)
*(.gnu.version)
/** CPU will try to prefetch up to 16 bytes of
* of instructions. This means that any configuration (e.g. MMU, PMS) must allow
* safe access to up to 16 bytes after the last real instruction, add
* dummy bytes to ensure this
*/
. += _esp_flash_mmap_prefetch_pad_size;
_text_end = ABSOLUTE(.);
_instruction_reserved_end = ABSOLUTE(.); /* This is a symbol marking the flash.text end, this can be used for mmu driver to maintain virtual address */
_etext = .;
/**
* Similar to _iram_start, this symbol goes here so it is
* resolved by addr2line in preference to the first symbol in
* the flash.text segment.
*/
_flash_cache_start = ABSOLUTE(0);
} > default_code_seg
/**
* This dummy section represents the .flash.text section but in default_rodata_seg.
* Thus, it must have its alignment and (at least) its size.
*/
.flash_rodata_dummy (NOLOAD):
{
_flash_rodata_dummy_start = .;
/* Start at the same alignment constraint than .flash.text */
. = ALIGN(ALIGNOF(.flash.text));
/* Create an empty gap as big as .flash.text section */
. = . + SIZEOF(.flash.text);
/* Prepare the alignment of the section above. Few bytes (0x20) must be
* added for the mapping header. */
. = ALIGN(_esp_mmu_block_size) + 0x20;
} > default_rodata_seg
.flash.appdesc : ALIGN(0x10)
{
_rodata_reserved_start = ABSOLUTE(.); /* This is a symbol marking the flash.rodata start, this can be used for mmu driver to maintain virtual address */
_rodata_start = ABSOLUTE(.);
*(.rodata_desc .rodata_desc.*) /* Should be the first. App version info. DO NOT PUT ANYTHING BEFORE IT! */
*(.rodata_custom_desc .rodata_custom_desc.*) /* Should be the second. Custom app version info. DO NOT PUT ANYTHING BEFORE IT! */
/* Create an empty gap within this section. Thanks to this, the end of this
* section will match .flash.rodata's begin address. Thus, both sections
* will be merged when creating the final bin image. */
. = ALIGN(ALIGNOF(.flash.rodata));
} > default_rodata_seg
.flash.rodata : ALIGN(0x10)
{
_flash_rodata_start = ABSOLUTE(.);
mapping[flash_rodata]
*(.irom1.text) /* catch stray ICACHE_RODATA_ATTR */
*(.gnu.linkonce.r.*)
*(.rodata1)
__XT_EXCEPTION_TABLE_ = ABSOLUTE(.);
*(.xt_except_table)
*(.gcc_except_table .gcc_except_table.*)
*(.gnu.linkonce.e.*)
*(.gnu.version_r)
. = (. + 7) & ~ 3;
/*
* C++ constructor and destructor tables
* Don't include anything from crtbegin.o or crtend.o, as IDF doesn't use toolchain crt.
*
* RISC-V gcc is configured with --enable-initfini-array so it emits an .init_array section instead.
* But the init_priority sections will be sorted for iteration in ascending order during startup.
* The rest of the init_array sections is sorted for iteration in descending order during startup, however.
* Hence a different section is generated for the init_priority functions which is iterated in
* ascending order during startup. The corresponding code can be found in startup.c.
*/
__init_priority_array_start = ABSOLUTE(.);
KEEP (*(EXCLUDE_FILE (*crtend.* *crtbegin.*) .init_array.*))
__init_priority_array_end = ABSOLUTE(.);
__init_array_start = ABSOLUTE(.);
KEEP (*(EXCLUDE_FILE (*crtend.* *crtbegin.*) .init_array))
__init_array_end = ABSOLUTE(.);
KEEP (*crtbegin.*(.dtors))
KEEP (*(EXCLUDE_FILE (*crtend.*) .dtors))
KEEP (*(SORT(.dtors.*)))
KEEP (*(.dtors))
/* C++ exception handlers table: */
__XT_EXCEPTION_DESCS_ = ABSOLUTE(.);
*(.xt_except_desc)
*(.gnu.linkonce.h.*)
__XT_EXCEPTION_DESCS_END__ = ABSOLUTE(.);
*(.xt_except_desc_end)
*(.dynamic)
*(.gnu.version_d)
/* Addresses of memory regions reserved via SOC_RESERVE_MEMORY_REGION() */
soc_reserved_memory_region_start = ABSOLUTE(.);
KEEP (*(.reserved_memory_address))
soc_reserved_memory_region_end = ABSOLUTE(.);
/* System init functions registered via ESP_SYSTEM_INIT_FN */
_esp_system_init_fn_array_start = ABSOLUTE(.);
KEEP (*(SORT_BY_INIT_PRIORITY(.esp_system_init_fn.*)))
_esp_system_init_fn_array_end = ABSOLUTE(.);
_rodata_end = ABSOLUTE(.);
/* Literals are also RO data. */
_lit4_start = ABSOLUTE(.);
*(*.lit4)
*(.lit4.*)
*(.gnu.linkonce.lit4.*)
_lit4_end = ABSOLUTE(.);
. = ALIGN(4);
_thread_local_start = ABSOLUTE(.);
*(.tdata)
*(.tdata.*)
*(.tbss)
*(.tbss.*)
_thread_local_end = ABSOLUTE(.);
. = ALIGN(ALIGNOF(.eh_frame));
} > default_rodata_seg
/* Keep this section shall be at least aligned on 4 */
.eh_frame : ALIGN(8)
{
__eh_frame = ABSOLUTE(.);
KEEP (*(.eh_frame))
__eh_frame_end = ABSOLUTE(.);
/* Guarantee that this section and the next one will be merged by making
* them adjacent. */
. = ALIGN(ALIGNOF(.eh_frame_hdr));
} > default_rodata_seg
/* To avoid any exception in C++ exception frame unwinding code, this section
* shall be aligned on 8. */
.eh_frame_hdr : ALIGN(8)
{
__eh_frame_hdr = ABSOLUTE(.);
KEEP (*(.eh_frame_hdr))
__eh_frame_hdr_end = ABSOLUTE(.);
} > default_rodata_seg
/*
This section is a place where we dump all the rodata which aren't used at runtime,
so as to avoid binary size increase
*/
.flash.rodata_noload (NOLOAD) :
{
/*
This is a symbol marking the flash.rodata end, this can be used for mmu driver to maintain virtual address
We don't need to include the noload rodata in this section
*/
_rodata_reserved_end = ABSOLUTE(.);
. = ALIGN (4);
mapping[rodata_noload]
} > default_rodata_seg
/* Marks the end of data, bss and possibly rodata */
.dram0.heap_start (NOLOAD) :
{
. = ALIGN (16);
_heap_start = ABSOLUTE(.);
} > dram0_0_seg
}
ASSERT(((_iram_end - ORIGIN(iram0_0_seg)) <= LENGTH(iram0_0_seg)),
"IRAM0 segment data does not fit.")
ASSERT(((_heap_start - ORIGIN(dram0_0_seg)) <= LENGTH(dram0_0_seg)),
"DRAM segment data does not fit.")

55
components/esp_system/port/cpu_start.c
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@ -61,6 +61,11 @@
#include "esp32c2/rom/cache.h"
#include "esp32c2/rom/rtc.h"
#include "esp32c2/rom/secure_boot.h"
#elif CONFIG_IDF_TARGET_ESP32P4
#include "esp32p4/rtc.h"
#include "soc/hp_sys_clkrst_reg.h"
#include "soc/interrupt_core0_reg.h"
#include "soc/interrupt_core1_reg.h"
#endif
#include "esp_private/esp_mmu_map_private.h"
@ -163,6 +168,28 @@ void startup_resume_other_cores(void)
void IRAM_ATTR call_start_cpu1(void)
{
#ifdef __riscv
// Configure the global pointer register
// (This should be the first thing IDF app does, as any other piece of code could be
// relaxed by the linker to access something relative to __global_pointer$)
__asm__ __volatile__ (
".option push\n"
".option norelax\n"
"la gp, __global_pointer$\n"
".option pop"
);
#endif //#ifdef __riscv
#if CONFIG_IDF_TARGET_ESP32P4
//TODO: IDF-7770
//set mstatus.fs=2'b01, floating-point unit in the initialization state
asm volatile(
"li t0, 0x2000\n"
"csrrs t0, mstatus, t0\n"
:::"t0"
);
#endif //#if CONFIG_IDF_TARGET_ESP32P4
#if SOC_BRANCH_PREDICTOR_SUPPORTED
esp_cpu_branch_prediction_enable();
#endif //#if SOC_BRANCH_PREDICTOR_SUPPORTED
@ -188,6 +215,8 @@ void IRAM_ATTR call_start_cpu1(void)
#if CONFIG_IDF_TARGET_ESP32
DPORT_REG_SET_BIT(DPORT_APP_CPU_RECORD_CTRL_REG, DPORT_APP_CPU_PDEBUG_ENABLE | DPORT_APP_CPU_RECORD_ENABLE);
DPORT_REG_CLR_BIT(DPORT_APP_CPU_RECORD_CTRL_REG, DPORT_APP_CPU_RECORD_ENABLE);
#elif CONFIG_IDF_TARGET_ESP32P4
//TODO: IDF-7688
#else
REG_WRITE(ASSIST_DEBUG_CORE_1_RCD_PDEBUGENABLE_REG, 1);
REG_WRITE(ASSIST_DEBUG_CORE_1_RCD_RECORDING_REG, 1);
@ -259,6 +288,13 @@ static void start_other_core(void)
REG_SET_BIT(SYSTEM_CORE_1_CONTROL_0_REG, SYSTEM_CONTROL_CORE_1_RESETING);
REG_CLR_BIT(SYSTEM_CORE_1_CONTROL_0_REG, SYSTEM_CONTROL_CORE_1_RESETING);
}
#elif CONFIG_IDF_TARGET_ESP32P4
if (!REG_GET_BIT(HP_SYS_CLKRST_SOC_CLK_CTRL0_REG, HP_SYS_CLKRST_REG_CORE1_CPU_CLK_EN)) {
REG_SET_BIT(HP_SYS_CLKRST_SOC_CLK_CTRL0_REG, HP_SYS_CLKRST_REG_CORE1_CPU_CLK_EN);
}
if(REG_GET_BIT(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_CORE1_GLOBAL)){
REG_CLR_BIT(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_CORE1_GLOBAL);
}
#endif
ets_set_appcpu_boot_addr((uint32_t)call_start_cpu1);
@ -269,10 +305,13 @@ static void start_other_core(void)
for (int i = 0; i < SOC_CPU_CORES_NUM; i++) {
cpus_up &= s_cpu_up[i];
}
//TODO: IDF-7891, check mixing logs
esp_rom_delay_us(100);
}
}
#if !CONFIG_IDF_TARGET_ESP32P4
//TODO: IDF-7692
// This function is needed to make the multicore app runnable on a unicore bootloader (built with FREERTOS UNICORE).
// It does some cache settings for other CPUs.
void IRAM_ATTR do_multicore_settings(void)
@ -303,6 +342,7 @@ void IRAM_ATTR do_multicore_settings(void)
cache_hal_enable(CACHE_TYPE_ALL);
#endif
}
#endif //#if !CONFIG_IDF_TARGET_ESP32P4
#endif // !CONFIG_ESP_SYSTEM_SINGLE_CORE_MODE
/*
@ -336,6 +376,16 @@ void IRAM_ATTR call_start_cpu0(void)
);
#endif
#if CONFIG_IDF_TARGET_ESP32P4
//TODO: IDF-7770
//set mstatus.fs=2'b01, floating-point unit in the initialization state
asm volatile(
"li t0, 0x2000\n"
"csrrs t0, mstatus, t0\n"
:::"t0"
);
#endif //#if CONFIG_IDF_TARGET_ESP32P4
#if SOC_BRANCH_PREDICTOR_SUPPORTED
esp_cpu_branch_prediction_enable();
#endif
@ -371,8 +421,11 @@ void IRAM_ATTR call_start_cpu0(void)
ESP_EARLY_LOGI(TAG, "Unicore app");
#else
ESP_EARLY_LOGI(TAG, "Multicore app");
#if !CONFIG_IDF_TARGET_ESP32P4
//TODO: IDF-7692
// It helps to fix missed cache settings for other cores. It happens when bootloader is unicore.
do_multicore_settings();
#endif //#if !CONFIG_IDF_TARGET_ESP32P4
#endif
#endif // !CONFIG_APP_BUILD_TYPE_PURE_RAM_APP
@ -617,10 +670,12 @@ void IRAM_ATTR call_start_cpu0(void)
#endif
#endif
#if !CONFIG_IDF_TARGET_ESP32P4 //TODO: IDF-7529
// Need to unhold the IOs that were hold right before entering deep sleep, which are used as wakeup pins
if (rst_reas[0] == RESET_REASON_CORE_DEEP_SLEEP) {
esp_deep_sleep_wakeup_io_reset();
}
#endif //#if !CONFIG_IDF_TARGET_ESP32P4
#if !CONFIG_APP_BUILD_TYPE_PURE_RAM_APP
esp_cache_err_int_init();

11
components/esp_system/port/soc/esp32p4/CMakeLists.txt
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@ -0,0 +1,11 @@
set(srcs "clk.c"
"reset_reason.c"
"system_internal.c"
"cache_err_int.c"
"../../arch/riscv/expression_with_stack.c"
"../../arch/riscv/panic_arch.c"
"../../arch/riscv/debug_stubs.c")
add_prefix(srcs "${CMAKE_CURRENT_LIST_DIR}/" ${srcs})
target_sources(${COMPONENT_LIB} PRIVATE ${srcs})

43
components/esp_system/port/soc/esp32p4/Kconfig.cache 100644
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@ -0,0 +1,43 @@
menu "Cache config"
choice ESP32P4_L2_CACHE_SIZE
prompt "L2 cache size"
default ESP32P4_L2_CACHE_128KB
help
L2 cache size to be set on application startup.
config ESP32P4_L2_CACHE_128KB
bool "128KB"
config ESP32P4_L2_CACHE_256KB
bool "256KB"
config ESP32P4_L2_CACHE_512KB
bool "512KB"
endchoice
config ESP32P4_L2_CACHE_SIZE
hex
default 0x20000 if ESP32P4_L2_CACHE_128KB
default 0x40000 if ESP32P4_L2_CACHE_256KB
default 0x80000 if ESP32P4_L2_CACHE_512KB
choice ESP32P4_L2_CACHE_LINE_SIZE
prompt "L2 cache line size"
default ESP32P4_L2_CACHE_LINE_64B if ESP32P4_L2_CACHE_128KB
default ESP32P4_L2_CACHE_LINE_64B if ESP32P4_L2_CACHE_256KB
default ESP32P4_L2_CACHE_LINE_128B if ESP32P4_L2_CACHE_512KB
help
L2 cache line size to be set on application startup.
config ESP32P4_L2_CACHE_LINE_64B
bool "64 Bytes"
depends on ESP32P4_L2_CACHE_128KB || ESP32P4_L2_CACHE_256KB
config ESP32P4_L2_CACHE_LINE_128B
bool "128 Bytes"
endchoice
config ESP32P4_L2_CACHE_LINE_SIZE
int
default 64 if ESP32P4_L2_CACHE_LINE_64B
default 128 if ESP32P4_L2_CACHE_LINE_128B
endmenu # Cache config

61
components/esp_system/port/soc/esp32p4/cache_err_int.c 100644
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@ -0,0 +1,61 @@
/*
* SPDX-FileCopyrightText: 2022-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
/*
The cache has an interrupt that can be raised as soon as an access to a cached
region (flash) is done without the cache being enabled. We use that here
to panic the CPU, which from a debugging perspective is better than grabbing bad
data from the bus.
*/
#include "esp_rom_sys.h"
#include "esp_attr.h"
#include "esp_log.h"
#include "esp_intr_alloc.h"
#include "soc/periph_defs.h"
#include "riscv/interrupt.h"
#include "hal/cache_ll.h"
static const char *TAG = "CACHE_ERR";
//TODO: IDF-7515
void esp_cache_err_int_init(void)
{
const uint32_t core_id = 0;
/* Disable cache interrupts if enabled. */
ESP_INTR_DISABLE(ETS_CACHEERR_INUM);
/**
* Bind all cache errors to ETS_CACHEERR_INUM interrupt. we will deal with
* them in handler by different types
*
* On ESP32P4 boards, the cache is a shared one but buses are still
* distinct. So, we have an bus0 and a bus1 sharing the same cache.
* This error can occur if a bus performs a request but the cache
* is disabled.
*/
esp_rom_route_intr_matrix(core_id, ETS_CACHE_INTR_SOURCE, ETS_CACHEERR_INUM);
/* Set the type and priority to cache error interrupts. */
esprv_intc_int_set_type(ETS_CACHEERR_INUM, INTR_TYPE_LEVEL);
esprv_intc_int_set_priority(ETS_CACHEERR_INUM, SOC_INTERRUPT_LEVEL_MEDIUM);
ESP_DRAM_LOGV(TAG, "access error intr clr & ena mask is: 0x%x", CACHE_LL_L1_ACCESS_EVENT_MASK);
/* On the hardware side, start by clearing all the bits reponsible for cache access error */
cache_ll_l1_clear_access_error_intr(0, CACHE_LL_L1_ACCESS_EVENT_MASK);
/* Then enable cache access error interrupts. */
cache_ll_l1_enable_access_error_intr(0, CACHE_LL_L1_ACCESS_EVENT_MASK);
/* Enable the interrupts for cache error. */
ESP_INTR_ENABLE(ETS_CACHEERR_INUM);
}
int IRAM_ATTR esp_cache_err_get_cpuid(void)
{
//TODO: IDF-7515
//Should return hart ID according to the cache error
return 0;
}

277
components/esp_system/port/soc/esp32p4/clk.c 100644
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@ -0,0 +1,277 @@
/*
* SPDX-FileCopyrightText: 2022-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
#include <stdint.h>
#include <sys/cdefs.h>
#include <sys/time.h>
#include <sys/param.h>
#include "sdkconfig.h"
#include "esp_attr.h"
#include "esp_log.h"
#include "esp_clk_internal.h"
#include "esp32p4/rom/ets_sys.h"
#include "esp32p4/rom/uart.h"
#include "soc/soc.h"
#include "soc/rtc.h"
#include "soc/rtc_periph.h"
#include "soc/i2s_reg.h"
#include "esp_cpu.h"
#include "hal/wdt_hal.h"
#include "esp_private/esp_modem_clock.h"
#include "esp_private/periph_ctrl.h"
#include "esp_private/esp_clk.h"
#include "esp_private/esp_pmu.h"
#include "esp_rom_uart.h"
#include "esp_rom_sys.h"
/* Number of cycles to wait from the 32k XTAL oscillator to consider it running.
* Larger values increase startup delay. Smaller values may cause false positive
* detection (i.e. oscillator runs for a few cycles and then stops).
*/
#define SLOW_CLK_CAL_CYCLES CONFIG_RTC_CLK_CAL_CYCLES
#define MHZ (1000000)
static void select_rtc_slow_clk(soc_rtc_slow_clk_src_t rtc_slow_clk_src);
static const char *TAG = "clk";
__attribute__((weak)) void esp_clk_init(void)
{
#if SOC_PMU_SUPPORTED
pmu_init();
#endif //SOC_PMU_SUPPORTED
assert(rtc_clk_xtal_freq_get() == RTC_XTAL_FREQ_40M);
rtc_clk_8m_enable(true);
rtc_clk_fast_src_set(SOC_RTC_FAST_CLK_SRC_RC_FAST);
#ifdef CONFIG_BOOTLOADER_WDT_ENABLE
// WDT uses a SLOW_CLK clock source. After a function select_rtc_slow_clk a frequency of this source can changed.
// If the frequency changes from 150kHz to 32kHz, then the timeout set for the WDT will increase 4.6 times.
// Therefore, for the time of frequency change, set a new lower timeout value (1.6 sec).
// This prevents excessive delay before resetting in case the supply voltage is drawdown.
// (If frequency is changed from 150kHz to 32kHz then WDT timeout will increased to 1.6sec * 150/32 = 7.5 sec).
wdt_hal_context_t rtc_wdt_ctx = RWDT_HAL_CONTEXT_DEFAULT();
uint32_t stage_timeout_ticks = (uint32_t)(1600ULL * rtc_clk_slow_freq_get_hz() / 1000ULL);
wdt_hal_write_protect_disable(&rtc_wdt_ctx);
wdt_hal_feed(&rtc_wdt_ctx);
//Bootloader has enabled RTC WDT until now. We're only modifying timeout, so keep the stage and timeout action the same
wdt_hal_config_stage(&rtc_wdt_ctx, WDT_STAGE0, stage_timeout_ticks, WDT_STAGE_ACTION_RESET_RTC);
wdt_hal_write_protect_enable(&rtc_wdt_ctx);
#endif
#if defined(CONFIG_RTC_CLK_SRC_EXT_CRYS)
select_rtc_slow_clk(SOC_RTC_SLOW_CLK_SRC_XTAL32K);
#elif defined(CONFIG_RTC_CLK_SRC_EXT_OSC)
select_rtc_slow_clk(SOC_RTC_SLOW_CLK_SRC_OSC_SLOW);
#elif defined(CONFIG_RTC_CLK_SRC_INT_RC32K)
select_rtc_slow_clk(SOC_RTC_SLOW_CLK_SRC_RC32K);
#else
select_rtc_slow_clk(SOC_RTC_SLOW_CLK_SRC_RC_SLOW);
#endif
#ifdef CONFIG_BOOTLOADER_WDT_ENABLE
// After changing a frequency WDT timeout needs to be set for new frequency.
stage_timeout_ticks = (uint32_t)((uint64_t)CONFIG_BOOTLOADER_WDT_TIME_MS * rtc_clk_slow_freq_get_hz() / 1000);
wdt_hal_write_protect_disable(&rtc_wdt_ctx);
wdt_hal_feed(&rtc_wdt_ctx);
wdt_hal_config_stage(&rtc_wdt_ctx, WDT_STAGE0, stage_timeout_ticks, WDT_STAGE_ACTION_RESET_RTC);
wdt_hal_write_protect_enable(&rtc_wdt_ctx);
#endif
rtc_cpu_freq_config_t old_config, new_config;
rtc_clk_cpu_freq_get_config(&old_config);
const uint32_t old_freq_mhz = old_config.freq_mhz;
const uint32_t new_freq_mhz = CONFIG_ESP_DEFAULT_CPU_FREQ_MHZ;
bool res = rtc_clk_cpu_freq_mhz_to_config(new_freq_mhz, &new_config);
assert(res);
// Wait for UART TX to finish, otherwise some UART output will be lost
// when switching APB frequency
esp_rom_uart_tx_wait_idle(CONFIG_ESP_CONSOLE_UART_NUM);
if (res) {
rtc_clk_cpu_freq_set_config(&new_config);
}
// Re calculate the ccount to make time calculation correct.
esp_cpu_set_cycle_count( (uint64_t)esp_cpu_get_cycle_count() * new_freq_mhz / old_freq_mhz );
}
static void select_rtc_slow_clk(soc_rtc_slow_clk_src_t rtc_slow_clk_src)
{
uint32_t cal_val = 0;
/* number of times to repeat 32k XTAL calibration
* before giving up and switching to the internal RC
*/
int retry_32k_xtal = 3;
do {
if (rtc_slow_clk_src == SOC_RTC_SLOW_CLK_SRC_XTAL32K || rtc_slow_clk_src == SOC_RTC_SLOW_CLK_SRC_OSC_SLOW) {
/* 32k XTAL oscillator needs to be enabled and running before it can
* be used. Hardware doesn't have a direct way of checking if the
* oscillator is running. Here we use rtc_clk_cal function to count
* the number of main XTAL cycles in the given number of 32k XTAL
* oscillator cycles. If the 32k XTAL has not started up, calibration
* will time out, returning 0.
*/
ESP_EARLY_LOGD(TAG, "waiting for 32k oscillator to start up");
rtc_cal_sel_t cal_sel = 0;
if (rtc_slow_clk_src == SOC_RTC_SLOW_CLK_SRC_XTAL32K) {
rtc_clk_32k_enable(true);
cal_sel = RTC_CAL_32K_XTAL;
} else if (rtc_slow_clk_src == SOC_RTC_SLOW_CLK_SRC_OSC_SLOW) {
rtc_clk_32k_enable_external();
cal_sel = RTC_CAL_32K_OSC_SLOW;
}
// When SLOW_CLK_CAL_CYCLES is set to 0, clock calibration will not be performed at startup.
if (SLOW_CLK_CAL_CYCLES > 0) {
cal_val = rtc_clk_cal(cal_sel, SLOW_CLK_CAL_CYCLES);
if (cal_val == 0) {
if (retry_32k_xtal-- > 0) {
continue;
}
ESP_EARLY_LOGW(TAG, "32 kHz clock not found, switching to internal 150 kHz oscillator");
rtc_slow_clk_src = SOC_RTC_SLOW_CLK_SRC_RC_SLOW;
}
}
} else if (rtc_slow_clk_src == SOC_RTC_SLOW_CLK_SRC_RC32K) {
rtc_clk_rc32k_enable(true);
}
rtc_clk_slow_src_set(rtc_slow_clk_src);
if (SLOW_CLK_CAL_CYCLES > 0) {
/* TODO: 32k XTAL oscillator has some frequency drift at startup.
* Improve calibration routine to wait until the frequency is stable.
*/
cal_val = rtc_clk_cal(RTC_CAL_RTC_MUX, SLOW_CLK_CAL_CYCLES);
} else {
const uint64_t cal_dividend = (1ULL << RTC_CLK_CAL_FRACT) * 1000000ULL;
cal_val = (uint32_t) (cal_dividend / rtc_clk_slow_freq_get_hz());
}
} while (cal_val == 0);
ESP_EARLY_LOGD(TAG, "RTC_SLOW_CLK calibration value: %d", cal_val);
esp_clk_slowclk_cal_set(cal_val);
}
void rtc_clk_select_rtc_slow_clk(void)
{
select_rtc_slow_clk(SOC_RTC_SLOW_CLK_SRC_XTAL32K);
}
/* This function is not exposed as an API at this point.
* All peripheral clocks are default enabled after chip is powered on.
* This function disables some peripheral clocks when cpu starts.
* These peripheral clocks are enabled when the peripherals are initialized
* and disabled when they are de-initialized.
*/
__attribute__((weak)) void esp_perip_clk_init(void)
{
modem_clock_domain_pmu_state_icg_map_init();
ESP_EARLY_LOGW(TAG, "esp_perip_clk_init() has not been implemented yet");
#if 0 // TODO: IDF-5658
uint32_t common_perip_clk, hwcrypto_perip_clk, wifi_bt_sdio_clk = 0;
uint32_t common_perip_clk1 = 0;
soc_reset_reason_t rst_reason = esp_rom_get_reset_reason(0);
/* For reason that only reset CPU, do not disable the clocks
* that have been enabled before reset.
*/
if (rst_reason == RESET_REASON_CPU0_MWDT0 || rst_reason == RESET_REASON_CPU0_SW ||
rst_reason == RESET_REASON_CPU0_RTC_WDT || rst_reason == RESET_REASON_CPU0_MWDT1) {
common_perip_clk = ~READ_PERI_REG(SYSTEM_PERIP_CLK_EN0_REG);
hwcrypto_perip_clk = ~READ_PERI_REG(SYSTEM_PERIP_CLK_EN1_REG);
wifi_bt_sdio_clk = ~READ_PERI_REG(SYSTEM_WIFI_CLK_EN_REG);
} else {
common_perip_clk = SYSTEM_WDG_CLK_EN |
SYSTEM_I2S0_CLK_EN |
#if CONFIG_ESP_CONSOLE_UART_NUM != 0
SYSTEM_UART_CLK_EN |
#endif
#if CONFIG_ESP_CONSOLE_UART_NUM != 1
SYSTEM_UART1_CLK_EN |
#endif
SYSTEM_SPI2_CLK_EN |
SYSTEM_I2C_EXT0_CLK_EN |
SYSTEM_UHCI0_CLK_EN |
SYSTEM_RMT_CLK_EN |
SYSTEM_LEDC_CLK_EN |
SYSTEM_TIMERGROUP1_CLK_EN |
SYSTEM_SPI3_CLK_EN |
SYSTEM_SPI4_CLK_EN |
SYSTEM_TWAI_CLK_EN |
SYSTEM_I2S1_CLK_EN |
SYSTEM_SPI2_DMA_CLK_EN |
SYSTEM_SPI3_DMA_CLK_EN;
common_perip_clk1 = 0;
hwcrypto_perip_clk = SYSTEM_CRYPTO_AES_CLK_EN |
SYSTEM_CRYPTO_SHA_CLK_EN |
SYSTEM_CRYPTO_RSA_CLK_EN;
wifi_bt_sdio_clk = SYSTEM_WIFI_CLK_WIFI_EN |
SYSTEM_WIFI_CLK_BT_EN_M |
SYSTEM_WIFI_CLK_UNUSED_BIT5 |
SYSTEM_WIFI_CLK_UNUSED_BIT12;
}
//Reset the communication peripherals like I2C, SPI, UART, I2S and bring them to known state.
common_perip_clk |= SYSTEM_I2S0_CLK_EN |
#if CONFIG_ESP_CONSOLE_UART_NUM != 0
SYSTEM_UART_CLK_EN |
#endif
#if CONFIG_ESP_CONSOLE_UART_NUM != 1
SYSTEM_UART1_CLK_EN |
#endif
SYSTEM_SPI2_CLK_EN |
SYSTEM_I2C_EXT0_CLK_EN |
SYSTEM_UHCI0_CLK_EN |
SYSTEM_RMT_CLK_EN |
SYSTEM_UHCI1_CLK_EN |
SYSTEM_SPI3_CLK_EN |
SYSTEM_SPI4_CLK_EN |
SYSTEM_I2C_EXT1_CLK_EN |
SYSTEM_I2S1_CLK_EN |
SYSTEM_SPI2_DMA_CLK_EN |
SYSTEM_SPI3_DMA_CLK_EN;
common_perip_clk1 = 0;
/* Change I2S clock to audio PLL first. Because if I2S uses 160MHz clock,
* the current is not reduced when disable I2S clock.
*/
// TOCK(check replacement)
// REG_SET_FIELD(I2S_CLKM_CONF_REG(0), I2S_CLK_SEL, I2S_CLK_AUDIO_PLL);
// REG_SET_FIELD(I2S_CLKM_CONF_REG(1), I2S_CLK_SEL, I2S_CLK_AUDIO_PLL);
/* Disable some peripheral clocks. */
CLEAR_PERI_REG_MASK(SYSTEM_PERIP_CLK_EN0_REG, common_perip_clk);
SET_PERI_REG_MASK(SYSTEM_PERIP_RST_EN0_REG, common_perip_clk);
CLEAR_PERI_REG_MASK(SYSTEM_PERIP_CLK_EN1_REG, common_perip_clk1);
SET_PERI_REG_MASK(SYSTEM_PERIP_RST_EN1_REG, common_perip_clk1);
/* Disable hardware crypto clocks. */
CLEAR_PERI_REG_MASK(SYSTEM_PERIP_CLK_EN1_REG, hwcrypto_perip_clk);
SET_PERI_REG_MASK(SYSTEM_PERIP_RST_EN1_REG, hwcrypto_perip_clk);
/* Disable WiFi/BT/SDIO clocks. */
CLEAR_PERI_REG_MASK(SYSTEM_WIFI_CLK_EN_REG, wifi_bt_sdio_clk);
SET_PERI_REG_MASK(SYSTEM_WIFI_CLK_EN_REG, SYSTEM_WIFI_CLK_EN);
/* Set WiFi light sleep clock source to RTC slow clock */
REG_SET_FIELD(SYSTEM_BT_LPCK_DIV_INT_REG, SYSTEM_BT_LPCK_DIV_NUM, 0);
CLEAR_PERI_REG_MASK(SYSTEM_BT_LPCK_DIV_FRAC_REG, SYSTEM_LPCLK_SEL_8M);
SET_PERI_REG_MASK(SYSTEM_BT_LPCK_DIV_FRAC_REG, SYSTEM_LPCLK_SEL_RTC_SLOW);
/* Enable RNG clock. */
periph_module_enable(PERIPH_RNG_MODULE);
#endif
}

110
components/esp_system/port/soc/esp32p4/reset_reason.c 100644
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@ -0,0 +1,110 @@
/*
* SPDX-FileCopyrightText: 2022-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
#include "esp_system.h"
#include "esp_rom_sys.h"
#include "esp_private/system_internal.h"
#include "soc/rtc_periph.h"
#include "esp32p4/rom/rtc.h"
static void esp_reset_reason_clear_hint(void);
static esp_reset_reason_t s_reset_reason;
static esp_reset_reason_t get_reset_reason(soc_reset_reason_t rtc_reset_reason, esp_reset_reason_t reset_reason_hint)
{
switch (rtc_reset_reason) {
case RESET_REASON_CHIP_POWER_ON:
return ESP_RST_POWERON;
case RESET_REASON_CPU0_SW:
case RESET_REASON_CORE_SW:
if (reset_reason_hint == ESP_RST_PANIC ||
reset_reason_hint == ESP_RST_BROWNOUT ||
reset_reason_hint == ESP_RST_TASK_WDT ||
reset_reason_hint == ESP_RST_INT_WDT) {
return reset_reason_hint;
}
return ESP_RST_SW;
case RESET_REASON_CORE_DEEP_SLEEP:
return ESP_RST_DEEPSLEEP;
case RESET_REASON_CORE_MWDT0:
return ESP_RST_TASK_WDT;
case RESET_REASON_CORE_MWDT1:
return ESP_RST_INT_WDT;
case RESET_REASON_CORE_RTC_WDT:
case RESET_REASON_SYS_RTC_WDT:
case RESET_REASON_SYS_SUPER_WDT:
case RESET_REASON_CPU0_RTC_WDT:
case RESET_REASON_CPU0_MWDT0:
case RESET_REASON_CPU0_MWDT1:
return ESP_RST_WDT;
case RESET_REASON_SYS_BROWN_OUT:
return ESP_RST_BROWNOUT;
default:
return ESP_RST_UNKNOWN;
}
}
static void __attribute__((constructor)) esp_reset_reason_init(void)
{
esp_reset_reason_t hint = esp_reset_reason_get_hint();
s_reset_reason = get_reset_reason(esp_rom_get_reset_reason(PRO_CPU_NUM), hint);
if (hint != ESP_RST_UNKNOWN) {
esp_reset_reason_clear_hint();
}
}
esp_reset_reason_t esp_reset_reason(void)
{
return s_reset_reason;
}
/* Reset reason hint is stored in RTC_RESET_CAUSE_REG, a.k.a. RTC_CNTL_STORE6_REG,
* a.k.a. RTC_ENTRY_ADDR_REG. It is safe to use this register both for the
* deep sleep wake stub entry address and for reset reason hint, since wake stub
* is only used for deep sleep reset, and in this case the reason provided by
* esp_rom_get_reset_reason is unambiguous.
*
* Same layout is used as for RTC_APB_FREQ_REG (a.k.a. RTC_CNTL_STORE5_REG):
* the value is replicated in low and high half-words. In addition to that,
* MSB is set to 1, which doesn't happen when RTC_CNTL_STORE6_REG contains
* deep sleep wake stub address.
*/
#define RST_REASON_BIT 0x80000000
#define RST_REASON_MASK 0x7FFF
#define RST_REASON_SHIFT 16
/* in IRAM, can be called from panic handler */
void IRAM_ATTR esp_reset_reason_set_hint(esp_reset_reason_t hint)
{
assert((hint & (~RST_REASON_MASK)) == 0);
uint32_t val = hint | (hint << RST_REASON_SHIFT) | RST_REASON_BIT;
REG_WRITE(RTC_RESET_CAUSE_REG, val);
}
/* in IRAM, can be called from panic handler */
esp_reset_reason_t IRAM_ATTR esp_reset_reason_get_hint(void)
{
uint32_t reset_reason_hint = REG_READ(RTC_RESET_CAUSE_REG);
uint32_t high = (reset_reason_hint >> RST_REASON_SHIFT) & RST_REASON_MASK;
uint32_t low = reset_reason_hint & RST_REASON_MASK;
if ((reset_reason_hint & RST_REASON_BIT) == 0 || high != low) {
return ESP_RST_UNKNOWN;
}
return (esp_reset_reason_t) low;
}
static inline void esp_reset_reason_clear_hint(void)
{
REG_WRITE(RTC_RESET_CAUSE_REG, 0);
}

143
components/esp_system/port/soc/esp32p4/system_internal.c 100644
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@ -0,0 +1,143 @@
/*
* SPDX-FileCopyrightText: 2022-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/
#include <string.h>
#include "sdkconfig.h"
#include "esp_system.h"
#include "esp_private/system_internal.h"
#include "esp_attr.h"
#include "esp_log.h"
#include "esp_rom_sys.h"
#include "riscv/rv_utils.h"
#include "esp_rom_uart.h"
#include "soc/gpio_reg.h"
#include "esp_cpu.h"
#include "soc/rtc.h"
#include "esp_private/rtc_clk.h"
#include "soc/rtc_periph.h"
#include "soc/uart_reg.h"
#include "hal/wdt_hal.h"
#include "esp_private/cache_err_int.h"
#include "esp32p4/rom/cache.h"
#include "esp32p4/rom/rtc.h"
#include "soc/hp_sys_clkrst_reg.h"
#include "soc/lp_clkrst_reg.h"
#include "soc/hp_system_reg.h"
void IRAM_ATTR esp_system_reset_modules_on_exit(void)
{
// Flush any data left in UART FIFOs
esp_rom_uart_tx_wait_idle(0);
esp_rom_uart_tx_wait_idle(1);
// Set Peripheral clk rst
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_TIMERGRP0);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_TIMERGRP1);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_STIMER);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_DUAL_MSPI_AXI);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_MSPI_AXI);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART0_CORE);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART1_CORE);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART2_CORE);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART3_CORE);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART4_CORE);
SET_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_GDMA);
// Clear Peripheral clk rst
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_TIMERGRP0);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_TIMERGRP1);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_STIMER);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_DUAL_MSPI_AXI);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_MSPI_AXI);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART0_CORE);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART1_CORE);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART2_CORE);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART3_CORE);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN1_REG, HP_SYS_CLKRST_REG_RST_EN_UART4_CORE);
CLEAR_PERI_REG_MASK(HP_SYS_CLKRST_HP_RST_EN0_REG, HP_SYS_CLKRST_REG_RST_EN_GDMA);
}
/* "inner" restart function for after RTOS, interrupts & anything else on this
* core are already stopped. Stalls other core, resets hardware,
* triggers restart.
*/
void IRAM_ATTR esp_restart_noos(void)
{
// Disable interrupts
rv_utils_intr_global_disable();
// Enable RTC watchdog for 1 second
wdt_hal_context_t rtc_wdt_ctx;
wdt_hal_init(&rtc_wdt_ctx, WDT_RWDT, 0, false);
uint32_t stage_timeout_ticks = (uint32_t)(1000ULL * rtc_clk_slow_freq_get_hz() / 1000ULL);
wdt_hal_write_protect_disable(&rtc_wdt_ctx);
wdt_hal_config_stage(&rtc_wdt_ctx, WDT_STAGE0, stage_timeout_ticks, WDT_STAGE_ACTION_RESET_SYSTEM);
wdt_hal_config_stage(&rtc_wdt_ctx, WDT_STAGE1, stage_timeout_ticks, WDT_STAGE_ACTION_RESET_RTC);
//Enable flash boot mode so that flash booting after restart is protected by the RTC WDT.
wdt_hal_set_flashboot_en(&rtc_wdt_ctx, true);
wdt_hal_write_protect_enable(&rtc_wdt_ctx);
const uint32_t core_id = esp_cpu_get_core_id();
#if !CONFIG_FREERTOS_UNICORE
const uint32_t other_core_id = (core_id == 0) ? 1 : 0;
esp_cpu_reset(other_core_id);
esp_cpu_stall(other_core_id);
#endif
// Disable TG0/TG1 watchdogs
wdt_hal_context_t wdt0_context = {.inst = WDT_MWDT0, .mwdt_dev = &TIMERG0};
wdt_hal_write_protect_disable(&wdt0_context);
wdt_hal_disable(&wdt0_context);
wdt_hal_write_protect_enable(&wdt0_context);
wdt_hal_context_t wdt1_context = {.inst = WDT_MWDT1, .mwdt_dev = &TIMERG1};
wdt_hal_write_protect_disable(&wdt1_context);
wdt_hal_disable(&wdt1_context);
wdt_hal_write_protect_enable(&wdt1_context);
// Disable cache
Cache_Disable_L2_Cache();
esp_system_reset_modules_on_exit();
// Set CPU back to XTAL source, no PLL, same as hard reset
#if !CONFIG_IDF_ENV_FPGA
rtc_clk_cpu_freq_set_xtal();
#endif
#if !CONFIG_FREERTOS_UNICORE
// clear entry point for APP CPU
ets_set_appcpu_boot_addr(0);
#endif
#if CONFIG_SPIRAM_INSTRUCTIONS_RODATA
//TODO: IDF-7556
// disable remap if enabled in menuconfig
REG_CLR_BIT(HP_SYS_HP_PSRAM_FLASH_ADDR_INTERCHANGE_REG, HP_SYS_HP_PSRAM_FLASH_ADDR_INTERCHANGE_DMA | HP_SYS_HP_PSRAM_FLASH_ADDR_INTERCHANGE_CPU);
#endif
// Reset CPUs
if (core_id == 0) {
// Running on PRO CPU: APP CPU is stalled. Can reset both CPUs.
#if !CONFIG_FREERTOS_UNICORE
esp_cpu_reset(1);
#endif
esp_cpu_reset(0);
}
#if !CONFIG_FREERTOS_UNICORE
else {
// Running on APP CPU: need to reset PRO CPU and unstall it,
// then reset APP CPU
esp_cpu_reset(0);
esp_cpu_unstall(0);
esp_cpu_reset(1);
}
#endif
while (true) {
;
}
}

2
components/esp_system/system_time.c
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@ -27,6 +27,8 @@
#include "esp32c6/rtc.h"
#elif CONFIG_IDF_TARGET_ESP32H2
#include "esp32h2/rtc.h"
#elif CONFIG_IDF_TARGET_ESP32P4
#include "esp32p4/rtc.h"
#endif
#include "esp_private/startup_internal.h"

2
components/esp_system/task_wdt/task_wdt_impl_timergroup.c
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@ -1,5 +1,5 @@
/*
* SPDX-FileCopyrightText: 2015-2022 Espressif Systems (Shanghai) CO LTD
* SPDX-FileCopyrightText: 2015-2023 Espressif Systems (Shanghai) CO LTD
*
* SPDX-License-Identifier: Apache-2.0
*/

14
components/soc/esp32p4/include/soc/interrupts.h
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@ -61,9 +61,9 @@ typedef enum {
ETS_RMT_INTR_SOURCE,
ETS_I2C0_INTR_SOURCE,
ETS_I2C1_INTR_SOURCE,
ETS_TIMERGROUP0_T0_INTR_SOURCE,
ETS_TIMERGROUP0_T1_INTR_SOURCE,
ETS_TIMERGROUP0_WDT_INTR_SOURCE,
ETS_TG0_WDT_LEVEL_INTR_SOURCE,
ETS_TG1_WDT_LEVEL_INTR_SOURCE,
ETS_TG0_WDT_INTR_SOURCE,
ETS_TIMERGROUP1_T0_INTR_SOURCE,
ETS_TIMERGROUP1_T1_INTR_SOURCE,
ETS_TIMERGROUP1_WDT_INTR_SOURCE,
@ -96,10 +96,10 @@ typedef enum {
ETS_GPIO_INTR2_SOURCE,
ETS_GPIO_INTR3_SOURCE,
ETS_GPIO_PAD_COMP_INTR_SOURCE,
ETS_CPU_INT_FROM_CPU0_INTR_SOURCE,
ETS_CPU_INT_FROM_CPU1_INTR_SOURCE,
ETS_CPU_INT_FROM_CPU2_INTR_SOURCE,
ETS_CPU_INT_FROM_CPU3_INTR_SOURCE,
ETS_FROM_CPU_INTR0_SOURCE,
ETS_FROM_CPU_INTR1_SOURCE,
ETS_FROM_CPU_INTR2_SOURCE,
ETS_FROM_CPU_INTR3_SOURCE,
ETS_CACHE_INTR_SOURCE,
ETS_MSPI_INTR_SOURCE,
ETS_CSI_BRIDGE_INTR_SOURCE,