Files
Horizon-OC/Source/sys-clk/sysmodule/src/board.cpp
2026-01-18 16:26:30 -05:00

1099 lines
34 KiB
C++

/*
* Copyright (c) Souldbminer and Horizon OC Contributors
*
* This program is free software; you can redistribute it and/or modify it
* under the terms and conditions of the GNU General Public License,
* version 2, as published by the Free Software Foundation.
*
* This program is distributed in the hope 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, see <http://www.gnu.org/licenses/>.
*
*/
/* --------------------------------------------------------------------------
* "THE BEER-WARE LICENSE" (Revision 42):
* <p-sam@d3vs.net>, <natinusala@gmail.com>, <m4x@m4xw.net>
* wrote this file. As long as you retain this notice you can do whatever you
* want with this stuff. If you meet any of us some day, and you think this
* stuff is worth it, you can buy us a beer in return. - The sys-clk authors
* --------------------------------------------------------------------------
*/
// Note: Hoag crashes on display refresh rate init while in sleep mode
#include <nxExt.h>
#include "board.h"
#include "errors.h"
#include "rgltr.h"
#include "file_utils.h"
#include <algorithm> // for std::clamp
#include <math.h>
#include <numeric>
#include <battery.h>
#include <pwm.h>
#include <display_refresh_rate.h>
#include <stdio.h>
#include <cstring>
#include <registers.h>
#include <notification.h>
#define MAX(A, B) std::max(A, B)
#define MIN(A, B) std::min(A, B)
#define CEIL(A) std::ceil(A)
#define FLOOR(A) std::floor(A)
#define ROUND(A) std::lround(A)
#define FUSE_CPU_SPEEDO_0_CALIB 0x114
//#define FUSE_CPU_SPEEDO_1_CALIB 0x12C
#define FUSE_CPU_SPEEDO_2_CALIB 0x130
#define FUSE_SOC_SPEEDO_0_CALIB 0x134
//#define FUSE_SOC_SPEEDO_1_CALIB 0x138
//#define FUSE_SOC_SPEEDO_2_CALIB 0x13C
#define FUSE_CPU_IDDQ_CALIB 0x118
#define FUSE_SOC_IDDQ_CALIB 0x140
#define FUSE_GPU_IDDQ_CALIB 0x228
#define HOSSVC_HAS_CLKRST (hosversionAtLeast(8,0,0))
#define HOSSVC_HAS_TC (hosversionAtLeast(5,0,0))
#define NVGPU_GPU_IOCTL_PMU_GET_GPU_LOAD 0x80044715
#define systemtickfrequency 19200000
#define systemtickfrequencyF 19200000.0f
#define CPU_TICK_WAIT (1'000'000'000 / 60)
Result nvCheck = 1;
Thread gpuLThread;
Thread cpuCore0Thread;
Thread cpuCore1Thread;
Thread cpuCore2Thread;
Thread cpuCore3Thread;
Thread miscThread;
double temp = 0;
PwmChannelSession g_ICon;
Result pwmCheck = 1;
Result pwmDutyCycleCheck = 1;
double Rotation_Duty = 0;
u8 fanLevel;
uint32_t GPU_Load_u = 0, fd = 0;
BatteryChargeInfo info;
static SysClkSocType g_socType = SysClkSocType_Erista;
static HorizonOCConsoleType g_consoleType = HorizonOCConsoleType_Iowa;
std::atomic<uint64_t> idletick0{systemtickfrequency};
std::atomic<uint64_t> idletick1{systemtickfrequency};
std::atomic<uint64_t> idletick2{systemtickfrequency};
std::atomic<uint64_t> idletick3{systemtickfrequency};
u32 cpu0, cpu1, cpu2, cpu3, cpuAvg;
u16 cpuSpeedo0, cpuSpeedo2, socSpeedo0; // CPU, GPU, SOC
u16 cpuIDDQ, gpuIDDQ, socIDDQ;
u8 g_dramID = 0;
const char* Board::GetModuleName(SysClkModule module, bool pretty)
{
ASSERT_ENUM_VALID(SysClkModule, module);
return sysclkFormatModule(module, pretty);
}
const char* Board::GetProfileName(SysClkProfile profile, bool pretty)
{
ASSERT_ENUM_VALID(SysClkProfile, profile);
return sysclkFormatProfile(profile, pretty);
}
const char* Board::GetThermalSensorName(SysClkThermalSensor sensor, bool pretty)
{
ASSERT_ENUM_VALID(SysClkThermalSensor, sensor);
return sysclkFormatThermalSensor(sensor, pretty);
}
const char* Board::GetPowerSensorName(SysClkPowerSensor sensor, bool pretty)
{
ASSERT_ENUM_VALID(SysClkPowerSensor, sensor);
return sysclkFormatPowerSensor(sensor, pretty);
}
PcvModule Board::GetPcvModule(SysClkModule sysclkModule)
{
switch(sysclkModule)
{
case SysClkModule_CPU:
return PcvModule_CpuBus;
case SysClkModule_GPU:
return PcvModule_GPU;
case SysClkModule_MEM:
return PcvModule_EMC;
default:
ASSERT_ENUM_VALID(SysClkModule, sysclkModule);
}
return (PcvModule)0;
}
PcvModuleId Board::GetPcvModuleId(SysClkModule sysclkModule)
{
PcvModuleId pcvModuleId;
Result rc = pcvGetModuleId(&pcvModuleId, GetPcvModule(sysclkModule));
ASSERT_RESULT_OK(rc, "pcvGetModuleId");
return pcvModuleId;
}
void CheckCore(void* idletick_ptr) {
std::atomic<uint64_t>* idletick = (std::atomic<uint64_t>*)idletick_ptr;
while (true) {
uint64_t idletick_a;
uint64_t idletick_b;
svcGetInfo(&idletick_b, InfoType_IdleTickCount, INVALID_HANDLE, -1);
svcSleepThread(CPU_TICK_WAIT);
svcGetInfo(&idletick_a, InfoType_IdleTickCount, INVALID_HANDLE, -1);
idletick->store(idletick_a - idletick_b, std::memory_order_release);
}
}
void gpuLoadThread(void*) {
#define gpu_samples_average 8
uint32_t gpu_load_array[gpu_samples_average] = {0};
size_t i = 0;
if (R_SUCCEEDED(nvCheck)) do {
u32 temp;
if (R_SUCCEEDED(nvIoctl(fd, NVGPU_GPU_IOCTL_PMU_GET_GPU_LOAD, &temp))) {
gpu_load_array[i++ % gpu_samples_average] = temp;
GPU_Load_u = std::accumulate(&gpu_load_array[0], &gpu_load_array[gpu_samples_average], 0) / gpu_samples_average;
}
svcSleepThread(16'666'000); // wait a bit (this is the perfect amount of time to keep the reading accurate)
} while(true);
}
void miscThreadFunc(void*) {
for(;;) {
if (R_SUCCEEDED(pwmCheck)) {
if (R_SUCCEEDED(pwmChannelSessionGetDutyCycle(&g_ICon, &temp))) {
temp *= 10;
temp = trunc(temp);
temp /= 10;
Rotation_Duty = 100.0 - temp;
}
}
fanLevel = (u8)Rotation_Duty;
svcSleepThread(300'000'000);
}
}
void Board::Initialize()
{
Result rc = 0;
if(HOSSVC_HAS_CLKRST)
{
rc = clkrstInitialize();
ASSERT_RESULT_OK(rc, "clkrstInitialize");
}
else
{
rc = pcvInitialize();
ASSERT_RESULT_OK(rc, "pcvInitialize");
}
rc = apmExtInitialize();
ASSERT_RESULT_OK(rc, "apmExtInitialize");
rc = psmInitialize();
ASSERT_RESULT_OK(rc, "psmInitialize");
if(HOSSVC_HAS_TC)
{
rc = tcInitialize();
ASSERT_RESULT_OK(rc, "tcInitialize");
}
rc = max17050Initialize();
ASSERT_RESULT_OK(rc, "max17050Initialize");
rc = tmp451Initialize();
ASSERT_RESULT_OK(rc, "tmp451Initialize");
if (R_SUCCEEDED(nvInitialize())) nvCheck = nvOpen(&fd, "/dev/nvhost-ctrl-gpu");
rc = rgltrInitialize();
ASSERT_RESULT_OK(rc, "rgltrInitialize");
// if (R_SUCCEEDED(fanInitialize())) {
// if (hosversionAtLeast(7,0,0)) fanCheck = fanOpenController(&fanController, 0x3D000001);
// else fanCheck = fanOpenController(&fanController, 1);
// }
rc = pmdmntInitialize();
ASSERT_RESULT_OK(rc, "pmdmntInitialize");
threadCreate(&gpuLThread, gpuLoadThread, NULL, NULL, 0x1000, 0x3F, -2);
threadStart(&gpuLThread);
threadCreate(&cpuCore0Thread, CheckCore, &idletick0, NULL, 0x500, 0x10, 0);
threadCreate(&cpuCore1Thread, CheckCore, &idletick1, NULL, 0x500, 0x10, 1);
threadCreate(&cpuCore2Thread, CheckCore, &idletick2, NULL, 0x500, 0x10, 2);
threadCreate(&cpuCore3Thread, CheckCore, &idletick3, NULL, 0x500, 0x10, 3);
threadCreate(&miscThread, miscThreadFunc, NULL, NULL, 0x1000, 0x3F, 3);
threadStart(&cpuCore0Thread);
threadStart(&cpuCore1Thread);
threadStart(&cpuCore2Thread);
threadStart(&cpuCore3Thread);
threadStart(&miscThread);
batteryInfoInitialize();
if (hosversionAtLeast(6,0,0) && R_SUCCEEDED(pwmInitialize())) {
pwmCheck = pwmOpenSession2(&g_ICon, 0x3D000001);
}
if(Board::GetConsoleType() != HorizonOCConsoleType_Hoag) {
u64 clkVirtAddr, dsiVirtAddr, outsize;
rc = svcQueryMemoryMapping(&clkVirtAddr, &outsize, 0x60006000, 0x1000);
ASSERT_RESULT_OK(rc, "svcQueryMemoryMapping (clk)");
rc = svcQueryMemoryMapping(&dsiVirtAddr, &outsize, 0x54300000, 0x40000);
ASSERT_RESULT_OK(rc, "svcQueryMemoryMapping (dsi)");
DisplayRefreshConfig cfg = {.clkVirtAddr = clkVirtAddr, .dsiVirtAddr = dsiVirtAddr};
DisplayRefresh_Initialize(&cfg);
}
FetchHardwareInfos();
}
void Board::fuseReadSpeedos() {
u64 pid = 0;
if (R_FAILED(pmdmntGetProcessId(&pid, 0x0100000000000006))) {
return;
}
Handle debug;
if (R_FAILED(svcDebugActiveProcess(&debug, pid))) {
return;
}
MemoryInfo mem_info = {0};
u32 pageinfo = 0;
u64 addr = 0;
char stack[0x10] = {0};
const char compare[0x10] = {0};
char dump[0x400] = {0};
while (true) {
if (R_FAILED(svcQueryDebugProcessMemory(&mem_info, &pageinfo, debug, addr)) || mem_info.addr < addr) {
break;
}
if (mem_info.type == MemType_Io && mem_info.size == 0x1000) {
if (R_FAILED(svcReadDebugProcessMemory(stack, debug, mem_info.addr, sizeof(stack)))) {
break;
}
if (memcmp(stack, compare, sizeof(stack)) == 0) {
if (R_FAILED(svcReadDebugProcessMemory(dump, debug, mem_info.addr + 0x800, sizeof(dump)))) {
break;
}
cpuSpeedo0 = *reinterpret_cast<const u16*>(dump + FUSE_CPU_SPEEDO_0_CALIB);
cpuSpeedo2 = *reinterpret_cast<const u16*>(dump + FUSE_CPU_SPEEDO_2_CALIB);
socSpeedo0 = *reinterpret_cast<const u16*>(dump + FUSE_SOC_SPEEDO_0_CALIB);
cpuIDDQ = *reinterpret_cast<const u16*>(dump + FUSE_CPU_IDDQ_CALIB);
gpuIDDQ = *reinterpret_cast<const u16*>(dump + FUSE_SOC_IDDQ_CALIB);
socIDDQ = *reinterpret_cast<const u16*>(dump + FUSE_GPU_IDDQ_CALIB);
svcCloseHandle(debug);
return;
}
}
addr = mem_info.addr + mem_info.size;
}
svcCloseHandle(debug);
}
u16 Board::getSpeedo(HorizonOCSpeedo speedoType) {
switch(speedoType) {
case HorizonOCSpeedo_CPU:
return cpuSpeedo0;
case HorizonOCSpeedo_GPU:
return cpuSpeedo2;
case HorizonOCSpeedo_SOC:
return socSpeedo0;
default:
ASSERT_ENUM_VALID(HorizonOCSpeedo, speedoType);
return 0;
}
}
u16 Board::getIDDQ(HorizonOCSpeedo speedoType) {
switch(speedoType) {
case HorizonOCSpeedo_CPU:
return cpuIDDQ;
case HorizonOCSpeedo_GPU:
return gpuIDDQ;
case HorizonOCSpeedo_SOC:
return socIDDQ;
default:
ASSERT_ENUM_VALID(HorizonOCSpeedo, speedoType);
return 0;
}
}
void Board::Exit()
{
if(HOSSVC_HAS_CLKRST)
{
clkrstExit();
}
else
{
pcvExit();
}
apmExtExit();
psmExit();
if(HOSSVC_HAS_TC)
{
tcExit();
}
max17050Exit();
tmp451Exit();
threadClose(&gpuLThread);
threadClose(&cpuCore0Thread);
threadClose(&cpuCore1Thread);
threadClose(&cpuCore2Thread);
threadClose(&cpuCore3Thread);
threadClose(&miscThread);
pwmChannelSessionClose(&g_ICon);
pwmExit();
rgltrExit();
batteryInfoExit();
pmdmntExit();
if(Board::GetConsoleType() != HorizonOCConsoleType_Hoag)
DisplayRefresh_Shutdown();
}
SysClkProfile Board::GetProfile()
{
std::uint32_t mode = 0;
Result rc = apmExtGetPerformanceMode(&mode);
ASSERT_RESULT_OK(rc, "apmExtGetPerformanceMode");
if(mode)
{
return SysClkProfile_Docked;
}
PsmChargerType chargerType;
rc = psmGetChargerType(&chargerType);
ASSERT_RESULT_OK(rc, "psmGetChargerType");
if(chargerType == PsmChargerType_EnoughPower)
{
return SysClkProfile_HandheldChargingOfficial;
}
else if(chargerType == PsmChargerType_LowPower)
{
return SysClkProfile_HandheldChargingUSB;
}
return SysClkProfile_Handheld;
}
void Board::SetHz(SysClkModule module, std::uint32_t hz)
{
Result rc = 0;
if(module == HorizonOCModule_Display && Board::GetConsoleType() != HorizonOCConsoleType_Hoag) {
DisplayRefresh_SetRate(hz);
return;
}
if(module > SysClkModule_MEM)
return;
if(HOSSVC_HAS_CLKRST)
{
ClkrstSession session = {0};
rc = clkrstOpenSession(&session, Board::GetPcvModuleId(module), 3);
ASSERT_RESULT_OK(rc, "clkrstOpenSession");
rc = clkrstSetClockRate(&session, hz);
ASSERT_RESULT_OK(rc, "clkrstSetClockRate");
clkrstCloseSession(&session);
}
else
{
rc = pcvSetClockRate(Board::GetPcvModule(module), hz);
ASSERT_RESULT_OK(rc, "pcvSetClockRate");
}
}
std::uint32_t Board::GetHz(SysClkModule module)
{
Result rc = 0;
std::uint32_t hz = 0;
if(module == HorizonOCModule_Display) {
if(Board::GetConsoleType() != HorizonOCConsoleType_Hoag)
DisplayRefresh_GetRate(&hz, false);
else
hz = 60;
return hz;
}
if(HOSSVC_HAS_CLKRST)
{
ClkrstSession session = {0};
rc = clkrstOpenSession(&session, Board::GetPcvModuleId(module), 3);
ASSERT_RESULT_OK(rc, "clkrstOpenSession");
rc = clkrstGetClockRate(&session, &hz);
ASSERT_RESULT_OK(rc, "clkrstSetClockRate");
clkrstCloseSession(&session);
}
else
{
rc = pcvGetClockRate(Board::GetPcvModule(module), &hz);
ASSERT_RESULT_OK(rc, "pcvGetClockRate");
}
return hz;
}
std::uint32_t Board::GetRealHz(SysClkModule module)
{
u32 hz = 0;
switch(module)
{
case SysClkModule_CPU:
return t210ClkCpuFreq();
case SysClkModule_GPU:
return t210ClkGpuFreq();
case SysClkModule_MEM:
return t210ClkMemFreq();
case HorizonOCModule_Display:
if(Board::GetConsoleType() != HorizonOCConsoleType_Hoag)
DisplayRefresh_GetRate(&hz, false);
else
hz = 60;
return hz;
default:
ASSERT_ENUM_VALID(SysClkModule, module);
}
return 0;
}
void Board::GetFreqList(SysClkModule module, std::uint32_t* outList, std::uint32_t maxCount, std::uint32_t* outCount)
{
Result rc = 0;
PcvClockRatesListType type;
s32 tmpInMaxCount = maxCount;
s32 tmpOutCount = 0;
if(HOSSVC_HAS_CLKRST)
{
ClkrstSession session = {0};
rc = clkrstOpenSession(&session, Board::GetPcvModuleId(module), 3);
ASSERT_RESULT_OK(rc, "clkrstOpenSession");
rc = clkrstGetPossibleClockRates(&session, outList, tmpInMaxCount, &type, &tmpOutCount);
ASSERT_RESULT_OK(rc, "clkrstGetPossibleClockRates");
clkrstCloseSession(&session);
}
else
{
rc = pcvGetPossibleClockRates(Board::GetPcvModule(module), outList, tmpInMaxCount, &type, &tmpOutCount);
ASSERT_RESULT_OK(rc, "pcvGetPossibleClockRates");
}
if(type != PcvClockRatesListType_Discrete)
{
ERROR_THROW("Unexpected PcvClockRatesListType: %u (module = %s)", type, Board::GetModuleName(module, false));
}
*outCount = tmpOutCount;
}
void Board::ResetToStock()
{
Result rc = 0;
if(hosversionAtLeast(9,0,0))
{
std::uint32_t confId = 0;
rc = apmExtGetCurrentPerformanceConfiguration(&confId);
ASSERT_RESULT_OK(rc, "apmExtGetCurrentPerformanceConfiguration");
SysClkApmConfiguration* apmConfiguration = NULL;
for(size_t i = 0; sysclk_g_apm_configurations[i].id; i++)
{
if(sysclk_g_apm_configurations[i].id == confId)
{
apmConfiguration = &sysclk_g_apm_configurations[i];
break;
}
}
if(!apmConfiguration)
{
ERROR_THROW("Unknown apm configuration: %x", confId);
}
Board::SetHz(SysClkModule_CPU, apmConfiguration->cpu_hz);
Board::SetHz(SysClkModule_GPU, apmConfiguration->gpu_hz);
Board::SetHz(SysClkModule_MEM, apmConfiguration->mem_hz);
}
else
{
std::uint32_t mode = 0;
rc = apmExtGetPerformanceMode(&mode);
ASSERT_RESULT_OK(rc, "apmExtGetPerformanceMode");
rc = apmExtSysRequestPerformanceMode(mode);
ASSERT_RESULT_OK(rc, "apmExtSysRequestPerformanceMode");
}
}
void Board::ResetToStockCpu()
{
Result rc = 0;
if(hosversionAtLeast(9,0,0))
{
std::uint32_t confId = 0;
rc = apmExtGetCurrentPerformanceConfiguration(&confId);
ASSERT_RESULT_OK(rc, "apmExtGetCurrentPerformanceConfiguration");
SysClkApmConfiguration* apmConfiguration = NULL;
for(size_t i = 0; sysclk_g_apm_configurations[i].id; i++)
{
if(sysclk_g_apm_configurations[i].id == confId)
{
apmConfiguration = &sysclk_g_apm_configurations[i];
break;
}
}
if(!apmConfiguration)
{
ERROR_THROW("Unknown apm configuration: %x", confId);
}
Board::SetHz(SysClkModule_CPU, apmConfiguration->cpu_hz);
}
else
{
std::uint32_t mode = 0;
rc = apmExtGetPerformanceMode(&mode);
ASSERT_RESULT_OK(rc, "apmExtGetPerformanceMode");
rc = apmExtSysRequestPerformanceMode(mode);
ASSERT_RESULT_OK(rc, "apmExtSysRequestPerformanceMode");
}
}
void Board::ResetToStockMem()
{
Result rc = 0;
if(hosversionAtLeast(9,0,0))
{
std::uint32_t confId = 0;
rc = apmExtGetCurrentPerformanceConfiguration(&confId);
ASSERT_RESULT_OK(rc, "apmExtGetCurrentPerformanceConfiguration");
SysClkApmConfiguration* apmConfiguration = NULL;
for(size_t i = 0; sysclk_g_apm_configurations[i].id; i++)
{
if(sysclk_g_apm_configurations[i].id == confId)
{
apmConfiguration = &sysclk_g_apm_configurations[i];
break;
}
}
if(!apmConfiguration)
{
ERROR_THROW("Unknown apm configuration: %x", confId);
}
Board::SetHz(SysClkModule_MEM, apmConfiguration->mem_hz);
}
else
{
std::uint32_t mode = 0;
rc = apmExtGetPerformanceMode(&mode);
ASSERT_RESULT_OK(rc, "apmExtGetPerformanceMode");
rc = apmExtSysRequestPerformanceMode(mode);
ASSERT_RESULT_OK(rc, "apmExtSysRequestPerformanceMode");
}
}
void Board::ResetToStockGpu()
{
Result rc = 0;
if(hosversionAtLeast(9,0,0))
{
std::uint32_t confId = 0;
rc = apmExtGetCurrentPerformanceConfiguration(&confId);
ASSERT_RESULT_OK(rc, "apmExtGetCurrentPerformanceConfiguration");
SysClkApmConfiguration* apmConfiguration = NULL;
for(size_t i = 0; sysclk_g_apm_configurations[i].id; i++)
{
if(sysclk_g_apm_configurations[i].id == confId)
{
apmConfiguration = &sysclk_g_apm_configurations[i];
break;
}
}
if(!apmConfiguration)
{
ERROR_THROW("Unknown apm configuration: %x", confId);
}
Board::SetHz(SysClkModule_GPU, apmConfiguration->gpu_hz);
}
else
{
std::uint32_t mode = 0;
rc = apmExtGetPerformanceMode(&mode);
ASSERT_RESULT_OK(rc, "apmExtGetPerformanceMode");
rc = apmExtSysRequestPerformanceMode(mode);
ASSERT_RESULT_OK(rc, "apmExtSysRequestPerformanceMode");
}
}
void Board::ResetToStockDisplay() {
if(Board::GetConsoleType() != HorizonOCConsoleType_Hoag)
DisplayRefresh_SetRate(60);
}
u8 Board::GetHighestDockedDisplayRate() {
if(Board::GetConsoleType() != HorizonOCConsoleType_Hoag)
return DisplayRefresh_GetDockedHighestAllowed();
else
return 60;
}
std::uint32_t Board::GetTemperatureMilli(SysClkThermalSensor sensor)
{
std::int32_t millis = 0;
if(sensor == SysClkThermalSensor_SOC)
{
millis = tmp451TempSoc();
}
else if(sensor == SysClkThermalSensor_PCB)
{
millis = tmp451TempPcb();
}
else if(sensor == SysClkThermalSensor_Skin)
{
if(HOSSVC_HAS_TC)
{
Result rc;
rc = tcGetSkinTemperatureMilliC(&millis);
ASSERT_RESULT_OK(rc, "tcGetSkinTemperatureMilliC");
}
}
else if (sensor == HorizonOCThermalSensor_Battery) {
batteryInfoGetChargeInfo(&info);
millis = batteryInfoGetTemperatureMiliCelsius(&info);
}
else if (sensor == HorizonOCThermalSensor_PMIC) {
millis = 50000;
}
else
{
ASSERT_ENUM_VALID(SysClkThermalSensor, sensor);
}
return std::max(0, millis);
}
std::int32_t Board::GetPowerMw(SysClkPowerSensor sensor)
{
switch(sensor)
{
case SysClkPowerSensor_Now:
return max17050PowerNow();
case SysClkPowerSensor_Avg:
return max17050PowerAvg();
default:
ASSERT_ENUM_VALID(SysClkPowerSensor, sensor);
}
return 0;
}
std::uint32_t Board::GetPartLoad(SysClkPartLoad loadSource)
{
switch(loadSource)
{
case SysClkPartLoad_EMC:
return t210EmcLoadAll();
case SysClkPartLoad_EMCCpu:
return t210EmcLoadCpu();
case HocClkPartLoad_GPU:
return GPU_Load_u;
case HocClkPartLoad_CPUAvg:
return idletick0;
case HocClkPartLoad_BAT:
batteryInfoGetChargeInfo(&info);
return info.BatteryAge;
case HocClkPartLoad_FAN:
return fanLevel;
default:
ASSERT_ENUM_VALID(SysClkPartLoad, loadSource);
}
return 0;
}
SysClkSocType Board::GetSocType() {
return g_socType;
}
HorizonOCConsoleType Board::GetConsoleType() {
return g_consoleType;
}
u8 Board::GetDramID() {
return g_dramID;
}
void Board::FetchHardwareInfos()
{
fuseReadSpeedos();
u64 sku = 0, dramID = 0;
Result rc = splInitialize();
ASSERT_RESULT_OK(rc, "splInitialize");
rc = splGetConfig(SplConfigItem_HardwareType, &sku);
ASSERT_RESULT_OK(rc, "splGetConfig");
rc = splGetConfig(SplConfigItem_DramId, &dramID);
ASSERT_RESULT_OK(rc, "splGetConfig");
splExit();
switch(sku)
{
case 2:
case 3:
case 4:
case 5:
g_socType = SysClkSocType_Mariko;
break;
default:
g_socType = SysClkSocType_Erista;
}
g_consoleType = (HorizonOCConsoleType)sku;
g_dramID = (u8)dramID;
}
/*
* Switch Power domains (max77620):
* Name | Usage | uV step | uV min | uV default | uV max | Init
*-------+---------------+---------+--------+------------+---------+------------------
* sd0 | SoC | 12500 | 600000 | 625000 | 1400000 | 1.125V (pkg1.1)
* sd1 | SDRAM | 12500 | 600000 | 1125000 | 1125000 | 1.1V (pkg1.1)
* sd2 | ldo{0-1, 7-8} | 12500 | 600000 | 1325000 | 1350000 | 1.325V (pcv)
* sd3 | 1.8V general | 12500 | 600000 | 1800000 | 1800000 |
* ldo0 | Display Panel | 25000 | 800000 | 1200000 | 1200000 | 1.2V (pkg1.1)
* ldo1 | XUSB, PCIE | 25000 | 800000 | 1050000 | 1050000 | 1.05V (pcv)
* ldo2 | SDMMC1 | 50000 | 800000 | 1800000 | 3300000 |
* ldo3 | GC ASIC | 50000 | 800000 | 3100000 | 3100000 | 3.1V (pcv)
* ldo4 | RTC | 12500 | 800000 | 850000 | 850000 | 0.85V (AO, pcv)
* ldo5 | GC Card | 50000 | 800000 | 1800000 | 1800000 | 1.8V (pcv)
* ldo6 | Touch, ALS | 50000 | 800000 | 2900000 | 2900000 | 2.9V (pcv)
* ldo7 | XUSB | 50000 | 800000 | 1050000 | 1050000 | 1.05V (pcv)
* ldo8 | XUSB, DP, MCU | 50000 | 800000 | 1050000 | 2800000 | 1.05V/2.8V (pcv)
typedef enum {
PcvPowerDomainId_Max77620_Sd0 = 0x3A000080,
PcvPowerDomainId_Max77620_Sd1 = 0x3A000081, // vdd2
PcvPowerDomainId_Max77620_Sd2 = 0x3A000082,
PcvPowerDomainId_Max77620_Sd3 = 0x3A000083,
PcvPowerDomainId_Max77620_Ldo0 = 0x3A0000A0,
PcvPowerDomainId_Max77620_Ldo1 = 0x3A0000A1,
PcvPowerDomainId_Max77620_Ldo2 = 0x3A0000A2,
PcvPowerDomainId_Max77620_Ldo3 = 0x3A0000A3,
PcvPowerDomainId_Max77620_Ldo4 = 0x3A0000A4,
PcvPowerDomainId_Max77620_Ldo5 = 0x3A0000A5,
PcvPowerDomainId_Max77620_Ldo6 = 0x3A0000A6,
PcvPowerDomainId_Max77620_Ldo7 = 0x3A0000A7,
PcvPowerDomainId_Max77620_Ldo8 = 0x3A0000A8,
PcvPowerDomainId_Max77621_Cpu = 0x3A000003,
PcvPowerDomainId_Max77621_Gpu = 0x3A000004,
PcvPowerDomainId_Max77812_Cpu = 0x3A000003,
PcvPowerDomainId_Max77812_Gpu = 0x3A000004,
PcvPowerDomainId_Max77812_Dram = 0x3A000005, // vddq
} PowerDomainId;
*/
std::uint32_t Board::GetVoltage(HocClkVoltage voltage)
{
RgltrSession session;
Result rc = 0;
u32 out = 0;
switch(voltage)
{
case HocClkVoltage_SOC:
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77620_Sd0);
ASSERT_RESULT_OK(rc, "rgltrOpenSession")
rgltrGetVoltage(&session, &out);
rgltrCloseSession(&session);
break;
case HocClkVoltage_EMCVDD2:
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77620_Sd1);
ASSERT_RESULT_OK(rc, "rgltrOpenSession")
rgltrGetVoltage(&session, &out);
rgltrCloseSession(&session);
break;
case HocClkVoltage_CPU:
if(Board::GetSocType() == SysClkSocType_Mariko)
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77621_Cpu);
else
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77812_Cpu);
ASSERT_RESULT_OK(rc, "rgltrOpenSession")
rgltrGetVoltage(&session, &out);
rgltrCloseSession(&session);
break;
case HocClkVoltage_GPU:
if(Board::GetSocType() == SysClkSocType_Mariko)
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77621_Gpu);
else
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77812_Gpu);
ASSERT_RESULT_OK(rc, "rgltrOpenSession")
rgltrGetVoltage(&session, &out);
rgltrCloseSession(&session);
break;
case HocClkVoltage_EMCVDDQ_MarikoOnly:
if(Board::GetSocType() == SysClkSocType_Mariko) {
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77812_Dram);
ASSERT_RESULT_OK(rc, "rgltrOpenSession")
rgltrGetVoltage(&session, &out);
rgltrCloseSession(&session);
} else {
out = Board::GetVoltage(HocClkVoltage_EMCVDD2);
}
break;
case HocClkVoltage_Display:
rc = rgltrOpenSession(&session, PcvPowerDomainId_Max77620_Ldo0);
ASSERT_RESULT_OK(rc, "rgltrOpenSession")
rgltrGetVoltage(&session, &out);
rgltrCloseSession(&session);
break;
case HocClkVoltage_Battery:
batteryInfoGetChargeInfo(&info);
out = info.VoltageAvg;
break;
default:
ASSERT_ENUM_VALID(HocClkVoltage, voltage);
}
return out > 0 ? out : 0;
}
#define MC_REGISTER_BASE 0x70019000
#define MC_REGISTER_REGION_SIZE 0x1000
#define EMC_REGISTER_BASE 0x7001b000
#define EMC_REGISTER_REGION_SIZE 0x1000
#define GET_CYCLE_CEIL(PARAM) u32(CEIL(double(PARAM) / tCK_avg))
#define WRITE_REGISTER_EMC(TIMING_OFFSET, VALUE) \
do { \
args = {}; \
args.X[0] = 0xF0000002; \
args.X[1] = EMC_REGISTER_BASE + (TIMING_OFFSET); \
args.X[2] = 0xFFFFFFFF; \
args.X[3] = (VALUE); \
svcCallSecureMonitor(&args); \
} while (false)
#define WRITE_REGISTER_MC(TIMING_OFFSET, VALUE) \
do { \
args = {}; \
args.X[0] = 0xF0000002; \
args.X[1] = MC_REGISTER_BASE + (TIMING_OFFSET); \
args.X[2] = 0xFFFFFFFF; \
args.X[3] = (VALUE); \
svcCallSecureMonitor(&args); \
} while (false)
// NOTE: needs patch to exosphere to expose emc region to secmon. MC does NOT need this patch
u32 tRCD_values[] = { 18, 17, 16, 15, 14, 13, 12, 11 };
u32 tRP_values[] = { 18, 17, 16, 15, 14, 13, 12, 11 };
u32 tRAS_values[] = { 42, 36, 34, 32, 30, 28, 26, 24, 22, 20 };
double tRRD_values[] = { /*10.0,*/ 7.5, 6.0, 5.0, 4.0, 3.0, 2.0, 1.0 }; /* 10.0 is used for <2133mhz; do we care? */
u32 tRFC_values[] = { 140, 130, 120, 110, 100, 90, 80, 70, 60, 50, 40 };
u32 tWTR_values[] = { 10, 9, 8, 7, 6, 5, 4, 3, 2, 1 };
u32 tREFpb_values[] = { 3900, 5850, 7800, 11700, 15600, 99999 };
// Credit to Lightos for these timings!
void Board::UpdateShadowRegs(u32 tRCD_i, u32 tRP_i, u32 tRAS_i, u32 tRRD_i, u32 tRFC_i, u32 tRTW_i, u32 tWTR_i, u32 tREFpb_i, u32 ramFreq, u32 rlAdd, u32 wlAdd, bool hpMode) {
// timing stuff
SecmonArgs args = {};
constexpr double MC_ARB_DIV = 4.0;
constexpr u32 MC_ARB_SFA = 2;
double tCK_avg = 1000'000.0 / ramFreq;
u32 BL = 16;
u32 RL = 28 + rlAdd;
u32 WL = 14 + wlAdd;
u32 RL_DBI = RL + 4;
u32 tRCD = tRCD_values[tRCD_i];
u32 tRPpb = tRP_values[tRP_i];
u32 tRAS = tRAS_values[tRAS_i];
double tRRD = tRRD_values[tRRD_i];
u32 tRFCpb = tRFC_values[tRFC_i];
u32 tWTR = 10 - tWTR_values[tWTR_i];
u32 tFAW = static_cast<u32>(tRRD * 4.0);
double tDQSCK_max = 3.5;
u32 tWPRE = 2;
double tRPST = 0.5;
u32 tR2W = CEIL(RL_DBI + (tDQSCK_max / tCK_avg) + (BL / 2) - WL + tWPRE + FLOOR(tRPST) + 9.0) - (tRTW_i * 3);
u32 tRC = tRAS + tRPpb;
u32 tRFCab = tRFCpb * 2;
u32 tRPab = tRPpb + 3;
u32 tW2R = CEIL(MAX(WL + (0.010322547033278747 * (ramFreq / 1000.0)), (WL * -0.2067922202979121) + FLOOR(((RL_DBI * -0.1331159971685554) + WL) * 3.654131957826108)) - (tWTR / tCK_avg));
double tMMRI = tRCD + (tCK_avg * 3);
double pdex2mrr = tMMRI + 10;
u32 emc_cfg = hpMode ? 0x13200000 : 0xF3200000;
u32 refresh_raw = 0xFFFF;
if (tREFpb_i != 6) {
refresh_raw = CEIL(tREFpb_values[tREFpb_i] / tCK_avg) - 0x40;
refresh_raw = MIN(refresh_raw, static_cast<u32>(0xFFFF));
}
u32 trefbw = refresh_raw + 0x40;
trefbw = MIN(trefbw, static_cast<u32>(0x3FFF));
u32 tR2P = 12 + (rlAdd / 2);
u32 tW2P = (CEIL(WL * 1.7303) * 2) - 5;
double tXSR = (double) (tRFCab + 7.5);
args = {};
args.X[0] = 0xF0000002;
args.X[1] = EMC_REGISTER_BASE + EMC_INTSTATUS_0;
svcCallSecureMonitor(&args);
if(args.X[1] == (EMC_REGISTER_BASE + EMC_INTSTATUS_0)) { // if param 1 is identical read failed, exosphere needs patch!
writeNotification("Horizon OC\nExosphere not patched\nfor EMC r/w");
return;
}
// actually write the timings
WRITE_REGISTER_EMC(EMC_CFG_0, emc_cfg);
WRITE_REGISTER_EMC(EMC_RD_RCD_0, GET_CYCLE_CEIL(tRCD));
WRITE_REGISTER_EMC(EMC_WR_RCD_0, GET_CYCLE_CEIL(tRCD));
WRITE_REGISTER_EMC(EMC_RC_0, MIN(GET_CYCLE_CEIL(tRC), static_cast<u32>(0xB8)));
WRITE_REGISTER_EMC(EMC_RAS_0, MIN(GET_CYCLE_CEIL(tRAS), static_cast<u32>(0x7F)));
WRITE_REGISTER_EMC(EMC_RRD_0, GET_CYCLE_CEIL(tRRD));
WRITE_REGISTER_EMC(EMC_RFCPB_0, GET_CYCLE_CEIL(tRFCpb));
WRITE_REGISTER_EMC(EMC_RFC_0, GET_CYCLE_CEIL(tRFCab));
WRITE_REGISTER_EMC(EMC_RP_0, GET_CYCLE_CEIL(tRPpb));
WRITE_REGISTER_EMC(EMC_TRPAB_0, MIN(GET_CYCLE_CEIL(tRPab), static_cast<u32>(0x3F)));
WRITE_REGISTER_EMC(EMC_R2W_0, tR2W);
WRITE_REGISTER_EMC(EMC_W2R_0, tW2R);
WRITE_REGISTER_EMC(EMC_REFRESH_0, refresh_raw);
WRITE_REGISTER_EMC(EMC_PRE_REFRESH_REQ_CNT_0, refresh_raw / 4);
WRITE_REGISTER_EMC(EMC_TREFBW_0, trefbw);
WRITE_REGISTER_EMC(EMC_PDEX2MRR_0, GET_CYCLE_CEIL(pdex2mrr));
WRITE_REGISTER_EMC(EMC_TXSR_0, MIN(GET_CYCLE_CEIL(tXSR), static_cast<u32>(0x3fe)));
WRITE_REGISTER_EMC(EMC_TXSRDLL_0, MIN(GET_CYCLE_CEIL(tXSR), static_cast<u32>(0x3fe)));
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RCD_0, CEIL(GET_CYCLE_CEIL(tRCD) / MC_ARB_DIV) - 2);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RP_0, CEIL(GET_CYCLE_CEIL(tRPpb) / MC_ARB_DIV) - 1);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RC_0, CEIL(GET_CYCLE_CEIL(tRC) / MC_ARB_DIV) - 1);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RAS_0, CEIL(GET_CYCLE_CEIL(tRAS) / MC_ARB_DIV) - 2);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_FAW_0, CEIL(GET_CYCLE_CEIL(tFAW) / MC_ARB_DIV) - 1);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RRD_0, CEIL(GET_CYCLE_CEIL(tRRD) / MC_ARB_DIV) - 1);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RFCPB_0, CEIL(GET_CYCLE_CEIL(tRFCpb) / MC_ARB_DIV) - 1);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_R2W_0, CEIL(tR2W / MC_ARB_DIV) - 1 + MC_ARB_SFA);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_W2R_0, CEIL(tW2R / MC_ARB_DIV) - 1 + MC_ARB_SFA);
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_RAP2PRE_0, CEIL(tR2P / MC_ARB_DIV));
WRITE_REGISTER_MC(MC_EMEM_ARB_TIMING_WAP2PRE_0, CEIL(tW2P / MC_ARB_DIV) + MC_ARB_SFA);
u32 da_turns = 0;
da_turns |= u8((CEIL(tR2W / MC_ARB_DIV) - 1 + MC_ARB_SFA) / 2) << 16;
da_turns |= u8((CEIL(tW2R / MC_ARB_DIV) - 1 + MC_ARB_SFA) / 2) << 24;
WRITE_REGISTER_MC(MC_EMEM_ARB_DA_TURNS_0, da_turns);
u32 da_covers = 0;
u8 r_cover = ((CEIL(tR2P / MC_ARB_DIV)) + (CEIL(GET_CYCLE_CEIL(tRPpb) / MC_ARB_DIV) - 1) + (CEIL(GET_CYCLE_CEIL(tRCD) / MC_ARB_DIV) - 2)) / 2;
u8 w_cover = ((CEIL(tW2P / MC_ARB_DIV) + MC_ARB_SFA) + (CEIL(GET_CYCLE_CEIL(tRPpb) / MC_ARB_DIV) - 1) + (CEIL(GET_CYCLE_CEIL(tRCD) / MC_ARB_DIV) - 2)) / 2;
da_covers |= ((u32)(CEIL(GET_CYCLE_CEIL(tRC) / (u32)MC_ARB_DIV) - 1) / 2);
da_covers |= (r_cover << 8);
da_covers |= (w_cover << 16);
WRITE_REGISTER_MC(MC_EMEM_ARB_DA_COVERS_0, da_covers);
// TODO: modify mc_emem_arb_misc0
WRITE_REGISTER_MC(MC_TIMING_CONTROL_0, 0x1); // update timing regs as they are shadowed
WRITE_REGISTER_EMC(EMC_TIMING_CONTROL_0, 0x1);
}
bool Board::IsDram8GB() {
SecmonArgs args = {};
args.X[0] = 0xF0000002;
args.X[1] = MC_REGISTER_BASE + MC_EMEM_CFG_0;
svcCallSecureMonitor(&args);
if(args.X[1] == (MC_REGISTER_BASE + MC_EMEM_CFG_0)) { // if param 1 is identical read failed
writeNotification("Horizon OC\nSecmon read failed!\n This may be a hardware issue!");
return false;
} else
return args.X[1] == 0x00002000 ? true : false;
}