ppsspp/Core/HLE/scePower.cpp

563 lines
21 KiB
C++

// Copyright (c) 2012- PPSSPP Project.
// This program is free software: you can redistribute it and/or modify
// it under the terms of the GNU General Public License as published by
// the Free Software Foundation, version 2.0 or later versions.
// This program is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
// GNU General Public License 2.0 for more details.
// A copy of the GPL 2.0 should have been included with the program.
// If not, see http://www.gnu.org/licenses/
// Official git repository and contact information can be found at
// https://github.com/hrydgard/ppsspp and http://www.ppsspp.org/.
#include <map>
#include <vector>
#include "Common/ChunkFile.h"
#include "Core/HLE/HLE.h"
#include "Core/HLE/FunctionWrappers.h"
#include "Core/CoreTiming.h"
#include "Core/MemMap.h"
#include "Core/Reporting.h"
#include "Core/Config.h"
#include "Core/HLE/scePower.h"
#include "Core/HLE/sceKernelThread.h"
#include "Core/HLE/sceKernelInterrupt.h"
struct VolatileWaitingThread {
SceUID threadID;
u32 addrPtr;
u32 sizePtr;
};
const int PSP_POWER_ERROR_TAKEN_SLOT = 0x80000020;
const int PSP_POWER_ERROR_SLOTS_FULL = 0x80000022;
const int PSP_POWER_ERROR_EMPTY_SLOT = 0x80000025;
const int PSP_POWER_ERROR_INVALID_CB = 0x80000100;
const int PSP_POWER_ERROR_INVALID_SLOT = 0x80000102;
const int PSP_POWER_CB_AC_POWER = 0x00001000;
const int PSP_POWER_CB_BATTERY_EXIST = 0x00000080;
const int PSP_POWER_CB_BATTERY_FULL = 0x00000064;
const int POWER_CB_AUTO = -1;
// These are the callback slots for user mode applications.
const int numberOfCBPowerSlots = 16;
// These are the callback slots for kernel mode applications.
const int numberOfCBPowerSlotsPrivate = 32;
static bool volatileMemLocked;
static int powerCbSlots[numberOfCBPowerSlots];
static std::vector<VolatileWaitingThread> volatileWaitingThreads;
// Should this belong here, or in CoreTiming?
static int RealpllFreq = 222;
static int RealbusFreq = 111;
static int pllFreq = 222;
static int busFreq = 111;
void __PowerInit() {
memset(powerCbSlots, 0, sizeof(powerCbSlots));
volatileMemLocked = false;
volatileWaitingThreads.clear();
if (g_Config.iLockedCPUSpeed > 0) {
CoreTiming::SetClockFrequencyMHz(g_Config.iLockedCPUSpeed);
pllFreq = g_Config.iLockedCPUSpeed;
busFreq = g_Config.iLockedCPUSpeed / 2;
} else {
pllFreq = 222;
busFreq = 111;
}
RealpllFreq = 222;
RealbusFreq = 111;
}
void __PowerDoState(PointerWrap &p) {
auto s = p.Section("scePower",1,2);
if (!s)
return;
if (s >= 2) {
p.Do(RealpllFreq);
p.Do(RealbusFreq);
}
else {
RealpllFreq = 222;
RealbusFreq = 111;
}
if (g_Config.iLockedCPUSpeed > 0) {
CoreTiming::SetClockFrequencyMHz(g_Config.iLockedCPUSpeed);
pllFreq = g_Config.iLockedCPUSpeed;
busFreq = g_Config.iLockedCPUSpeed / 2;
}
else {
pllFreq = RealpllFreq;
busFreq = RealbusFreq;
}
p.DoArray(powerCbSlots, ARRAY_SIZE(powerCbSlots));
p.Do(volatileMemLocked);
p.Do(volatileWaitingThreads);
}
static int scePowerGetBatteryLifePercent() {
DEBUG_LOG(HLE, "100=scePowerGetBatteryLifePercent");
return 100;
}
static int scePowerGetBatteryLifeTime() {
DEBUG_LOG(HLE, "0=scePowerGetBatteryLifeTime()");
// 0 means we're on AC power.
return 0;
}
static int scePowerGetBatteryTemp() {
DEBUG_LOG(HLE, "0=scePowerGetBatteryTemp()");
// 0 means celsius temperature of the battery
return 0;
}
static int scePowerIsPowerOnline() {
DEBUG_LOG(HLE, "1=scePowerIsPowerOnline");
return 1;
}
static int scePowerIsBatteryExist() {
DEBUG_LOG(HLE, "1=scePowerIsBatteryExist");
return 1;
}
static int scePowerIsBatteryCharging() {
DEBUG_LOG(HLE, "0=scePowerIsBatteryCharging");
return 0;
}
static int scePowerGetBatteryChargingStatus() {
DEBUG_LOG(HLE, "0=scePowerGetBatteryChargingStatus");
return 0;
}
static int scePowerIsLowBattery() {
DEBUG_LOG(HLE, "0=scePowerIsLowBattery");
return 0;
}
static int scePowerRegisterCallback(int slot, int cbId) {
DEBUG_LOG(HLE, "0=scePowerRegisterCallback(%i, %i)", slot, cbId);
if (slot < -1 || slot >= numberOfCBPowerSlotsPrivate) {
return PSP_POWER_ERROR_INVALID_SLOT;
}
if (slot >= numberOfCBPowerSlots) {
return SCE_KERNEL_ERROR_PRIV_REQUIRED;
}
// TODO: If cbId is invalid return PSP_POWER_ERROR_INVALID_CB.
if (cbId == 0) {
return PSP_POWER_ERROR_INVALID_CB;
}
int retval = -1;
if (slot == POWER_CB_AUTO) { // -1 signifies auto select of bank
for (int i=0; i < numberOfCBPowerSlots; i++) {
if (powerCbSlots[i] == 0 && retval == -1) { // found an empty slot
powerCbSlots[i] = cbId;
retval = i;
}
}
if (retval == -1) {
return PSP_POWER_ERROR_SLOTS_FULL;
}
} else {
if (powerCbSlots[slot] == 0) {
powerCbSlots[slot] = cbId;
retval = 0;
} else {
return PSP_POWER_ERROR_TAKEN_SLOT;
}
}
if (retval >= 0) {
int arg = PSP_POWER_CB_AC_POWER | PSP_POWER_CB_BATTERY_EXIST | PSP_POWER_CB_BATTERY_FULL;
__KernelNotifyCallback(cbId, arg);
}
return retval;
}
static int scePowerUnregisterCallback(int slotId) {
DEBUG_LOG(HLE, "0=scePowerUnregisterCallback(%i)", slotId);
if (slotId < 0 || slotId >= numberOfCBPowerSlotsPrivate) {
return PSP_POWER_ERROR_INVALID_SLOT;
}
if (slotId >= numberOfCBPowerSlots) {
return SCE_KERNEL_ERROR_PRIV_REQUIRED;
}
if (powerCbSlots[slotId] != 0) {
int cbId = powerCbSlots[slotId];
DEBUG_LOG(HLE, "0=scePowerUnregisterCallback(%i) (cbid = %i)", slotId, cbId);
powerCbSlots[slotId] = 0;
} else {
return PSP_POWER_ERROR_EMPTY_SLOT;
}
return 0;
}
static int sceKernelPowerLock(int lockType) {
DEBUG_LOG(HLE, "0=sceKernelPowerLock(%i)", lockType);
if (lockType == 0) {
return 0;
} else {
return SCE_KERNEL_ERROR_INVALID_MODE;
}
}
static int sceKernelPowerUnlock(int lockType) {
DEBUG_LOG(HLE, "0=sceKernelPowerUnlock(%i)", lockType);
if (lockType == 0) {
return 0;
} else {
return SCE_KERNEL_ERROR_INVALID_MODE;
}
}
static int sceKernelPowerTick(int flag) {
DEBUG_LOG(HLE, "UNIMPL 0=sceKernelPowerTick(%i)", flag);
return 0;
}
static int __KernelVolatileMemLock(int type, u32 paddr, u32 psize) {
if (type != 0) {
return SCE_KERNEL_ERROR_INVALID_MODE;
}
if (volatileMemLocked) {
return SCE_KERNEL_ERROR_POWER_VMEM_IN_USE;
}
// Volatile RAM is always at 0x08400000 and is of size 0x00400000.
// It's always available in the emu.
// TODO: Should really reserve this properly!
if (Memory::IsValidAddress(paddr)) {
Memory::Write_U32(0x08400000, paddr);
}
if (Memory::IsValidAddress(psize)) {
Memory::Write_U32(0x00400000, psize);
}
volatileMemLocked = true;
return 0;
}
static int sceKernelVolatileMemTryLock(int type, u32 paddr, u32 psize) {
u32 error = __KernelVolatileMemLock(type, paddr, psize);
switch (error) {
case 0:
// HACK: This fixes Crash Tag Team Racing.
// Should only wait 1200 cycles though according to Unknown's testing,
// and with that it's still broken. So it's not this, unfortunately.
// Leaving it in for the 0.9.8 release anyway.
hleEatCycles(500000);
DEBUG_LOG(HLE, "sceKernelVolatileMemTryLock(%i, %08x, %08x) - success", type, paddr, psize);
break;
case SCE_KERNEL_ERROR_POWER_VMEM_IN_USE:
ERROR_LOG(HLE, "sceKernelVolatileMemTryLock(%i, %08x, %08x) - already locked!", type, paddr, psize);
break;
default:
ERROR_LOG_REPORT(HLE, "%08x=sceKernelVolatileMemTryLock(%i, %08x, %08x) - error", type, paddr, psize, error);
break;
}
return error;
}
static int sceKernelVolatileMemUnlock(int type) {
if (type != 0) {
ERROR_LOG_REPORT(HLE, "sceKernelVolatileMemUnlock(%i) - invalid mode", type);
return SCE_KERNEL_ERROR_INVALID_MODE;
}
if (volatileMemLocked) {
volatileMemLocked = false;
// Wake someone, always fifo.
bool wokeThreads = false;
u32 error;
while (!volatileWaitingThreads.empty() && !volatileMemLocked) {
VolatileWaitingThread waitInfo = volatileWaitingThreads.front();
volatileWaitingThreads.erase(volatileWaitingThreads.begin());
int waitID = __KernelGetWaitID(waitInfo.threadID, WAITTYPE_VMEM, error);
// If they were force-released, just skip.
if (waitID == 1 && __KernelVolatileMemLock(0, waitInfo.addrPtr, waitInfo.sizePtr) == 0) {
__KernelResumeThreadFromWait(waitInfo.threadID, 0);
wokeThreads = true;
}
}
if (wokeThreads) {
INFO_LOG(HLE, "sceKernelVolatileMemUnlock(%i) handed over to another thread", type);
hleReSchedule("volatile mem unlocked");
} else {
DEBUG_LOG(HLE, "sceKernelVolatileMemUnlock(%i)", type);
}
} else {
ERROR_LOG_REPORT(HLE, "sceKernelVolatileMemUnlock(%i) FAILED - not locked", type);
// I guess it must use a sema.
return SCE_KERNEL_ERROR_SEMA_OVF;
}
return 0;
}
static int sceKernelVolatileMemLock(int type, u32 paddr, u32 psize) {
u32 error = 0;
// If dispatch is disabled or in an interrupt, don't check, just return an error.
// But still write the addr and size (some games require this to work, and it's testably true.)
if (!__KernelIsDispatchEnabled()) {
error = SCE_KERNEL_ERROR_CAN_NOT_WAIT;
} else if (__IsInInterrupt()) {
error = SCE_KERNEL_ERROR_ILLEGAL_CONTEXT;
} else {
error = __KernelVolatileMemLock(type, paddr, psize);
}
switch (error) {
case 0:
// Should only wait 1200 cycles though according to Unknown's testing,
hleEatCycles(1200);
DEBUG_LOG(HLE, "sceKernelVolatileMemLock(%i, %08x, %08x) - success", type, paddr, psize);
break;
case SCE_KERNEL_ERROR_POWER_VMEM_IN_USE:
{
WARN_LOG(HLE, "sceKernelVolatileMemLock(%i, %08x, %08x) - already locked, waiting", type, paddr, psize);
const VolatileWaitingThread waitInfo = { __KernelGetCurThread(), paddr, psize };
volatileWaitingThreads.push_back(waitInfo);
__KernelWaitCurThread(WAITTYPE_VMEM, 1, 0, 0, false, "volatile mem waited");
}
break;
case SCE_KERNEL_ERROR_CAN_NOT_WAIT:
{
WARN_LOG(HLE, "sceKernelVolatileMemLock(%i, %08x, %08x): dispatch disabled", type, paddr, psize);
Memory::Write_U32(0x08400000, paddr);
Memory::Write_U32(0x00400000, psize);
}
break;
case SCE_KERNEL_ERROR_ILLEGAL_CONTEXT:
{
WARN_LOG(HLE, "sceKernelVolatileMemLock(%i, %08x, %08x): in interrupt", type, paddr, psize);
Memory::Write_U32(0x08400000, paddr);
Memory::Write_U32(0x00400000, psize);
}
break;
default:
ERROR_LOG_REPORT(HLE, "%08x=sceKernelVolatileMemLock(%i, %08x, %08x) - error", type, paddr, psize, error);
break;
}
return error;
}
static u32 scePowerSetClockFrequency(u32 pllfreq, u32 cpufreq, u32 busfreq) {
if (cpufreq == 0 || cpufreq > 333) {
WARN_LOG(HLE,"scePowerSetClockFrequency(%i,%i,%i): invalid frequency", pllfreq, cpufreq, busfreq);
return SCE_KERNEL_ERROR_INVALID_VALUE;
}
// TODO: More restrictions.
if (g_Config.iLockedCPUSpeed > 0) {
INFO_LOG(HLE, "scePowerSetClockFrequency(%i,%i,%i): locked by user config at %i, %i, %i", pllfreq, cpufreq, busfreq, g_Config.iLockedCPUSpeed, g_Config.iLockedCPUSpeed, busFreq);
}
else {
INFO_LOG(HLE, "scePowerSetClockFrequency(%i,%i,%i)", pllfreq, cpufreq, busfreq);
}
if (RealpllFreq != pllfreq || RealbusFreq != busfreq) {
RealpllFreq = pllfreq;
RealbusFreq = busfreq;
if (g_Config.iLockedCPUSpeed <= 0) {
pllFreq = pllfreq;
busFreq = busfreq;
CoreTiming::SetClockFrequencyMHz(cpufreq);
}
return hleDelayResult(0, "scepower set clockFrequency", 150000);
}
if (g_Config.iLockedCPUSpeed <= 0)
CoreTiming::SetClockFrequencyMHz(cpufreq);
return 0;
}
static u32 scePowerSetCpuClockFrequency(u32 cpufreq) {
if(g_Config.iLockedCPUSpeed > 0) {
DEBUG_LOG(HLE,"scePowerSetCpuClockFrequency(%i): locked by user config at %i", cpufreq, g_Config.iLockedCPUSpeed);
}
else {
if (cpufreq == 0 || cpufreq > 333) {
WARN_LOG(HLE,"scePowerSetCpuClockFrequency(%i): invalid frequency", cpufreq);
return SCE_KERNEL_ERROR_INVALID_VALUE;
}
CoreTiming::SetClockFrequencyMHz(cpufreq);
INFO_LOG(HLE,"scePowerSetCpuClockFrequency(%i)", cpufreq);
}
return 0;
}
static u32 scePowerSetBusClockFrequency(u32 busfreq) {
if(g_Config.iLockedCPUSpeed > 0) {
DEBUG_LOG(HLE,"scePowerSetBusClockFrequency(%i): locked by user config at %i", busfreq, busFreq);
}
else {
if (busfreq == 0 || busfreq > 111) {
WARN_LOG(HLE,"scePowerSetBusClockFrequency(%i): invalid frequency", busfreq);
return SCE_KERNEL_ERROR_INVALID_VALUE;
}
// TODO: It seems related to other frequencies, though.
busFreq = busfreq;
INFO_LOG_REPORT_ONCE(SetBusClockFrequency,HLE,"scePowerSetBusClockFrequency(%i)", busfreq);
}
return 0;
}
static u32 scePowerGetCpuClockFrequencyInt() {
int cpuFreq = CoreTiming::GetClockFrequencyMHz();
INFO_LOG(HLE,"%i=scePowerGetCpuClockFrequencyInt()", cpuFreq);
return cpuFreq;
}
static u32 scePowerGetPllClockFrequencyInt() {
INFO_LOG(HLE,"%i=scePowerGetPllClockFrequencyInt()", pllFreq);
return pllFreq;
}
static u32 scePowerGetBusClockFrequencyInt() {
INFO_LOG(HLE,"%i=scePowerGetBusClockFrequencyInt()", busFreq);
return busFreq;
}
static float scePowerGetCpuClockFrequencyFloat() {
int cpuFreq = CoreTiming::GetClockFrequencyMHz();
INFO_LOG(HLE, "%f=scePowerGetCpuClockFrequencyFloat()", (float)cpuFreq);
return (float) cpuFreq;
}
static float scePowerGetPllClockFrequencyFloat() {
INFO_LOG(HLE, "%f=scePowerGetPllClockFrequencyFloat()", (float)pllFreq);
return (float) pllFreq;
}
static float scePowerGetBusClockFrequencyFloat() {
INFO_LOG(HLE, "%f=scePowerGetBusClockFrequencyFloat()", (float)busFreq);
return (float) busFreq;
}
static int scePowerTick() {
DEBUG_LOG(HLE, "scePowerTick()");
// Don't think we need to do anything.
return 0;
}
static u32 IsPSPNonFat() {
DEBUG_LOG(HLE, "%d=scePower_a85880d0_IsPSPNonFat()", g_Config.iPSPModel);
return g_Config.iPSPModel;
}
static const HLEFunction scePower[] = {
{0X04B7766E, &WrapI_II<scePowerRegisterCallback>, "scePowerRegisterCallback", 'i', "ii" },
{0X2B51FE2F, nullptr, "scePower_2B51FE2F", '?', "" },
{0X442BFBAC, nullptr, "scePowerGetBacklightMaximum", '?', "" },
{0XEFD3C963, &WrapI_V<scePowerTick>, "scePowerTick", 'i', "" },
{0XEDC13FE5, nullptr, "scePowerGetIdleTimer", '?', "" },
{0X7F30B3B1, nullptr, "scePowerIdleTimerEnable", '?', "" },
{0X972CE941, nullptr, "scePowerIdleTimerDisable", '?', "" },
{0X27F3292C, nullptr, "scePowerBatteryUpdateInfo", '?', "" },
{0XE8E4E204, nullptr, "scePower_E8E4E204", '?', "" },
{0XB999184C, nullptr, "scePowerGetLowBatteryCapacity", '?', "" },
{0X87440F5E, &WrapI_V<scePowerIsPowerOnline>, "scePowerIsPowerOnline", 'i', "" },
{0X0AFD0D8B, &WrapI_V<scePowerIsBatteryExist>, "scePowerIsBatteryExist", 'i', "" },
{0X1E490401, &WrapI_V<scePowerIsBatteryCharging>, "scePowerIsBatteryCharging", 'i', "" },
{0XB4432BC8, &WrapI_V<scePowerGetBatteryChargingStatus>, "scePowerGetBatteryChargingStatus", 'i', "" },
{0XD3075926, &WrapI_V<scePowerIsLowBattery>, "scePowerIsLowBattery", 'i', "" },
{0X78A1A796, nullptr, "scePowerIsSuspendRequired", '?', "" },
{0X94F5A53F, nullptr, "scePowerGetBatteryRemainCapacity", '?', "" },
{0XFD18A0FF, nullptr, "scePowerGetBatteryFullCapacity", '?', "" },
{0X2085D15D, &WrapI_V<scePowerGetBatteryLifePercent>, "scePowerGetBatteryLifePercent", 'i', "" },
{0X8EFB3FA2, &WrapI_V<scePowerGetBatteryLifeTime>, "scePowerGetBatteryLifeTime", 'i', "" },
{0X28E12023, &WrapI_V<scePowerGetBatteryTemp>, "scePowerGetBatteryTemp", 'i', "" },
{0X862AE1A6, nullptr, "scePowerGetBatteryElec", '?', "" },
{0X483CE86B, nullptr, "scePowerGetBatteryVolt", '?', "" },
{0XCB49F5CE, nullptr, "scePowerGetBatteryChargeCycle", '?', "" },
{0X23436A4A, nullptr, "scePowerGetInnerTemp", '?', "" },
{0X0CD21B1F, nullptr, "scePowerSetPowerSwMode", '?', "" },
{0X165CE085, nullptr, "scePowerGetPowerSwMode", '?', "" },
{0XD6D016EF, nullptr, "scePowerLock", '?', "" },
{0XCA3D34C1, nullptr, "scePowerUnlock", '?', "" },
{0XDB62C9CF, nullptr, "scePowerCancelRequest", '?', "" },
{0X7FA406DD, nullptr, "scePowerIsRequest", '?', "" },
{0X2B7C7CF4, nullptr, "scePowerRequestStandby", '?', "" },
{0XAC32C9CC, nullptr, "scePowerRequestSuspend", '?', "" },
{0X2875994B, nullptr, "scePower_2875994B", '?', "" },
{0X0074EF9B, nullptr, "scePowerGetResumeCount", '?', "" },
{0XDFA8BAF8, &WrapI_I<scePowerUnregisterCallback>, "scePowerUnregisterCallback", 'i', "i" },
{0XDB9D28DD, &WrapI_I<scePowerUnregisterCallback>, "scePowerUnregitserCallback", 'i', "i" },
{0X843FBF43, &WrapU_U<scePowerSetCpuClockFrequency>, "scePowerSetCpuClockFrequency", 'x', "x" },
{0XB8D7B3FB, &WrapU_U<scePowerSetBusClockFrequency>, "scePowerSetBusClockFrequency", 'x', "x" },
{0XFEE03A2F, &WrapU_V<scePowerGetCpuClockFrequencyInt>, "scePowerGetCpuClockFrequency", 'x', "" },
{0X478FE6F5, &WrapU_V<scePowerGetBusClockFrequencyInt>, "scePowerGetBusClockFrequency", 'x', "" },
{0XFDB5BFE9, &WrapU_V<scePowerGetCpuClockFrequencyInt>, "scePowerGetCpuClockFrequencyInt", 'x', "" },
{0XBD681969, &WrapU_V<scePowerGetBusClockFrequencyInt>, "scePowerGetBusClockFrequencyInt", 'x', "" },
{0XB1A52C83, &WrapF_V<scePowerGetCpuClockFrequencyFloat>, "scePowerGetCpuClockFrequencyFloat", 'f', "" },
{0X9BADB3EB, &WrapF_V<scePowerGetBusClockFrequencyFloat>, "scePowerGetBusClockFrequencyFloat", 'f', "" },
{0X737486F2, &WrapU_UUU<scePowerSetClockFrequency>, "scePowerSetClockFrequency", 'x', "xxx"},
{0X34F9C463, &WrapU_V<scePowerGetPllClockFrequencyInt>, "scePowerGetPllClockFrequencyInt", 'x', "" },
{0XEA382A27, &WrapF_V<scePowerGetPllClockFrequencyFloat>, "scePowerGetPllClockFrequencyFloat", 'f', "" },
{0XEBD177D6, &WrapU_UUU<scePowerSetClockFrequency>, "scePower_EBD177D6", 'x', "xxx"}, // This is also the same as SetClockFrequency
{0X469989AD, &WrapU_UUU<scePowerSetClockFrequency>, "scePower_469989ad", 'x', "xxx"}, // This is also the same as SetClockFrequency
{0X545A7F3C, nullptr, "scePower_545A7F3C", '?', "" }, // TODO: Supposedly the same as SetClockFrequency also?
{0XA4E93389, nullptr, "scePower_A4E93389", '?', "" }, // TODO: Supposedly the same as SetClockFrequency also?
{0XA85880D0, &WrapU_V<IsPSPNonFat>, "scePower_a85880d0_IsPSPNonFat", 'x', "" },
{0X3951AF53, nullptr, "scePowerWaitRequestCompletion", '?', "" },
{0X0442D852, nullptr, "scePowerRequestColdReset", '?', "" },
{0XBAFA3DF0, nullptr, "scePowerGetCallbackMode", '?', "" },
{0XA9D22232, nullptr, "scePowerSetCallbackMode", '?', "" },
// These seem to be aliases.
{0X23C31FFE, &WrapI_IUU<sceKernelVolatileMemLock>, "scePowerVolatileMemLock", 'i', "ixx"},
{0XFA97A599, &WrapI_IUU<sceKernelVolatileMemTryLock>, "scePowerVolatileMemTryLock", 'i', "ixx"},
{0XB3EDD801, &WrapI_I<sceKernelVolatileMemUnlock>, "scePowerVolatileMemUnlock", 'i', "i" },
};
//890129c in tyshooter looks bogus
const HLEFunction sceSuspendForUser[] = {
{0XEADB1BD7, &WrapI_I<sceKernelPowerLock>, "sceKernelPowerLock", 'i', "i" }, //(int param) set param to 0
{0X3AEE7261, &WrapI_I<sceKernelPowerUnlock>, "sceKernelPowerUnlock", 'i', "i" }, //(int param) set param to 0
{0X090CCB3F, &WrapI_I<sceKernelPowerTick>, "sceKernelPowerTick", 'i', "i" },
// There's an extra 4MB that can be allocated, which seems to be "volatile". These functions
// let you grab it.
{0XA14F40B2, &WrapI_IUU<sceKernelVolatileMemTryLock>, "sceKernelVolatileMemTryLock", 'i', "ixx"},
{0XA569E425, &WrapI_I<sceKernelVolatileMemUnlock>, "sceKernelVolatileMemUnlock", 'i', "i" },
{0X3E0271D3, &WrapI_IUU<sceKernelVolatileMemLock>, "sceKernelVolatileMemLock", 'i', "ixx"},
};
void Register_scePower() {
RegisterModule("scePower",ARRAY_SIZE(scePower),scePower);
}
void Register_sceSuspendForUser() {
RegisterModule("sceSuspendForUser", ARRAY_SIZE(sceSuspendForUser), sceSuspendForUser);
}