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SPURS: Implement some portions of taskset policy manager

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This commit is contained in:
S Gopal Rajagopal 2015-02-02 01:32:40 +05:30
parent 61342946a4
commit ba6ac5019e
7 changed files with 345 additions and 108 deletions
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5
rpcs3/Emu/Cell/SPUInterpreter.h
View file

@ -1316,10 +1316,7 @@ private:
void FSCRRD(u32 rt) void FSCRRD(u32 rt)
{ {
CPU.GPR[rt]._u32[3] = CPU.FPSCR._u32[3]; CPU.FPSCR.Read(CPU.GPR[rt]);
CPU.GPR[rt]._u32[2] = CPU.FPSCR._u32[2];
CPU.GPR[rt]._u32[1] = CPU.FPSCR._u32[1];
CPU.GPR[rt]._u32[0] = CPU.FPSCR._u32[0];
} }
void FESD(u32 rt, u32 ra) void FESD(u32 rt, u32 ra)
{ {

9
rpcs3/Emu/Cell/SPUThread.h
View file

@ -257,6 +257,15 @@ public:
_u32[1] = r._u32[1] & 0x00003F07; _u32[1] = r._u32[1] & 0x00003F07;
_u32[0] = r._u32[0] & 0x00000F07; _u32[0] = r._u32[0] & 0x00000F07;
} }
// Read the FPSCR
void Read(u128 & r)
{
r._u32[3] = _u32[3];
r._u32[2] = _u32[2];
r._u32[1] = _u32[1];
r._u32[0] = _u32[0];
}
}; };
union SPU_SNRConfig_hdr union SPU_SNRConfig_hdr

32
rpcs3/Emu/SysCalls/Modules/cellSpurs.cpp
View file

@ -2602,7 +2602,7 @@ s64 spursCreateTaskset(vm::ptr<CellSpurs> spurs, vm::ptr<CellSpursTaskset> tasks
cellSpursAddWorkloadWithAttribute(spurs, vm::ptr<u32>::make(wid.addr()), vm::ptr<const CellSpursWorkloadAttribute>::make(wkl_attr.addr())); cellSpursAddWorkloadWithAttribute(spurs, vm::ptr<u32>::make(wid.addr()), vm::ptr<const CellSpursWorkloadAttribute>::make(wkl_attr.addr()));
// TODO: Check return code // TODO: Check return code
taskset->m.x72 = 0x80; taskset->m.wkl_flag_wait_task = 0x80;
taskset->m.wid = wid.value(); taskset->m.wid = wid.value();
// TODO: cellSpursSetExceptionEventHandler(spurs, wid, hook, taskset); // TODO: cellSpursSetExceptionEventHandler(spurs, wid, hook, taskset);
// TODO: Check return code // TODO: Check return code
@ -2801,11 +2801,9 @@ s64 spursCreateTask(vm::ptr<CellSpursTaskset> taskset, vm::ptr<u32> task_id, vm:
u32 tmp_task_id; u32 tmp_task_id;
for (tmp_task_id = 0; tmp_task_id < CELL_SPURS_MAX_TASK; tmp_task_id++) for (tmp_task_id = 0; tmp_task_id < CELL_SPURS_MAX_TASK; tmp_task_id++)
{ {
u32 l = tmp_task_id >> 5; if (!taskset->m.enabled.value()._bit[tmp_task_id])
u32 b = tmp_task_id & 0x1F;
if ((taskset->m.enabled_set[l] & (0x80000000 >> b)) == 0)
{ {
taskset->m.enabled_set[l] |= 0x80000000 >> b; taskset->m.enabled.value()._bit[tmp_task_id] = true;
break; break;
} }
} }
@ -2840,10 +2838,10 @@ s64 cellSpursCreateTask(vm::ptr<CellSpursTaskset> taskset, vm::ptr<u32> taskID,
#endif #endif
} }
s64 _cellSpursSendSignal(vm::ptr<CellSpursTaskset> taskset, u32 taskID) s64 _cellSpursSendSignal(vm::ptr<CellSpursTaskset> taskset, u32 taskId)
{ {
#ifdef PRX_DEBUG #ifdef PRX_DEBUG
cellSpurs->Warning("_cellSpursSendSignal(taskset_addr=0x%x, taskID=%d)", taskset.addr(), taskID); cellSpurs->Warning("_cellSpursSendSignal(taskset_addr=0x%x, taskId=%d)", taskset.addr(), taskId);
return GetCurrentPPUThread().FastCall2(libsre + 0x124CC, libsre_rtoc); return GetCurrentPPUThread().FastCall2(libsre + 0x124CC, libsre_rtoc);
#else #else
if (!taskset) if (!taskset)
@ -2856,29 +2854,23 @@ s64 _cellSpursSendSignal(vm::ptr<CellSpursTaskset> taskset, u32 taskID)
return CELL_SPURS_TASK_ERROR_ALIGN; return CELL_SPURS_TASK_ERROR_ALIGN;
} }
if (taskID >= CELL_SPURS_MAX_TASK || taskset->m.wid >= CELL_SPURS_MAX_WORKLOAD2) if (taskId >= CELL_SPURS_MAX_TASK || taskset->m.wid >= CELL_SPURS_MAX_WORKLOAD2)
{ {
return CELL_SPURS_TASK_ERROR_INVAL; return CELL_SPURS_TASK_ERROR_INVAL;
} }
auto word = taskID >> 5; auto _0 = be_t<u128>::make(u128::from32(0));
auto mask = 0x80000000u >> (taskID & 0x1F); auto disabled = taskset->m.enabled.value()._bit[taskId] ? false : true;
auto disabled = taskset->m.enabled_set[word] & mask ? false : true; auto invalid = (taskset->m.ready & taskset->m.pending_ready) != _0 || (taskset->m.running & taskset->m.waiting) != _0 || disabled ||
auto running = taskset->m.running_set[word]; ((taskset->m.running | taskset->m.ready | taskset->m.pending_ready | taskset->m.waiting | taskset->m.signalled) & be_t<u128>::make(~taskset->m.enabled.value())) != _0;
auto ready = taskset->m.ready_set[word];
auto ready2 = taskset->m.ready2_set[word];
auto waiting = taskset->m.waiting_set[word];
auto signalled = taskset->m.signal_received_set[word];
auto enabled = taskset->m.enabled_set[word];
auto invalid = (ready & ready2) || (running & waiting) || ((running | ready | ready2 | waiting | signalled) & ~enabled) || disabled;
if (invalid) if (invalid)
{ {
return CELL_SPURS_TASK_ERROR_SRCH; return CELL_SPURS_TASK_ERROR_SRCH;
} }
auto shouldSignal = waiting & ~signalled & mask ? true : false; auto shouldSignal = (taskset->m.waiting & be_t<u128>::make(~taskset->m.signalled.value()) & be_t<u128>::make(u128::fromBit(taskId))) != _0 ? true : false;
taskset->m.signal_received_set[word] |= mask; ((u128)taskset->m.signalled)._bit[taskId] = true;
if (shouldSignal) if (shouldSignal)
{ {
cellSpursSendWorkloadSignal(vm::ptr<CellSpurs>::make((u32)taskset->m.spurs.addr()), taskset->m.wid); cellSpursSendWorkloadSignal(vm::ptr<CellSpurs>::make((u32)taskset->m.spurs.addr()), taskset->m.wid);

16
rpcs3/Emu/SysCalls/Modules/cellSpurs.h
View file

@ -655,17 +655,17 @@ struct CellSpursTaskset
// Real data // Real data
struct _CellSpursTaskset struct _CellSpursTaskset
{ {
be_t<u32> running_set[4]; // 0x00 be_t<u128> running; // 0x00
be_t<u32> ready_set[4]; // 0x10 be_t<u128> ready; // 0x10
be_t<u32> ready2_set[4]; // 0x20 - TODO: Find out what this is be_t<u128> pending_ready; // 0x20
be_t<u32> enabled_set[4]; // 0x30 be_t<u128> enabled; // 0x30
be_t<u32> signal_received_set[4]; // 0x40 be_t<u128> signalled; // 0x40
be_t<u32> waiting_set[4]; // 0x50 be_t<u128> waiting; // 0x50
vm::bptr<CellSpurs, 1, u64> spurs; // 0x60 vm::bptr<CellSpurs, 1, u64> spurs; // 0x60
be_t<u64> args; // 0x68 be_t<u64> args; // 0x68
u8 enable_clear_ls; // 0x70 u8 enable_clear_ls; // 0x70
u8 x71; // 0x71 u8 x71; // 0x71
u8 x72; // 0x72 u8 wkl_flag_wait_task; // 0x72
u8 last_scheduled_task; // 0x73 u8 last_scheduled_task; // 0x73
be_t<u32> wid; // 0x74 be_t<u32> wid; // 0x74
be_t<u64> x78; // 0x78 be_t<u64> x78; // 0x78
@ -948,7 +948,7 @@ struct SpursTasksetPmMgmtData
be_t<u32> savedWriteTagGroupQueryMask; // 0x2FB0 be_t<u32> savedWriteTagGroupQueryMask; // 0x2FB0
be_t<u32> savedSpuWriteEventMask; // 0x2FB4 be_t<u32> savedSpuWriteEventMask; // 0x2FB4
be_t<u32> tasksetMgmtAddr; // 0x2FB8 be_t<u32> tasksetMgmtAddr; // 0x2FB8
be_t<u32> lowestLoadSegmentAddr; // 0x2FBC be_t<u32> guidAddr; // 0x2FBC
be_t<u64> x2FC0; // 0x2FC0 be_t<u64> x2FC0; // 0x2FC0
be_t<u64> x2FC8; // 0x2FC8 be_t<u64> x2FC8; // 0x2FC8
be_t<u32> taskExitCode; // 0x2FD0 be_t<u32> taskExitCode; // 0x2FD0

350
rpcs3/Emu/SysCalls/Modules/cellSpursSpu.cpp
View file

@ -7,6 +7,8 @@
#include "Emu/SysCalls/lv2/sys_lwcond.h" #include "Emu/SysCalls/lv2/sys_lwcond.h"
#include "Emu/SysCalls/lv2/sys_spu.h" #include "Emu/SysCalls/lv2/sys_spu.h"
#include "Emu/SysCalls/Modules/cellSpurs.h" #include "Emu/SysCalls/Modules/cellSpurs.h"
#include "Loader/ELF32.h"
#include "Emu/FS/vfsStreamMemory.h"
// //
// SPURS utility functions // SPURS utility functions
@ -42,7 +44,8 @@ bool spursSysServiceWorkloadEntry(SPUThread & spu);
// //
// SPURS taskset policy module functions // SPURS taskset policy module functions
// //
bool spursTasksetProcessRequest(SPUThread & spu, s32 request, u32 * taskId, u32 * isWaiting); s32 spursTasksetProcessRequest(SPUThread & spu, s32 request, u32 * taskId, u32 * isWaiting);
s32 spursTasksetLoadElf(SPUThread & spu, u32 * entryPoint, u32 * lowestLoadAddr, u64 elfAddr, bool skipWriteableSegments);
void spursTasksetExit(SPUThread & spu); void spursTasksetExit(SPUThread & spu);
void spursTasksetStartTask(SPUThread & spu, CellSpursTaskArgument & taskArgs); void spursTasksetStartTask(SPUThread & spu, CellSpursTaskArgument & taskArgs);
void spursTasksetDispatch(SPUThread & spu); void spursTasksetDispatch(SPUThread & spu);
@ -50,6 +53,9 @@ void spursTasksetProcessPollStatus(SPUThread & spu, u32 pollStatus);
bool spursTasksetPollStatus(SPUThread & spu); bool spursTasksetPollStatus(SPUThread & spu);
void spursTasksetInit(SPUThread & spu, u32 pollStatus); void spursTasksetInit(SPUThread & spu, u32 pollStatus);
void spursTasksetResumeTask(SPUThread & spu); void spursTasksetResumeTask(SPUThread & spu);
s32 spursTasketSaveTaskContext(SPUThread & spu);
void spursTasksetOnTaskExit(SPUThread & spu, u64 addr, u32 taskId, s32 exitCode, u64 args);
s32 spursTasksetProcessSyscall(SPUThread & spu, u32 syscallNum, u32 args);
bool spursTasksetEntry(SPUThread & spu); bool spursTasksetEntry(SPUThread & spu);
extern Module *cellSpurs; extern Module *cellSpurs;
@ -1001,64 +1007,216 @@ bool spursSysServiceWorkloadEntry(SPUThread & spu) {
// SPURS taskset policy module functions // SPURS taskset policy module functions
////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////
bool spursTasksetProcessRequest(SPUThread & spu, s32 request, u32 * taskId, u32 * isWaiting) { enum SpursTasksetRequest {
SPURS_TASKSET_REQUEST_POLL_SIGNAL = -1,
SPURS_TASKSET_REQUEST_DESTROY_TASK = 0,
SPURS_TASKSET_REQUEST_YIELD_TASK = 1,
SPURS_TASKSET_REQUEST_WAIT_SIGNAL = 2,
SPURS_TASKSET_REQUEST_POLL = 3,
SPURS_TASKSET_REQUEST_WAIT_WKL_FLAG = 4,
SPURS_TASKSET_REQUEST_SELECT_TASK = 5,
SPURS_TASKSET_REQUEST_RECV_WKL_FLAG = 6,
};
s32 spursTasksetProcessRequest(SPUThread & spu, s32 request, u32 * taskId, u32 * isWaiting) {
auto kernelMgmt = vm::get_ptr<SpursKernelMgmtData>(spu.ls_offset + 0x100); auto kernelMgmt = vm::get_ptr<SpursKernelMgmtData>(spu.ls_offset + 0x100);
auto mgmt = vm::get_ptr<SpursTasksetPmMgmtData>(spu.ls_offset + 0x2700); auto mgmt = vm::get_ptr<SpursTasksetPmMgmtData>(spu.ls_offset + 0x2700);
s32 rc = CELL_OK;
s32 numNewlyReadyTasks;
do {
spursDma(spu, MFC_GETLLAR_CMD, mgmt->taskset.addr(), 0x2700/*LSA*/, 0x80/*size*/, 0/*tag*/);
auto taskset = vm::get_ptr<CellSpursTaskset>(spu.ls_offset + 0x2700);
// Verify taskset state is valid // Verify taskset state is valid
for (auto i = 0; i < 4; i ++) { auto _0 = be_t<u128>::make(u128::from32(0));
if ((mgmt->taskset->m.waiting_set[i] & mgmt->taskset->m.running_set[i]) || if ((taskset->m.waiting & taskset->m.running) != _0 || (taskset->m.ready & taskset->m.pending_ready) != _0 ||
(mgmt->taskset->m.ready_set[i] & mgmt->taskset->m.ready2_set[i]) || ((taskset->m.running | taskset->m.ready | taskset->m.pending_ready | taskset->m.signalled | taskset->m.waiting) & be_t<u128>::make(~taskset->m.enabled.value())) != _0) {
((mgmt->taskset->m.running_set[i] | mgmt->taskset->m.ready_set[i] | spursHalt(spu);
mgmt->taskset->m.ready2_set[i] | mgmt->taskset->m.signal_received_set[i] | return CELL_OK;
mgmt->taskset->m.waiting_set[i]) & ~mgmt->taskset->m.enabled_set[i])) { }
assert(0);
// Find the number of tasks that have become ready since the last iteration
auto newlyReadyTasks = (taskset->m.signalled | taskset->m.pending_ready).value() & ~taskset->m.ready.value();
numNewlyReadyTasks = 0;
for (auto i = 0; i < 128; i++) {
if (newlyReadyTasks._bit[i]) {
numNewlyReadyTasks++;
} }
} }
// TODO: Implement cases u128 readyButNotRunning;
s32 delta = 0; u8 selectedTaskId;
switch (request + 1) { auto running = taskset->m.running.value();
case -1: auto waiting = taskset->m.waiting.value();
auto enabled = taskset->m.enabled.value();
auto signalled = (taskset->m.signalled & (taskset->m.ready | taskset->m.pending_ready)).value();
auto ready = (taskset->m.signalled | taskset->m.ready | taskset->m.pending_ready).value();
switch (request) {
case SPURS_TASKSET_REQUEST_POLL_SIGNAL:
rc = signalled._bit[mgmt->taskId] ? 1 : 0;
signalled._bit[mgmt->taskId] = false;
break; break;
case 0: case SPURS_TASKSET_REQUEST_DESTROY_TASK:
numNewlyReadyTasks--;
running._bit[mgmt->taskId] = false;
enabled._bit[mgmt->taskId] = false;
signalled._bit[mgmt->taskId] = false;
ready._bit[mgmt->taskId] = false;
break; break;
case 1: case SPURS_TASKSET_REQUEST_YIELD_TASK:
running._bit[mgmt->taskId] = false;
waiting._bit[mgmt->taskId] = true;
break; break;
case 2: case SPURS_TASKSET_REQUEST_WAIT_SIGNAL:
if (signalled._bit[mgmt->taskId]) {
numNewlyReadyTasks--;
running._bit[mgmt->taskId] = false;
waiting._bit[mgmt->taskId] = true;
signalled._bit[mgmt->taskId] = false;
ready._bit[mgmt->taskId] = false;
}
break; break;
case 3: case SPURS_TASKSET_REQUEST_POLL:
readyButNotRunning = ready & ~running;
if (taskset->m.wkl_flag_wait_task < CELL_SPURS_MAX_TASK) {
readyButNotRunning = readyButNotRunning & ~(u128::fromBit(taskset->m.wkl_flag_wait_task));
}
rc = readyButNotRunning != _0 ? 1 : 0;
break; break;
case 4: case SPURS_TASKSET_REQUEST_WAIT_WKL_FLAG:
if (taskset->m.wkl_flag_wait_task == 0x81) {
// A workload flag is already pending so consume it
taskset->m.wkl_flag_wait_task = 0x80;
rc = 0;
} else if (taskset->m.wkl_flag_wait_task == 0x80) {
// No tasks are waiting for the workload flag. Mark this task as waiting for the workload flag.
taskset->m.wkl_flag_wait_task = mgmt->taskId;
running._bit[mgmt->taskId] = false;
waiting._bit[mgmt->taskId] = true;
rc = 1;
numNewlyReadyTasks--;
} else {
// Another task is already waiting for the workload signal
rc = CELL_SPURS_TASK_ERROR_BUSY;
}
break; break;
case 5: case SPURS_TASKSET_REQUEST_SELECT_TASK:
readyButNotRunning = ready & ~running;
if (taskset->m.wkl_flag_wait_task < CELL_SPURS_MAX_TASK) {
readyButNotRunning = readyButNotRunning & ~(u128::fromBit(taskset->m.wkl_flag_wait_task));
}
// Select a task from the readyButNotRunning set to run. Start from the task after the last scheduled task to ensure fairness.
for (selectedTaskId = taskset->m.last_scheduled_task + 1; selectedTaskId < 128; selectedTaskId++) {
if (readyButNotRunning._bit[selectedTaskId]) {
break; break;
case 6: }
}
if (selectedTaskId == 128) {
for (selectedTaskId = 0; selectedTaskId < taskset->m.last_scheduled_task + 1; selectedTaskId++) {
if (readyButNotRunning._bit[selectedTaskId]) {
break;
}
}
if (selectedTaskId == taskset->m.last_scheduled_task + 1) {
selectedTaskId = CELL_SPURS_MAX_TASK;
}
}
*taskId = selectedTaskId;
*isWaiting = waiting._bit[selectedTaskId < CELL_SPURS_MAX_TASK ? selectedTaskId : 0] ? 1 : 0;
if (selectedTaskId != CELL_SPURS_MAX_TASK) {
taskset->m.last_scheduled_task = selectedTaskId;
running._bit[mgmt->taskId] = true;
waiting._bit[mgmt->taskId] = false;
}
break;
case SPURS_TASKSET_REQUEST_RECV_WKL_FLAG:
if (taskset->m.wkl_flag_wait_task < CELL_SPURS_MAX_TASK) {
// There is a task waiting for the workload flag
taskset->m.wkl_flag_wait_task = 0x80;
rc = 1;
numNewlyReadyTasks++;
} else {
// No tasks are waiting for the workload flag
taskset->m.wkl_flag_wait_task = 0x81;
rc = 0;
}
break; break;
default: default:
spursHalt(spu); spursHalt(spu);
return CELL_OK;
}
taskset->m.pending_ready = _0;
taskset->m.running = running;
taskset->m.waiting = waiting;
taskset->m.enabled = enabled;
taskset->m.signalled = signalled;
taskset->m.ready = ready;
} while (spursDma(spu, MFC_PUTLLC_CMD, mgmt->taskset.addr(), 0x2700/*LSA*/, 0x80/*size*/, 0/*tag*/) == false);
// Increment the ready count of the workload by the number of tasks that have become ready
do {
spursDma(spu, MFC_GETLLAR_CMD, kernelMgmt->spurs.addr(), 0x100/*LSA*/, 0x80/*size*/, 0/*tag*/);
auto spurs = vm::get_ptr<CellSpurs>(spu.ls_offset + 0x2D80 - offsetof(CellSpurs, m.wklState1));
s32 readyCount = kernelMgmt->wklCurrentId < CELL_SPURS_MAX_WORKLOAD ? spurs->m.wklReadyCount1[kernelMgmt->wklCurrentId].read_relaxed() : spurs->m.wklIdleSpuCountOrReadyCount2[kernelMgmt->wklCurrentId & 0x0F].read_relaxed();
readyCount += numNewlyReadyTasks;
readyCount = readyCount < 0 ? 0 : readyCount > 0xFF ? 0xFF : readyCount;
if (kernelMgmt->wklCurrentId < CELL_SPURS_MAX_WORKLOAD) {
spurs->m.wklReadyCount1[kernelMgmt->wklCurrentId].write_relaxed(readyCount);
} else {
spurs->m.wklIdleSpuCountOrReadyCount2[kernelMgmt->wklCurrentId & 0x0F].write_relaxed(readyCount);
}
} while (spursDma(spu, MFC_PUTLLC_CMD, kernelMgmt->spurs.addr(), 0x100/*LSA*/, 0x80/*size*/, 0/*tag*/) == false);
return rc;
}
s32 spursTasksetLoadElf(SPUThread & spu, u32 * entryPoint, u32 * lowestLoadAddr, u64 elfAddr, bool skipWriteableSegments) {
if (elfAddr == 0 || (elfAddr & 0x0F) != 0) {
return CELL_SPURS_TASK_ERROR_INVAL;
}
vfsStreamMemory stream(elfAddr);
loader::handlers::elf32 loader;
auto rc = loader.init(stream);
if (rc != loader::handler::ok) {
return CELL_SPURS_TASK_ERROR_NOEXEC;
}
u32 _lowestLoadAddr = CELL_SPURS_TASK_BOTTOM;
for (auto & phdr : loader.m_phdrs) {
if (phdr.data_be.p_paddr >= CELL_SPURS_TASK_BOTTOM) {
break; break;
} }
// Set the ready count of the workload to the number of ready tasks if (phdr.data_be.p_type == 1/*PT_LOAD*/) {
do { if (skipWriteableSegments == false || (phdr.data_be.p_flags & 2/*PF_W*/) == 0) {
s32 readyCount = kernelMgmt->wklCurrentId >= CELL_SPURS_MAX_WORKLOAD ? if (phdr.data_be.p_vaddr < CELL_SPURS_TASK_TOP ||
kernelMgmt->spurs->m.wklIdleSpuCountOrReadyCount2[kernelMgmt->wklCurrentId & 0x0F].read_relaxed() : phdr.data_be.p_vaddr + phdr.data_be.p_memsz > CELL_SPURS_TASK_BOTTOM) {
kernelMgmt->spurs->m.wklReadyCount1[kernelMgmt->wklCurrentId].read_relaxed(); return CELL_SPURS_TASK_ERROR_FAULT;
auto newReadyCount = readyCount + delta > 0xFF ? 0xFF : readyCount + delta < 0 ? 0 : readyCount + delta;
if (kernelMgmt->wklCurrentId >= CELL_SPURS_MAX_WORKLOAD) {
kernelMgmt->spurs->m.wklIdleSpuCountOrReadyCount2[kernelMgmt->wklCurrentId & 0x0F].write_relaxed(newReadyCount);
} else {
kernelMgmt->spurs->m.wklReadyCount1[kernelMgmt->wklCurrentId].write_relaxed(newReadyCount);
} }
delta += readyCount; _lowestLoadAddr = _lowestLoadAddr > phdr.data_be.p_vaddr ? phdr.data_be.p_vaddr : _lowestLoadAddr;
} while (delta > 0); }
}
}
// TODO: Implement return loader.load_data(spu.ls_offset, skipWriteableSegments);
return false; *entryPoint = loader.m_ehdr.data_be.e_entry;
if (*lowestLoadAddr) {
*lowestLoadAddr = _lowestLoadAddr;
}
return CELL_OK;
} }
void spursTasksetExit(SPUThread & spu) { void spursTasksetExit(SPUThread & spu) {
@ -1100,7 +1258,7 @@ void spursTasksetDispatch(SPUThread & spu) {
u32 taskId; u32 taskId;
u32 isWaiting; u32 isWaiting;
spursTasksetProcessRequest(spu, 5, &taskId, &isWaiting); spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_SELECT_TASK, &taskId, &isWaiting);
if (taskId >= CELL_SPURS_MAX_TASK) { if (taskId >= CELL_SPURS_MAX_TASK) {
spursTasksetExit(spu); spursTasksetExit(spu);
return; return;
@ -1125,13 +1283,19 @@ void spursTasksetDispatch(SPUThread & spu) {
if (isWaiting == 0) { if (isWaiting == 0) {
// If we reach here it means that the task is being started and not being resumed // If we reach here it means that the task is being started and not being resumed
mgmt->lowestLoadSegmentAddr = CELL_SPURS_TASK_TOP; mgmt->guidAddr = CELL_SPURS_TASK_TOP;
// TODO: Load elf u32 entryPoint;
// TODO: halt if rc of Load elf != CELL_OK u32 lowestLoadAddr;
if (spursTasksetLoadElf(spu, &entryPoint, &lowestLoadAddr, taskInfo->elf_addr.addr(), false) != CELL_OK) {
spursHalt(spu);
return;
}
spursDmaWaitForCompletion(spu, 1 << mgmt->dmaTagId); spursDmaWaitForCompletion(spu, 1 << mgmt->dmaTagId);
mgmt->savedContextLr.value()._u32[3] = entryPoint;
mgmt->guidAddr = lowestLoadAddr;
mgmt->tasksetMgmtAddr = 0x2700; mgmt->tasksetMgmtAddr = 0x2700;
mgmt->x2FC0 = 0; mgmt->x2FC0 = 0;
mgmt->taskExitCode = isWaiting; mgmt->taskExitCode = isWaiting;
@ -1163,8 +1327,11 @@ void spursTasksetDispatch(SPUThread & spu) {
if (taskInfo->ls_pattern.u64[0] != 0xFFFFFFFFFFFFFFFFull || if (taskInfo->ls_pattern.u64[0] != 0xFFFFFFFFFFFFFFFFull ||
(taskInfo->ls_pattern.u64[1] | 0xFC00000000000000ull) != 0xFFFFFFFFFFFFFFFFull) { (taskInfo->ls_pattern.u64[1] | 0xFC00000000000000ull) != 0xFFFFFFFFFFFFFFFFull) {
// Load the ELF // Load the ELF
// TODO: Load ELF u32 entryPoint;
// TODO: halt if rc of Load elf != CELL_OK if (spursTasksetLoadElf(spu, &entryPoint, nullptr, taskInfo->elf_addr.addr(), true) != CELL_OK) {
spursHalt(spu);
return;
}
} }
// Load saved context from main memory to LS // Load saved context from main memory to LS
@ -1203,7 +1370,7 @@ void spursTasksetDispatch(SPUThread & spu) {
void spursTasksetProcessPollStatus(SPUThread & spu, u32 pollStatus) { void spursTasksetProcessPollStatus(SPUThread & spu, u32 pollStatus) {
if (pollStatus & CELL_SPURS_MODULE_POLL_STATUS_FLAG) { if (pollStatus & CELL_SPURS_MODULE_POLL_STATUS_FLAG) {
spursTasksetProcessRequest(spu, 6, nullptr, nullptr); spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_RECV_WKL_FLAG, nullptr, nullptr);
} }
} }
@ -1250,6 +1417,74 @@ void spursTasksetResumeTask(SPUThread & spu) {
spu.SetBranch(spu.GPR[0]._u32[3]); spu.SetBranch(spu.GPR[0]._u32[3]);
} }
s32 spursTasketSaveTaskContext(SPUThread & spu) {
auto mgmt = vm::get_ptr<SpursTasksetPmMgmtData>(spu.ls_offset + 0x2700);
auto taskInfo = vm::get_ptr<CellSpursTaskset::TaskInfo>(spu.ls_offset + 0x2780);
spursDmaWaitForCompletion(spu, 0xFFFFFFFF);
if (taskInfo->context_save_storage_and_alloc_ls_blocks == 0) {
return CELL_SPURS_TASK_ERROR_STAT;
}
u32 allocLsBlocks = taskInfo->context_save_storage_and_alloc_ls_blocks & 0x7F;
u32 lsBlocks = 0;
for (auto i = 0; i < 128; i++) {
if (taskInfo->ls_pattern.u64[i < 64 ? 1 : 0] & (0x8000000000000000ull >> i)) {
lsBlocks++;
}
}
if (lsBlocks > allocLsBlocks) {
return CELL_SPURS_TASK_ERROR_STAT;
}
// Make sure the stack is area is specified in the ls pattern
for (auto i = (mgmt->savedContextSp.value()._u32[3]) >> 11; i < 128; i++) {
if ((taskInfo->ls_pattern.u64[i < 64 ? 1 : 0] & (0x8000000000000000ull >> i)) == 0) {
return CELL_SPURS_TASK_ERROR_STAT;
}
}
// Get the processor context
u128 r;
spu.FPSCR.Read(r);
mgmt->savedContextFpscr = r;
spu.ReadChannel(r, SPU_RdEventMask);
mgmt->savedSpuWriteEventMask = r._u32[3];
spu.ReadChannel(r, MFC_RdTagMask);
mgmt->savedWriteTagGroupQueryMask = r._u32[3];
// Store the processor context
u64 contextSaveStorage = taskInfo->context_save_storage_and_alloc_ls_blocks & 0xFFFFFFFFFFFFFF80ull;
spursDma(spu, MFC_PUT_CMD, contextSaveStorage, 0x2C80/*LSA*/, 0x380/*size*/, mgmt->dmaTagId);
// Save LS context
for (auto i = 6; i < 128; i++) {
bool shouldStore = taskInfo->ls_pattern.u64[i < 64 ? 1 : 0] & (0x8000000000000000ull >> i) ? true : false;
if (shouldStore) {
// TODO: Combine DMA requests for consecutive blocks into a single request
spursDma(spu, MFC_PUT_CMD, contextSaveStorage + 0x400 + ((i - 6) << 11), CELL_SPURS_TASK_TOP + ((i - 6) << 11), 0x800/*size*/, mgmt->dmaTagId);
}
}
spursDmaWaitForCompletion(spu, 1 << mgmt->dmaTagId);
return CELL_OK;
}
void spursTasksetOnTaskExit(SPUThread & spu, u64 addr, u32 taskId, s32 exitCode, u64 args) {
auto mgmt = vm::get_ptr<SpursTasksetPmMgmtData>(spu.ls_offset + 0x2700);
spursDma(spu, MFC_GET_CMD, addr & 0xFFFFFF80, 0x10000/*LSA*/, (addr & 0x7F) << 11/*size*/, 0);
spursDmaWaitForCompletion(spu, 1);
spu.GPR[3]._u64[1] = mgmt->taskset.addr();
spu.GPR[4]._u32[3] = taskId;
spu.GPR[5]._u32[3] = exitCode;
spu.GPR[6]._u64[1] = args;
spu.FastCall(0x10000);
}
s32 spursTasksetProcessSyscall(SPUThread & spu, u32 syscallNum, u32 args) { s32 spursTasksetProcessSyscall(SPUThread & spu, u32 syscallNum, u32 args) {
auto mgmt = vm::get_ptr<SpursTasksetPmMgmtData>(spu.ls_offset + 0x2700); auto mgmt = vm::get_ptr<SpursTasksetPmMgmtData>(spu.ls_offset + 0x2700);
auto taskset = vm::get_ptr<CellSpursTaskset>(spu.ls_offset + 0x2700); auto taskset = vm::get_ptr<CellSpursTaskset>(spu.ls_offset + 0x2700);
@ -1268,32 +1503,32 @@ s32 spursTasksetProcessSyscall(SPUThread & spu, u32 syscallNum, u32 args) {
case CELL_SPURS_TASK_SYSCALL_EXIT: case CELL_SPURS_TASK_SYSCALL_EXIT:
if (mgmt->x2FD4 == 4 || (mgmt->x2FC0 & 0xFFFFFFFF) != 0) { // TODO: Figure this out if (mgmt->x2FD4 == 4 || (mgmt->x2FC0 & 0xFFFFFFFF) != 0) { // TODO: Figure this out
if (mgmt->x2FD4 != 4) { if (mgmt->x2FD4 != 4) {
spursTasksetProcessRequest(spu, 0, nullptr, nullptr); spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_DESTROY_TASK, nullptr, nullptr);
} }
auto a = mgmt->x2FD4 == 4 ? taskset->m.x78 : mgmt->x2FC0; auto addr = mgmt->x2FD4 == 4 ? taskset->m.x78 : mgmt->x2FC0;
auto b = mgmt->x2FD4 == 4 ? 0 : mgmt->x2FC8; auto args = mgmt->x2FD4 == 4 ? 0 : mgmt->x2FC8;
// TODO: onTaskExit(a, mgmt->taskId, mgmt->taskExitCode, b) spursTasksetOnTaskExit(spu, addr, mgmt->taskId, mgmt->taskExitCode, args);
} }
incident = CELL_SPURS_TRACE_TASK_EXIT; incident = CELL_SPURS_TRACE_TASK_EXIT;
break; break;
case CELL_SPURS_TASK_SYSCALL_YIELD: case CELL_SPURS_TASK_SYSCALL_YIELD:
if (spursTasksetPollStatus(spu) || spursTasksetProcessRequest(spu, 3, nullptr, nullptr)) { if (spursTasksetPollStatus(spu) || spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_POLL, nullptr, nullptr)) {
// If we reach here then it means that either another task can be scheduled or another workload can be scheduled // If we reach here then it means that either another task can be scheduled or another workload can be scheduled
// Save the context of the current task // Save the context of the current task
// TODO: rc = saveContext rc = spursTasketSaveTaskContext(spu);
if (rc == CELL_OK) { if (rc == CELL_OK) {
spursTasksetProcessRequest(spu, 1, nullptr, nullptr); spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_YIELD_TASK, nullptr, nullptr);
incident = CELL_SPURS_TRACE_TASK_YIELD; incident = CELL_SPURS_TRACE_TASK_YIELD;
} }
} }
break; break;
case CELL_SPURS_TASK_SYSCALL_WAIT_SIGNAL: case CELL_SPURS_TASK_SYSCALL_WAIT_SIGNAL:
if (spursTasksetProcessRequest(spu, -1, nullptr, nullptr)) { if (spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_POLL_SIGNAL, nullptr, nullptr) == 0) {
// TODO: rc = saveContext rc = spursTasketSaveTaskContext(spu);
if (rc == CELL_OK) { if (rc == CELL_OK) {
if (spursTasksetProcessRequest(spu, 2, nullptr, nullptr) == false) { if (spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_WAIT_SIGNAL, nullptr, nullptr) == 0) {
incident = CELL_SPURS_TRACE_TASK_WAIT; incident = CELL_SPURS_TRACE_TASK_WAIT;
} }
} }
@ -1301,17 +1536,16 @@ s32 spursTasksetProcessSyscall(SPUThread & spu, u32 syscallNum, u32 args) {
break; break;
case CELL_SPURS_TASK_SYSCALL_POLL: case CELL_SPURS_TASK_SYSCALL_POLL:
rc = spursTasksetPollStatus(spu) ? CELL_SPURS_TASK_POLL_FOUND_WORKLOAD : 0; rc = spursTasksetPollStatus(spu) ? CELL_SPURS_TASK_POLL_FOUND_WORKLOAD : 0;
rc |= spursTasksetProcessRequest(spu, 3, nullptr, nullptr) ? CELL_SPURS_TASK_POLL_FOUND_TASK : 0; rc |= spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_POLL, nullptr, nullptr) ? CELL_SPURS_TASK_POLL_FOUND_TASK : 0;
break; break;
case CELL_SPURS_TASK_SYSCALL_RECV_WKL_FLAG: case CELL_SPURS_TASK_SYSCALL_RECV_WKL_FLAG:
if (args == 0) { // TODO: Figure this out if (args == 0) { // TODO: Figure this out
spursHalt(spu); spursHalt(spu);
} }
if (spursTasksetPollStatus(spu) || spursTasksetProcessRequest(spu, 4, nullptr, nullptr) != true) { if (spursTasksetPollStatus(spu) || spursTasksetProcessRequest(spu, SPURS_TASKSET_REQUEST_WAIT_WKL_FLAG, nullptr, nullptr) != 1) {
// TODO: rc = saveContext rc = spursTasketSaveTaskContext(spu);
if (rc == CELL_OK) { if (rc == CELL_OK) {
spursTasksetProcessRequest(spu, 1, nullptr, nullptr);
incident = CELL_SPURS_TRACE_TASK_WAIT; incident = CELL_SPURS_TRACE_TASK_WAIT;
} }
} }
@ -1331,7 +1565,7 @@ s32 spursTasksetProcessSyscall(SPUThread & spu, u32 syscallNum, u32 args) {
cellSpursModulePutTrace(&pkt, mgmt->dmaTagId); cellSpursModulePutTrace(&pkt, mgmt->dmaTagId);
// Clear the GUID of the task // Clear the GUID of the task
memset(vm::get_ptr<void>(spu.ls_offset + mgmt->lowestLoadSegmentAddr), 0, 0x10); memset(vm::get_ptr<void>(spu.ls_offset + mgmt->guidAddr), 0, 0x10);
if (spursTasksetPollStatus(spu)) { if (spursTasksetPollStatus(spu)) {
spursTasksetExit(spu); spursTasksetExit(spu);

7
rpcs3/Loader/ELF32.cpp
View file

@ -247,7 +247,7 @@ namespace loader
return ok; return ok;
} }
handler::error_code elf32::load_data(u32 offset) handler::error_code elf32::load_data(u32 offset, bool skip_writeable)
{ {
Elf_Machine machine = (Elf_Machine)(u16)(m_ehdr.is_le() ? m_ehdr.data_le.e_machine : m_ehdr.data_be.e_machine); Elf_Machine machine = (Elf_Machine)(u16)(m_ehdr.is_le() ? m_ehdr.data_le.e_machine : m_ehdr.data_be.e_machine);
@ -270,6 +270,11 @@ namespace loader
return loading_error; return loading_error;
} }
if (skip_writeable == true && (phdr.data_be.p_flags & 2/*PF_W*/) != 0)
{
continue;
}
if (filesz) if (filesz)
{ {
m_stream->Seek(handler::get_stream_offset() + offset); m_stream->Seek(handler::get_stream_offset() + offset);

2
rpcs3/Loader/ELF32.h
View file

@ -132,7 +132,7 @@ namespace loader
error_code init(vfsStream& stream) override; error_code init(vfsStream& stream) override;
error_code load() override; error_code load() override;
error_code load_data(u32 offset); error_code load_data(u32 offset, bool skip_writeable = false);
virtual ~elf32() = default; virtual ~elf32() = default;
}; };