Play-/Source/iop/Iop_Spu2.cpp
jpd002 74ddd5ef12 Second pass of cleanup for C++11.
git-svn-id: http://svn.purei.org/purei/trunk@852 b36208d7-6611-0410-8bec-b1987f11c4a2
2012-03-11 20:16:15 +00:00

228 lines
8.8 KiB
C++

#include <assert.h>
#include "Iop_Spu2.h"
#include "../Log.h"
#include "placeholder_def.h"
#define LOG_NAME ("iop_spu2")
using namespace Iop;
using namespace Iop::Spu2;
/*
#define SD_BASE_REG(reg) ((volatile u16 *)(0xBF900000 + reg))
#define SD_VP_REG(core, voice, reg) SD_BASE_REG(((core) << 10) + ((voice) << 4) + (reg))
#define SD_VP_VOLL(core, voice) SD_VP_REG((core), (voice), 0x00)
#define SD_VP_VOLR(core, voice) SD_VP_REG((core), (voice), 0x02)
#define SD_VP_PITCH(core, voice) SD_VP_REG((core), (voice), 0x04)
#define SD_VP_ADSR1(core, voice) SD_VP_REG((core), (voice), 0x06)
#define SD_VP_ADSR2(core, voice) SD_VP_REG((core), (voice), 0x08)
#define SD_VP_ENVX(core, voice) SD_VP_REG((core), (voice), 0x0A)
#define SD_VP_VOLXL(core, voice) SD_VP_REG((core), (voice), 0x0C)
#define SD_VP_VOLXR(core, voice) SD_VP_REG((core), (voice), 0x0E)
#define SD_S_REG(core, reg) SD_BASE_REG(0x180 + ((core) << 10) + (reg))
#define SD_S_PMON_HI(core) SD_S_REG((core), 0x00)
#define SD_S_PMON_LO(core) SD_S_REG((core), 0x02)
#define SD_S_NON_HI(core) SD_S_REG((core), 0x04)
#define SD_S_NON_LO(core) SD_S_REG((core), 0x06)
#define SD_S_VMIXL_HI(core) SD_S_REG((core), 0x08)
#define SD_S_VMIXL_LO(core) SD_S_REG((core), 0x0A)
#define SD_S_VMIXEL_HI(core) SD_S_REG((core), 0x0C)
#define SD_S_VMIXEL_LO(core) SD_S_REG((core), 0x0E)
#define SD_S_VMIXR_HI(core) SD_S_REG((core), 0x10)
#define SD_S_VMIXR_LO(core) SD_S_REG((core), 0x12)
#define SD_S_VMIXER_HI(core) SD_S_REG((core), 0x14)
#define SD_S_VMIXER_LO(core) SD_S_REG((core), 0x16)
#define SD_P_MMIX(core) SD_S_REG((core), 0x18)
#define SD_CORE_ATTR(core) SD_S_REG((core), 0x1A)
#define SD_CORE_IRQA(core) SD_S_REG((core), 0x1C)
#define SD_A_REG(core, reg) SD_BASE_REG(0x1A0 + ((core) << 10) + (reg))
#define SD_A_KON_HI(core) SD_A_REG((core), 0x00) // Key on (start sound generation)
#define SD_A_KON_LO(core) SD_A_REG((core), 0x02)
#define SD_A_KOFF_HI(core) SD_A_REG((core), 0x04) // Key off (end sound generation)
#define SD_A_KOFF_LO(core) SD_A_REG((core), 0x06)
#define SD_A_TSA_HI(core) SD_A_REG((core), 0x08) // Transfer start address
#define SD_A_TSA_LO(core) SD_A_REG((core), 0x0A)
#define SD_A_STD(core) SD_A_REG((core), 0x0C) // Sound Transfer Data
#define SD_VA_REG(core, voice, reg) SD_BASE_REG(0x1C0 + ((core) << 10) + ((voice) * 12) + (reg))
#define SD_VA_SSA_HI(core, voice) SD_VA_REG((core), (voice), 0x00)
#define SD_VA_SSA_LO(core, voice) SD_VA_REG((core), (voice), 0x02)
#define SD_VA_LSAX(core, voice) SD_VA_REG((core), (voice), 0x04)
#define SD_VA_NAX(core, voice) SD_VA_REG((core), (voice), 0x08)
//#define SD_C_STATX(core) ((volatile u16*)(0xBF900334 + ((core) << 10))) // This is not the official name
#define SD_S_ENDX_HI(core) ((volatile u16*)(0xBF900340 + ((core) << 10)))
#define SD_S_ENDX_LO(core) ((volatile u16*)(0xBF900342 + ((core) << 10)))
#define SD_P_REG(core, reg) SD_BASE_REG(0x760 + ((core) * 40) + (reg))
#define SD_P_MVOLL(core) SD_P_REG((core), 0x00)
#define SD_P_MVOLR(core) SD_P_REG((core), 0x02)
#define SD_P_EVOLL(core) SD_P_REG((core), 0x04)
#define SD_P_EVOLR(core) SD_P_REG((core), 0x06)
#define SD_P_AVOLL(core) SD_P_REG((core), 0x08)
#define SD_P_AVOLR(core) SD_P_REG((core), 0x0A)
#define SD_P_BVOLL(core) SD_P_REG((core), 0x0C)
#define SD_P_BVOLR(core) SD_P_REG((core), 0x0E)
#define SD_P_MVOLXL(core) SD_P_REG((core), 0x10)
#define SD_P_MVOLXR(core) SD_P_REG((core), 0x12)
#define SD_C_SPDIF_OUT ((volatile u16*)0xBF9007C0)
#define SD_C_IRQINFO ((volatile u16*)0xBF9007C2)
#define SD_C_SPDIF_MODE ((volatile u16*)0xBF9007C6)
#define SD_C_SPDIF_MEDIA ((volatile u16*)0xBF9007C8)
// Reverb / Effect Registers
#define SD_R_REG(core, reg) SD_BASE_REG(0x2E0 + ((core) << 10) + reg)
// These registers are 1 word long, but low/high is accessed as halfwords
#define SD_A_ESA_HI(core) SD_R_REG((core), 0x00)
#define SD_A_ESA_LO(core) SD_R_REG((core), 0x02)
#define SD_R_FB_SRC_A(core) SD_R_REG((core), 0x04)
#define SD_R_FB_SRC_B(core) SD_R_REG((core), 0x08)
#define SD_R_IIR_DEST_A0(core) SD_R_REG((core), 0x0C)
#define SD_R_IIR_DEST_A1(core) SD_R_REG((core), 0x10)
#define SD_R_ACC_SRC_A0(core) SD_R_REG((core), 0x14)
#define SD_R_ACC_SRC_A1(core) SD_R_REG((core), 0x18)
#define SD_R_ACC_SRC_B0(core) SD_R_REG((core), 0x1C)
#define SD_R_ACC_SRC_B1(core) SD_R_REG((core), 0x20)
#define SD_R_IIR_SRC_A0(core) SD_R_REG((core), 0x24)
#define SD_R_IIR_SRC_A1(core) SD_R_REG((core), 0x28)
#define SD_R_IIR_DEST_B0(core) SD_R_REG((core), 0x2C)
#define SD_R_IIR_DEST_B1(core) SD_R_REG((core), 0x30)
#define SD_R_ACC_SRC_C0(core) SD_R_REG((core), 0x34)
#define SD_R_ACC_SRC_C1(core) SD_R_REG((core), 0x38)
#define SD_R_ACC_SRC_D0(core) SD_R_REG((core), 0x3C)
#define SD_R_ACC_SRC_D1(core) SD_R_REG((core), 0x40)
#define SD_R_IIR_SRC_B1(core) SD_R_REG((core), 0x44)
#define SD_R_IIR_SRC_B0(core) SD_R_REG((core), 0x48)
#define SD_R_MIX_DEST_A0(core) SD_R_REG((core), 0x4C)
#define SD_R_MIX_DEST_A1(core) SD_R_REG((core), 0x50)
#define SD_R_MIX_DEST_B0(core) SD_R_REG((core), 0x54)
#define SD_R_MIX_DEST_B1(core) SD_R_REG((core), 0x58)
#define SD_A_EEA_HI(core) SD_R_REG((core), 0x5C)
#define SD_A_EEA_LO(core) SD_R_REG((core), 0x5E)
// Halfwords
#define SD_R_IIR_ALPHA(core) SD_P_REG((core), 0x14)
#define SD_R_ACC_COEF_A(core) SD_P_REG((core), 0x16)
#define SD_R_ACC_COEF_B(core) SD_P_REG((core), 0x18)
#define SD_R_ACC_COEF_C(core) SD_P_REG((core), 0x1A)
#define SD_R_ACC_COEF_D(core) SD_P_REG((core), 0x1C)
#define SD_R_IIR_COEF(core) SD_P_REG((core), 0x1E)
#define SD_R_FB_ALPHA(core) SD_P_REG((core), 0x20)
#define SD_R_FB_X(core) SD_P_REG((core), 0x22)
#define SD_R_IN_COEF_L(core) SD_P_REG((core), 0x24)
#define SD_R_IN_COEF_R(core) SD_P_REG((core), 0x26)
// SPU DMA Channels 0,1 - 1088 bytes apart
#define SD_DMA_ADDR(ch) ((volatile u32*)(0xBF8010C0+(ch*1088)))
#define SD_DMA_MODE(ch) ((volatile u16*)(0xBF8010C4+(ch*1088)))
#define SD_DMA_SIZE(ch) ((volatile u16*)(0xBF8010C6+(ch*1088)))
#define SD_DMA_MSIZE(ch) ((volatile u32*)(0xBF8010C4+(ch*1088)))
#define SD_DMA_CHCR(ch) ((volatile u32*)(0xBF8010C8+(ch*1088)))
// CHCR
#define SD_DMA_CS (1 << 9) // Continuous stream
#define SD_DMA_START (1 << 24)
#define SD_DMA_DIR_SPU2IOP 0
#define SD_DMA_DIR_IOP2SPU 1
*/
CSpu2::CSpu2(CSpuBase& spuBase0, CSpuBase& spuBase1)
{
for(unsigned int i = 0; i < CORE_NUM; i++)
{
CSpuBase& base(i == 0 ? spuBase0 : spuBase1);
m_core[i] = new CCore(i, base);
}
m_readDispatchInfo.global = std::bind(&CSpu2::ReadRegisterImpl, this, std::placeholders::_1, std::placeholders::_2);
m_writeDispatchInfo.global = std::bind(&CSpu2::WriteRegisterImpl, this, std::placeholders::_1, std::placeholders::_2);
for(unsigned int i = 0; i < CORE_NUM; i++)
{
m_readDispatchInfo.core[i] = std::bind(&CCore::ReadRegister, m_core[i], std::placeholders::_1, std::placeholders::_2);
m_writeDispatchInfo.core[i] = std::bind(&CCore::WriteRegister, m_core[i], std::placeholders::_1, std::placeholders::_2);
}
}
CSpu2::~CSpu2()
{
}
void CSpu2::Reset()
{
for(unsigned int i = 0; i < CORE_NUM; i++)
{
m_core[i]->Reset();
}
}
CCore* CSpu2::GetCore(unsigned int coreId)
{
assert(coreId < CORE_NUM);
if(coreId >= CORE_NUM) return NULL;
return m_core[coreId];
}
uint32 CSpu2::ReadRegister(uint32 address)
{
return ProcessRegisterAccess(m_readDispatchInfo, address, 0);
}
uint32 CSpu2::WriteRegister(uint32 address, uint32 value)
{
return ProcessRegisterAccess(m_writeDispatchInfo, address, value);
}
uint32 CSpu2::ProcessRegisterAccess(const REGISTER_DISPATCH_INFO& dispatchInfo, uint32 address, uint32 value)
{
uint32 tmpAddress = address - REGS_BEGIN;
if(tmpAddress < 0x760)
{
unsigned int coreId = (tmpAddress & 0x400) ? 1 : 0;
address &= ~0x400;
return dispatchInfo.core[coreId](address, value);
}
else if(tmpAddress < 0x7B0)
{
unsigned int coreId = (tmpAddress - 0x760) / 40;
address -= coreId * 40;
return dispatchInfo.core[coreId](address, value);
}
return dispatchInfo.global(address, value);
}
uint32 CSpu2::ReadRegisterImpl(uint32 address, uint32 value)
{
LogRead(address);
return 0;
}
uint32 CSpu2::WriteRegisterImpl(uint32 address, uint32 value)
{
LogWrite(address, value);
return 0;
}
void CSpu2::LogRead(uint32 address)
{
switch(address)
{
default:
CLog::GetInstance().Print(LOG_NAME, "Read an unknown register 0x%0.8X.\r\n", address);
break;
}
}
void CSpu2::LogWrite(uint32 address, uint32 value)
{
switch(address)
{
default:
CLog::GetInstance().Print(LOG_NAME, "Wrote 0x%0.8X to unknown register 0x%0.8X.\r\n", value, address);
break;
}
}