#include "stdafx.h" #if (!defined(EXTERNAL_RELEASE)) void LoadLogSetting (HKEY hKey,char * String, BOOL * Value); void SaveLogOptions (void); LRESULT CALLBACK LogGeneralProc ( HWND, UINT, WPARAM, LPARAM ); LRESULT CALLBACK LogPifProc ( HWND, UINT, WPARAM, LPARAM ); LRESULT CALLBACK LogRegProc ( HWND, UINT, WPARAM, LPARAM ); LOG_OPTIONS LogOptions,TempOptions; HANDLE hLogFile = NULL; void EnterLogOptions(HWND hwndOwner) { PROPSHEETPAGE psp[3]; PROPSHEETHEADER psh; psp[0].dwSize = sizeof(PROPSHEETPAGE); psp[0].dwFlags = PSP_USETITLE; psp[0].hInstance = GetModuleHandle(NULL); psp[0].pszTemplate = MAKEINTRESOURCE(IDD_Logging_Registers); psp[0].pfnDlgProc = (DLGPROC)LogRegProc; psp[0].pszTitle = "Registers"; psp[0].lParam = 0; psp[0].pfnCallback = NULL; psp[1].dwSize = sizeof(PROPSHEETPAGE); psp[1].dwFlags = PSP_USETITLE; psp[1].hInstance = GetModuleHandle(NULL); psp[1].pszTemplate = MAKEINTRESOURCE(IDD_Logging_PifRam); psp[1].pfnDlgProc = (DLGPROC)LogPifProc; psp[1].pszTitle = "Pif Ram"; psp[1].lParam = 0; psp[1].pfnCallback = NULL; psp[2].dwSize = sizeof(PROPSHEETPAGE); psp[2].dwFlags = PSP_USETITLE; psp[2].hInstance = GetModuleHandle(NULL); psp[2].pszTemplate = MAKEINTRESOURCE(IDD_Logging_General); psp[2].pfnDlgProc = (DLGPROC)LogGeneralProc; psp[2].pszTitle = "General"; psp[2].lParam = 0; psp[2].pfnCallback = NULL; psh.dwSize = sizeof(PROPSHEETHEADER); psh.dwFlags = PSH_PROPSHEETPAGE | PSH_NOAPPLYNOW; psh.hwndParent = hwndOwner; psh.hInstance = GetModuleHandle(NULL); psh.pszCaption = (LPSTR) "Log Options"; psh.nPages = sizeof(psp) / sizeof(PROPSHEETPAGE); psh.nStartPage = 0; psh.ppsp = (LPCPROPSHEETPAGE) &psp; psh.pfnCallback = NULL; LoadLogOptions(&TempOptions,TRUE); PropertySheet(&psh); SaveLogOptions(); LoadLogOptions(&LogOptions, FALSE); return; } void LoadLogOptions (LOG_OPTIONS * LogOptions, BOOL AlwaysFill) { long lResult; HKEY hKeyResults = 0; char String[200]; sprintf(String,"Software\\N64 Emulation\\%s\\Logging",g_Settings->LoadString(Setting_ApplicationName).c_str()); lResult = RegOpenKeyEx( HKEY_CURRENT_USER,String,0,KEY_ALL_ACCESS, &hKeyResults); if (lResult == ERROR_SUCCESS) { //LoadLogSetting(hKeyResults,"Generate Log File",&LogOptions->GenerateLog); if (LogOptions->GenerateLog || AlwaysFill) { LoadLogSetting(hKeyResults,"Log RDRAM",&LogOptions->LogRDRamRegisters); LoadLogSetting(hKeyResults,"Log SP",&LogOptions->LogSPRegisters); LoadLogSetting(hKeyResults,"Log DP Command",&LogOptions->LogDPCRegisters); LoadLogSetting(hKeyResults,"Log DP Span",&LogOptions->LogDPSRegisters); LoadLogSetting(hKeyResults,"Log MIPS Interface (MI)",&LogOptions->LogMIPSInterface); LoadLogSetting(hKeyResults,"Log Video Interface (VI)",&LogOptions->LogVideoInterface); LoadLogSetting(hKeyResults,"Log Audio Interface (AI)",&LogOptions->LogAudioInterface); LoadLogSetting(hKeyResults,"Log Peripheral Interface (PI)",&LogOptions->LogPerInterface); LoadLogSetting(hKeyResults,"Log RDRAM Interface (RI)",&LogOptions->LogRDRAMInterface); LoadLogSetting(hKeyResults,"Log Serial Interface (SI)",&LogOptions->LogSerialInterface); LoadLogSetting(hKeyResults,"Log PifRam DMA Operations",&LogOptions->LogPRDMAOperations); LoadLogSetting(hKeyResults,"Log PifRam Direct Memory Loads",&LogOptions->LogPRDirectMemLoads); LoadLogSetting(hKeyResults,"Log PifRam DMA Memory Loads",&LogOptions->LogPRDMAMemLoads); LoadLogSetting(hKeyResults,"Log PifRam Direct Memory Stores",&LogOptions->LogPRDirectMemStores); LoadLogSetting(hKeyResults,"Log PifRam DMA Memory Stores",&LogOptions->LogPRDMAMemStores); LoadLogSetting(hKeyResults,"Log Controller Pak",&LogOptions->LogControllerPak); LoadLogSetting(hKeyResults,"Log CP0 changes",&LogOptions->LogCP0changes); LoadLogSetting(hKeyResults,"Log CP0 reads",&LogOptions->LogCP0reads); LoadLogSetting(hKeyResults,"Log Exceptions",&LogOptions->LogExceptions); LoadLogSetting(hKeyResults,"No Interrupts",&LogOptions->NoInterrupts); LoadLogSetting(hKeyResults,"Log TLB",&LogOptions->LogTLB); LoadLogSetting(hKeyResults,"Log Cache Operations",&LogOptions->LogCache); LoadLogSetting(hKeyResults,"Log Rom Header",&LogOptions->LogRomHeader); LoadLogSetting(hKeyResults,"Log Unknown access",&LogOptions->LogUnknown); return; } } LogOptions->GenerateLog = FALSE; LogOptions->LogRDRamRegisters = FALSE; LogOptions->LogSPRegisters = FALSE; LogOptions->LogDPCRegisters = FALSE; LogOptions->LogDPSRegisters = FALSE; LogOptions->LogMIPSInterface = FALSE; LogOptions->LogVideoInterface = FALSE; LogOptions->LogAudioInterface = FALSE; LogOptions->LogPerInterface = FALSE; LogOptions->LogRDRAMInterface = FALSE; LogOptions->LogSerialInterface = FALSE; LogOptions->LogPRDMAOperations = FALSE; LogOptions->LogPRDirectMemLoads = FALSE; LogOptions->LogPRDMAMemLoads = FALSE; LogOptions->LogPRDirectMemStores = FALSE; LogOptions->LogPRDMAMemStores = FALSE; LogOptions->LogControllerPak = FALSE; LogOptions->LogCP0changes = FALSE; LogOptions->LogCP0reads = FALSE; LogOptions->LogCache = FALSE; LogOptions->LogExceptions = FALSE; LogOptions->NoInterrupts = FALSE; LogOptions->LogTLB = FALSE; LogOptions->LogRomHeader = FALSE; LogOptions->LogUnknown = FALSE; } void LoadLogSetting (HKEY hKey,char * String, BOOL * Value) { DWORD Type, dwResult, Bytes = 4; long lResult; lResult = RegQueryValueEx(hKey,String,0,&Type,(LPBYTE)(&dwResult),&Bytes); if (Type == REG_DWORD && lResult == ERROR_SUCCESS) { *Value = (BOOL)dwResult; } else { *Value = FALSE; } } LRESULT CALLBACK LogGeneralProc (HWND hDlg, UINT uMsg, WPARAM /*wParam*/, LPARAM lParam) { switch (uMsg) { case WM_INITDIALOG: if (TempOptions.LogCP0changes) { CheckDlgButton(hDlg,IDC_CP0_WRITE,BST_CHECKED); } if (TempOptions.LogCP0reads) { CheckDlgButton(hDlg,IDC_CP0_READ,BST_CHECKED); } if (TempOptions.LogCache) { CheckDlgButton(hDlg,IDC_CACHE,BST_CHECKED); } if (TempOptions.LogExceptions) { CheckDlgButton(hDlg,IDC_EXCEPTIONS,BST_CHECKED); } if (TempOptions.NoInterrupts) { CheckDlgButton(hDlg,IDC_INTERRUPTS,BST_CHECKED); } if (TempOptions.LogTLB) { CheckDlgButton(hDlg,IDC_TLB,BST_CHECKED); } if (TempOptions.LogRomHeader) { CheckDlgButton(hDlg,IDC_ROM_HEADER,BST_CHECKED); } if (TempOptions.LogUnknown) { CheckDlgButton(hDlg,IDC_UNKOWN,BST_CHECKED); } break; case WM_NOTIFY: if (((NMHDR FAR *) lParam)->code != PSN_APPLY) { break; } TempOptions.LogCP0changes = IsDlgButtonChecked(hDlg,IDC_CP0_WRITE) == BST_CHECKED?TRUE:FALSE; TempOptions.LogCP0reads = IsDlgButtonChecked(hDlg,IDC_CP0_READ) == BST_CHECKED?TRUE:FALSE; TempOptions.LogCache = IsDlgButtonChecked(hDlg,IDC_CACHE) == BST_CHECKED?TRUE:FALSE; TempOptions.LogExceptions = IsDlgButtonChecked(hDlg,IDC_EXCEPTIONS) == BST_CHECKED?TRUE:FALSE; TempOptions.NoInterrupts = IsDlgButtonChecked(hDlg,IDC_INTERRUPTS) == BST_CHECKED?TRUE:FALSE; TempOptions.LogTLB = IsDlgButtonChecked(hDlg,IDC_TLB) == BST_CHECKED?TRUE:FALSE; TempOptions.LogRomHeader = IsDlgButtonChecked(hDlg,IDC_ROM_HEADER) == BST_CHECKED?TRUE:FALSE; TempOptions.LogUnknown = IsDlgButtonChecked(hDlg,IDC_UNKOWN) == BST_CHECKED?TRUE:FALSE; break; default: return FALSE; } return TRUE; } void Log_LW (DWORD PC, DWORD VAddr) { if (!LogOptions.GenerateLog) { return; } if ( VAddr < 0xA0000000 || VAddr >= 0xC0000000 ) { DWORD PAddr; if (!_TransVaddr->TranslateVaddr(VAddr,PAddr)) { if (LogOptions.LogUnknown) { LogMessage("%08X: read from unknown ??? (%08X)",PC,VAddr); } return; } VAddr = PAddr + 0xA0000000; } DWORD Value; if ( VAddr >= 0xA0000000 && VAddr < (0xA0000000 + g_MMU->RdramSize())) { return; } if ( VAddr >= 0xA3F00000 && VAddr <= 0xA3F00024) { if (!LogOptions.LogRDRamRegisters) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA3F00000: LogMessage("%08X: read from RDRAM_CONFIG_REG/RDRAM_DEVICE_TYPE_REG (%08X)",PC, Value); return; case 0xA3F00004: LogMessage("%08X: read from RDRAM_DEVICE_ID_REG (%08X)",PC, Value); return; case 0xA3F00008: LogMessage("%08X: read from RDRAM_DELAY_REG (%08X)",PC, Value); return; case 0xA3F0000C: LogMessage("%08X: read from RDRAM_MODE_REG (%08X)",PC, Value); return; case 0xA3F00010: LogMessage("%08X: read from RDRAM_REF_INTERVAL_REG (%08X)",PC, Value); return; case 0xA3F00014: LogMessage("%08X: read from RDRAM_REF_ROW_REG (%08X)",PC, Value); return; case 0xA3F00018: LogMessage("%08X: read from RDRAM_RAS_INTERVAL_REG (%08X)",PC, Value); return; case 0xA3F0001C: LogMessage("%08X: read from RDRAM_MIN_INTERVAL_REG (%08X)",PC, Value); return; case 0xA3F00020: LogMessage("%08X: read from RDRAM_ADDR_SELECT_REG (%08X)",PC, Value); return; case 0xA3F00024: LogMessage("%08X: read from RDRAM_DEVICE_MANUF_REG (%08X)",PC, Value); return; } } if ( VAddr >= 0xA4000000 && VAddr <= 0xA4001FFC ) { return; } if ( VAddr >= 0xA4040000 && VAddr <= 0xA404001C ) { if (!LogOptions.LogSPRegisters) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4040000: LogMessage("%08X: read from SP_MEM_ADDR_REG (%08X)",PC, Value); break; case 0xA4040004: LogMessage("%08X: read from SP_DRAM_ADDR_REG (%08X)",PC, Value); break; case 0xA4040008: LogMessage("%08X: read from SP_RD_LEN_REG (%08X)",PC, Value); break; case 0xA404000C: LogMessage("%08X: read from SP_WR_LEN_REG (%08X)",PC, Value); break; case 0xA4040010: LogMessage("%08X: read from SP_STATUS_REG (%08X)",PC, Value); break; case 0xA4040014: LogMessage("%08X: read from SP_DMA_FULL_REG (%08X)",PC, Value); break; case 0xA4040018: LogMessage("%08X: read from SP_DMA_BUSY_REG (%08X)",PC, Value); break; case 0xA404001C: LogMessage("%08X: read from SP_SEMAPHORE_REG (%08X)",PC, Value); break; } return; } if ( VAddr == 0xA4080000) { if (!LogOptions.LogSPRegisters) { return; } g_MMU->LW_VAddr(VAddr,Value); LogMessage("%08X: read from SP_PC (%08X)",PC, Value); return; } if (VAddr >= 0xA4100000 && VAddr <= 0xA410001C) { if (!LogOptions.LogDPCRegisters) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4100000: LogMessage("%08X: read from DPC_START_REG (%08X)",PC, Value); return; case 0xA4100004: LogMessage("%08X: read from DPC_END_REG (%08X)",PC, Value); return; case 0xA4100008: LogMessage("%08X: read from DPC_CURRENT_REG (%08X)",PC, Value); return; case 0xA410000C: LogMessage("%08X: read from DPC_STATUS_REG (%08X)",PC, Value); return; case 0xA4100010: LogMessage("%08X: read from DPC_CLOCK_REG (%08X)",PC, Value); return; case 0xA4100014: LogMessage("%08X: read from DPC_BUFBUSY_REG (%08X)",PC, Value); return; case 0xA4100018: LogMessage("%08X: read from DPC_PIPEBUSY_REG (%08X)",PC, Value); return; case 0xA410001C: LogMessage("%08X: read from DPC_TMEM_REG (%08X)",PC, Value); return; } } if (VAddr >= 0xA4300000 && VAddr <= 0xA430000C) { if (!LogOptions.LogMIPSInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4300000: LogMessage("%08X: read from MI_INIT_MODE_REG/MI_MODE_REG (%08X)",PC, Value); return; case 0xA4300004: LogMessage("%08X: read from MI_VERSION_REG/MI_NOOP_REG (%08X)",PC, Value); return; case 0xA4300008: LogMessage("%08X: read from MI_INTR_REG (%08X)",PC, Value); return; case 0xA430000C: LogMessage("%08X: read from MI_INTR_MASK_REG (%08X)",PC, Value); return; } } if (VAddr >= 0xA4400000 && VAddr <= 0xA4400034) { if (!LogOptions.LogVideoInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4400000: LogMessage("%08X: read from VI_STATUS_REG/VI_CONTROL_REG (%08X)",PC, Value); return; case 0xA4400004: LogMessage("%08X: read from VI_ORIGIN_REG/VI_DRAM_ADDR_REG (%08X)",PC, Value); return; case 0xA4400008: LogMessage("%08X: read from VI_WIDTH_REG/VI_H_WIDTH_REG (%08X)",PC, Value); return; case 0xA440000C: LogMessage("%08X: read from VI_INTR_REG/VI_V_INTR_REG (%08X)",PC, Value); return; case 0xA4400010: LogMessage("%08X: read from VI_CURRENT_REG/VI_V_CURRENT_LINE_REG (%08X)",PC, Value); return; case 0xA4400014: LogMessage("%08X: read from VI_BURST_REG/VI_TIMING_REG (%08X)",PC, Value); return; case 0xA4400018: LogMessage("%08X: read from VI_V_SYNC_REG (%08X)",PC, Value); return; case 0xA440001C: LogMessage("%08X: read from VI_H_SYNC_REG (%08X)",PC, Value); return; case 0xA4400020: LogMessage("%08X: read from VI_LEAP_REG/VI_H_SYNC_LEAP_REG (%08X)",PC, Value); return; case 0xA4400024: LogMessage("%08X: read from VI_H_START_REG/VI_H_VIDEO_REG (%08X)",PC, Value); return; case 0xA4400028: LogMessage("%08X: read from VI_V_START_REG/VI_V_VIDEO_REG (%08X)",PC, Value); return; case 0xA440002C: LogMessage("%08X: read from VI_V_BURST_REG (%08X)",PC, Value); return; case 0xA4400030: LogMessage("%08X: read from VI_X_SCALE_REG (%08X)",PC, Value); return; case 0xA4400034: LogMessage("%08X: read from VI_Y_SCALE_REG (%08X)",PC, Value); return; } } if (VAddr >= 0xA4500000 && VAddr <= 0xA4500014) { if (!LogOptions.LogAudioInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4500000: LogMessage("%08X: read from AI_DRAM_ADDR_REG (%08X)",PC, Value); return; case 0xA4500004: LogMessage("%08X: read from AI_LEN_REG (%08X)",PC, Value); return; case 0xA4500008: LogMessage("%08X: read from AI_CONTROL_REG (%08X)",PC, Value); return; case 0xA450000C: LogMessage("%08X: read from AI_STATUS_REG (%08X)",PC, Value); return; case 0xA4500010: LogMessage("%08X: read from AI_DACRATE_REG (%08X)",PC, Value); return; case 0xA4500014: LogMessage("%08X: read from AI_BITRATE_REG (%08X)",PC, Value); return; } } if (VAddr >= 0xA4600000 && VAddr <= 0xA4600030) { if (!LogOptions.LogPerInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4600000: LogMessage("%08X: read from PI_DRAM_ADDR_REG (%08X)",PC, Value); return; case 0xA4600004: LogMessage("%08X: read from PI_CART_ADDR_REG (%08X)",PC, Value); return; case 0xA4600008: LogMessage("%08X: read from PI_RD_LEN_REG (%08X)",PC, Value); return; case 0xA460000C: LogMessage("%08X: read from PI_WR_LEN_REG (%08X)",PC, Value); return; case 0xA4600010: LogMessage("%08X: read from PI_STATUS_REG (%08X)",PC, Value); return; case 0xA4600014: LogMessage("%08X: read from PI_BSD_DOM1_LAT_REG/PI_DOMAIN1_REG (%08X)",PC, Value); return; case 0xA4600018: LogMessage("%08X: read from PI_BSD_DOM1_PWD_REG (%08X)",PC, Value); return; case 0xA460001C: LogMessage("%08X: read from PI_BSD_DOM1_PGS_REG (%08X)",PC, Value); return; case 0xA4600020: LogMessage("%08X: read from PI_BSD_DOM1_RLS_REG (%08X)",PC, Value); return; case 0xA4600024: LogMessage("%08X: read from PI_BSD_DOM2_LAT_REG/PI_DOMAIN2_REG (%08X)",PC, Value); return; case 0xA4600028: LogMessage("%08X: read from PI_BSD_DOM2_PWD_REG (%08X)",PC, Value); return; case 0xA460002C: LogMessage("%08X: read from PI_BSD_DOM2_PGS_REG (%08X)",PC, Value); return; case 0xA4600030: LogMessage("%08X: read from PI_BSD_DOM2_RLS_REG (%08X)",PC, Value); return; } } if (VAddr >= 0xA4700000 && VAddr <= 0xA470001C) { if (!LogOptions.LogRDRAMInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xA4700000: LogMessage("%08X: read from RI_MODE_REG (%08X)",PC, Value); return; case 0xA4700004: LogMessage("%08X: read from RI_CONFIG_REG (%08X)",PC, Value); return; case 0xA4700008: LogMessage("%08X: read from RI_CURRENT_LOAD_REG (%08X)",PC, Value); return; case 0xA470000C: LogMessage("%08X: read from RI_SELECT_REG (%08X)",PC, Value); return; case 0xA4700010: LogMessage("%08X: read from RI_REFRESH_REG/RI_COUNT_REG (%08X)",PC, Value); return; case 0xA4700014: LogMessage("%08X: read from RI_LATENCY_REG (%08X)",PC, Value); return; case 0xA4700018: LogMessage("%08X: read from RI_RERROR_REG (%08X)",PC, Value); return; case 0xA470001C: LogMessage("%08X: read from RI_WERROR_REG (%08X)",PC, Value); return; } } if ( VAddr == 0xA4800000) { if (!LogOptions.LogSerialInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); LogMessage("%08X: read from SI_DRAM_ADDR_REG (%08X)",PC, Value); return; } if ( VAddr == 0xA4800004) { if (!LogOptions.LogSerialInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); LogMessage("%08X: read from SI_PIF_ADDR_RD64B_REG (%08X)",PC, Value); return; } if ( VAddr == 0xA4800010) { if (!LogOptions.LogSerialInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); LogMessage("%08X: read from SI_PIF_ADDR_WR64B_REG (%08X)",PC, Value); return; } if ( VAddr == 0xA4800018) { if (!LogOptions.LogSerialInterface) { return; } g_MMU->LW_VAddr(VAddr,Value); LogMessage("%08X: read from SI_STATUS_REG (%08X)",PC, Value); return; } if ( VAddr >= 0xBFC00000 && VAddr <= 0xBFC007C0 ) { return; } if ( VAddr >= 0xBFC007C0 && VAddr <= 0xBFC007FC ) { if (!LogOptions.LogPRDirectMemLoads) { return; } g_MMU->LW_VAddr(VAddr,Value); LogMessage("%08X: read word from Pif Ram at 0x%X (%08X)",PC,VAddr - 0xBFC007C0, Value); return; } if ( VAddr >= 0xB0000040 && ((VAddr - 0xB0000000) < _Rom->GetRomSize())) { return; } if ( VAddr >= 0xB0000000 && VAddr < 0xB0000040) { if (!LogOptions.LogRomHeader) { return; } g_MMU->LW_VAddr(VAddr,Value); switch (VAddr) { case 0xB0000004: LogMessage("%08X: read from Rom Clock Rate (%08X)",PC, Value); break; case 0xB0000008: LogMessage("%08X: read from Rom Boot address offset (%08X)",PC, Value); break; case 0xB000000C: LogMessage("%08X: read from Rom Release offset (%08X)",PC, Value); break; case 0xB0000010: LogMessage("%08X: read from Rom CRC1 (%08X)",PC, Value); break; case 0xB0000014: LogMessage("%08X: read from Rom CRC2 (%08X)",PC, Value); break; default: LogMessage("%08X: read from Rom header 0x%X (%08X)",PC, VAddr & 0xFF,Value); break; } return; } if (!LogOptions.LogUnknown) { return; } LogMessage("%08X: read from unknown ??? (%08X)",PC,VAddr); } void __cdecl LogMessage (char * Message, ...) { DWORD dwWritten; char Msg[400]; va_list ap; if(!g_Settings->LoadBool(Debugger_Enabled)) { return; } if(hLogFile == NULL) { return; } va_start( ap, Message ); vsprintf( Msg, Message, ap ); va_end( ap ); strcat(Msg,"\r\n"); WriteFile( hLogFile,Msg,strlen(Msg),&dwWritten,NULL ); } void Log_SW (DWORD PC, DWORD VAddr, DWORD Value) { if (!LogOptions.GenerateLog) { return; } if ( VAddr < 0xA0000000 || VAddr >= 0xC0000000 ) { DWORD PAddr; if (!_TransVaddr->TranslateVaddr(VAddr,PAddr)) { if (LogOptions.LogUnknown) { LogMessage("%08X: Writing 0x%08X to %08X",PC, Value, VAddr ); } return; } VAddr = PAddr + 0xA0000000; } if ( VAddr >= 0xA0000000 && VAddr < (0xA0000000 + g_MMU->RdramSize())) { return; } if ( VAddr >= 0xA3F00000 && VAddr <= 0xA3F00024) { if (!LogOptions.LogRDRamRegisters) { return; } switch (VAddr) { case 0xA3F00000: LogMessage("%08X: Writing 0x%08X to RDRAM_CONFIG_REG/RDRAM_DEVICE_TYPE_REG",PC, Value ); return; case 0xA3F00004: LogMessage("%08X: Writing 0x%08X to RDRAM_DEVICE_ID_REG",PC, Value ); return; case 0xA3F00008: LogMessage("%08X: Writing 0x%08X to RDRAM_DELAY_REG",PC, Value ); return; case 0xA3F0000C: LogMessage("%08X: Writing 0x%08X to RDRAM_MODE_REG",PC, Value ); return; case 0xA3F00010: LogMessage("%08X: Writing 0x%08X to RDRAM_REF_INTERVAL_REG",PC, Value ); return; case 0xA3F00014: LogMessage("%08X: Writing 0x%08X to RDRAM_REF_ROW_REG",PC, Value ); return; case 0xA3F00018: LogMessage("%08X: Writing 0x%08X to RDRAM_RAS_INTERVAL_REG",PC, Value ); return; case 0xA3F0001C: LogMessage("%08X: Writing 0x%08X to RDRAM_MIN_INTERVAL_REG",PC, Value ); return; case 0xA3F00020: LogMessage("%08X: Writing 0x%08X to RDRAM_ADDR_SELECT_REG",PC, Value ); return; case 0xA3F00024: LogMessage("%08X: Writing 0x%08X to RDRAM_DEVICE_MANUF_REG",PC, Value ); return; } } if ( VAddr >= 0xA4000000 && VAddr <= 0xA4001FFC ) { return; } if ( VAddr >= 0xA4040000 && VAddr <= 0xA404001C) { if (!LogOptions.LogSPRegisters) { return; } switch (VAddr) { case 0xA4040000: LogMessage("%08X: Writing 0x%08X to SP_MEM_ADDR_REG",PC, Value ); return; case 0xA4040004: LogMessage("%08X: Writing 0x%08X to SP_DRAM_ADDR_REG",PC, Value ); return; case 0xA4040008: LogMessage("%08X: Writing 0x%08X to SP_RD_LEN_REG",PC, Value ); return; case 0xA404000C: LogMessage("%08X: Writing 0x%08X to SP_WR_LEN_REG",PC, Value ); return; case 0xA4040010: LogMessage("%08X: Writing 0x%08X to SP_STATUS_REG",PC, Value ); return; case 0xA4040014: LogMessage("%08X: Writing 0x%08X to SP_DMA_FULL_REG",PC, Value ); return; case 0xA4040018: LogMessage("%08X: Writing 0x%08X to SP_DMA_BUSY_REG",PC, Value ); return; case 0xA404001C: LogMessage("%08X: Writing 0x%08X to SP_SEMAPHORE_REG",PC, Value ); return; } } if ( VAddr == 0xA4080000) { if (!LogOptions.LogSPRegisters) { return; } LogMessage("%08X: Writing 0x%08X to SP_PC",PC, Value ); return; } if ( VAddr >= 0xA4100000 && VAddr <= 0xA410001C) { if (!LogOptions.LogDPCRegisters) { return; } switch (VAddr) { case 0xA4100000: LogMessage("%08X: Writing 0x%08X to DPC_START_REG",PC, Value ); return; case 0xA4100004: LogMessage("%08X: Writing 0x%08X to DPC_END_REG",PC, Value ); return; case 0xA4100008: LogMessage("%08X: Writing 0x%08X to DPC_CURRENT_REG",PC, Value ); return; case 0xA410000C: LogMessage("%08X: Writing 0x%08X to DPC_STATUS_REG",PC, Value ); return; case 0xA4100010: LogMessage("%08X: Writing 0x%08X to DPC_CLOCK_REG",PC, Value ); return; case 0xA4100014: LogMessage("%08X: Writing 0x%08X to DPC_BUFBUSY_REG",PC, Value ); return; case 0xA4100018: LogMessage("%08X: Writing 0x%08X to DPC_PIPEBUSY_REG",PC, Value ); return; case 0xA410001C: LogMessage("%08X: Writing 0x%08X to DPC_TMEM_REG",PC, Value ); return; } } if ( VAddr >= 0xA4200000 && VAddr <= 0xA420000C) { if (!LogOptions.LogDPSRegisters) { return; } switch (VAddr) { case 0xA4200000: LogMessage("%08X: Writing 0x%08X to DPS_TBIST_REG",PC, Value ); return; case 0xA4200004: LogMessage("%08X: Writing 0x%08X to DPS_TEST_MODE_REG",PC, Value ); return; case 0xA4200008: LogMessage("%08X: Writing 0x%08X to DPS_BUFTEST_ADDR_REG",PC, Value ); return; case 0xA420000C: LogMessage("%08X: Writing 0x%08X to DPS_BUFTEST_DATA_REG",PC, Value ); return; } } if ( VAddr >= 0xA4300000 && VAddr <= 0xA430000C) { if (!LogOptions.LogMIPSInterface) { return; } switch (VAddr) { case 0xA4300000: LogMessage("%08X: Writing 0x%08X to MI_INIT_MODE_REG/MI_MODE_REG",PC, Value ); return; case 0xA4300004: LogMessage("%08X: Writing 0x%08X to MI_VERSION_REG/MI_NOOP_REG",PC, Value ); return; case 0xA4300008: LogMessage("%08X: Writing 0x%08X to MI_INTR_REG",PC, Value ); return; case 0xA430000C: LogMessage("%08X: Writing 0x%08X to MI_INTR_MASK_REG",PC, Value ); return; } } if ( VAddr >= 0xA4400000 && VAddr <= 0xA4400034) { if (!LogOptions.LogVideoInterface) { return; } switch (VAddr) { case 0xA4400000: LogMessage("%08X: Writing 0x%08X to VI_STATUS_REG/VI_CONTROL_REG",PC, Value ); return; case 0xA4400004: LogMessage("%08X: Writing 0x%08X to VI_ORIGIN_REG/VI_DRAM_ADDR_REG",PC, Value ); return; case 0xA4400008: LogMessage("%08X: Writing 0x%08X to VI_WIDTH_REG/VI_H_WIDTH_REG",PC, Value ); return; case 0xA440000C: LogMessage("%08X: Writing 0x%08X to VI_INTR_REG/VI_V_INTR_REG",PC, Value ); return; case 0xA4400010: LogMessage("%08X: Writing 0x%08X to VI_CURRENT_REG/VI_V_CURRENT_LINE_REG",PC, Value ); return; case 0xA4400014: LogMessage("%08X: Writing 0x%08X to VI_BURST_REG/VI_TIMING_REG",PC, Value ); return; case 0xA4400018: LogMessage("%08X: Writing 0x%08X to VI_V_SYNC_REG",PC, Value ); return; case 0xA440001C: LogMessage("%08X: Writing 0x%08X to VI_H_SYNC_REG",PC, Value ); return; case 0xA4400020: LogMessage("%08X: Writing 0x%08X to VI_LEAP_REG/VI_H_SYNC_LEAP_REG",PC, Value ); return; case 0xA4400024: LogMessage("%08X: Writing 0x%08X to VI_H_START_REG/VI_H_VIDEO_REG",PC, Value ); return; case 0xA4400028: LogMessage("%08X: Writing 0x%08X to VI_V_START_REG/VI_V_VIDEO_REG",PC, Value ); return; case 0xA440002C: LogMessage("%08X: Writing 0x%08X to VI_V_BURST_REG",PC, Value ); return; case 0xA4400030: LogMessage("%08X: Writing 0x%08X to VI_X_SCALE_REG",PC, Value ); return; case 0xA4400034: LogMessage("%08X: Writing 0x%08X to VI_Y_SCALE_REG",PC, Value ); return; } } if ( VAddr >= 0xA4500000 && VAddr <= 0xA4500014) { if (!LogOptions.LogAudioInterface) { return; } switch (VAddr) { case 0xA4500000: LogMessage("%08X: Writing 0x%08X to AI_DRAM_ADDR_REG",PC, Value ); return; case 0xA4500004: LogMessage("%08X: Writing 0x%08X to AI_LEN_REG",PC, Value ); return; case 0xA4500008: LogMessage("%08X: Writing 0x%08X to AI_CONTROL_REG",PC, Value ); return; case 0xA450000C: LogMessage("%08X: Writing 0x%08X to AI_STATUS_REG",PC, Value ); return; case 0xA4500010: LogMessage("%08X: Writing 0x%08X to AI_DACRATE_REG",PC, Value ); return; case 0xA4500014: LogMessage("%08X: Writing 0x%08X to AI_BITRATE_REG",PC, Value ); return; } } if ( VAddr >= 0xA4600000 && VAddr <= 0xA4600030) { if (!LogOptions.LogPerInterface) { return; } switch (VAddr) { case 0xA4600000: LogMessage("%08X: Writing 0x%08X to PI_DRAM_ADDR_REG",PC, Value ); return; case 0xA4600004: LogMessage("%08X: Writing 0x%08X to PI_CART_ADDR_REG",PC, Value ); return; case 0xA4600008: LogMessage("%08X: Writing 0x%08X to PI_RD_LEN_REG",PC, Value ); return; case 0xA460000C: LogMessage("%08X: Writing 0x%08X to PI_WR_LEN_REG",PC, Value ); return; case 0xA4600010: LogMessage("%08X: Writing 0x%08X to PI_STATUS_REG",PC, Value ); return; case 0xA4600014: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM1_LAT_REG/PI_DOMAIN1_REG",PC, Value ); return; case 0xA4600018: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM1_PWD_REG",PC, Value ); return; case 0xA460001C: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM1_PGS_REG",PC, Value ); return; case 0xA4600020: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM1_RLS_REG",PC, Value ); return; case 0xA4600024: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM2_LAT_REG/PI_DOMAIN2_REG",PC, Value ); return; case 0xA4600028: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM2_PWD_REG",PC, Value ); return; case 0xA460002C: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM2_PGS_REG",PC, Value ); return; case 0xA4600030: LogMessage("%08X: Writing 0x%08X to PI_BSD_DOM2_RLS_REG",PC, Value ); return; } } if ( VAddr >= 0xA4700000 && VAddr <= 0xA470001C) { if (!LogOptions.LogRDRAMInterface) { return; } switch (VAddr) { case 0xA4700000: LogMessage("%08X: Writing 0x%08X to RI_MODE_REG",PC, Value ); return; case 0xA4700004: LogMessage("%08X: Writing 0x%08X to RI_CONFIG_REG",PC, Value ); return; case 0xA4700008: LogMessage("%08X: Writing 0x%08X to RI_CURRENT_LOAD_REG",PC, Value ); return; case 0xA470000C: LogMessage("%08X: Writing 0x%08X to RI_SELECT_REG",PC, Value ); return; case 0xA4700010: LogMessage("%08X: Writing 0x%08X to RI_REFRESH_REG/RI_COUNT_REG",PC, Value ); return; case 0xA4700014: LogMessage("%08X: Writing 0x%08X to RI_LATENCY_REG",PC, Value ); return; case 0xA4700018: LogMessage("%08X: Writing 0x%08X to RI_RERROR_REG",PC, Value ); return; case 0xA470001C: LogMessage("%08X: Writing 0x%08X to RI_WERROR_REG",PC, Value ); return; } } if ( VAddr == 0xA4800000) { if (!LogOptions.LogSerialInterface) { return; } LogMessage("%08X: Writing 0x%08X to SI_DRAM_ADDR_REG",PC, Value ); return; } if ( VAddr == 0xA4800004) { if (LogOptions.LogPRDMAOperations) { LogMessage("%08X: A DMA transfer from the PIF ram has occured",PC ); } if (!LogOptions.LogSerialInterface) { return; } LogMessage("%08X: Writing 0x%08X to SI_PIF_ADDR_RD64B_REG",PC, Value ); return; } if ( VAddr == 0xA4800010) { if (LogOptions.LogPRDMAOperations) { LogMessage("%08X: A DMA transfer to the PIF ram has occured",PC ); } if (!LogOptions.LogSerialInterface) { return; } LogMessage("%08X: Writing 0x%08X to SI_PIF_ADDR_WR64B_REG",PC, Value ); return; } if ( VAddr == 0xA4800018) { if (!LogOptions.LogSerialInterface) { return; } LogMessage("%08X: Writing 0x%08X to SI_STATUS_REG",PC, Value ); return; } if ( VAddr >= 0xBFC007C0 && VAddr <= 0xBFC007FC ) { if (!LogOptions.LogPRDirectMemStores) { return; } LogMessage("%08X: Writing 0x%08X to Pif Ram at 0x%X",PC,Value, VAddr - 0xBFC007C0); return; } if (!LogOptions.LogUnknown) { return; } LogMessage("%08X: Writing 0x%08X to %08X ????",PC, Value, VAddr ); } LRESULT CALLBACK LogPifProc (HWND hDlg, UINT uMsg, WPARAM /*wParam*/, LPARAM lParam) { switch (uMsg) { case WM_INITDIALOG: if (TempOptions.LogPRDMAOperations) { CheckDlgButton(hDlg,IDC_SI_DMA,BST_CHECKED); } if (TempOptions.LogPRDirectMemLoads) { CheckDlgButton(hDlg,IDC_DIRECT_WRITE,BST_CHECKED); } if (TempOptions.LogPRDMAMemLoads) { CheckDlgButton(hDlg,IDC_DMA_WRITE,BST_CHECKED); } if (TempOptions.LogPRDirectMemStores) { CheckDlgButton(hDlg,IDC_DIRECT_READ,BST_CHECKED); } if (TempOptions.LogPRDMAMemStores) { CheckDlgButton(hDlg,IDC_DMA_READ,BST_CHECKED); } if (TempOptions.LogControllerPak) { CheckDlgButton(hDlg,IDC_CONT_PAK,BST_CHECKED); } break; case WM_NOTIFY: if (((NMHDR FAR *) lParam)->code != PSN_APPLY) { break; } TempOptions.LogPRDMAOperations = IsDlgButtonChecked(hDlg,IDC_SI_DMA) == BST_CHECKED?TRUE:FALSE; TempOptions.LogPRDirectMemLoads = IsDlgButtonChecked(hDlg,IDC_DIRECT_WRITE) == BST_CHECKED?TRUE:FALSE; TempOptions.LogPRDMAMemLoads = IsDlgButtonChecked(hDlg,IDC_DMA_WRITE) == BST_CHECKED?TRUE:FALSE; TempOptions.LogPRDirectMemStores = IsDlgButtonChecked(hDlg,IDC_DIRECT_READ) == BST_CHECKED?TRUE:FALSE; TempOptions.LogPRDMAMemStores = IsDlgButtonChecked(hDlg,IDC_DMA_READ) == BST_CHECKED?TRUE:FALSE; TempOptions.LogControllerPak = IsDlgButtonChecked(hDlg,IDC_CONT_PAK) == BST_CHECKED?TRUE:FALSE; break; default: return FALSE; } return TRUE; } LRESULT CALLBACK LogRegProc (HWND hDlg, UINT uMsg, WPARAM /*wParam*/, LPARAM lParam) { switch (uMsg) { case WM_INITDIALOG: if (TempOptions.LogRDRamRegisters) { CheckDlgButton(hDlg,IDC_RDRAM,BST_CHECKED); } if (TempOptions.LogSPRegisters) { CheckDlgButton(hDlg,IDC_SP_REG,BST_CHECKED); } if (TempOptions.LogDPCRegisters) { CheckDlgButton(hDlg,IDC_DPC_REG,BST_CHECKED); } if (TempOptions.LogDPSRegisters) { CheckDlgButton(hDlg,IDC_DPS_REG,BST_CHECKED); } if (TempOptions.LogMIPSInterface) { CheckDlgButton(hDlg,IDC_MI_REG,BST_CHECKED); } if (TempOptions.LogVideoInterface) { CheckDlgButton(hDlg,IDC_VI_REG,BST_CHECKED); } if (TempOptions.LogAudioInterface) { CheckDlgButton(hDlg,IDC_AI_REG,BST_CHECKED); } if (TempOptions.LogPerInterface) { CheckDlgButton(hDlg,IDC_PI_REG,BST_CHECKED); } if (TempOptions.LogRDRAMInterface) { CheckDlgButton(hDlg,IDC_RI_REG,BST_CHECKED); } if (TempOptions.LogSerialInterface) { CheckDlgButton(hDlg,IDC_SI_REG,BST_CHECKED); } break; case WM_NOTIFY: if (((NMHDR FAR *) lParam)->code != PSN_APPLY) { break; } TempOptions.LogRDRamRegisters = IsDlgButtonChecked(hDlg,IDC_RDRAM) == BST_CHECKED?TRUE:FALSE; TempOptions.LogSPRegisters = IsDlgButtonChecked(hDlg,IDC_SP_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogDPCRegisters = IsDlgButtonChecked(hDlg,IDC_DPC_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogDPSRegisters = IsDlgButtonChecked(hDlg,IDC_DPS_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogMIPSInterface = IsDlgButtonChecked(hDlg,IDC_MI_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogVideoInterface = IsDlgButtonChecked(hDlg,IDC_VI_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogAudioInterface = IsDlgButtonChecked(hDlg,IDC_AI_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogPerInterface = IsDlgButtonChecked(hDlg,IDC_PI_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogRDRAMInterface = IsDlgButtonChecked(hDlg,IDC_RI_REG) == BST_CHECKED?TRUE:FALSE; TempOptions.LogSerialInterface = IsDlgButtonChecked(hDlg,IDC_SI_REG) == BST_CHECKED?TRUE:FALSE; break; default: return FALSE; } return TRUE; } void SaveLogSetting (HKEY hKey,char * String, BOOL Value) { DWORD StoreValue = Value; RegSetValueEx(hKey,String,0,REG_DWORD,(CONST BYTE *)&StoreValue,sizeof(DWORD)); } void SaveLogOptions (void) { long lResult; HKEY hKeyResults = 0; DWORD Disposition = 0; char String[200]; sprintf(String,"Software\\N64 Emulation\\%s\\Logging",g_Settings->LoadString(Setting_ApplicationName).c_str()); lResult = RegCreateKeyEx( HKEY_CURRENT_USER,String,0,"", REG_OPTION_NON_VOLATILE, KEY_ALL_ACCESS,NULL,&hKeyResults,&Disposition); SaveLogSetting(hKeyResults,"Log RDRAM",TempOptions.LogRDRamRegisters); SaveLogSetting(hKeyResults,"Log SP",TempOptions.LogSPRegisters); SaveLogSetting(hKeyResults,"Log DP Command",TempOptions.LogDPCRegisters); SaveLogSetting(hKeyResults,"Log DP Span",TempOptions.LogDPSRegisters); SaveLogSetting(hKeyResults,"Log MIPS Interface (MI)",TempOptions.LogMIPSInterface); SaveLogSetting(hKeyResults,"Log Video Interface (VI)",TempOptions.LogVideoInterface); SaveLogSetting(hKeyResults,"Log Audio Interface (AI)",TempOptions.LogAudioInterface); SaveLogSetting(hKeyResults,"Log Peripheral Interface (PI)",TempOptions.LogPerInterface); SaveLogSetting(hKeyResults,"Log RDRAM Interface (RI)",TempOptions.LogRDRAMInterface); SaveLogSetting(hKeyResults,"Log Serial Interface (SI)",TempOptions.LogSerialInterface); SaveLogSetting(hKeyResults,"Log PifRam DMA Operations",TempOptions.LogPRDMAOperations); SaveLogSetting(hKeyResults,"Log PifRam Direct Memory Loads",TempOptions.LogPRDirectMemLoads); SaveLogSetting(hKeyResults,"Log PifRam DMA Memory Loads",TempOptions.LogPRDMAMemLoads); SaveLogSetting(hKeyResults,"Log PifRam Direct Memory Stores",TempOptions.LogPRDirectMemStores); SaveLogSetting(hKeyResults,"Log PifRam DMA Memory Stores",TempOptions.LogPRDMAMemStores); SaveLogSetting(hKeyResults,"Log Controller Pak",TempOptions.LogControllerPak); SaveLogSetting(hKeyResults,"Log CP0 changes",TempOptions.LogCP0changes); SaveLogSetting(hKeyResults,"Log CP0 reads",TempOptions.LogCP0reads); SaveLogSetting(hKeyResults,"Log Exceptions",TempOptions.LogExceptions); SaveLogSetting(hKeyResults,"No Interrupts",TempOptions.NoInterrupts); SaveLogSetting(hKeyResults,"Log TLB",TempOptions.LogTLB); SaveLogSetting(hKeyResults,"Log Cache Operations",TempOptions.LogCache); SaveLogSetting(hKeyResults,"Log Rom Header",TempOptions.LogRomHeader); SaveLogSetting(hKeyResults,"Log Unknown access",TempOptions.LogUnknown); RegCloseKey(hKeyResults); } void StartLog (void) { if (!LogOptions.GenerateLog) { StopLog(); return; } if (hLogFile) { return; } CPath LogFile(CPath::MODULE_DIRECTORY); LogFile.AppendDirectory(_T("Logs")); LogFile.SetNameExtension(_T("cpudebug.log")); hLogFile = CreateFile(LogFile,GENERIC_WRITE, FILE_SHARE_READ,NULL,CREATE_ALWAYS, FILE_ATTRIBUTE_NORMAL | FILE_FLAG_SEQUENTIAL_SCAN, NULL); SetFilePointer(hLogFile,0,NULL,FILE_BEGIN); } void StopLog (void) { if (hLogFile) { CloseHandle(hLogFile); } hLogFile = NULL; } #endif