#include "mxdirect3d.h" #include // for vsprintf #if !defined(MXDIRECTX_FOR_CONFIG) DECOMP_SIZE_ASSERT(MxAssignedDevice, 0xe4); DECOMP_SIZE_ASSERT(MxDirect3D, 0x894); #endif DECOMP_SIZE_ASSERT(Direct3DDeviceInfo, 0x1a4); DECOMP_SIZE_ASSERT(MxDisplayMode, 0x0c); DECOMP_SIZE_ASSERT(MxDriver, 0x190); DECOMP_SIZE_ASSERT(MxDeviceEnumerate, 0x14); #if !defined(MXDIRECTX_FOR_CONFIG) #define RELEASE(x) \ if (x != NULL) { \ x->Release(); \ x = NULL; \ } // FUNCTION: LEGO1 0x1009b0a0 MxDirect3D::MxDirect3D() { this->m_pDirect3d = NULL; this->m_pDirect3dDevice = NULL; this->m_bTexturesDisabled = FALSE; this->m_assignedDevice = NULL; } // FUNCTION: LEGO1 0x1009b140 MxDirect3D::~MxDirect3D() { Destroy(); } // FUNCTION: LEGO1 0x1009b1a0 BOOL MxDirect3D::Create( HWND hWnd, BOOL fullscreen_1, BOOL surface_fullscreen, BOOL onlySystemMemory, int width, int height, int bpp, const PALETTEENTRY* pPaletteEntries, int paletteEntryCount ) { BOOL success = FALSE; BOOL ret = MxDirectDraw::Create( hWnd, fullscreen_1, surface_fullscreen, onlySystemMemory, width, height, bpp, pPaletteEntries, paletteEntryCount ); if (ret && D3DCreate() && D3DSetMode()) { success = TRUE; } if (!success) { FUN_1009d920(); } return success; } // FUNCTION: LEGO1 0x1009b210 void MxDirect3D::Destroy() { RELEASE(m_pDirect3dDevice); RELEASE(m_pDirect3d); if (this->m_assignedDevice) { delete m_assignedDevice; this->m_assignedDevice = NULL; } if (m_pCurrentDeviceModesList) { m_pCurrentDeviceModesList = NULL; } MxDirectDraw::Destroy(); } // FUNCTION: LEGO1 0x1009b290 void MxDirect3D::DestroyButNotDirectDraw() { RELEASE(m_pDirect3dDevice); RELEASE(m_pDirect3d); MxDirectDraw::DestroyButNotDirectDraw(); } // FUNCTION: LEGO1 0x1009b2d0 BOOL MxDirect3D::D3DCreate() { HRESULT result; result = DirectDraw()->QueryInterface(IID_IDirect3D2, (LPVOID*) &m_pDirect3d); if (result != DD_OK) { Error("Creation of IDirect3D failed", result); return FALSE; } return TRUE; } // FUNCTION: LEGO1 0x1009b310 BOOL MxDirect3D::D3DSetMode() { if (m_assignedDevice->m_flags & MxAssignedDevice::c_hardwareMode) { if (m_bOnlySoftRender) { Error("Failed to place vital surfaces in video memory for hardware driver", DDERR_GENERIC); return FALSE; } if (m_assignedDevice->m_desc.dpcTriCaps.dwTextureCaps & D3DPTEXTURECAPS_PERSPECTIVE) { m_bTexturesDisabled = FALSE; } else { m_bTexturesDisabled = TRUE; } if (!CreateZBuffer(DDSCAPS_VIDEOMEMORY, ZBufferDepth(m_assignedDevice))) { return FALSE; } } else { if (m_assignedDevice->m_desc.dpcTriCaps.dwTextureCaps & D3DPTEXTURECAPS_PERSPECTIVE) { m_bTexturesDisabled = FALSE; } else { m_bTexturesDisabled = TRUE; } if (!CreateZBuffer(DDSCAPS_SYSTEMMEMORY, ZBufferDepth(m_assignedDevice))) { return FALSE; } } HRESULT result = m_pDirect3d->CreateDevice(m_assignedDevice->m_guid, m_pBackBuffer, &m_pDirect3dDevice); if (result != DD_OK) { Error("Create D3D device failed", result); return FALSE; } MxDirectDraw::Mode mode = m_currentMode; if (IsFullScreen()) { if (!IsSupportedMode(mode.width, mode.height, mode.bitsPerPixel)) { Error("This device cannot support the current display mode", DDERR_GENERIC); return FALSE; } } LPDIRECTDRAWSURFACE frontBuffer = m_pFrontBuffer; LPDIRECTDRAWSURFACE backBuffer = m_pBackBuffer; DDSURFACEDESC desc; memset(&desc, 0, sizeof(desc)); desc.dwSize = sizeof(desc); if (backBuffer->Lock(NULL, &desc, DDLOCK_WAIT, NULL) == DD_OK) { unsigned char* surface = (unsigned char*) desc.lpSurface; for (int i = mode.height; i > 0; i--) { memset(surface, 0, mode.width * desc.ddpfPixelFormat.dwRGBBitCount / 8); surface += desc.lPitch; } backBuffer->Unlock(desc.lpSurface); } else { OutputDebugString("MxDirect3D::D3DSetMode() back lock failed\n"); } if (m_bFullScreen) { memset(&desc, 0, sizeof(desc)); desc.dwSize = sizeof(desc); if (frontBuffer->Lock(NULL, &desc, DDLOCK_WAIT, NULL) == DD_OK) { unsigned char* surface = (unsigned char*) desc.lpSurface; for (int i = mode.height; i > 0; i--) { memset(surface, 0, mode.width * desc.ddpfPixelFormat.dwRGBBitCount / 8); surface += desc.lPitch; } frontBuffer->Unlock(desc.lpSurface); } else { OutputDebugString("MxDirect3D::D3DSetMode() front lock failed\n"); } } return TRUE; } // FUNCTION: LEGO1 0x1009b5a0 int MxDirect3D::ZBufferDepth(MxAssignedDevice* p_assignedDevice) { int depth; DWORD deviceDepth; if (p_assignedDevice->m_desc.dwFlags & D3DDD_DEVICEZBUFFERBITDEPTH) { deviceDepth = p_assignedDevice->m_desc.dwDeviceZBufferBitDepth; } else { deviceDepth = 0; } if (deviceDepth & DDBD_32) { depth = 32; } else if (deviceDepth & DDBD_24) { depth = 24; } else if (deviceDepth & DDBD_16) { depth = 16; } else if (deviceDepth & DDBD_8) { depth = 8; } else { depth = -1; } return depth; } // FUNCTION: LEGO1 0x1009b5f0 BOOL MxDirect3D::SetDevice(MxDeviceEnumerate& p_deviceEnumerate, MxDriver* p_driver, Direct3DDeviceInfo* p_device) { if (m_assignedDevice) { delete m_assignedDevice; m_assignedDevice = NULL; m_pCurrentDeviceModesList = NULL; } MxAssignedDevice* assignedDevice = new MxAssignedDevice; int i = 0; for (list::iterator it = p_deviceEnumerate.m_list.begin(); it != p_deviceEnumerate.m_list.end(); it++) { MxDriver& driver = *it; if (&driver == p_driver) { assignedDevice->m_deviceInfo = new MxDirectDraw::DeviceModesInfo; if (driver.m_guid) { assignedDevice->m_deviceInfo->m_guid = new GUID; memcpy(assignedDevice->m_deviceInfo->m_guid, driver.m_guid, sizeof(GUID)); } assignedDevice->m_deviceInfo->m_count = driver.m_displayModes.size(); if (assignedDevice->m_deviceInfo->m_count > 0) { assignedDevice->m_deviceInfo->m_modeArray = new MxDirectDraw::Mode[assignedDevice->m_deviceInfo->m_count]; int j = 0; for (list::iterator it2 = driver.m_displayModes.begin(); it2 != driver.m_displayModes.end(); it2++) { assignedDevice->m_deviceInfo->m_modeArray[j].width = (*it2).m_width; assignedDevice->m_deviceInfo->m_modeArray[j].height = (*it2).m_height; assignedDevice->m_deviceInfo->m_modeArray[j].bitsPerPixel = (*it2).m_bitsPerPixel; j++; } } memcpy( &assignedDevice->m_deviceInfo->m_ddcaps, &driver.m_ddCaps, sizeof(assignedDevice->m_deviceInfo->m_ddcaps) ); if (i == 0) { assignedDevice->m_flags |= MxAssignedDevice::c_primaryDevice; } for (list::iterator it2 = driver.m_devices.begin(); it2 != driver.m_devices.end(); it2++) { Direct3DDeviceInfo& device = *it2; if (&device != p_device) { continue; } memcpy(&assignedDevice->m_guid, device.m_guid, sizeof(assignedDevice->m_guid)); D3DDEVICEDESC* desc; if (device.m_HWDesc.dcmColorModel) { assignedDevice->m_flags |= MxAssignedDevice::c_hardwareMode; desc = &device.m_HWDesc; } else { desc = &device.m_HELDesc; } memcpy(&assignedDevice->m_desc, desc, sizeof(assignedDevice->m_desc)); m_assignedDevice = assignedDevice; m_pCurrentDeviceModesList = assignedDevice->m_deviceInfo; break; } } i++; } if (!m_assignedDevice) { delete assignedDevice; return FALSE; } return TRUE; } // FUNCTION: LEGO1 0x1009b8b0 MxAssignedDevice::MxAssignedDevice() { memset(this, 0, sizeof(*this)); } // FUNCTION: LEGO1 0x1009b8d0 MxAssignedDevice::~MxAssignedDevice() { if (m_deviceInfo) { delete m_deviceInfo; m_deviceInfo = NULL; } } #endif // FUNCTION: CONFIG 0x00401180 // FUNCTION: LEGO1 0x1009ba80 MxDriver::MxDriver(LPGUID p_guid, LPSTR p_driverDesc, LPSTR p_driverName) { m_guid = NULL; m_driverDesc = NULL; m_driverName = NULL; memset(&m_ddCaps, 0, sizeof(m_ddCaps)); Init(p_guid, p_driverDesc, p_driverName); } // FUNCTION: CONFIG 0x401280 // FUNCTION: LEGO1 0x1009bb80 MxDriver::~MxDriver() { if (m_guid) { delete m_guid; } if (m_driverDesc) { delete[] m_driverDesc; } if (m_driverName) { delete[] m_driverName; } } // FUNCTION: CONFIG 0x00401330 // FUNCTION: LEGO1 0x1009bc30 void MxDriver::Init(LPGUID p_guid, LPSTR p_driverDesc, LPSTR p_driverName) { if (m_driverDesc) { delete[] m_driverDesc; m_driverDesc = NULL; } if (m_driverName) { delete[] m_driverName; m_driverName = NULL; } if (p_guid) { m_guid = new GUID; memcpy(m_guid, p_guid, sizeof(*m_guid)); } if (p_driverDesc) { m_driverDesc = new char[strlen(p_driverDesc) + 1]; strcpy(m_driverDesc, p_driverDesc); } if (p_driverName) { m_driverName = new char[strlen(p_driverName) + 1]; strcpy(m_driverName, p_driverName); } } // FUNCTION: LEGO1 0x1009bd20 Direct3DDeviceInfo::Direct3DDeviceInfo( LPGUID p_guid, LPSTR p_deviceDesc, LPSTR p_deviceName, LPD3DDEVICEDESC p_HWDesc, LPD3DDEVICEDESC p_HELDesc ) { memset(this, 0, sizeof(*this)); Initialize(p_guid, p_deviceDesc, p_deviceName, p_HWDesc, p_HELDesc); } // FUNCTION: CONFIG 0x401460 // FUNCTION: LEGO1 0x1009bd60 Direct3DDeviceInfo::~Direct3DDeviceInfo() { if (m_guid) { delete m_guid; } if (m_deviceDesc) { delete[] m_deviceDesc; } if (m_deviceName) { delete[] m_deviceName; } } // FUNCTION: LEGO1 0x1009bda0 void Direct3DDeviceInfo::Initialize( LPGUID p_guid, LPSTR p_deviceDesc, LPSTR p_deviceName, LPD3DDEVICEDESC p_HWDesc, LPD3DDEVICEDESC p_HELDesc ) { if (m_deviceDesc) { delete[] m_deviceDesc; m_deviceDesc = NULL; } if (m_deviceName) { delete[] m_deviceName; m_deviceName = NULL; } if (p_guid) { m_guid = new GUID; memcpy(m_guid, p_guid, sizeof(*m_guid)); } if (p_deviceDesc) { m_deviceDesc = new char[strlen(p_deviceDesc) + 1]; strcpy(m_deviceDesc, p_deviceDesc); } if (p_deviceName) { m_deviceName = new char[strlen(p_deviceName) + 1]; strcpy(m_deviceName, p_deviceName); } if (p_HWDesc) { memcpy(&m_HWDesc, p_HWDesc, sizeof(m_HWDesc)); } if (p_HELDesc) { memcpy(&m_HELDesc, p_HELDesc, sizeof(m_HELDesc)); } } // FUNCTION: CONFIG 0x004015c0 // FUNCTION: LEGO1 0x1009bec0 MxDeviceEnumerate::MxDeviceEnumerate() { m_initialized = FALSE; } // FUNCTION: CONFIG 0x401710 // FUNCTION: LEGO1 0x1009c010 MxDeviceEnumerate::~MxDeviceEnumerate() { } // FUNCTION: CONFIG 0x00401770 // FUNCTION: LEGO1 0x1009c070 BOOL MxDeviceEnumerate::EnumDirectDrawCallback(LPGUID p_guid, LPSTR p_driverDesc, LPSTR p_driverName) { MxDriver driver(p_guid, p_driverDesc, p_driverName); m_list.push_back(driver); // Must be zeroed because held resources are copied by pointer only // and should not be freed at the end of this function driver.m_guid = NULL; driver.m_driverDesc = NULL; driver.m_driverName = NULL; memset(&driver.m_ddCaps, 0, sizeof(driver.m_ddCaps)); LPDIRECT3D2 lpDirect3d2 = NULL; LPDIRECTDRAW lpDD = NULL; MxDriver& newDevice = m_list.back(); HRESULT result = DirectDrawCreate(newDevice.m_guid, &lpDD, NULL); if (result != DD_OK) { BuildErrorString("DirectDraw Create failed: %s\n", EnumerateErrorToString(result)); } else { lpDD->EnumDisplayModes(0, NULL, this, DisplayModesEnumerateCallback); newDevice.m_ddCaps.dwSize = sizeof(newDevice.m_ddCaps); result = lpDD->GetCaps(&newDevice.m_ddCaps, NULL); if (result != DD_OK) { BuildErrorString("GetCaps failed: %s\n", EnumerateErrorToString(result)); } else { result = lpDD->QueryInterface(IID_IDirect3D2, (LPVOID*) &lpDirect3d2); if (result != DD_OK) { BuildErrorString("D3D creation failed: %s\n", EnumerateErrorToString(result)); } else { result = lpDirect3d2->EnumDevices(DevicesEnumerateCallback, this); if (result != DD_OK) { BuildErrorString("D3D enum devices failed: %s\n", EnumerateErrorToString(result)); } else { if (newDevice.m_devices.empty()) { m_list.pop_back(); } } } } } if (lpDirect3d2) { lpDirect3d2->Release(); } if (lpDD) { lpDD->Release(); } return DDENUMRET_OK; } // FUNCTION: CONFIG 0x00401bc0 // FUNCTION: LEGO1 0x1009c4c0 void MxDeviceEnumerate::BuildErrorString(const char* p_format, ...) { va_list args; char buf[512]; va_start(args, p_format); vsprintf(buf, p_format, args); va_end(args); OutputDebugString(buf); } // FUNCTION: CONFIG 0x00401bf0 // FUNCTION: LEGO1 0x1009c4f0 HRESULT CALLBACK MxDeviceEnumerate::DisplayModesEnumerateCallback(LPDDSURFACEDESC p_ddsd, LPVOID p_context) { MxDeviceEnumerate* deviceEnumerate = (MxDeviceEnumerate*) p_context; return deviceEnumerate->EnumDisplayModesCallback(p_ddsd); } // FUNCTION: CONFIG 0x00401c10 // FUNCTION: LEGO1 0x1009c510 HRESULT CALLBACK MxDeviceEnumerate::DevicesEnumerateCallback( LPGUID p_guid, LPSTR p_deviceDesc, LPSTR p_deviceName, LPD3DDEVICEDESC p_HWDesc, LPD3DDEVICEDESC p_HELDesc, LPVOID p_context ) { MxDeviceEnumerate* deviceEnumerate = (MxDeviceEnumerate*) p_context; return deviceEnumerate->EnumDevicesCallback(p_guid, p_deviceDesc, p_deviceName, p_HWDesc, p_HELDesc); } // FUNCTION: CONFIG 0x00401c40 // FUNCTION: LEGO1 0x1009c540 HRESULT MxDeviceEnumerate::EnumDisplayModesCallback(LPDDSURFACEDESC p_ddsd) { MxDisplayMode displayMode; displayMode.m_width = p_ddsd->dwWidth; displayMode.m_height = p_ddsd->dwHeight; displayMode.m_bitsPerPixel = p_ddsd->ddpfPixelFormat.dwRGBBitCount; m_list.back().m_displayModes.push_back(displayMode); return DDENUMRET_OK; } // FUNCTION: CONFIG 0x00401cd0 // FUNCTION: LEGO1 0x1009c5d0 HRESULT MxDeviceEnumerate::EnumDevicesCallback( LPGUID p_guid, LPSTR p_deviceDesc, LPSTR p_deviceName, LPD3DDEVICEDESC p_HWDesc, LPD3DDEVICEDESC p_HELDesc ) { Direct3DDeviceInfo device(p_guid, p_deviceDesc, p_deviceName, p_HWDesc, p_HELDesc); m_list.back().m_devices.push_back(device); memset(&device, 0, sizeof(device)); return DDENUMRET_OK; } // FUNCTION: CONFIG 0x00401dc0 // FUNCTION: LEGO1 0x1009c6c0 int MxDeviceEnumerate::DoEnumerate() { if (m_initialized) { return -1; } HRESULT ret = DirectDrawEnumerate(DirectDrawEnumerateCallback, this); if (ret != DD_OK) { BuildErrorString("DirectDrawEnumerate returned error %s\n", EnumerateErrorToString(ret)); return -1; } m_initialized = TRUE; return 0; } // FUNCTION: CONFIG 0x00401e10 // FUNCTION: LEGO1 0x1009c710 BOOL CALLBACK MxDeviceEnumerate::DirectDrawEnumerateCallback(LPGUID p_guid, LPSTR p_driverDesc, LPSTR p_driverName, LPVOID p_context) { MxDeviceEnumerate* deviceEnumerate = (MxDeviceEnumerate*) p_context; return deviceEnumerate->EnumDirectDrawCallback(p_guid, p_driverDesc, p_driverName); } // FUNCTION: CONFIG 0x00401e30 // FUNCTION: LEGO1 0x1009c730 const char* MxDeviceEnumerate::EnumerateErrorToString(HRESULT p_error) { switch (p_error) { case DD_OK: return "No error."; case DDERR_GENERIC: return "Generic failure."; case DDERR_UNSUPPORTED: return "Action not supported."; case DDERR_INVALIDPARAMS: return "One or more of the parameters passed to the function are incorrect."; case DDERR_OUTOFMEMORY: return "DirectDraw does not have enough memory to perform the operation."; case DDERR_CANNOTATTACHSURFACE: return "This surface can not be attached to the requested surface."; case DDERR_ALREADYINITIALIZED: return "This object is already initialized."; case DDERR_CURRENTLYNOTAVAIL: return "Support is currently not available."; case DDERR_CANNOTDETACHSURFACE: return "This surface can not be detached from the requested surface."; case DDERR_HEIGHTALIGN: return "Height of rectangle provided is not a multiple of reqd alignment."; case DDERR_EXCEPTION: return "An exception was encountered while performing the requested operation."; case DDERR_INVALIDCAPS: return "One or more of the caps bits passed to the callback are incorrect."; case DDERR_INCOMPATIBLEPRIMARY: return "Unable to match primary surface creation request with existing primary surface."; case DDERR_INVALIDMODE: return "DirectDraw does not support the requested mode."; case DDERR_INVALIDCLIPLIST: return "DirectDraw does not support the provided cliplist."; case DDERR_INVALIDPIXELFORMAT: return "The pixel format was invalid as specified."; case DDERR_INVALIDOBJECT: return "DirectDraw received a pointer that was an invalid DIRECTDRAW object."; case DDERR_LOCKEDSURFACES: return "Operation could not be carried out because one or more surfaces are locked."; case DDERR_INVALIDRECT: return "Rectangle provided was invalid."; case DDERR_NOALPHAHW: return "Operation could not be carried out because there is no alpha accleration hardware present or " "available."; case DDERR_NO3D: return "There is no 3D present."; case DDERR_NOCOLORCONVHW: return "Operation could not be carried out because there is no color conversion hardware present or available."; case DDERR_NOCLIPLIST: return "No cliplist available."; case DDERR_NOCOLORKEY: return "Surface doesn't currently have a color key"; case DDERR_NOCOOPERATIVELEVELSET: return "Create function called without DirectDraw object method SetCooperativeLevel being called."; case DDERR_NOEXCLUSIVEMODE: return "Operation requires the application to have exclusive mode but the application does not have exclusive " "mode."; case DDERR_NOCOLORKEYHW: return "Operation could not be carried out because there is no hardware support of the destination color key."; case DDERR_NOGDI: return "There is no GDI present."; case DDERR_NOFLIPHW: return "Flipping visible surfaces is not supported."; case DDERR_NOTFOUND: return "Requested item was not found."; case DDERR_NOMIRRORHW: return "Operation could not be carried out because there is no hardware present or available."; case DDERR_NORASTEROPHW: return "Operation could not be carried out because there is no appropriate raster op hardware present or " "available."; case DDERR_NOOVERLAYHW: return "Operation could not be carried out because there is no overlay hardware present or available."; case DDERR_NOSTRETCHHW: return "Operation could not be carried out because there is no hardware support for stretching."; case DDERR_NOROTATIONHW: return "Operation could not be carried out because there is no rotation hardware present or available."; case DDERR_NOTEXTUREHW: return "Operation could not be carried out because there is no texture mapping hardware present or available."; case DDERR_NOT4BITCOLOR: return "DirectDrawSurface is not in 4 bit color palette and the requested operation requires 4 bit color " "palette."; case DDERR_NOT4BITCOLORINDEX: return "DirectDrawSurface is not in 4 bit color index palette and the requested operation requires 4 bit color " "index palette."; case DDERR_NOT8BITCOLOR: return "DirectDrawSurface is not in 8 bit color mode and the requested operation requires 8 bit color."; case DDERR_NOZBUFFERHW: return "Operation could not be carried out because there is no hardware support for zbuffer blitting."; case DDERR_NOVSYNCHW: return "Operation could not be carried out because there is no hardware support for vertical blank " "synchronized operations."; case DDERR_OUTOFCAPS: return "The hardware needed for the requested operation has already been allocated."; case DDERR_NOZOVERLAYHW: return "Overlay surfaces could not be z layered based on their BltOrder because the hardware does not support " "z layering of overlays."; case DDERR_COLORKEYNOTSET: return "No src color key specified for this operation."; case DDERR_OUTOFVIDEOMEMORY: return "DirectDraw does not have enough memory to perform the operation."; case DDERR_OVERLAYCANTCLIP: return "The hardware does not support clipped overlays."; case DDERR_OVERLAYCOLORKEYONLYONEACTIVE: return "Can only have ony color key active at one time for overlays."; case DDERR_PALETTEBUSY: return "Access to this palette is being refused because the palette is already locked by another thread."; case DDERR_SURFACEALREADYDEPENDENT: return "This surface is already a dependency of the surface it is being made a dependency of."; case DDERR_SURFACEALREADYATTACHED: return "This surface is already attached to the surface it is being attached to."; case DDERR_SURFACEISOBSCURED: return "Access to surface refused because the surface is obscured."; case DDERR_SURFACEBUSY: return "Access to this surface is being refused because the surface is already locked by another thread."; case DDERR_SURFACENOTATTACHED: return "The requested surface is not attached."; case DDERR_SURFACELOST: return "Access to this surface is being refused because the surface memory is gone. The DirectDrawSurface " "object representing this surface should have Restore called on it."; case DDERR_TOOBIGSIZE: return "Size requested by DirectDraw is too large, but the individual height and width are OK."; case DDERR_TOOBIGHEIGHT: return "Height requested by DirectDraw is too large."; case DDERR_UNSUPPORTEDFORMAT: return "FOURCC format requested is unsupported by DirectDraw."; case DDERR_TOOBIGWIDTH: return "Width requested by DirectDraw is too large."; case DDERR_VERTICALBLANKINPROGRESS: return "Vertical blank is in progress."; case DDERR_UNSUPPORTEDMASK: return "Bitmask in the pixel format requested is unsupported by DirectDraw."; case DDERR_XALIGN: return "Rectangle provided was not horizontally aligned on required boundary."; case DDERR_WASSTILLDRAWING: return "Informs DirectDraw that the previous Blt which is transfering information to or from this Surface is " "incomplete."; case DDERR_INVALIDDIRECTDRAWGUID: return "The GUID passed to DirectDrawCreate is not a valid DirectDraw driver identifier."; case DDERR_DIRECTDRAWALREADYCREATED: return "A DirectDraw object representing this driver has already been created for this process."; case DDERR_NODIRECTDRAWHW: return "A hardware-only DirectDraw object creation was attempted but the driver did not support any hardware."; case DDERR_PRIMARYSURFACEALREADYEXISTS: return "This process already has created a primary surface."; case DDERR_NOEMULATION: return "Software emulation not available."; case DDERR_REGIONTOOSMALL: return "Region passed to Clipper::GetClipList is too small."; case DDERR_CLIPPERISUSINGHWND: return "An attempt was made to set a cliplist for a clipper object that is already monitoring an hwnd."; case DDERR_NOCLIPPERATTACHED: return "No clipper object attached to surface object."; case DDERR_NOHWND: return "Clipper notification requires an HWND or no HWND has previously been set as the CooperativeLevel HWND."; case DDERR_HWNDSUBCLASSED: return "HWND used by DirectDraw CooperativeLevel has been subclassed, this prevents DirectDraw from restoring " "state."; case DDERR_HWNDALREADYSET: return "The CooperativeLevel HWND has already been set. It can not be reset while the process has surfaces or " "palettes created."; case DDERR_NOPALETTEATTACHED: return "No palette object attached to this surface."; case DDERR_NOPALETTEHW: return "No hardware support for 16 or 256 color palettes."; case DDERR_BLTFASTCANTCLIP: return "Return if a clipper object is attached to the source surface passed into a BltFast call."; case DDERR_NOBLTHW: return "No blitter hardware present."; case DDERR_NODDROPSHW: return "No DirectDraw ROP hardware."; case DDERR_OVERLAYNOTVISIBLE: return "Returned when GetOverlayPosition is called on a hidden overlay."; case DDERR_NOOVERLAYDEST: return "Returned when GetOverlayPosition is called on an overlay that UpdateOverlay has never been called on " "to establish a destination."; case DDERR_INVALIDPOSITION: return "Returned when the position of the overlay on the destination is no longer legal for that destination."; case DDERR_NOTAOVERLAYSURFACE: return "Returned when an overlay member is called for a non-overlay surface."; case DDERR_EXCLUSIVEMODEALREADYSET: return "An attempt was made to set the cooperative level when it was already set to exclusive."; case DDERR_NOTFLIPPABLE: return "An attempt has been made to flip a surface that is not flippable."; case DDERR_CANTDUPLICATE: return "Can't duplicate primary & 3D surfaces, or surfaces that are implicitly created."; case DDERR_NOTLOCKED: return "Surface was not locked. An attempt to unlock a surface that was not locked at all, or by this " "process, has been attempted."; case DDERR_CANTCREATEDC: return "Windows can not create any more DCs."; case DDERR_NODC: return "No DC was ever created for this surface."; case DDERR_WRONGMODE: return "This surface can not be restored because it was created in a different mode."; case DDERR_IMPLICITLYCREATED: return "This surface can not be restored because it is an implicitly created surface."; case DDERR_NOTPALETTIZED: return "The surface being used is not a palette-based surface."; default: return "Unrecognized error value."; } } // FUNCTION: CONFIG 0x00402560 // FUNCTION: LEGO1 0x1009ce60 int MxDeviceEnumerate::ParseDeviceName(const char* p_deviceId) { if (!m_initialized) { return -1; } int num = -1; int hex[4]; if (sscanf(p_deviceId, "%d 0x%x 0x%x 0x%x 0x%x", &num, &hex[0], &hex[1], &hex[2], &hex[3]) != 5) { return -1; } if (num < 0) { return -1; } GUID guid; memcpy(&guid, hex, sizeof(guid)); int result = ProcessDeviceBytes(num, guid); if (result < 0) { return ProcessDeviceBytes(-1, guid); } return result; } // FUNCTION: CONFIG 0x00402620 // FUNCTION: LEGO1 0x1009cf20 int MxDeviceEnumerate::ProcessDeviceBytes(int p_deviceNum, GUID& p_guid) { if (!m_initialized) { return -1; } int i = 0; int j = 0; struct GUID4 { int m_data1; int m_data2; int m_data3; int m_data4; }; static_assert(sizeof(GUID4) == sizeof(GUID), "Equal size"); GUID4 deviceGuid; memcpy(&deviceGuid, &p_guid, sizeof(GUID4)); for (list::iterator it = m_list.begin(); it != m_list.end(); it++) { if (p_deviceNum >= 0 && p_deviceNum < i) { return -1; } GUID4 compareGuid; MxDriver& driver = *it; for (list::iterator it2 = driver.m_devices.begin(); it2 != driver.m_devices.end(); it2++) { memcpy(&compareGuid, (*it2).m_guid, sizeof(GUID4)); if (compareGuid.m_data1 == deviceGuid.m_data1 && compareGuid.m_data2 == deviceGuid.m_data2 && compareGuid.m_data3 == deviceGuid.m_data3 && compareGuid.m_data4 == deviceGuid.m_data4 && i == p_deviceNum) { return j; } j++; } i++; } return -1; } // FUNCTION: CONFIG 0x00402730 // FUNCTION: LEGO1 0x1009d030 int MxDeviceEnumerate::GetDevice(int p_deviceNum, MxDriver*& p_driver, Direct3DDeviceInfo*& p_device) { if (p_deviceNum >= 0 && m_initialized) { int i = 0; for (list::iterator it = m_list.begin(); it != m_list.end(); it++) { p_driver = &*it; for (list::iterator it2 = p_driver->m_devices.begin(); it2 != p_driver->m_devices.end(); it2++) { if (i == p_deviceNum) { p_device = &*it2; return 0; } i++; } } return -1; } return -1; } #if defined(MXDIRECTX_FOR_CONFIG) // FUNCTION: CONFIG 0x004027d0 int MxDeviceEnumerate::FormatDeviceName(char* p_buffer, const MxDriver* p_driver, const Direct3DDeviceInfo* p_device) const { int number = 0; for (list::const_iterator it = m_list.begin(); it != m_list.end(); it++) { if (&(*it) == p_driver) { sprintf( p_buffer, "%d 0x%x 0x%x 0x%x 0x%x", number, ((DWORD*) (p_device->m_guid))[0], ((DWORD*) (p_device->m_guid))[1], ((DWORD*) (p_device->m_guid))[2], ((DWORD*) (p_device->m_guid))[3] ); return 0; } number++; } return -1; } #endif // FUNCTION: CONFIG 0x00402860 // FUNCTION: LEGO1 0x1009d0d0 int MxDeviceEnumerate::FUN_1009d0d0() { if (!m_initialized) { return -1; } if (m_list.empty()) { return -1; } int i = 0; int j = 0; int k = -1; int cpu_mmx = SupportsMMX(); for (list::iterator it = m_list.begin();; it++) { if (it == m_list.end()) { return k; } for (list::iterator it2 = (*it).m_devices.begin(); it2 != (*it).m_devices.end(); it2++) { if ((*it2).m_HWDesc.dcmColorModel) { return j; } if ((cpu_mmx && (*it2).m_HELDesc.dcmColorModel == D3DCOLOR_RGB && i == 0) || ((*it2).m_HELDesc.dcmColorModel == D3DCOLOR_MONO && i == 0 && k < 0)) { k = j; } j++; } i++; } } // FUNCTION: CONFIG 0x00402930 // FUNCTION: LEGO1 0x1009d1a0 int MxDeviceEnumerate::SupportsMMX() { if (!SupportsCPUID()) { return 0; } int supports_mmx; #ifdef _MSC_VER __asm { mov eax, 0x0 ; EAX=0: Highest Function Parameter and Manufacturer ID #if _MSC_VER > 1100 cpuid ; Run CPUID #else __emit 0x0f __emit 0xa2 #endif mov eax, 0x1 ; EAX=1: Processor Info and Feature Bits (unused) #if _MSC_VER > 1100 cpuid ; Run CPUID #else __emit 0x0f __emit 0xa2 #endif xor eax, eax ; Zero EAX register bt edx, 0x17 ; Test bit 0x17 (23): MMX instructions (64-bit SIMD) (Store in CF) adc eax, eax ; Add with carry: EAX = EAX + EAX + CF = CF mov supports_mmx, eax ; Save eax into C variable } #else __asm__("movl $0x0, %%eax\n\t" // EAX=0: Highest Function Parameter and Manufacturer ID "cpuid\n\t" // Run CPUID\n" "mov $0x1, %%eax\n\t" // EAX=1: Processor Info and Feature Bits (unused) "cpuid\n\t" // Run CPUID "xorl %%eax, %%eax\n\t" // Zero EAX register "btl $0x15, %%edx\n\t" // Test bit 0x17 (23): MMX instructions (64-bit SIMD) (Store in CF) "adc %%eax, %%eax" // Add with carry: EAX = EAX + EAX + CF = CF : "=a"(supports_mmx) // supports_mmx == EAX ); #endif return supports_mmx; } // FUNCTION: CONFIG 0x00402970 // FUNCTION: LEGO1 0x1009d1e0 int MxDeviceEnumerate::SupportsCPUID() { int has_cpuid; #ifdef _MSC_VER __asm { xor eax, eax ; Zero EAX register pushfd ; Push EFLAGS register value on the stack or dword ptr[esp], 0x200000 ; Set bit 0x200000: Able to use CPUID instruction (Pentium+) popfd ; Write the updated value into the EFLAGS register pushfd ; Push EFLAGS register value on the stack (again) btr dword ptr[esp], 0x15 ; Test bit 0x15 (21) and reset (set CF) adc eax, eax ; Add with carry: EAX = EAX + EAX + CF = CF popfd ; Push EFLAGS register value on the stack (again, and makes sure the stack remains the same) mov has_cpuid, eax ; Save eax into C variable } #else __asm__("xorl %%eax, %%eax\n\t" // Zero EAX register "pushfl\n\t" // Push EFLAGS register value on the stack "orl $0x200000, (%%esp)\n\t" // Set bit 0x200000: Able to use CPUID instruction (Pentium+) "popfl\n\t" // Write the updated value into the EFLAGS register "pushfl\n\t" // Push EFLAGS register value on the stack (again) "btrl $0x15, (%%esp)\n\t" // Test bit 0x15 (21) and reset (set CF) "adc %%eax, %%eax\n\t" // Add with carry: EAX = EAX + EAX + CF = CF "popfl" // Push EFLAGS register value on the stack (again, and makes sure the stack remains the same) : "=a"(has_cpuid) // has_cpuid == EAX ); #endif return has_cpuid; } // FUNCTION: CONFIG 0x004029a0 // FUNCTION: LEGO1 0x1009d210 int MxDeviceEnumerate::FUN_1009d210() { if (!m_initialized) { return -1; } for (list::iterator it = m_list.begin(); it != m_list.end();) { MxDriver& driver = *it; if (!DriverSupportsRequiredDisplayMode(driver)) { m_list.erase(it++); } else { for (list::iterator it2 = driver.m_devices.begin(); it2 != driver.m_devices.end();) { Direct3DDeviceInfo& device = *it2; if (!FUN_1009d3d0(device)) { driver.m_devices.erase(it2++); } else { it2++; } } if (driver.m_devices.empty()) { m_list.erase(it++); } else { it++; } } } return m_list.empty() ? -1 : 0; } // FUNCTION: CONFIG 0x00402b00 // FUNCTION: LEGO1 0x1009d370 unsigned char MxDeviceEnumerate::DriverSupportsRequiredDisplayMode(MxDriver& p_driver) { for (list::iterator it = p_driver.m_displayModes.begin(); it != p_driver.m_displayModes.end(); it++) { if ((*it).m_width == 640 && (*it).m_height == 480) { if ((*it).m_bitsPerPixel == 8 || (*it).m_bitsPerPixel == 16) { return TRUE; } } } return FALSE; } // FUNCTION: CONFIG 0x00402b60 // FUNCTION: LEGO1 0x1009d3d0 unsigned char MxDeviceEnumerate::FUN_1009d3d0(Direct3DDeviceInfo& p_device) { if (m_list.size() <= 0) { return FALSE; } if (p_device.m_HWDesc.dcmColorModel) { return p_device.m_HWDesc.dwDeviceZBufferBitDepth & DDBD_16 && p_device.m_HWDesc.dpcTriCaps.dwTextureCaps & D3DPTEXTURECAPS_PERSPECTIVE; } for (list::iterator it = m_list.front().m_devices.begin(); it != m_list.front().m_devices.end(); it++) { if ((&*it) == &p_device) { return TRUE; } } return FALSE; }