# Conflicts:
#	src/CMakeLists.txt
#	src/r_main.cpp
#	src/r_swrenderer.cpp
#	src/r_swrenderer.h
#	src/r_things.cpp
#	src/sound/fmodsound.cpp
#	src/win32/fb_d3d9.cpp
This commit is contained in:
nashmuhandes 2016-09-13 08:02:49 +08:00
commit e02f6fa3f4
16 changed files with 246 additions and 148 deletions

View file

@ -1914,7 +1914,7 @@ class CommandAspectRatio : public SBarInfoCommandFlowControl
{
SBarInfoCommandFlowControl::Tick(block, statusBar, hudChanged);
SetTruth(ratioMap[CheckRatio(screen->GetWidth(), screen->GetHeight())] == ratio, block, statusBar);
SetTruth(ratioMap[FindRatio()] == ratio, block, statusBar);
}
protected:
enum Ratio
@ -1931,6 +1931,37 @@ class CommandAspectRatio : public SBarInfoCommandFlowControl
static Ratio ratioMap[5];
Ratio ratio;
private:
int FindRatio()
{
float aspect = ActiveRatio(screen->GetWidth(), screen->GetHeight());
static std::pair<float, int> ratioTypes[] =
{
{ 21 / 9.0f , ASPECTRATIO_16_9 },
{ 16 / 9.0f , ASPECTRATIO_16_9 },
{ 17 / 10.0f , ASPECTRATIO_17_10 },
{ 16 / 10.0f , ASPECTRATIO_16_10 },
{ 4 / 3.0f , ASPECTRATIO_4_3 },
{ 5 / 4.0f , ASPECTRATIO_5_4 },
{ 0.0f, 0 }
};
int ratio = ratioTypes[0].second;
float distance = fabs(ratioTypes[0].first - aspect);
for (int i = 1; ratioTypes[i].first != 0.0f; i++)
{
float d = fabs(ratioTypes[i].first - aspect);
if (d < distance)
{
ratio = ratioTypes[i].second;
distance = d;
}
}
return ratio;
}
};
CommandAspectRatio::Ratio CommandAspectRatio::ratioMap[5] = {ASPECTRATIO_4_3,ASPECTRATIO_16_9,ASPECTRATIO_16_10,ASPECTRATIO_16_10,ASPECTRATIO_5_4};

View file

@ -1108,13 +1108,13 @@ void DrawHUD()
}
else
{
if (WidescreenRatio == 4)
if (CheckRatio(SCREENWIDTH, SCREENHEIGHT) == 4)
{
hudheight = hudwidth * 30 / BaseRatioSizes[WidescreenRatio][3]; // BaseRatioSizes is inverted for this mode
hudheight = hudwidth * 30 / AspectMultiplier(WidescreenRatio); // BaseRatioSizes is inverted for this mode
}
else
{
hudheight = hudwidth * 30 / (48*48/BaseRatioSizes[WidescreenRatio][3]);
hudheight = hudwidth * 30 / (48*48/AspectMultiplier(WidescreenRatio));
}
}
}

View file

@ -299,14 +299,15 @@ void DBaseStatusBar::SetScaled (bool scale, bool force)
{
ST_X = 0;
ST_Y = VirticalResolution - RelTop;
if (CheckRatio(SCREENWIDTH, SCREENHEIGHT) != 4)
float aspect = ActiveRatio(SCREENWIDTH, SCREENHEIGHT);
if (aspect >= 1.3f)
{ // Normal resolution
::ST_Y = Scale (ST_Y, SCREENHEIGHT, VirticalResolution);
}
else
{ // 5:4 resolution
::ST_Y = Scale(ST_Y - VirticalResolution/2, SCREENHEIGHT*3, Scale(VirticalResolution, BaseRatioSizes[4][1], 200)) + SCREENHEIGHT/2
+ (SCREENHEIGHT - SCREENHEIGHT * BaseRatioSizes[4][3] / 48) / 2;
::ST_Y = Scale(ST_Y - VirticalResolution/2, SCREENHEIGHT*3, Scale(VirticalResolution, AspectBaseHeight(aspect), 200)) + SCREENHEIGHT/2
+ (SCREENHEIGHT - SCREENHEIGHT * AspectMultiplier(aspect) / 48) / 2;
}
Displacement = 0;
}
@ -1035,10 +1036,10 @@ void DBaseStatusBar::DrSmallNumberOuter (int val, int x, int y, bool center) con
void DBaseStatusBar::RefreshBackground () const
{
int x, x2, y, ratio;
int x, x2, y;
ratio = CheckRatio (SCREENWIDTH, SCREENHEIGHT);
x = (!IsRatioWidescreen(ratio) || !Scaled) ? ST_X : SCREENWIDTH*(48-BaseRatioSizes[ratio][3])/(48*2);
float ratio = ActiveRatio (SCREENWIDTH, SCREENHEIGHT);
x = (ratio < 1.5f || !Scaled) ? ST_X : SCREENWIDTH*(48-AspectMultiplier(ratio))/(48*2);
y = x == ST_X && x > 0 ? ST_Y : ::ST_Y;
if(!CompleteBorder)
@ -1058,8 +1059,8 @@ void DBaseStatusBar::RefreshBackground () const
{
if(!CompleteBorder)
{
x2 = !IsRatioWidescreen(ratio) || !Scaled ? ST_X+HorizontalResolution :
SCREENWIDTH - (SCREENWIDTH*(48-BaseRatioSizes[ratio][3])+48*2-1)/(48*2);
x2 = ratio < 1.5f || !Scaled ? ST_X+HorizontalResolution :
SCREENWIDTH - (SCREENWIDTH*(48-AspectMultiplier(ratio))+48*2-1)/(48*2);
}
else
{

View file

@ -120,7 +120,7 @@ angle_t FGLRenderer::FrustumAngle()
// ok, this is a gross hack that barely works...
// but at least it doesn't overestimate too much...
double floatangle=2.0+(45.0+((tilt/1.9)))*mCurrentFoV*48.0/BaseRatioSizes[WidescreenRatio][3]/90.0;
double floatangle=2.0+(45.0+((tilt/1.9)))*mCurrentFoV*48.0/AspectMultiplier(WidescreenRatio)/90.0;
angle_t a1 = DAngle(floatangle).BAMs();
if (a1>=ANGLE_180) return 0xffffffff;
return a1;
@ -917,14 +917,10 @@ void FGLRenderer::RenderView (player_t* player)
NoInterpolateView = saved_niv;
// I stopped using BaseRatioSizes here because the information there wasn't well presented.
// 4:3 16:9 16:10 17:10 5:4
static float ratios[]={1.333333f, 1.777777f, 1.6f, 1.7f, 1.25f, 1.7f, 2.333333f};
// now render the main view
float fovratio;
float ratio = ratios[WidescreenRatio];
if (! Is54Aspect(WidescreenRatio))
float ratio = WidescreenRatio;
if (WidescreenRatio >= 1.3f)
{
fovratio = 1.333333f;
}

View file

@ -375,7 +375,7 @@ void GLSprite::Draw(int pass)
gl_RenderState.Apply();
FVector3 v[4];
if ((actor->renderflags & RF_SPRITETYPEMASK) == RF_FLATSPRITE)
if (actor != nullptr && (actor->renderflags & RF_SPRITETYPEMASK) == RF_FLATSPRITE)
{
}
else

View file

@ -81,8 +81,6 @@ void FGLRenderer::DrawPSprite (player_t * player,DPSprite *psp, float sx, float
float scale;
float scalex;
float ftexturemid;
// 4:3 16:9 16:10 17:10 5:4 17:10 21:9
static float xratio[] = {1.f, 3.f/4, 5.f/6, 40.f/51, 1.f, 40.f/51, 4.f/7};
// [BB] In the HUD model step we just render the model and break out.
if ( hudModelStep )
@ -108,7 +106,7 @@ void FGLRenderer::DrawPSprite (player_t * player,DPSprite *psp, float sx, float
tex->GetSpriteRect(&r);
// calculate edges of the shape
scalex = xratio[WidescreenRatio] * vw / 320;
scalex = (320.0f / (240.0f * WidescreenRatio)) * vw / 320;
tx = sx - (160 - r.left);
x1 = tx * scalex + vw/2;

View file

@ -192,12 +192,23 @@ void OpenGLFrameBuffer::Update()
DrawRateStuff();
GLRenderer->Flush();
GLRenderer->SetOutputViewport(nullptr);
Swap();
swapped = false;
Unlock();
CheckBench();
if (Windowed)
{
int clientWidth = GetClientWidth();
int clientHeight = GetClientHeight();
if (clientWidth > 0 && clientHeight > 0 && (Width != clientWidth || Height != clientHeight))
{
Resize(clientWidth, clientHeight);
V_OutputResized(Width, Height);
}
}
GLRenderer->SetOutputViewport(nullptr);
}

View file

@ -309,6 +309,11 @@ void FUDMFKeys::Sort()
FUDMFKey *FUDMFKeys::Find(FName key)
{
if (!mSorted)
{
mSorted = true;
Sort();
}
int min = 0, max = Size()-1;
while (min <= max)

View file

@ -246,6 +246,7 @@ struct FUDMFKey
class FUDMFKeys : public TArray<FUDMFKey>
{
bool mSorted = false;
public:
void Sort();
FUDMFKey *Find(FName key);

View file

@ -55,7 +55,7 @@ struct FRenderer
virtual void ErrorCleanup () {}
virtual void ClearBuffer(int color) = 0;
virtual void Init() = 0;
virtual void SetWindow (int windowSize, int fullWidth, int fullHeight, int stHeight, int trueratio) {}
virtual void SetWindow (int windowSize, int fullWidth, int fullHeight, int stHeight, float trueratio) {}
virtual void SetupFrame(player_t *player) {}
virtual void CopyStackedViewParameters() {}
virtual void RenderTextureView (FCanvasTexture *tex, AActor *viewpoint, int fov) = 0;

View file

@ -139,7 +139,7 @@ angle_t LocalViewAngle;
int LocalViewPitch;
bool LocalKeyboardTurner;
int WidescreenRatio;
float WidescreenRatio;
int setblocks;
int extralight;
bool setsizeneeded;
@ -201,7 +201,7 @@ void R_SetViewSize (int blocks)
void R_SetWindow (int windowSize, int fullWidth, int fullHeight, int stHeight)
{
int trueratio;
float trueratio;
if (windowSize >= 11)
{
@ -221,8 +221,7 @@ void R_SetWindow (int windowSize, int fullWidth, int fullHeight, int stHeight)
freelookviewheight = ((setblocks*fullHeight)/10)&~7;
}
// If the screen is approximately 16:9 or 16:10, consider it widescreen.
WidescreenRatio = CheckRatio (fullWidth, fullHeight, &trueratio);
WidescreenRatio = ActiveRatio (fullWidth, fullHeight, &trueratio);
DrawFSHUD = (windowSize == 11);
@ -231,13 +230,13 @@ void R_SetWindow (int windowSize, int fullWidth, int fullHeight, int stHeight)
centery = viewheight/2;
centerx = viewwidth/2;
if (Is54Aspect(WidescreenRatio))
if (WidescreenRatio < 1.3f)
{
centerxwide = centerx;
}
else
{
centerxwide = centerx * BaseRatioSizes[WidescreenRatio][3] / 48;
centerxwide = centerx * AspectMultiplier(WidescreenRatio) / 48;
}

View file

@ -33,7 +33,7 @@ extern int validcount;
extern angle_t LocalViewAngle; // [RH] Added to consoleplayer's angle
extern int LocalViewPitch; // [RH] Used directly instead of consoleplayer's pitch
extern bool LocalKeyboardTurner; // [RH] The local player used the keyboard to turn, so interpolate
extern int WidescreenRatio;
extern float WidescreenRatio;
extern double r_TicFracF;
extern DWORD r_FrameTime;

View file

@ -858,37 +858,37 @@ bool DCanvas::ParseDrawTextureTags (FTexture *img, double x, double y, DWORD tag
void DCanvas::VirtualToRealCoords(double &x, double &y, double &w, double &h,
double vwidth, double vheight, bool vbottom, bool handleaspect) const
{
int myratio = handleaspect ? CheckRatio (Width, Height) : 0;
float myratio = handleaspect ? ActiveRatio (Width, Height) : (4.0f / 3.0f);
// if 21:9 AR, map to 16:9 for all callers.
// this allows for black bars and stops the stretching of fullscreen images
if (myratio == 6) {
myratio = 2;
if (myratio > 1.7f) {
myratio = 16.0f / 9.0f;
}
double right = x + w;
double bottom = y + h;
if (myratio != 0 && myratio != 4)
if (myratio > 1.4f)
{ // The target surface is either 16:9 or 16:10, so expand the
// specified virtual size to avoid undesired stretching of the
// image. Does not handle non-4:3 virtual sizes. I'll worry about
// those if somebody expresses a desire to use them.
x = (x - vwidth * 0.5) * Width * 960 / (vwidth * BaseRatioSizes[myratio][0]) + Width * 0.5;
w = (right - vwidth * 0.5) * Width * 960 / (vwidth * BaseRatioSizes[myratio][0]) + Width * 0.5 - x;
x = (x - vwidth * 0.5) * Width * 960 / (vwidth * AspectBaseWidth(myratio)) + Width * 0.5;
w = (right - vwidth * 0.5) * Width * 960 / (vwidth * AspectBaseWidth(myratio)) + Width * 0.5 - x;
}
else
{
x = x * Width / vwidth;
w = right * Width / vwidth - x;
}
if (myratio == 4)
if (myratio < 1.3f)
{ // The target surface is 5:4
y = (y - vheight * 0.5) * Height * 600 / (vheight * BaseRatioSizes[myratio][1]) + Height * 0.5;
h = (bottom - vheight * 0.5) * Height * 600 / (vheight * BaseRatioSizes[myratio][1]) + Height * 0.5 - y;
y = (y - vheight * 0.5) * Height * 600 / (vheight * AspectBaseHeight(myratio)) + Height * 0.5;
h = (bottom - vheight * 0.5) * Height * 600 / (vheight * AspectBaseHeight(myratio)) + Height * 0.5 - y;
if (vbottom)
{
y += (Height - Height * BaseRatioSizes[myratio][3] / 48.0) * 0.5;
y += (Height - Height * AspectMultiplier(myratio) / 48.0) * 0.5;
}
}
else
@ -932,30 +932,30 @@ void DCanvas::VirtualToRealCoordsInt(int &x, int &y, int &w, int &h,
void DCanvas::FillBorder (FTexture *img)
{
int myratio = CheckRatio (Width, Height);
float myratio = ActiveRatio (Width, Height);
// if 21:9 AR, fill borders akin to 16:9, since all fullscreen
// images are being drawn to that scale.
if (myratio == 6) {
myratio = 2;
if (myratio > 1.7f) {
myratio = 16 / 9.0f;
}
if (myratio == 0)
if (myratio >= 1.3f && myratio <= 1.4f)
{ // This is a 4:3 display, so no border to show
return;
}
int bordtop, bordbottom, bordleft, bordright, bord;
if (Is54Aspect(myratio))
if (myratio < 1.3f)
{ // Screen is taller than it is wide
bordleft = bordright = 0;
bord = Height - Height * BaseRatioSizes[myratio][3] / 48;
bord = Height - Height * AspectMultiplier(myratio) / 48;
bordtop = bord / 2;
bordbottom = bord - bordtop;
}
else
{ // Screen is wider than it is tall
bordtop = bordbottom = 0;
bord = Width - Width * BaseRatioSizes[myratio][3] / 48;
bord = Width - Width * AspectMultiplier(myratio) / 48;
bordleft = bord / 2;
bordright = bord - bordleft;
}

View file

@ -726,6 +726,21 @@ void DCanvas::CalcGamma (float gamma, BYTE gammalookup[256])
DSimpleCanvas::DSimpleCanvas (int width, int height)
: DCanvas (width, height)
{
MemBuffer = nullptr;
Resize(width, height);
}
void DSimpleCanvas::Resize(int width, int height)
{
Width = width;
Height = height;
if (MemBuffer != NULL)
{
delete[] MemBuffer;
MemBuffer = NULL;
}
// Making the pitch a power of 2 is very bad for performance
// Try to maximize the number of cache lines that can be filled
// for each column drawing operation by making the pitch slightly
@ -762,7 +777,7 @@ DSimpleCanvas::DSimpleCanvas (int width, int height)
}
}
MemBuffer = new BYTE[Pitch * height];
memset (MemBuffer, 0, Pitch * height);
memset(MemBuffer, 0, Pitch * height);
}
//==========================================================================
@ -1260,7 +1275,6 @@ CCMD(clean)
bool V_DoModeSetup (int width, int height, int bits)
{
DFrameBuffer *buff = I_SetMode (width, height, screen);
int cx1, cx2;
if (buff == NULL)
{
@ -1275,6 +1289,17 @@ bool V_DoModeSetup (int width, int height, int bits)
// if D3DFB is being used for the display.
FFont::StaticPreloadFonts();
DisplayBits = bits;
V_UpdateModeSize(width, height);
M_RefreshModesList ();
return true;
}
void V_UpdateModeSize (int width, int height)
{
int cx1, cx2;
V_CalcCleanFacs(320, 200, width, height, &CleanXfac, &CleanYfac, &cx1, &cx2);
CleanWidth = width / CleanXfac;
@ -1315,32 +1340,37 @@ bool V_DoModeSetup (int width, int height, int bits)
DisplayWidth = width;
DisplayHeight = height;
DisplayBits = bits;
R_OldBlend = ~0;
Renderer->OnModeSet();
M_RefreshModesList ();
}
return true;
void V_OutputResized (int width, int height)
{
V_UpdateModeSize(width, height);
setsizeneeded = true;
if (StatusBar != NULL)
{
StatusBar->ScreenSizeChanged();
}
}
void V_CalcCleanFacs (int designwidth, int designheight, int realwidth, int realheight, int *cleanx, int *cleany, int *_cx1, int *_cx2)
{
int ratio;
float ratio;
int cwidth;
int cheight;
int cx1, cy1, cx2, cy2;
ratio = CheckRatio(realwidth, realheight);
if (Is54Aspect(ratio))
ratio = ActiveRatio(realwidth, realheight);
if (ratio < 1.3f)
{
cwidth = realwidth;
cheight = realheight * BaseRatioSizes[ratio][3] / 48;
cheight = realheight * AspectMultiplier(ratio) / 48;
}
else
{
cwidth = realwidth * BaseRatioSizes[ratio][3] / 48;
cwidth = realwidth * AspectMultiplier(ratio) / 48;
cheight = realheight;
}
// Use whichever pair of cwidth/cheight or width/height that produces less difference
@ -1574,20 +1604,10 @@ CUSTOM_CVAR (Int, vid_aspect, 0, CVAR_GLOBALCONFIG|CVAR_ARCHIVE)
}
}
// Tries to guess the physical dimensions of the screen based on the
// screen's pixel dimensions. Can return:
// 0: 4:3
// 1: 16:9
// 2: 16:10
// 3: 17:10
// 4: 5:4
// 5: 17:10 (redundant)
// 6: 21:9
int CheckRatio (int width, int height, int *trueratio)
// Helper for ActiveRatio and CheckRatio. Returns the forced ratio type, or -1 if none.
int ActiveFakeRatio(int width, int height)
{
int fakeratio = -1;
int ratio;
if ((vid_aspect >= 1) && (vid_aspect <= 6))
{
// [SP] User wants to force aspect ratio; let them.
@ -1599,7 +1619,7 @@ int CheckRatio (int width, int height, int *trueratio)
else if (fakeratio == 5)
{
fakeratio = 3;
}
}
}
if (vid_nowidescreen)
{
@ -1609,74 +1629,98 @@ int CheckRatio (int width, int height, int *trueratio)
}
else
{
fakeratio = (height * 5/4 == width) ? 4 : 0;
fakeratio = (height * 5 / 4 == width) ? 4 : 0;
}
}
// If the size is approximately 16:9, consider it so.
if (abs (height * 16/9 - width) < 10)
{
ratio = 1;
}
// Consider 17:10 as well.
else if (abs (height * 17/10 - width) < 10)
{
ratio = 3;
}
// 16:10 has more variance in the pixel dimensions. Grr.
else if (abs (height * 16/10 - width) < 60)
{
// 320x200 and 640x400 are always 4:3, not 16:10
if ((width == 320 && height == 200) || (width == 640 && height == 400))
{
ratio = 0;
}
else
{
ratio = 2;
}
}
// Unless vid_tft is set, 1280x1024 is 4:3, not 5:4.
else if (height * 5/4 == width && vid_tft)
{
ratio = 4;
}
// test for 21:9 (actually 64:27, 21:9 is a semi-accurate ratio used in marketing)
else if (abs (height * 64/27 - width) < 30)
{
ratio = 6;
}
// Assume anything else is 4:3. (Which is probably wrong these days...)
else
{
ratio = 0;
}
if (trueratio != NULL)
{
*trueratio = ratio;
}
return (fakeratio >= 0) ? fakeratio : ratio;
return fakeratio;
}
// First column: Base width
// Second column: Base height (used for wall visibility multiplier)
// Third column: Psprite offset (needed for "tallscreen" modes)
// Fourth column: Width or height multiplier
// For widescreen aspect ratio x:y ...
// base_width = 240 * x / y
// multiplier = 320 / base_width
// base_height = 200 * multiplier
const int BaseRatioSizes[7][4] =
// Active screen ratio based on cvars and size
float ActiveRatio(int width, int height, float *trueratio)
{
{ 960, 600, 0, 48 }, // 4:3 320, 200, multiplied by three
{ 1280, 450, 0, 48*3/4 }, // 16:9 426.6667, 150, multiplied by three
{ 1152, 500, 0, 48*5/6 }, // 16:10 386, 166.6667, multiplied by three
{ 1224, 471, 0, 48*40/51 }, // 17:10 408, 156.8627, multiplied by three
{ 960, 640, (int)(6.5*FRACUNIT), 48*15/16 }, // 5:4 320, 213.3333, multiplied by three
{ 1224, 471, 0, 48*40/51 }, // 17:10 408, 156.8627, multiplied by three (REDUNDANT)
{ 1707, 338, 0, 48*9/16 } // 21:9 568.8889, 337.5, multiplied by three
};
static float forcedRatioTypes[] =
{
4 / 3.0f,
16 / 9.0f,
16 / 10.0f,
17 / 10.0f,
5 / 4.0f,
17 / 10.0f,
21 / 9.0f
};
float ratio = width / (float)height;
int fakeratio = ActiveFakeRatio(width, height);
if (trueratio)
*trueratio = ratio;
return (fakeratio != -1) ? forcedRatioTypes[fakeratio] : ratio;
}
// Tries to guess the physical dimensions of the screen based on the
// screen's pixel dimensions. Can return:
// 0: 4:3
// 1: 16:9
// 2: 16:10
// 3: 17:10
// 4: 5:4
// 5: 17:10 (redundant, never returned)
// 6: 21:9
int CheckRatio (int width, int height, int *trueratio)
{
float aspect = width / (float)height;
static std::pair<float, int> ratioTypes[] =
{
{ 21 / 9.0f , 6 },
{ 16 / 9.0f , 1 },
{ 17 / 10.0f , 3 },
{ 16 / 10.0f , 2 },
{ 4 / 3.0f , 0 },
{ 5 / 4.0f , 4 },
{ 0.0f, 0 }
};
int ratio = ratioTypes[0].second;
float distance = fabs(ratioTypes[0].first - aspect);
for (int i = 1; ratioTypes[i].first != 0.0f; i++)
{
float d = fabs(ratioTypes[i].first - aspect);
if (d < distance)
{
ratio = ratioTypes[i].second;
distance = d;
}
}
int fakeratio = ActiveFakeRatio(width, height);
if (fakeratio == -1)
fakeratio = ratio;
if (trueratio)
*trueratio = ratio;
return fakeratio;
}
int AspectBaseWidth(float aspect)
{
return (int)round(240.0f * aspect * 3.0f);
}
int AspectBaseHeight(float aspect)
{
return (int)round(200.0f * (320.0f / (240.0f * aspect)) * 3.0f);
}
int AspectPspriteOffset(float aspect)
{
return aspect < 1.3f ? (int)(6.5*FRACUNIT) : 0;
}
int AspectMultiplier(float aspect)
{
return (int)round(320.0f / (240.0f * aspect) * 48.0f);
}
void IVideo::DumpAdapters ()
{

View file

@ -47,6 +47,8 @@ extern int CleanWidth_1, CleanHeight_1, CleanXfac_1, CleanYfac_1;
extern int DisplayWidth, DisplayHeight, DisplayBits;
bool V_DoModeSetup (int width, int height, int bits);
void V_UpdateModeSize (int width, int height);
void V_OutputResized (int width, int height);
void V_CalcCleanFacs (int designwidth, int designheight, int realwidth, int realheight, int *cleanx, int *cleany, int *cx1=NULL, int *cx2=NULL);
class FTexture;
@ -300,6 +302,8 @@ public:
void Unlock ();
protected:
void Resize(int width, int height);
BYTE *MemBuffer;
DSimpleCanvas() {}
@ -512,15 +516,15 @@ extern "C" void ASM_PatchPitch (void);
int CheckRatio (int width, int height, int *trueratio=NULL);
static inline int CheckRatio (double width, double height) { return CheckRatio(int(width), int(height)); }
extern const int BaseRatioSizes[7][4];
inline bool IsRatioWidescreen(int ratio) { return (ratio & 3) != 0; }
inline bool IsRatioWidescreen(int ratio) {
return (ratio & 3)!=0;
}
float ActiveRatio (int width, int height, float *trueratio = NULL);
static inline double ActiveRatio (double width, double height) { return ActiveRatio(int(width), int(height)); }
inline bool Is54Aspect(int ratio) {
return ratio == 4;
}
int AspectBaseWidth(float aspect);
int AspectBaseHeight(float aspect);
int AspectPspriteOffset(float aspect);
int AspectMultiplier(float aspect);
EXTERN_CVAR(Int, uiscale);

View file

@ -537,10 +537,18 @@ LRESULT CALLBACK WndProc (HWND hWnd, UINT message, WPARAM wParam, LPARAM lParam)
if (screen && !VidResizing)
{
LPMINMAXINFO mmi = (LPMINMAXINFO)lParam;
RECT rect = { 0, 0, screen->GetWidth(), screen->GetHeight() };
AdjustWindowRectEx(&rect, WS_VISIBLE|WS_OVERLAPPEDWINDOW, FALSE, WS_EX_APPWINDOW);
mmi->ptMinTrackSize.x = rect.right - rect.left;
mmi->ptMinTrackSize.y = rect.bottom - rect.top;
if (screen->IsFullscreen())
{
RECT rect = { 0, 0, screen->GetWidth(), screen->GetHeight() };
AdjustWindowRectEx(&rect, WS_VISIBLE | WS_OVERLAPPEDWINDOW, FALSE, WS_EX_APPWINDOW);
mmi->ptMinTrackSize.x = rect.right - rect.left;
mmi->ptMinTrackSize.y = rect.bottom - rect.top;
}
else
{
mmi->ptMinTrackSize.x = 320;
mmi->ptMinTrackSize.y = 200;
}
return 0;
}
break;