// This will happen in each step of the generation of the cave.
void CellularAutomata::StepInGeneration()
{
for (int i = 0; i < GetSizeY(); i++)
{
for (int j = 0; j < GetSizeX(); j++)
{
int livingNeighbours = CountLivingNeighbours(j, i);
//if (i == 1 && j == 2)
// std::cout << livingNeighbours << "\n";
if (cave[i][j] == FLOOR)
{
// If current node is a live but too many neighbours are dead, kill it.
if (livingNeighbours < GetDeathLimit())
cave2[i][j] = WALL;
else
cave2[i][j] = FLOOR; //
}
else// if(cave[i][j] == '#')
{
if(livingNeighbours > GetBirthLimit())
cave2[i][j] = FLOOR; //
else
cave2[i][j] = WALL;
}
}
}
for (int i = 0; i < GetSizeY(); i++)
for (int j = 0; j < GetSizeX(); j++)
cave[i][j] = cave2[i][j];
}
void CellularAutomata::Init(int sizeX, int sizeY, int birthLimit, int deathLimit, int generations, int changeToStayAlive, int numOfCavesToGenerate, unsigned int seed)
{
// Do we have a specified seed or will we randomize?
if (seed != 0)
std::srand(seed);
else // Randomize if we don't have a seed
std::srand((unsigned int)time(NULL));
// Set values for various things.
SetSizeX(sizeX);
SetSizeY(sizeY);
SetBirthLimit(birthLimit);
SetDeathLimit(deathLimit);
SetGenerations(generations);
SetChanceToStayAlive(changeToStayAlive);
SetCavesToGenerate(numOfCavesToGenerate);
SetCavesGenerated(0);
SetFloorTiles(0);
// Allocate memory for the map. //////////////
cave = new char*[GetSizeY()];
cave2 = new char*[GetSizeY()];
for (int y = 0; y < GetSizeY(); y++)
{
cave[y] = new char[GetSizeX()];
cave2[y] = new char[GetSizeX()];
}
/////////////////////////////////////////////
}
int UiText::GetPositionY2() const
{
if (m_anchor == BOT_LEFT || m_anchor == BOT_RIGHT)
return m_posY + GetSizeY() - 1;
if (m_anchor == TOP_LEFT || m_anchor == TOP_RIGHT)
return m_posY;
return m_posY + GetSizeY() / 2;
}
// Create walls on all edges of the map.
void CellularAutomata::FrameCave()
{
for (int i = 0; i < GetSizeY(); i++)
{
cave[i][0] = cave[i][GetSizeX() - 1] = '#';
cave2[i][0] = cave2[i][GetSizeX() - 1] = '#';
}
for (int i = 0; i < GetSizeX(); i++)
{
cave[0][i] = cave[GetSizeY() - 1][i] = '#';
cave2[0][i] = cave2[GetSizeY() - 1][i] = '#';
}
}
void Margolus::PrintParameters() const {
cout << "\n------------------------------\n---Output field parameters:---\n------------------------------\n";
cout << "Size X:\t" << GetSizeX() << endl;
cout << "Size Y:\t" << GetSizeY() << endl;
cout << "Size Z:\t" << GetSizeZ() << endl;
cout << "Temperature:\t" << *T << endl;
cout << "Steam energy:\t" << *steamEnergy_ << endl;
cout << "Substances count:\t" << subs.size() << endl;
for (const pSub & sub : subs) {
cout << sub->GetName() << "\t" << sub->GetFillCount() << endl;
}
cout << "Energy count:\t" << energy.size() << endl;
for (const Energy & en : energy) {
cout << en.name1 << "-" << en.name2 << " E=" << en.energy << " H="
<< *en.energyH << " S=" << *en.energyS << endl;
}
cout << "Energy cell count:\t" << energyCell.size() << endl;
for (const Energy & en : energyCell) {
cout << en.name1 << "-" << en.name2 << " E=" << en.energy << " H="
<< *en.energyH << " S=" << *en.energyS << endl;
}
cout << "------------------------------\n---Output field parameters:---\n------------------------------\n";
cout << "Press any key to continue ... \n";
string s;
cin >> s;
}
/** Called when the resource is initialized. This is only called by the rendering thread. */
void FTexture2DDynamicResource::InitRHI()
{
// Create the sampler state RHI resource.
FSamplerStateInitializerRHI SamplerStateInitializer
(
GSystemSettings.TextureLODSettings.GetSamplerFilter( Owner ),
AM_Wrap,
AM_Wrap,
AM_Wrap
);
SamplerStateRHI = RHICreateSamplerState( SamplerStateInitializer );
uint32 Flags = 0;
if ( Owner->bIsResolveTarget )
{
Flags |= TexCreate_ResolveTargetable;
bIgnoreGammaConversions = true; // Note, we're ignoring Owner->SRGB (it should be false).
}
else if ( Owner->SRGB )
{
Flags |= TexCreate_SRGB;
}
if ( Owner->bNoTiling )
{
Flags |= TexCreate_NoTiling;
}
FRHIResourceCreateInfo CreateInfo;
Texture2DRHI = RHICreateTexture2D(GetSizeX(), GetSizeY(), Owner->Format, Owner->NumMips, 1, Flags, CreateInfo);
TextureRHI = Texture2DRHI;
RHIUpdateTextureReference(Owner->TextureReference.TextureReferenceRHI,TextureRHI);
}
FString UTextureCube::GetDesc()
{
return FString::Printf(TEXT("Cube: %dx%d [%s]"),
GetSizeX(),
GetSizeY(),
GPixelFormats[GetPixelFormat()].Name
);
}
// Reset the cave to only contain floors.
void CellularAutomata::EmptyCave()
{
for (int y = 0; y < GetSizeY(); y++)
for (int x = 0; x < GetSizeX(); x++)
{
cave[y][x] = WALL;
cave2[y][x] = WALL;
}
}
void CellularAutomata::CountFloorTiles()
{
mDigged = 0;
for (int i = 0; i < GetSizeY() - 1; i++)
for (int j = 0; j < GetSizeX() - 1; j++)
if (cave2[i][j] == '.')
mDigged++;
std::cout << "mDigged == " << mDigged << "\n";
}
// Debug-function to display the cave.
void CellularAutomata::PrintCave()
{
for (int y = 0; y < GetSizeY(); y++)
{
for (int x = 0; x < GetSizeX(); x++)
std::cout << cave[y][x];
std::cout << "\n";
}
}
// Randomize the initial layout of the cave.
void CellularAutomata::RandomizeCave()
{
for (int y = 0; y < GetSizeY(); y++)
for (int x = 0; x < GetSizeX(); x++) {
if ((std::rand() % 101 < GetChanceToStayAlive())) {
cave[y][x] = FLOOR; //
}
}
}
void World::MakeExample() {
for (int x = 0; x < GetSizeX(); x ++) {
for ( int y = 0; y < GetSizeY(); y++) {
if (x > 10 && x < 20 && y > 5 && y <25) {
SetTile(x, y, tileManager->GetId("clay"));
}
else {
SetTile(x, y, tileManager->GetId("grass"));
}
}
}
}
double Margolus::CalculationBlockEnergy(const Block& block, cuint& ix, cuint& iy) {
double sumEnergy = 0.0;
Cell cellIn, cellOut;
//x gran 1
if (ix > 0) {
cellIn = block.cells[0][1];
cellOut = cells[ix - 1][iy + 1][0];
PareEnergy(cellIn, cellOut, sumEnergy);
cellIn = block.cells[0][0];
cellOut = cells[ix - 1][iy][0];
PareEnergy(cellIn, cellOut, sumEnergy);
}
//x gran 2
if (ix < GetSizeX() - 2) {
cellIn = block.cells[1][1];
cellOut = cells[ix + 2][iy + 1][0];
PareEnergy(cellIn, cellOut, sumEnergy);
cellIn = block.cells[1][0];
cellOut = cells[ix + 2][iy][0];
PareEnergy(cellIn, cellOut, sumEnergy);
}
//y gran 1
if (iy > 0) {
cellIn = block.cells[1][0];
cellOut = cells[ix + 1][iy - 1][0];
PareEnergy(cellIn, cellOut, sumEnergy);
cellIn = block.cells[0][0];
cellOut = cells[ix][iy - 1][0];
PareEnergy(cellIn, cellOut, sumEnergy);
}
//y gran 2
if (iy < GetSizeY() - 2) {
cellIn = block.cells[1][1];
cellOut = cells[ix + 1][iy + 2][0];
PareEnergy(cellIn, cellOut, sumEnergy);
cellIn = block.cells[0][1];
cellOut = cells[ix][iy + 2][0];
PareEnergy(cellIn, cellOut, sumEnergy);
}
//inside block
for (uint i = 0; i < 4; ++i) {
cellIn = block.cells[indexF[i][0]][indexF[i][1]];
cellOut = block.cells[indexF[i + 1][0]][indexF[i + 1][1]];
PareEnergyFull(cellIn, cellOut, sumEnergy);
}
if (!moveForward || block.move[movement] > 0) {
sumEnergy += block.move[movement] * *steamEnergy_;
}
return sumEnergy;
}
void CellularAutomata::LifeCycle()
{
FILETIME prevSysKernel, prevSysUser,
prevProcKernel, prevProcUser;
double usage = 0.0;
MessyClass::GetInstance().Init(GetSizeX(), GetSizeY());
for (int i = 0; i < FileReader::GetInstance().FetchIntData(6); i++) // How many caves shall we generate?
{
/////////////////////////////////////////////
// Set all locations in the map to walls ////
// This is just to remove junk-values.
EmptyCave();
/////////////////////////////////////////////
// Randomize the initial map ////////////////
RandomizeCave();
/////////////////////////////////////////////
// Generate the cave(s) /////////////////////
CPUUsage c;
usage = c.GetCPUUsage(&prevSysKernel, &prevSysUser, &prevProcKernel, &prevProcUser, true);
GenerateCave();
usage = c.GetCPUUsage(&prevSysKernel, &prevSysUser, &prevProcKernel, &prevProcUser);
FileReader::GetInstance().WriteToFile(std::to_string(GetSizeX()) + "x" + std::to_string(GetSizeY()) + "_CPUUsage.txt", "", usage, 8);
//PrintCave();
/////////////////////////////////////////////
// Save the cave(s) in seperate files ///////
SaveCave();
//
MessyClass::GetInstance().SaveImage(GetCavesGenerated(), GetCave());
CountFloorTiles();
system("CLS");
std::cout << "[ CAVE " << GetCavesGenerated() << " / " << GetCavesToGenerate() << " COMPLETED ]\n";
std::cout << "Floor tiles: " << GetFloorTiles() << " / " << GetSizeX() * GetSizeY() << "\n";
}
CPUUsage c;
c.FindUsage("Data/"+std::to_string(GetSizeX()) + "x" + std::to_string(GetSizeY()) + "_CPUUsage.txt", GetSizeX(), GetSizeY(), GetCavesToGenerate());
std::cout << "Generation completed!\n\nPress enter to exit program...\n";
}
void SampleImageDlg::EnableBasedOnConstraint()
{
GetTextToFile()->Enable(m_bToFile);
GetDotDotDot()->Enable(m_bToFile);
GetConstrain()->Enable(true);
GetSmaller()->Enable(m_bConstraint);
GetBigger()->Enable(m_bConstraint);
GetSizeX()->SetEditable(!m_bConstraint);
GetSizeY()->SetEditable(!m_bConstraint);
GetSpacingX()->SetEditable(!m_bConstraint);
GetSpacingY()->SetEditable(!m_bConstraint);
}
void SampleImageDlg::OnSpacingXY( wxCommandEvent &event )
{
if (m_bSetting)
return;
TransferDataFromWindow();
m_Size.x = (int) (m_fAreaX / m_fSpacingX);
m_Size.y = (int) (m_fAreaY / m_fSpacingY);
m_bSetting = true;
GetSizeX()->GetValidator()->TransferToWindow();
GetSizeY()->GetValidator()->TransferToWindow();
m_bSetting = false;
}
void ComboBox::Draw(const Point2i &mousePosition)
{
Surface& window = GetMainWindow();
// the computed positions are to center on the image part of the widget
// 1. first draw the torus
torus->Draw(*this);
// 2. then draw buttons
#define IMG_BUTTONS_W 5
#define IMG_BUTTONS_H 12
Point2i center = GetPosition() + torus->GetCenter();
if (m_index > 0) {
if (Contains(mousePosition) && mousePosition.x < center.x)
torus->m_minus->SetCurrentFrame(1);
else
torus->m_minus->SetCurrentFrame(0);
torus->m_minus->Blit(window, GetPositionX() + IMG_BUTTONS_W, GetPositionY() + IMG_BUTTONS_H);
}
if (m_index < m_choices.size() - 1) {
if (Contains(mousePosition) && mousePosition.x > center.x)
torus->m_plus->SetCurrentFrame(1);
else
torus->m_plus->SetCurrentFrame(0);
torus->m_plus->Blit(window, GetPositionX() + GetSizeX() - torus->m_plus->GetWidth() - IMG_BUTTONS_W,
GetPosition().y + IMG_BUTTONS_H);
}
// 3. add in the value image
uint tmp_x = GetPositionX() + GetSizeX()/2;
uint tmp_y = center.y + SMALL_R - 3;
uint value_h = Font::GetInstance(Font::FONT_MEDIUM)->GetHeight();
txt_value_black->DrawCenterTop(Point2i(tmp_x + 1, tmp_y + 1 - value_h/2));
txt_value_white->DrawCenterTop(Point2i(tmp_x, tmp_y - value_h/2));
// 7. and finally the label image
txt_label->DrawCenterTop(Point2i(tmp_x, GetPositionY() + GetSizeY() - txt_label->GetHeight()));
}
//gets the ref of a specific cell from a given position out of the region_array
const CCellTypeWorld& CDungeon::GetCell(const C2DPosition<>& pos) const
{
C2DPosition<> region = pos / C2DPosition<>(CRegion::GetSizeX(),CRegion::GetSizeY());
//int regionX = pos[0] / CRegion::GetSizeX();
//int regionY = pos[1] / CRegion::GetSizeY();
const CCellTypeWorld* ret = 0;
if (pos[0] >= 0 && GetSizeX() > pos[0] &&
pos[1] >= 0 && GetSizeY() > pos[1] &&
region[0] >= 0 && region[0] < AMOUNT_REGION_X &&
region[1] >= 0 && region[1] < AMOUNT_REGION_Y)
ret = _regions[region[0]][region[1]].GetCell(pos);
if (!ret)
ret = _standardCellType;
return *ret;
}
void PictureTextCBox::Draw(const Point2i &/*mousePosition*/)
{
Surface & video_window = GetMainWindow();
if (m_value) {
uint enabled_x = GetPositionX() + (GetSizeX() - m_enabled.GetWidth())/2 ;
uint enabled_y = GetPositionY();
uint outside_x = std::max(uint(0), GetPositionX() - enabled_x);
uint outside_y = std::max(uint(0), GetPositionY() - enabled_y);
enabled_x += outside_x;
enabled_y += outside_y;
Rectanglei srcRect(outside_x, outside_y, m_enabled.GetWidth() - outside_x,
m_enabled.GetHeight() - outside_y);
video_window.Blit(m_enabled, srcRect, Point2i(enabled_x, enabled_y));
} else {
uint disabled_x = GetPositionX() + (GetSizeX() - m_disabled_back.GetWidth())/2 ;
uint disabled_y = GetPositionY();
uint outside_x = std::max(uint(0), GetPositionX() - disabled_x);
uint outside_y = std::max(uint(0), GetPositionY() - disabled_y);
disabled_x += outside_x;
disabled_y += outside_y;
Rectanglei srcRect(outside_x, outside_y, m_disabled_back.GetWidth() - outside_x,
m_disabled_back.GetHeight() - outside_y);
video_window.Blit(m_disabled_back, srcRect, Point2i(disabled_x, disabled_y));
}
// center the image
uint tmp_x = GetPositionX() + (GetSizeX() - m_image.GetWidth())/2 ;
uint tmp_y = GetPositionY() + (m_enabled.GetHeight() - m_image.GetHeight())/2;
video_window.Blit(m_image, Point2i(tmp_x, tmp_y));
Text::DrawCenterTop(GetPosition() + Point2i(GetSizeX()/2,
GetSizeY() - Text::GetHeight()));
if (!m_value) {
uint disabled_x = GetPositionX() + (GetSizeX() - m_disabled_front.GetWidth())/2 ;
uint disabled_y = GetPositionY() + (m_enabled.GetHeight() - m_disabled_front.GetHeight())/2;
video_window.Blit(m_disabled_front, Point2i(disabled_x, disabled_y));
}
}
void cBlockArea::CropNibbles(NIBBLEARRAY & a_Array, int a_AddMinX, int a_SubMaxX, int a_AddMinY, int a_SubMaxY, int a_AddMinZ, int a_SubMaxZ)
{
int NewSizeX = GetSizeX() - a_AddMinX - a_SubMaxX;
int NewSizeY = GetSizeY() - a_AddMinY - a_SubMaxY;
int NewSizeZ = GetSizeZ() - a_AddMinZ - a_SubMaxZ;
NIBBLETYPE * NewNibbles = new NIBBLETYPE[NewSizeX * NewSizeY * NewSizeZ];
int idx = 0;
for (int y = 0; y < NewSizeY; y++)
{
for (int z = 0; z < NewSizeZ; z++)
{
for (int x = 0; x < NewSizeX; x++)
{
NewNibbles[idx++] = a_Array[MakeIndex(x + a_AddMinX, y + a_AddMinY, z + a_AddMinZ)];
} // for x
} // for z
} // for y
delete a_Array;
a_Array = NewNibbles;
}
void ButtonPic::Draw(const Point2i &mousePosition)
{
Surface& surf = AppWarmux::GetInstance()->video->window;
// center the image horizontally
uint tmp_x = GetPositionX() + (GetSizeX() - m_img_normal.GetWidth())/2 ;
uint tmp_y = GetPositionY();
surf.Blit(m_img_normal, Point2i(tmp_x, tmp_y));
if (Contains(mousePosition)) {
surf.RectangleColor(*this, c_red, 1);
txt_label->SetColor(black_color);
} else {
txt_label->SetColor(dark_gray_color);
}
txt_label->DrawCenterTop(GetPosition() + Point2i(GetSizeX()/2,
GetSizeY() - txt_label->GetHeight()));
}
void cBlockArea::CropBlockTypes(int a_AddMinX, int a_SubMaxX, int a_AddMinY, int a_SubMaxY, int a_AddMinZ, int a_SubMaxZ)
{
int NewSizeX = GetSizeX() - a_AddMinX - a_SubMaxX;
int NewSizeY = GetSizeY() - a_AddMinY - a_SubMaxY;
int NewSizeZ = GetSizeZ() - a_AddMinZ - a_SubMaxZ;
BLOCKTYPE * NewBlockTypes = new BLOCKTYPE[NewSizeX * NewSizeY * NewSizeZ];
int idx = 0;
for (int y = 0; y < NewSizeY; y++)
{
for (int z = 0; z < NewSizeZ; z++)
{
for (int x = 0; x < NewSizeX; x++)
{
int OldIndex = MakeIndex(x + a_AddMinX, y + a_AddMinY, z + a_AddMinZ);
NewBlockTypes[idx++] = m_BlockTypes[OldIndex];
} // for x
} // for z
} // for y
delete m_BlockTypes;
m_BlockTypes = NewBlockTypes;
}
uint32 UTextureCube::CalcTextureMemorySize( int32 MipCount ) const
{
uint32 Size = 0;
if (PlatformData)
{
int32 SizeX = GetSizeX();
int32 SizeY = GetSizeY();
int32 NumMips = GetNumMips();
EPixelFormat Format = GetPixelFormat();
ensureMsgf(SizeX == SizeY, TEXT("Cubemap faces expected to be square. Actual sizes are: %i, %i"), SizeX, SizeY);
// Figure out what the first mip to use is.
int32 FirstMip = FMath::Max( 0, NumMips - MipCount );
FIntPoint MipExtents = CalcMipMapExtent(SizeX, SizeY, Format, FirstMip);
uint32 TextureAlign = 0;
uint64 TextureSize = RHICalcTextureCubePlatformSize(MipExtents.X, Format, NumMips, 0, TextureAlign);
Size = (uint32)TextureSize;
}
return Size;
}
void cBlockArea::Merge(const cBlockArea & a_Src, int a_RelX, int a_RelY, int a_RelZ, eMergeStrategy a_Strategy)
{
// Block types are compulsory, block metas are voluntary
if (!HasBlockTypes() || !a_Src.HasBlockTypes())
{
LOGWARNING("%s: cannot merge because one of the areas doesn't have blocktypes.", __FUNCTION__);
return;
}
// Dst is *this, Src is a_Src
int SrcOffX = std::max(0, -a_RelX); // Offset in Src where to start reading
int DstOffX = std::max(0, a_RelX); // Offset in Dst where to start writing
int SizeX = std::min(a_Src.GetSizeX() - SrcOffX, GetSizeX() - DstOffX); // How many blocks to copy
int SrcOffY = std::max(0, -a_RelY); // Offset in Src where to start reading
int DstOffY = std::max(0, a_RelY); // Offset in Dst where to start writing
int SizeY = std::min(a_Src.GetSizeY() - SrcOffY, GetSizeY() - DstOffY); // How many blocks to copy
int SrcOffZ = std::max(0, -a_RelZ); // Offset in Src where to start reading
int DstOffZ = std::max(0, a_RelZ); // Offset in Dst where to start writing
int SizeZ = std::min(a_Src.GetSizeZ() - SrcOffZ, GetSizeZ() - DstOffZ); // How many blocks to copy
const NIBBLETYPE * SrcMetas = a_Src.GetBlockMetas();
NIBBLETYPE * DstMetas = m_BlockMetas;
bool IsDummyMetas = ((SrcMetas == NULL) || (DstMetas == NULL));
if (IsDummyMetas)
{
SrcMetas = new NIBBLETYPE[a_Src.GetBlockCount()];
DstMetas = new NIBBLETYPE[GetBlockCount()];
}
switch (a_Strategy)
{
case msOverwrite:
{
InternalMergeBlocks(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_SizeX, m_SizeY, m_SizeZ,
MergeCombinatorOverwrite
);
break;
} // case msOverwrite
case msFillAir:
{
InternalMergeBlocks(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_SizeX, m_SizeY, m_SizeZ,
MergeCombinatorFillAir
);
break;
} // case msFillAir
case msImprint:
{
InternalMergeBlocks(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_SizeX, m_SizeY, m_SizeZ,
MergeCombinatorImprint
);
break;
} // case msImprint
case msLake:
{
InternalMergeBlocks(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_SizeX, m_SizeY, m_SizeZ,
MergeCombinatorLake
);
break;
} // case msLake
default:
{
LOGWARNING("Unknown block area merge strategy: %d", a_Strategy);
ASSERT(!"Unknown block area merge strategy");
break;
}
} // switch (a_Strategy)
if (IsDummyMetas)
{
delete[] SrcMetas;
delete[] DstMetas;
}
}
void FShadowMapPendingTexture::StartEncoding(UWorld* InWorld)
{
// Create the shadow-map texture.
UShadowMapTexture2D* Texture = new(Outer) UShadowMapTexture2D(FPostConstructInitializeProperties());
Texture->Filter = GUseBilinearLightmaps ? TF_Default : TF_Nearest;
// Signed distance field textures get stored in linear space, since they need more precision near .5.
Texture->SRGB = false;
Texture->LODGroup = TEXTUREGROUP_Shadowmap;
Texture->ShadowmapFlags = ShadowmapFlags;
Texture->Source.Init2DWithMipChain(GetSizeX(), GetSizeY(), TSF_BGRA8);
Texture->MipGenSettings = TMGS_LeaveExistingMips;
Texture->CompressionNone = true;
int32 TextureSizeX = Texture->Source.GetSizeX();
int32 TextureSizeY = Texture->Source.GetSizeY();
{
// Create the uncompressed top mip-level.
TArray< TArray<FFourDistanceFieldSamples> > MipData;
FShadowMap2D::EncodeSingleTexture(*this, Texture, MipData);
// Copy the mip-map data into the UShadowMapTexture2D's mip-map array.
for(int32 MipIndex = 0;MipIndex < MipData.Num();MipIndex++)
{
FColor* DestMipData = (FColor*)Texture->Source.LockMip(MipIndex);
uint32 MipSizeX = FMath::Max(1,TextureSizeX >> MipIndex);
uint32 MipSizeY = FMath::Max(1,TextureSizeY >> MipIndex);
for(uint32 Y = 0;Y < MipSizeY;Y++)
{
for(uint32 X = 0;X < MipSizeX;X++)
{
const FFourDistanceFieldSamples& SourceSample = MipData[MipIndex][Y * MipSizeX + X];
DestMipData[ Y * MipSizeX + X ] = FColor(SourceSample.Samples[0].Distance, SourceSample.Samples[1].Distance, SourceSample.Samples[2].Distance, SourceSample.Samples[3].Distance);
}
}
Texture->Source.UnlockMip(MipIndex);
}
}
// Update stats.
int32 TextureSize = Texture->CalcTextureMemorySizeEnum( TMC_AllMips );
GNumShadowmapTotalTexels += TextureSizeX * TextureSizeY;
GNumShadowmapTextures++;
GShadowmapTotalSize += TextureSize;
GShadowmapTotalStreamingSize += (ShadowmapFlags & SMF_Streamed) ? TextureSize : 0;
UPackage* TexturePackage = Texture->GetOutermost();
for ( int32 LevelIndex=0; TexturePackage && LevelIndex < InWorld->GetNumLevels(); LevelIndex++ )
{
ULevel* Level = InWorld->GetLevel(LevelIndex);
UPackage* LevelPackage = Level->GetOutermost();
if ( TexturePackage == LevelPackage )
{
Level->ShadowmapTotalSize += float(TextureSize) / 1024.0f;
break;
}
}
// Update the texture resource.
Texture->BeginCachePlatformData();
Texture->FinishCachePlatformData();
Texture->UpdateResource();
}
// Describes how to set the sizes of all the buffers
static void SetSizes(Arguments<T> &args) {
args.x_size = GetSizeX(args);
args.y_size = GetSizeY(args);
args.scalar_size = GetSizeDot(args);
}
const C2DPosition<> CDungeon::GetSize()
{
return C2DPosition<>(GetSizeX(), GetSizeY());
}
void Margolus::Calculation(cuint& dx, cuint& dy, cuint& dz) {
//#pragma omp parallel for
for (uint ix = dx; ix < GetSizeX() - 1; ix += 2) {
for (uint iy = dy; iy < GetSizeY() - 1; iy += 2) {
for (uint iz = dz; iz < GetSizeZ() - 1; iz += 2) {
if (CheckEmpty(ix, iy, iz)) {
continue;
}
blockSize3D = 1;
CreateRotateNotBlock3D(blocks3D[0], ix, iy, iz);
if (modifierMove && CheckMod(ix, iy, iz)) {
if (CheckActive (ix, iy)) {
if (CheckCanRotate3D(ClockWiceX, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceX, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceX, ix, iy, iz, true, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceX, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(CounterClockWiceX, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceX, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceX, ix, iy, iz, true, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceX, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(ClockWiceY, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceY, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceY, ix, iy, iz, true, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceY, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(CounterClockWiceY, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceY, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceY, ix, iy, iz, true, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceY, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(ClockWiceZ, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceZ, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceZ, ix, iy, iz, true, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceZ, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(CounterClockWiceZ, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceZ, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceZ, ix, iy, iz, true, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceZ, ix, iy, iz);
++blockSize3D;
}
} else {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceX, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceX, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceY, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceY, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceZ, ix, iy, iz, false, true);
++blockSize3D;
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceZ, ix, iy, iz, false, true);
++blockSize3D;
}
} else {
if (CheckCanRotate3D(ClockWiceX, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceX, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(CounterClockWiceX, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceX, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(ClockWiceY, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceY, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(CounterClockWiceY, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceY, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(ClockWiceZ, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], ClockWiceZ, ix, iy, iz);
++blockSize3D;
}
if (CheckCanRotate3D(CounterClockWiceZ, ix, iy, iz)) {
CreateRotateBlock3D(blocks3D[blockSize3D], CounterClockWiceZ, ix, iy, iz);
++blockSize3D;
}
}
double Z = 0.0;
// + Energy
for (uint i = 0; i < blockSize3D; ++i) {
double energy = CalculationBlockEnergy(blocks3D[i], ix, iy, iz); //кДж/моль
blocks3D[i].energy = exp(-energy / (R * *T));
Z += blocks3D[i].energy;
}
//normalization
double sumProbability = 0.0;
double rnd = (double)(rand()) / RAND_MAX;
for (uint i = 0; i < blockSize3D; ++i) {
sumProbability += blocks3D[i].energy / Z;
if (rnd <= sumProbability) {
ChangeBlock(blocks3D[i], ix, iy, iz);
break;
}
}
}
}
}
}
// Describes how to set the sizes of all the buffers
static void SetSizes(Arguments<T> &args) {
args.a_size = GetSizeA(args);
args.x_size = GetSizeX(args);
args.y_size = GetSizeY(args);
}
void cBlockArea::MergeByStrategy(const cBlockArea & a_Src, int a_RelX, int a_RelY, int a_RelZ, eMergeStrategy a_Strategy, const NIBBLETYPE * SrcMetas, NIBBLETYPE * DstMetas)
{
// Block types are compulsory, block metas are voluntary
if (!HasBlockTypes() || !a_Src.HasBlockTypes())
{
LOGWARNING("%s: cannot merge because one of the areas doesn't have blocktypes.", __FUNCTION__);
return;
}
// Dst is *this, Src is a_Src
int SrcOffX = std::max(0, -a_RelX); // Offset in Src where to start reading
int DstOffX = std::max(0, a_RelX); // Offset in Dst where to start writing
int SizeX = std::min(a_Src.GetSizeX() - SrcOffX, GetSizeX() - DstOffX); // How many blocks to copy
int SrcOffY = std::max(0, -a_RelY); // Offset in Src where to start reading
int DstOffY = std::max(0, a_RelY); // Offset in Dst where to start writing
int SizeY = std::min(a_Src.GetSizeY() - SrcOffY, GetSizeY() - DstOffY); // How many blocks to copy
int SrcOffZ = std::max(0, -a_RelZ); // Offset in Src where to start reading
int DstOffZ = std::max(0, a_RelZ); // Offset in Dst where to start writing
int SizeZ = std::min(a_Src.GetSizeZ() - SrcOffZ, GetSizeZ() - DstOffZ); // How many blocks to copy
switch (a_Strategy)
{
case cBlockArea::msOverwrite:
{
InternalMergeBlocks<MetasValid, MergeCombinatorOverwrite<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msOverwrite
case cBlockArea::msFillAir:
{
InternalMergeBlocks<MetasValid, MergeCombinatorFillAir<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msFillAir
case cBlockArea::msImprint:
{
InternalMergeBlocks<MetasValid, MergeCombinatorImprint<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msImprint
case cBlockArea::msLake:
{
InternalMergeBlocks<MetasValid, MergeCombinatorLake<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msLake
case cBlockArea::msSpongePrint:
{
InternalMergeBlocks<MetasValid, MergeCombinatorSpongePrint<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msSpongePrint
case cBlockArea::msDifference:
{
InternalMergeBlocks<MetasValid, MergeCombinatorDifference<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msDifference
case cBlockArea::msMask:
{
InternalMergeBlocks<MetasValid, MergeCombinatorMask<MetasValid> >(
m_BlockTypes, a_Src.GetBlockTypes(),
DstMetas, SrcMetas,
SizeX, SizeY, SizeZ,
SrcOffX, SrcOffY, SrcOffZ,
DstOffX, DstOffY, DstOffZ,
a_Src.GetSizeX(), a_Src.GetSizeY(), a_Src.GetSizeZ(),
m_Size.x, m_Size.y, m_Size.z
);
return;
} // case msMask
} // switch (a_Strategy)
LOGWARNING("Unknown block area merge strategy: %d", a_Strategy);
ASSERT(!"Unknown block area merge strategy");
return;
}
