void TransferToWx(const Map& map, wxImage& wx)
{
wx.Create(map.width * 8, map.height * 8);
if (map.tileset->bpp == 4)
{
for (unsigned int i = 0; i < map.data.size(); i++)
{
int x = i % map.width;
int y = i / map.width;
int tile_id = map.data[i] & 0x3FF;
int pal_id = (map.data[i] >> 12) & 0xF;
const Tile& tile = map.tileset->tilesExport[tile_id];
const PaletteBank& palette = map.tileset->paletteBanks[pal_id];
for (unsigned int j = 0; j < TILE_SIZE; j++)
{
unsigned char pix = tile.pixels[j];
if (!pix) continue;
const auto& c = palette.At(pix);
wx.SetRGB(x * 8 + j % 8, y * 8 + j / 8, c.r << 3, c.g << 3, c.b << 3);
}
}
}
else
{
for (unsigned int i = 0; i < map.data.size(); i++)
void TransferToWx(const Palette& palette, wxImage& wx)
{
wx.Create(16, 16);
for (unsigned int i = 0; i < palette.Size(); i++)
{
const Color16& c = palette.At(i);
wx.SetRGB(i % 16, i / 16, c.r << 3, c.g << 3, c.b << 3);
}
}
void TransferToWx(const Tileset& tileset, wxImage& wx)
{
// 16 x 64
const int tilesX = 32;
const int tilesY = 32;
wx.Create(tilesX * 8, tilesY * 8);
int bpp = tileset.bpp;
if (bpp == 4)
{
for (unsigned int i = 0; i < tileset.tilesExport.size(); i++)
{
const Tile& tile = tileset.tilesExport[i];
const PaletteBank& palette = tileset.paletteBanks[tile.palette_bank];
int tx = i % tilesX;
int ty = i / tilesX;
for (unsigned int j = 0; j < TILE_SIZE; j++)
{
unsigned char pix = tile.pixels[j];
const auto& c = palette.At(pix);
wx.SetRGB(tx * 8 + j % 8, ty * 8 + j / 8, c.r << 3, c.g << 3, c.b << 3);
}
}
}
else
{
const Palette& palette = *tileset.palette;
for (unsigned int i = 0; i < tileset.tilesExport.size(); i++)
{
const Tile& tile = tileset.tilesExport[i];
int tx = i % tilesX;
int ty = i / tilesX;
for (unsigned int j = 0; j < TILE_SIZE; j++)
{
unsigned char pix = tile.pixels[j];
const auto& c = palette.At(pix);
wx.SetRGB(tx * 8 + j % 8, ty * 8 + j / 8, c.r << 3, c.g << 3, c.b << 3);
}
}
}
}
void TransferToWx(const Image16Bpp& image, wxImage& wx)
{
wx.Create(image.width, image.height);
for (unsigned int i = 0; i < image.height; i++)
{
for (unsigned int j = 0; j < image.width; j++)
{
const Color16& c = image.At(j, i);
wx.SetRGB(j, i, c.r << 3, c.g << 3, c.b << 3);
}
}
}
void BM2CMP_FRAME::NegateGreyscaleImage( )
{
unsigned char pix;
int h = m_Greyscale_Image.GetHeight();
int w = m_Greyscale_Image.GetWidth();
for( int y = 0; y < h; y++ )
for( int x = 0; x < w; x++ )
{
pix = m_Greyscale_Image.GetGreen( x, y );
pix = ~pix;
m_Greyscale_Image.SetRGB( x, y, pix, pix, pix );
}
}
void TransferToWx(const Sprite& sprite, const std::vector<PaletteBank>& banks, wxImage& wx)
{
wx.Create(sprite.width * 8, sprite.height * 8);
int tilesX = sprite.width;
if (sprite.bpp == 4)
{
for (unsigned int i = 0; i < sprite.data.size(); i++)
{
const Tile& tile = sprite.data[i];
const PaletteBank& palette = banks[sprite.palette_bank];
int tx = i % tilesX;
int ty = i / tilesX;
for (unsigned int j = 0; j < TILE_SIZE; j++)
{
unsigned char pix = tile.pixels[j];
const auto& c = palette.At(pix);
wx.SetRGB(tx * 8 + j % 8, ty * 8 + j / 8, c.r << 3, c.g << 3, c.b << 3);
}
}
}
else
{
const Palette& palette = *sprite.palette;
for (unsigned int i = 0; i < sprite.data.size(); i++)
{
const Tile& tile = sprite.data[i];
int tx = i % tilesX;
int ty = i / tilesX;
for (unsigned int j = 0; j < TILE_SIZE; j++)
{
unsigned char pix = tile.pixels[j];
const auto& c = palette.At(pix);
wx.SetRGB(tx * 8 + j % 8, ty * 8 + j / 8, c.r << 3, c.g << 3, c.b << 3);
}
}
}
}
void TransferToWx(const std::vector<PaletteBank>& banks, wxImage& wx)
{
wx.Create(16, 16);
for (unsigned int bank_id = 0; bank_id < banks.size(); bank_id++)
{
const PaletteBank& bank = banks[bank_id];
int bx = (bank_id % 4) * 4;
int by = (bank_id / 4) * 4;
for (unsigned int i = 0; i < bank.Size(); i++)
{
const Color16& c = bank.At(i);
wx.SetRGB(i % 4 + bx, i / 4 + by, c.r << 3, c.g << 3, c.b << 3);
}
}
}
void BM2CMP_FRAME::Binarize( double aThreshold )
{
unsigned int pixin;
unsigned char pixout;
int h = m_Greyscale_Image.GetHeight();
int w = m_Greyscale_Image.GetWidth();
unsigned int threshold = (int)(aThreshold * 256);
for( int y = 0; y < h; y++ )
for( int x = 0; x < w; x++ )
{
pixin = m_Greyscale_Image.GetGreen( x, y );
if( pixin < threshold )
pixout = 0;
else
pixout = 255;
m_NB_Image.SetRGB( x, y, pixout, pixout, pixout );
}
m_BN_Bitmap = wxBitmap( m_NB_Image );
}
wxImage ScaleImage(wxImage image, double source_scale_factor, double content_scale_factor,
wxSize output_size, wxRect usable_rect, LSIFlags flags,
const wxColour& fill_color)
{
if (!image.IsOk())
{
wxFAIL_MSG("WxUtils::ScaleImage expects a valid image.");
return image;
}
if (content_scale_factor != 1.0)
{
output_size *= content_scale_factor;
usable_rect.SetPosition(usable_rect.GetPosition() * content_scale_factor);
usable_rect.SetSize(usable_rect.GetSize() * content_scale_factor);
}
// Fix the output size if it's unset.
wxSize img_size = image.GetSize();
if (output_size.GetWidth() < 1)
output_size.SetWidth(
static_cast<int>(img_size.GetWidth() * (content_scale_factor / source_scale_factor)));
if (output_size.GetHeight() < 1)
output_size.SetHeight(
static_cast<int>(img_size.GetHeight() * (content_scale_factor / source_scale_factor)));
// Fix the usable rect. If it's empty then the whole canvas is usable.
if (usable_rect.IsEmpty())
{
// Constructs a temp wxRect 0,0->output_size then move assigns it.
usable_rect = output_size;
}
else if (!usable_rect.Intersects(output_size))
{
wxFAIL_MSG("Usable Zone Rectangle is not inside the canvas. Check the output size is correct.");
image.Create(1, 1, false);
image.SetRGB(0, 0, fill_color.Red(), fill_color.Green(), fill_color.Blue());
if (fill_color.Alpha() == wxALPHA_TRANSPARENT)
image.SetMaskColour(fill_color.Red(), fill_color.Green(), fill_color.Blue());
usable_rect = output_size;
}
// Step 1: Scale the image
if ((flags & LSI_SCALE) != LSI_SCALE_NONE)
{
if (flags & LSI_SCALE_NO_ASPECT)
{
// Stretch scale without preserving the aspect ratio.
bool scale_width = (img_size.GetWidth() > usable_rect.GetWidth() && flags & LSI_SCALE_DOWN) ||
(img_size.GetWidth() < usable_rect.GetWidth() && flags & LSI_SCALE_UP);
bool scale_height =
(img_size.GetHeight() > usable_rect.GetHeight() && flags & LSI_SCALE_DOWN) ||
(img_size.GetHeight() < usable_rect.GetHeight() && flags & LSI_SCALE_UP);
if (scale_width || scale_height)
{
// NOTE: Using BICUBIC instead of HIGH because it's the same internally
// except that downscaling uses a box filter with awful obvious aliasing
// for non-integral scale factors.
image.Rescale(scale_width ? usable_rect.GetWidth() : img_size.GetWidth(),
scale_height ? usable_rect.GetHeight() : img_size.GetHeight(),
wxIMAGE_QUALITY_BICUBIC);
}
}
else
{
// Scale while preserving the aspect ratio.
double scale = std::min(static_cast<double>(usable_rect.GetWidth()) / img_size.GetWidth(),
static_cast<double>(usable_rect.GetHeight()) / img_size.GetHeight());
int target_width = static_cast<int>(img_size.GetWidth() * scale);
int target_height = static_cast<int>(img_size.GetHeight() * scale);
// Bilinear produces sharper images when upscaling, bicubic tends to smear/blur sharp edges.
if (scale > 1.0 && flags & LSI_SCALE_UP)
image.Rescale(target_width, target_height, wxIMAGE_QUALITY_BILINEAR);
else if (scale < 1.0 && flags & LSI_SCALE_DOWN)
image.Rescale(target_width, target_height, wxIMAGE_QUALITY_BICUBIC);
}
img_size = image.GetSize();
}
// Step 2: Resize the canvas to match the output size.
// NOTE: If NOT using LSI_SCALE_DOWN then this will implicitly crop the image
if (img_size != output_size || usable_rect.GetPosition() != wxPoint())
{
wxPoint base = usable_rect.GetPosition();
if (flags & LSI_ALIGN_HCENTER)
base.x += (usable_rect.GetWidth() - img_size.GetWidth()) / 2;
else if (flags & LSI_ALIGN_RIGHT)
base.x += usable_rect.GetWidth() - img_size.GetWidth();
if (flags & LSI_ALIGN_VCENTER)
base.y += (usable_rect.GetHeight() - img_size.GetHeight()) / 2;
else if (flags & LSI_ALIGN_BOTTOM)
base.y += usable_rect.GetHeight() - img_size.GetHeight();
int r = -1, g = -1, b = -1;
if (fill_color.Alpha() != wxALPHA_TRANSPARENT)
{
r = fill_color.Red();
g = fill_color.Green();
b = fill_color.Blue();
}
image.Resize(output_size, base, r, g, b);
}
return image;
}