int main(int argc, char** argv)
{
fillTriangle();
for (int row = rows-2; row >= 0; --row)
for (int col = 0; col <= row; ++col)
setMaxSum(col,row);
std::cout << triangle[0][0] << std::endl;
}
main (void)
{
initGraph ();
/* 背景 */
floodFill (320, 240, BLACK, LIGHTBLUE);
waitButtonPress ();
/* 頭 */
fillEllipse (320, 250, 230, 160, WHITE);
/* 耳 */
fillTriangle (130, 40, 90, 250, 250, 92, WHITE);
fillTriangle (530, 40, 530, 250, 390, 92, WHITE);
waitButtonPress ();
/* 目 */
fillEllipse (200, 290, 15, 20, BLACK);
fillEllipse (195, 282, 8, 6, WHITE);
fillEllipse (440, 290, 15, 20, BLACK);
fillEllipse (435, 282, 8, 6, WHITE);
waitButtonPress ();
/* 鼻 */
fillEllipse (320, 330, 24, 15, YELLOW);
fillEllipse (315, 322, 9, 6, WHITE);
waitButtonPress ();
/* ひげ */
drawLine (125, 280, 40, 275, BLACK);
drawLine (130, 300, 50, 305, BLACK);
drawLine (140, 320, 40, 335, BLACK);
drawLine (515, 280, 600, 275, BLACK);
drawLine (510, 300, 590, 305, BLACK);
drawLine (500, 320, 600, 335, BLACK);
waitButtonPress ();
/* リボン */
fillTriangle (465, 160, 415, 70, 365, 160, RED);
fillTriangle (465, 160, 515, 250, 565, 160, RED);
fillCircle (465, 160, 20, RED);
waitButtonPress ();
closeGraph ();
}
main (void)
{
initGraph ();
/* 背景 */
floodFill (320, 240, BLACK, LIGHTBLUE);
waitButtonPress ();
/* 頭 */
fillEllipse (320, 240, 240, 180, WHITE);
/* 耳 */
fillEllipse (480, 140, 60, 80, WHITE);
fillEllipse (160, 140, 60, 80, WHITE);
waitButtonPress ();
/* 目 */
fillEllipse (200, 300, 15, 20, BLACK);
fillEllipse (440, 300, 15, 20, BLACK);
waitButtonPress ();
/* 鼻 */
fillEllipse (320, 340, 10, 14, YELLOW);
setLineWidth (2);
waitButtonPress ();
/* ひげ */
drawLine (125, 300, 40, 305, BLACK);
drawLine (130, 320, 50, 330, BLACK);
drawLine (140, 340, 40, 355, BLACK);
drawLine (515, 300, 600, 305, BLACK);
drawLine (510, 320, 590, 330, BLACK);
drawLine (500, 340, 600, 355, BLACK);
waitButtonPress ();
/* リボン */
fillTriangle (480, 160, 430, 70, 380, 160, RED);
fillTriangle (480, 160, 530, 250, 580, 160, RED);
fillCircle (480, 160, 20, RED);
waitButtonPress ();
closeGraph ();
}
void testfilltriangles()
{
fillScreen(BLACK);
uint16_t i;
for (i=width()/2; i>10; i-=5)
{
fillTriangle(width()/2, height()/2-i,
width()/2-i, height()/2+i,
width()/2+i, height()/2+i,
Color565(0, i, i));
drawTriangle(width()/2, height()/2-i,
width()/2-i, height()/2+i,
width()/2+i, height()/2+i, Color565(i, i, 0));
}
}
void SmartMatrix::fillTriangle(int16_t x1, int16_t y1, int16_t x2, int16_t y2, int16_t x3, int16_t y3,
const rgb24& outlineColor, const rgb24& fillColor) {
fillTriangle(x1, y1, x2, y2, x3, y3, fillColor);
drawTriangle(x1, y1, x2, y2, x3, y3, outlineColor);
}
void PUParticle3DQuadRender::render(Renderer* renderer, const Mat4 &transform, ParticleSystem3D* particleSystem)
{
//batch and generate draw
const ParticlePool &particlePool = particleSystem->getParticlePool();
if (!_isVisible || particlePool.empty())
return;
if (_vertexBuffer == nullptr) {
GLsizei stride = sizeof(VertexInfo);
_vertexBuffer = VertexBuffer::create(stride, 4 * particleSystem->getParticleQuota());
if (_vertexBuffer == nullptr)
{
CCLOG("PUParticle3DQuadRender::render create vertex buffer failed");
return;
}
_vertexBuffer->retain();
}
if (_indexBuffer == nullptr) {
_indexBuffer = IndexBuffer::create(IndexBuffer::IndexType::INDEX_TYPE_SHORT_16, 6 * particleSystem->getParticleQuota());
if (_indexBuffer == nullptr)
{
CCLOG("PUParticle3DQuadRender::render create index buffer failed");
return;
}
_indexBuffer->retain();
}
const ParticlePool::PoolList &activeParticleList = particlePool.getActiveDataList();
if (_vertices.size() < activeParticleList.size() * 4)
{
_vertices.resize(activeParticleList.size() * 4);
_indices.resize(activeParticleList.size() * 6);
}
auto camera = Camera::getVisitingCamera();
auto cameraMat = camera->getNodeToWorldTransform();
//for (auto iter : activeParticleList){
// iter->depthInView = -(viewMat.m[2] * iter->positionInWorld.x + viewMat.m[6] * iter->positionInWorld.y + viewMat.m[10] * iter->positionInWorld.z + viewMat.m[14]);
//}
//std::sort(activeParticleList.begin(), activeParticleList.end(), compareParticle3D);
Vec3 right(cameraMat.m[0], cameraMat.m[1], cameraMat.m[2]);
Vec3 up(cameraMat.m[4], cameraMat.m[5], cameraMat.m[6]);
Vec3 backward(cameraMat.m[8], cameraMat.m[9], cameraMat.m[10]);
Mat4 pRotMat;
Vec3 position; //particle position
int vertexindex = 0;
int index = 0;
int offsetX,offsetY;
getOriginOffset(offsetX, offsetY);
if (_type == PERPENDICULAR_COMMON) {
up = _commonUp;
up.normalize();
Vec3::cross(up, _commonDir, &right);
right.normalize();
backward = _commonDir;
} else if (_type == ORIENTED_COMMON) {
up = _commonDir;
up.normalize();
Vec3::cross(up, backward, &right);
right.normalize();
}
for (auto iter : activeParticleList)
{
auto particle = static_cast<PUParticle3D *>(iter);
determineUVCoords(particle);
if (_type == ORIENTED_SELF) {
Vec3 direction = particle->direction;
//transform.transformVector(particle->direction, &direction);
up = direction;
up.normalize();
Vec3::cross(direction, backward, &right);
right.normalize();
} else if (_type == PERPENDICULAR_SELF) {
Vec3 direction = particle->direction;
//transform.transformVector(particle->direction, &direction);
direction.normalize();
//up = PUUtil::perpendicular(direction);
//up.normalize();
Vec3::cross(_commonUp, direction, &right);
right.normalize();
Vec3::cross(direction, right, &up);
up.normalize();
backward = direction;
} else if (_type == ORIENTED_SHAPE) {
up.set(particle->orientation.x, particle->orientation.y, particle->orientation.z);
up.normalize();
Vec3::cross(up, backward, &right);
right.normalize();
}
Vec3 halfwidth = particle->width * 0.5f * right;
Vec3 halfheight = particle->height * 0.5f * up;
Vec3 offset = halfwidth * offsetX + halfheight * offsetY;
//transform.transformPoint(particle->position, &position);
position = particle->position;
if (_rotateType == TEXTURE_COORDS) {
float costheta = cosf(-particle->zRotation);
float sintheta = sinf(-particle->zRotation);
Vec2 texOffset = 0.5f * (particle->lb_uv + particle->rt_uv);
Vec2 val;
val.set((particle->lb_uv.x - texOffset.x), (particle->lb_uv.y - texOffset.y));
val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
fillVertex(vertexindex, (position + (-halfwidth - halfheight + offset)), particle->color, val + texOffset);
val.set(particle->rt_uv.x - texOffset.x, particle->lb_uv.y - texOffset.y);
val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
fillVertex(vertexindex + 1, (position + (halfwidth - halfheight + offset)), particle->color, val + texOffset);
val.set(particle->lb_uv.x - texOffset.x, particle->rt_uv.y - texOffset.y);
val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
fillVertex(vertexindex + 2, (position + (-halfwidth + halfheight + offset)), particle->color, val + texOffset);
val.set(particle->rt_uv.x - texOffset.x, particle->rt_uv.y - texOffset.y);
val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
fillVertex(vertexindex + 3, (position + (halfwidth + halfheight + offset)), particle->color, val + texOffset);
} else {
Mat4::createRotation(backward, -particle->zRotation, &pRotMat);
fillVertex(vertexindex , (position + pRotMat * (- halfwidth - halfheight + offset)), particle->color, particle->lb_uv);
fillVertex(vertexindex + 1, (position + pRotMat * (halfwidth - halfheight + offset)), particle->color, Vec2(particle->rt_uv.x, particle->lb_uv.y));
fillVertex(vertexindex + 2, (position + pRotMat * (-halfwidth + halfheight + offset)), particle->color, Vec2(particle->lb_uv.x, particle->rt_uv.y));
fillVertex(vertexindex + 3, (position + pRotMat * (halfwidth + halfheight + offset)), particle->color, particle->rt_uv);
}
fillTriangle(index, vertexindex, vertexindex + 1, vertexindex + 3);
fillTriangle(index + 3, vertexindex, vertexindex + 3, vertexindex + 2);
//_posuvcolors[vertexindex].position = (position + (- halfwidth - halfheight + halfwidth * offsetX + halfheight * offsetY));
//_posuvcolors[vertexindex].color = particle->color;
//_posuvcolors[vertexindex].uv.set(val.x + texOffset.x, val.y + texOffset.y);
//val.set(particle->rt_uv.x - texOffset.x, particle->lb_uv.y - texOffset.y);
//val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
//_posuvcolors[vertexindex + 1].position = (position + (halfwidth - halfheight + halfwidth * offsetX + halfheight * offsetY));
//_posuvcolors[vertexindex + 1].color = particle->color;
//_posuvcolors[vertexindex + 1].uv.set(val.x + texOffset.x, val.y + texOffset.y);
//
//val.set(particle->lb_uv.x - texOffset.x, particle->rt_uv.y - texOffset.y);
//val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
//_posuvcolors[vertexindex + 2].position = (position + (- halfwidth + halfheight + halfwidth * offsetX + halfheight * offsetY));
//_posuvcolors[vertexindex + 2].color = particle->color;
//_posuvcolors[vertexindex + 2].uv.set(val.x + texOffset.x, val.y + texOffset.y);
//
//val.set(particle->rt_uv.x - texOffset.x, particle->rt_uv.y - texOffset.y);
//val.set(val.x * costheta - val.y * sintheta, val.x * sintheta + val.y * costheta);
//_posuvcolors[vertexindex + 3].position = (position + (halfwidth + halfheight + halfwidth * offsetX + halfheight * offsetY));
//_posuvcolors[vertexindex + 3].color = particle->color;
//_posuvcolors[vertexindex + 3].uv.set(val.x + texOffset.x, val.y + texOffset.y);
//
//
//_indexData[index] = vertexindex;
//_indexData[index + 1] = vertexindex + 1;
//_indexData[index + 2] = vertexindex + 3;
//_indexData[index + 3] = vertexindex;
//_indexData[index + 4] = vertexindex + 3;
//_indexData[index + 5] = vertexindex + 2;
index += 6;
vertexindex += 4;
}
_vertices.erase(_vertices.begin() + vertexindex, _vertices.end());
_indices.erase(_indices.begin() + index, _indices.end());
if (!_vertices.empty() && !_indices.empty()) {
_vertexBuffer->updateVertices(&_vertices[0], vertexindex/* * sizeof(_posuvcolors[0])*/, 0);
_indexBuffer->updateIndices(&_indices[0], index/* * sizeof(unsigned short)*/, 0);
_stateBlock->setBlendFunc(particleSystem->getBlendFunc());
GLuint texId = (_texture ? _texture->getName() : 0);
_meshCommand->init(0,
texId,
_glProgramState,
_stateBlock,
_vertexBuffer->getVBO(),
_indexBuffer->getVBO(),
GL_TRIANGLES,
GL_UNSIGNED_SHORT,
index,
transform,
Node::FLAGS_RENDER_AS_3D);
_meshCommand->setSkipBatching(true);
_meshCommand->setTransparent(true);
_glProgramState->setUniformVec4("u_color", Vec4(1,1,1,1));
renderer->addCommand(_meshCommand);
}
}
void ArduRCT_Graphics::_executeMacroCommand(ardurct_graphicsMacroCommand_t *mc, int16_t x, int16_t y, uint16_t scaleMul, uint16_t scaleDiv) {
uint8_t group = mc->cmd & GRAPHICS_MACRO_CMD_GROUP_MASK;
// presets
if (group == GRAPHICS_MACRO_CMD_GROUP_PRESET) {
if (mc->cmd == GRAPHICS_MACRO_CMD_PRESET_FOREGROUND) _mForegroundColor = mc->color;
else if (mc->cmd == GRAPHICS_MACRO_CMD_PRESET_BACKGROUND) _mBackgroundColor = mc->color;
else if (mc->cmd == GRAPHICS_MACRO_CMD_PRESET_THICKNESS) {
_mThickness = mc->param[GRAPHICS_MACRO_PARAM_THICKNESS];
_mIsThicknessScalable = mc->param[GRAPHICS_MACRO_PARAM_THICKNESS_IS_SCALABLE] != 0;
} else if (mc->cmd == GRAPHICS_MACRO_CMD_PRESET_ERASE) fillScreen(_mBackgroundColor);
else if (mc->cmd == GRAPHICS_MACRO_CMD_PRESET_FONT) {
_mFontSize = mc->param[GRAPHICS_MACRO_PARAM_FONT_SIZE];
_mIsFontBold = (mc->param[GRAPHICS_MACRO_PARAM_FONT_IS_BOLD] != 0);
_mIsFontOverlay = (mc->param[GRAPHICS_MACRO_PARAM_FONT_IS_OVERLAY] != 0);
} else if (mc->cmd == GRAPHICS_MACRO_CMD_PRESET_SCALE) {
_mScaleMul = mc->param[GRAPHICS_MACRO_PARAM_SCALE_MUL];
_mScaleDiv = 1;
if ((mc->nbParams > 1) && (mc->param[GRAPHICS_MACRO_PARAM_SCALE_DIV] != 0)) _mScaleDiv = mc->param[GRAPHICS_MACRO_PARAM_SCALE_DIV];
}
#ifdef GRAPHICS_MACRO_DEBUG
Serial.println("preset");
#endif
return;
}
int32_t sMul = _mScaleMul;
sMul = sMul * (scaleMul == 0 ? 1 : scaleMul);
int32_t sDiv = _mScaleDiv;
sDiv = sDiv * (scaleDiv == 0 ? 1 : scaleDiv);
int32_t sX = mc->param[GRAPHICS_MACRO_PARAM_X1];
sX = sX * sMul/sDiv + x;
int32_t sY = mc->param[GRAPHICS_MACRO_PARAM_Y1];
sY = sY * sMul/sDiv + y;
int32_t sThickness = _mThickness;
if (_mIsThicknessScalable) sThickness = sThickness * sMul/sDiv;
// lines
if (group == GRAPHICS_MACRO_CMD_GROUP_LINE) {
int32_t sX2, sY2;
if (mc->nbParams < 2) return;
if (mc->cmd == GRAPHICS_MACRO_CMD_LINE) {
if (mc->nbParams > 2) {
sX2 = mc->param[GRAPHICS_MACRO_PARAM_X2];
sX2 = x + sX2 * sMul/sDiv;
sY2 = mc->param[GRAPHICS_MACRO_PARAM_Y2];
sY2 = y + sY2 * sMul/sDiv;
// p2 becomes the end point
_mX = mc->param[GRAPHICS_MACRO_PARAM_X2];
_mY = mc->param[GRAPHICS_MACRO_PARAM_Y2];
} else {
sX2 = sX;
sY2 = sY;
sX = _mX;
sX = x + sX * sMul/sDiv;
sY = _mY;
sY = y + sY * sMul/sDiv;
// p1 becomes the end point
_mX = mc->param[GRAPHICS_MACRO_PARAM_X1];
_mY = mc->param[GRAPHICS_MACRO_PARAM_Y1];
}
} else {
// delta values
if (mc->nbParams > 2) {
// p2 = p1+delta
sX2 = mc->param[GRAPHICS_MACRO_PARAM_X1] + mc->param[GRAPHICS_MACRO_PARAM_X2];
sX2 = x + sX2 * sMul/sDiv;
sY2 = mc->param[GRAPHICS_MACRO_PARAM_Y1] + mc->param[GRAPHICS_MACRO_PARAM_Y2];
sY2 = y + sY2 * sMul/sDiv;
// p1+delta becomes the end point
_mX = mc->param[GRAPHICS_MACRO_PARAM_X1] + mc->param[GRAPHICS_MACRO_PARAM_X2];
_mY = mc->param[GRAPHICS_MACRO_PARAM_Y1] + mc->param[GRAPHICS_MACRO_PARAM_Y2];
} else {
// p2 = old_point+delta
sX2 = _mX + mc->param[GRAPHICS_MACRO_PARAM_X1];
sX2 = x + sX2 * sMul/sDiv;
sY2 = _mY + mc->param[GRAPHICS_MACRO_PARAM_Y1];
sY2 = y + sY2 * sMul/sDiv;
sX = _mX;
sX = x + sX * sMul/sDiv;
sY = _mY;
sY = y + sY * sMul/sDiv;
// old_point+delta becomes the end point
_mX += mc->param[GRAPHICS_MACRO_PARAM_X1];
_mY += mc->param[GRAPHICS_MACRO_PARAM_Y1];
}
}
#ifdef GRAPHICS_MACRO_DEBUG
Serial.print("line "); Serial.print(sX); Serial.print(" "); Serial.print(sY); Serial.print(" ");
Serial.print(sX2); Serial.print(" "); Serial.println(sY2);
#endif
drawLine(sX, sY, sX2, sY2, _mForegroundColor, sThickness, false);
return;
}
// arcs
if (group == GRAPHICS_MACRO_CMD_GROUP_ARC) {
if (mc->nbParams < 1) return;
boolean reversed = (mc->cmd == GRAPHICS_MACRO_CMD_ARC_REVERSED) || (mc->cmd == GRAPHICS_MACRO_CMD_ARC_FILLED_REVERSED);
int32_t sRadius = 0;
if (mc->nbParams == 1) {
sRadius = mc->param[GRAPHICS_MACRO_PARAM_ARC_1];
sRadius = sRadius * sMul/sDiv;
int32_t sArcStartX = _getArcEnd(sRadius, mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], !reversed, true);
int32_t sArcStartY = _getArcEnd(sRadius, mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], !reversed, false);
int32_t sArcEndX = _getArcEnd(sRadius, mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], reversed, true);
int32_t sArcEndY = _getArcEnd(sRadius, mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], reversed, false);
sX = _mX;
sX = x + sX * sMul/sDiv - sArcStartX;
sY = _mY;
sY = y + sY * sMul/sDiv - sArcStartY;
_mX += sArcEndX - sArcStartX;
_mY += sArcEndY - sArcStartY;
} else if (mc->nbParams == 3) {
sRadius = mc->param[GRAPHICS_MACRO_PARAM_ARC_3];
sRadius = sRadius * sMul/sDiv;
_mX = mc->param[GRAPHICS_MACRO_PARAM_X1] + _getArcEnd(mc->param[GRAPHICS_MACRO_PARAM_ARC_3], mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], reversed, true);
_mY = mc->param[GRAPHICS_MACRO_PARAM_Y1] + _getArcEnd(mc->param[GRAPHICS_MACRO_PARAM_ARC_3], mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], reversed, false);
} else return;
if ((mc->cmd == GRAPHICS_MACRO_CMD_ARC_REVERSED) || (mc->cmd == GRAPHICS_MACRO_CMD_ARC))
drawArc(sX, sY, sRadius, mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], _mForegroundColor, sThickness, false);
else fillArc(sX, sY, sRadius, mc->param[GRAPHICS_MACRO_PARAM_ARC_OCTANT], _mForegroundColor, false);
#ifdef GRAPHICS_MACRO_DEBUG
Serial.print("arc "); Serial.print(sX); Serial.print(" "); Serial.print(sY); Serial.print(" "); Serial.println(sRadius);
#endif
return;
}
// circles
if (group == GRAPHICS_MACRO_CMD_GROUP_CIRCLE) {
// we need at least 3 parameters
if (mc->nbParams < 3) return;
int32_t sRadius = mc->param[GRAPHICS_MACRO_PARAM_RADIUS];
sRadius = sRadius * sMul/sDiv;
if (mc->cmd == GRAPHICS_MACRO_CMD_CIRCLE) drawCircle(sX, sY, sRadius, _mForegroundColor, sThickness, false);
else fillCircle(sX, sY, sRadius, _mForegroundColor, false);
#ifdef GRAPHICS_MACRO_DEBUG
Serial.print("circle "); Serial.print(sX); Serial.print(" "); Serial.print(sY); Serial.print(" "); Serial.println(sRadius);
#endif
return;
}
// rectangles
if (group == GRAPHICS_MACRO_CMD_GROUP_RECTANGLE) {
// we need at least 4 parameters
if (mc->nbParams < 4) return;
int32_t sWidth = mc->param[GRAPHICS_MACRO_PARAM_WIDTH];
sWidth = sWidth * sMul/sDiv;
int32_t sHeight = mc->param[GRAPHICS_MACRO_PARAM_HEIGHT];
sHeight = sHeight * sMul/sDiv;
if (mc->cmd == GRAPHICS_MACRO_CMD_RECTANGLE) drawRectangle(sX, sY, sWidth, sHeight, _mForegroundColor, sThickness, false);
else if (mc->cmd == GRAPHICS_MACRO_CMD_RECTANGLE_FILLED) fillRectangle(sX, sY, sWidth, sHeight, _mForegroundColor, false);
#ifdef GRAPHICS_MACRO_DEBUG
Serial.print("rectangle "); Serial.print(sX); Serial.print(" "); Serial.print(sY); Serial.print(" "); Serial.print(sWidth); Serial.print(" "); Serial.println(sHeight);
#endif
// we need at least 1 more parameter to display the rounded rectangle
if (mc->nbParams < 5) return;
int32_t sRadius = mc->param[GRAPHICS_MACRO_PARAM_ROUNDING];
sRadius = sRadius * sMul/sDiv;
if (mc->cmd == GRAPHICS_MACRO_CMD_RECTANGLE_ROUNDED) drawRoundedRectangle(sX, sY, sWidth, sHeight, sRadius, _mForegroundColor, sThickness, false);
else if (mc->cmd == GRAPHICS_MACRO_CMD_RECTANGLE_ROUNDED_FILLED) fillRoundedRectangle(sX, sY, sWidth, sHeight, sRadius, _mForegroundColor, false);
return;
}
// triangles
if (group == GRAPHICS_MACRO_CMD_GROUP_TRIANGLE) {
// we need at least 6 parameters
if (mc->nbParams < 6) return;
int32_t sX2 = mc->param[GRAPHICS_MACRO_PARAM_X2];
sX2 = x + sX2 * sMul/sDiv;
int32_t sY2 = mc->param[GRAPHICS_MACRO_PARAM_Y2];
sY2 = y + sY2 * sMul/sDiv;
int32_t sX3 = mc->param[GRAPHICS_MACRO_PARAM_X3];
sX3 = x + sX3 * sMul/sDiv;
int32_t sY3 = mc->param[GRAPHICS_MACRO_PARAM_Y3];
sY3 = y + sY3 * sMul/sDiv;
if (mc->cmd == GRAPHICS_MACRO_CMD_TRIANGLE) drawTriangle(sX, sY, sX2, sY2, sX3, sY3, _mForegroundColor, sThickness, false);
else if (mc->cmd == GRAPHICS_MACRO_CMD_TRIANGLE_FILLED) fillTriangle(sX, sY, sX2, sY2, sX3, sY3, _mForegroundColor, false);
#ifdef GRAPHICS_MACRO_DEBUG
Serial.print("triangle "); Serial.print(sX); Serial.print(" "); Serial.print(sY); Serial.print(" "); Serial.print(sX2); Serial.print(" "); Serial.print(sY2);
Serial.print(" "); Serial.print(sX3); Serial.print(" "); Serial.println(sY3);
#endif
return;
}
// strings
if (mc->cmd == GRAPHICS_MACRO_CMD_STRING) {
if (mc->nbParams < 2) return;
int bc = _backgroundColor;
if (!_mIsFontOverlay) setBackgroundColor(_mBackgroundColor);
drawString((char *)mc->text, sX, sY, _mForegroundColor, _mFontSize, _mIsFontBold, _mIsFontOverlay, false);
if (!_mIsFontOverlay) setBackgroundColor(bc);
#ifdef GRAPHICS_MACRO_DEBUG
Serial.print("text "); Serial.println((char *)mc->text);
#endif
return;
}
// executes
if (group == GRAPHICS_MACRO_CMD_GROUP_EXECUTE) {
if (mc->param[GRAPHICS_MACRO_PARAM_MACRO_NUMBER] >= GRAPHICS_MACRO_MAX_NUMBER) return;
// read the length in the EEPROM allocation table
int length = eeprom_read_uint8_t(mc->param[GRAPHICS_MACRO_PARAM_MACRO_NUMBER]);
if (length == 0xFF) return;
// read the EEPROM pointers table to get the start
int start = GRAPHICS_MACRO_MAX_NUMBER + mc->param[GRAPHICS_MACRO_PARAM_MACRO_NUMBER] * GRAPHICS_MACRO_MAX_SIZE;
// get the compressed macro
uint8_t buffer[GRAPHICS_MACRO_MAX_SIZE];
uint8_t i=0;
while (i < length) {
buffer[i] = eeprom_read_uint8_t(start+i);
i++;
}
buffer[i] = 0;
ardurct_graphicsMacroCommand_t emc;
// uncompress the macro commands and execute them
if (mc->cmd == GRAPHICS_MACRO_CMD_EXECUTE_WITH_RESET) _initializeMacros();
i = 0;
while (i < length) {
int8_t len = _uncompressMacroCommand(buffer, i, &emc);
if (len == GRAPHICS_MACRO_FORMAT_ERROR) return;
_executeMacroCommand(&emc, x, y, scaleMul, scaleDiv);
i = len;
}
}
}