void Tile::initFullPolygon(int mazeWidth, int mazeHeight) {
Meters halfWallWidth = Meters(P()->wallWidth()) / 2.0;
Meters tileLength = Meters(P()->wallLength() + P()->wallWidth());
Cartesian lowerLeftPoint(tileLength * getX() - halfWallWidth * (getX() == 0 ? 1 : 0),
tileLength * getY() - halfWallWidth * (getY() == 0 ? 1 : 0));
Cartesian upperRightPoint(tileLength * (getX() + 1) + halfWallWidth * (getX() == mazeWidth - 1 ? 1 : 0),
tileLength * (getY() + 1) + halfWallWidth * (getY() == mazeHeight - 1 ? 1 : 0));
Cartesian lowerRightPoint(upperRightPoint.getX(), lowerLeftPoint.getY());
Cartesian upperLeftPoint(lowerLeftPoint.getX(), upperRightPoint.getY());
m_fullPolygon = Polygon({lowerLeftPoint, upperLeftPoint, upperRightPoint, lowerRightPoint});
}
CFreewayDoc::CFreewayDoc()
{
m_stepDuration = Seconds(0.1);
m_freeSight = Seconds(2);
ASSERT(m_freeSight > m_stepDuration);
m_freewayLength = Kilometers(1);
m_sectorLength = Meters(100);
m_carLength = Meters(5);
m_allowedMaxSpeed = Kmh(120);
m_reducedMaxSpeed = Kmh(80);
m_carsPerSecond = 2;
m_speedFactorsSigma = 0.3;
m_roadWorksStart = Meters(500);
m_roadWorksLength = Meters(190);
}
void CFreewayView::OnInitialUpdate() {
CView::OnInitialUpdate();
theApp.GetMainFrame()->m_view = this;
CFreewayDoc* pDoc = GetDocument();
m_simulation.init(
Freeway(
Meters(pDoc->m_freewayLength),
pDoc->m_sectorLength,
pDoc->m_allowedMaxSpeed,
pDoc->m_roadWorksStart,
pDoc->m_roadWorksLength,
pDoc->m_reducedMaxSpeed),
pDoc->m_stepDuration,
pDoc->m_carsPerSecond,
pDoc->m_speedFactorsSigma,
pDoc->m_carLength,
pDoc->m_freeSight);
OnSimPause();
theApp.GetMainFrame()->m_wndProperties.SendMessage(WM_COMMAND, MAKELONG(ID_PROPERTIES_FW, 0));
theApp.GetMainFrame()->m_wndProperties.SendMessage(WM_COMMAND, MAKELONG(ID_PROPERTIES_SIM, 0));
}
void Tile::initInteriorPolygon(int mazeWidth, int mazeHeight) {
Meters halfWallWidth = Meters(P()->wallWidth()) / 2.0;
Cartesian lowerLeftPoint = m_fullPolygon.getVertices().at(0);
Cartesian upperLeftPoint = m_fullPolygon.getVertices().at(1);
Cartesian upperRightPoint = m_fullPolygon.getVertices().at(2);
Cartesian lowerRightPoint = m_fullPolygon.getVertices().at(3);
m_interiorPolygon = Polygon({
lowerLeftPoint + Cartesian(
halfWallWidth * (getX() == 0 ? 2 : 1), halfWallWidth * (getY() == 0 ? 2 : 1)),
upperLeftPoint + Cartesian(
halfWallWidth * (getX() == 0 ? 2 : 1), halfWallWidth * (getY() == mazeHeight - 1 ? -2 : -1)),
upperRightPoint + Cartesian(
halfWallWidth * (getX() == mazeWidth - 1 ? -2 : -1), halfWallWidth * (getY() == mazeHeight - 1 ? -2 : -1)),
lowerRightPoint + Cartesian(
halfWallWidth * (getX() == mazeWidth - 1 ? -2 : -1), halfWallWidth * (getY() == 0 ? 2 : 1))});
}
std::map<
std::pair<std::pair<int, int>, std::pair<int, int>>,
std::pair<Cartesian, Cartesian>> TileGraphicTextCache::buildPositionCache(
double borderFraction, TileTextAlignment tileTextAlignment) {
// The tile graphic text could look like either of the following, depending
// on the layout, boarder, and max size
//
// col
// *-*---------------------------*-* *-*---------------------------*-*
// *-*--------------------------[B]* *-*--------------------------[B]*
// | | | | | | | |
// | | *------------------[D] | | | | *------------------[D] | |
// | | | | | | | | | | | | | | |
// | | | | | | | | | | | | | | |
// | | | | 00 | 01 | | | | | | |----|----|----|----| | |
// row | | | |____|____| | | | or | | | | | | | | |
// | | | | | | | | | | | | 00 | 01 | 02 | 03 | | |
// | | | | | | | | | | | [E]---|----|----|----| | |
// | | | | 10 | 11 | | | | | | | | | |
// | | | | | | | | | | | | | | |
// | | [C]--[E]-------------* | | | | [C]------------------* | |
// | | | | | | | |
// *[A]--------------------------*-* *[A]--------------------------*-*
// *-*---------------------------*-* *-*---------------------------*-*
std::map<
std::pair<std::pair<int, int>, std::pair<int, int>>,
std::pair<Cartesian, Cartesian>> positionCache;
int maxRows = m_tileGraphicTextMaxSize.first;
int maxCols = m_tileGraphicTextMaxSize.second;
// First we get the unscaled diagonal
Cartesian A = Cartesian(m_wallWidth / 2.0, m_wallWidth / 2.0);
Cartesian B = A + Cartesian(m_wallLength, m_wallLength);
Cartesian C = A + Cartesian(m_wallLength, m_wallLength) * borderFraction;
Cartesian D = B - Cartesian(m_wallLength, m_wallLength) * borderFraction;
Cartesian CD = D - C;
// We assume that each character is twice as tall as it is wide, and we scale accordingly
Meters characterWidth = CD.getX() / static_cast<double>(maxCols);
Meters characterHeight = CD.getY() / static_cast<double>(maxRows);
if (characterWidth * 2.0 < characterHeight) {
characterHeight = characterWidth * 2.0;
}
else {
characterWidth = characterHeight / 2.0;
}
// Now we get the scaled diagonal (note that we'll only shrink in at most one direction)
Cartesian scalingOffset = Cartesian(
(CD.getX() - characterWidth * maxCols) / 2.0,
(CD.getY() - characterHeight * maxRows) / 2.0
);
Cartesian E = C + scalingOffset;
// For all numbers of rows displayed
for (int numRows = 0; numRows <= maxRows; numRows += 1) {
// For all numbers of columns displayed
for (int numCols = 0; numCols <= maxCols; numCols += 1) {
// For each visible row and col
for (int row = 0; row <= maxRows; row += 1) {
for (int col = 0; col <= maxCols; col += 1) {
Cartesian LL = Cartesian(Meters(0), Meters(0));
Cartesian UR = Cartesian(Meters(0), Meters(0));
if (row < numRows && col < numCols) {
double rowOffset = 0.0;
if (ContainerUtilities::setContains(CENTER_STAR_ALIGNMENTS, tileTextAlignment)) {
rowOffset = static_cast<double>(maxRows - numRows) / 2.0;
}
else if (ContainerUtilities::setContains(UPPER_STAR_ALIGNMENTS, tileTextAlignment)) {
rowOffset = static_cast<double>(maxRows - numRows);
}
double colOffset = 0.0;
if (ContainerUtilities::setContains(STAR_CENTER_ALIGNMENTS, tileTextAlignment)) {
colOffset = static_cast<double>(maxCols - numCols) / 2.0;
}
else if (ContainerUtilities::setContains(STAR_RIGHT_ALIGNMENTS, tileTextAlignment)) {
colOffset = static_cast<double>(maxCols - numCols);
}
LL = Cartesian(
Meters(E.getX() + characterWidth * (col + colOffset)),
Meters(E.getY() + characterHeight * ((numRows - row - 1) + rowOffset))
);
UR = Cartesian(
Meters(E.getX() + characterWidth * (col + colOffset + 1)),
Meters(E.getY() + characterHeight * ((numRows - row - 1) + rowOffset + 1))
);
}
positionCache.insert(
std::make_pair(
std::make_pair(
// The number of rows/cols to be drawn
std::make_pair(numRows, numCols),
// The row and col of the current character
std::make_pair(row, col)
),
// The lower left and upper right texture coordinate
std::make_pair(LL, UR)
)
);
}
}
}
}
return positionCache;
}
Meters MetersPerSecond::operator*(const Duration& duration) const {
return Meters(getMetersPerSecond() * duration.getSeconds());
}
units::Meters Millimeters::toMeters() const
{
return Meters(m_value / 1000.0);
}
