void Path::CheckChain(){
//check if at least one enemy dot inside
const int max_y=MaxY();
const int min_y=MinY();
const int max_x=MaxX();
const int min_x=MinX();
try{//excpeption handler to quit from loop quickly
for(int cy=min_y; cy<=max_y; cy++){
for(int cx=min_x; cx<=max_x; cx++){
if( (cx>MinXInRow(cy) )
&& (cx<MaxXInRow(cy) )
&& (cy>MinYInColumn(cx))
&& (cy<MaxYInColumn(cx))
&& (field->GetState(Coordinates(cx, cy)) == EXISTS) //if dot isn't captured
&& (field->GetColor(Coordinates(cx, cy)) == -clr)){ //if color of dot inside is enemy color
enemy_point_inside=true;
throw 1;
}
}
}
}
catch(int i){
return;
}
}
/*************************************************************************
* Function name: pushNeighbours
* The Input: guess coords
* The output: -
* The Function operation: saves all the neighbour coordinates of this guess
* to be guessed later (to reveal the hit ship)
*************************************************************************/
void ComputerPlayer::pushNeighbours(Coordinates& guess) {
// Go down
Coordinates candidate = Coordinates(guess.getX() + 1, guess.getY());
if (isNewGuess(candidate) && candidate.getX() < BOARD_SIZE) {
futureHits.push(candidate);
}
// Go right
candidate = Coordinates(guess.getX(), guess.getY() + 1);
if (isNewGuess(candidate) && candidate.getY() < BOARD_SIZE) {
futureHits.push(candidate);
}
// Go up
candidate = Coordinates(guess.getX() - 1, guess.getY());
if (isNewGuess(candidate) && candidate.getX() > 0) {
futureHits.push(candidate);
}
// Go left
candidate = Coordinates(guess.getX(), guess.getY() - 1);
if (isNewGuess(candidate) && candidate.getY() > 0) {
futureHits.push(candidate);
}
}
Coordinates Coordinates::screenToIso(Coordinates screen, int tileW, int tileH){
Coordinates iso = Coordinates();
int X0 = screen.x - (ApplicationPreferencesManager::getIntegerPreference("OriginX",0) - ApplicationPreferencesManager::getIntegerPreference("IsoDeltaX", 0));
int Y0 = screen.y - (ApplicationPreferencesManager::getIntegerPreference("OriginY",0) - ApplicationPreferencesManager::getIntegerPreference("IsoDeltaY", 0));
int X = Y0 + (X0 / 2);
int Y = Y0 - (X0 / 2);
iso.x = X / tileH;
iso.y = Y / tileH;
int centerX = ApplicationPreferencesManager::getIntegerPreference("width", DEFAULT_WIDTH)/2;
int centerY = ApplicationPreferencesManager::getIntegerPreference("height", DEFAULT_WIDTH)/2;
int oriX = ApplicationPreferencesManager::getIntegerPreference("OriginX", DEFAULT_WIDTH);
int oriY = ApplicationPreferencesManager::getIntegerPreference("OriginY", DEFAULT_WIDTH);
ApplicationPreferencesManager::setIntegerPreference("MapDeltaX",iso.x);
ApplicationPreferencesManager::setIntegerPreference("MapDeltaY",iso.y);
if(centerX > screenClamp.x)
ApplicationPreferencesManager::setIntegerPreference("OriginX",oriX - (screen.x - centerX));
else
ApplicationPreferencesManager::setIntegerPreference("OriginX",oriX + (centerX - screen.x));
if(centerY > screenClamp.y)
ApplicationPreferencesManager::setIntegerPreference("OriginY",oriY + (centerY - screen.y));
else
ApplicationPreferencesManager::setIntegerPreference("OriginY",oriY - (screen.y - centerY));
return(iso);
}
void GeneticAlgorithm::mutation(Army *ind, int degree)
{
int unitID = rand()%ind->nUnits();
Unit *unit = ind->getUnitAtIndex(unitID);
int tacticID = rand()%unit->getTacticSize();
Tactic *tactic = unit->getTacticAt(tacticID);
int newType = unit->getType();
switch(degree)
{
case MUTATION_UNIT_TYPE:{ //Mutate a unit type
mutateUnitType(ind, unitID, newType);
}
break;
case MUTATION_UNIT_TACTIC: //Mutate a unit tactic
mutateTactic(tactic, rand()%4);
break;
case MUTATION_UNIT_POSITION: //Mutate a unit position
unit->setBluePrintCoord( Coordinates(rand()%COMBAT_AREA_WIDTH + 150, rand()%COMBAT_AREA_HEIGHT + 50) );
break;
default:
break;
}
GoldCap(ind);
}
bool FieldView::on_button_press_event(GdkEventButton* event){
//we get aproximatly coordinats of cell
//here we add 0.1463 to avoid some infelicity
const double xm = (event->x) / CELL_SIZE / GetScaleX();
const double ym = (event->y) / CELL_SIZE / GetScaleY();
//we find fractional part of coordinats, then it will help us to round coordinats
const double xdiff = xm - abs(xm);
const double ydiff = ym - abs(ym);
int xc, yc;
//here we round our coordinats
if(xdiff <= 0.25)
xc = abs(xm) - 1;
else if(xdiff >= 0.75)
xc = abs(xm);
else xc = -1;
if(ydiff <= 0.25)
yc = abs(ym) - 1;
else if(ydiff >= 0.75)
yc = abs(ym);
else yc = -1;
//when xc or yc are equal to -1 it means that signal mustn't be handled
if((xc >= 0) && (yc >= 0))
ctrl->MakeMove(Coordinates(xc, yc)); //emit signal
return true;
}
void GameState::controlLoop(SDL_Event * e) {
switch (e->type){
case SDL_KEYDOWN:
break;
case SDL_KEYUP:
break;
case SDL_MOUSEMOTION:
break;
case SDL_MOUSEBUTTONDOWN:
int x,y;
if(SDL_BUTTON(SDL_GetMouseState(&x, &y)) == SDL_BUTTON_LEFT){
std::cout<<x<<","<<y<<std::endl;
Coordinates newCoor = Coordinates(x,y);
newCoor = newCoor.screenToIso(
newCoor,
ApplicationPreferencesManager::getIntegerPreference("tileWidth", DEFAULT_WIDTH),
ApplicationPreferencesManager::getIntegerPreference("tileHeight", DEFAULT_HEIGHT)
);
std::cout<<newCoor.x<<","<<newCoor.y<<"\n"<<std::endl;
int isoDeltaX = ApplicationPreferencesManager::getIntegerPreference("MapDeltaX",0) - ApplicationPreferencesManager::getIntegerPreference("MapDeltaY",0);
int isoDeltaY = (ApplicationPreferencesManager::getIntegerPreference("MapDeltaY",0) + ApplicationPreferencesManager::getIntegerPreference("MapDeltaX",0))/2;
ApplicationPreferencesManager::setIntegerPreference("IsoDeltaX",isoDeltaX);
ApplicationPreferencesManager::setIntegerPreference("IsoDeltaY",isoDeltaY);
std::cout<<"Delta"<<std::endl;
std::cout<<ApplicationPreferencesManager::getIntegerPreference("MapDeltaX",0)<<","<<ApplicationPreferencesManager::getIntegerPreference("MapDeltaY",0)<<std::endl;
std::cout<<ApplicationPreferencesManager::getIntegerPreference("IsoDeltaX",0)<<","<<ApplicationPreferencesManager::getIntegerPreference("IsoDeltaY",0)<<std::endl;
}
break;
case SDL_MOUSEBUTTONUP:
break;
default:
break;
}
}
bool IGCParser::readCRecord(const char *line, int len)
{
qreal lat, lon;
if (len < 18)
return false;
if (!readLat(line + 1, lat)) {
_errorString = "Invalid latitude";
return false;
}
if (!readLon(line + 9, lon)) {
_errorString = "Invalid longitude";
return false;
}
if (!(lat == 0 && lon == 0)) {
QByteArray ba(line + 18, len - 19);
Waypoint w(Coordinates(lon, lat));
w.setName(QString(ba.trimmed()));
_routes.last().append(w);
}
return true;
}
std::vector< std::string > BoggleSolver::giveMeWords() const
{
int x=0,y=0;
std::set< std::string > result;
std::set< std::string > otherResult;
std::vector<std::string> res;
for(std::vector<std::vector<char> >::const_iterator it = grid.begin(); it != grid.end();++it)
{
x=0;
for(std::vector<char>::const_iterator itChar = (*it).begin(); itChar != (*it).end();++itChar)
{
Coordinates c = Coordinates(x,y);
std::set< Coordinates > alreadyUsed;
alreadyUsed.clear();
otherResult = giveMeWords("",c,alreadyUsed);
result.insert( otherResult.begin(), otherResult.end() );
x++;
}
y++;
}
res.insert( res.end(), result.begin(), result.end() );
std::sort(res.begin(), res.end(),f);
return res;
}
Coordinates Coordinates::ParseConfig(
std::string const & iCoordinatesName,
boost::property_tree::ptree const & iPtree)
{
uint64_t aX = iPtree.get< uint64_t >(iCoordinatesName + ".x");
uint64_t aY = iPtree.get< uint64_t >(iCoordinatesName + ".y");
return Coordinates(aX, aY);
}
Enemy::Enemy() {
this->MoveTo(Coordinates(0, 0));
this->item = Item();
attack += item.GetAttack();
accuracy += item.GetAccuracy();
defense += item.GetDefense();
}
void AltitudeMap::init(unsigned int length, unsigned int width, unsigned int height) {
index = 0;
bound.length = length;
bound.width = width;
bound.height = height;
// Size vector
Coordinates newCoord = Coordinates();
coord.assign(bound.length * bound.width, newCoord);
// Fill vector with 0 height -- Could use iterators here
for (unsigned int row = 0; row < bound.length; row++) {
for (unsigned int col = 0; col < bound.width; col++) {
coord[row * bound.length + col] = Coordinates(row, col);
}
}
}
/**
* @see insert(double x, double y, const ElementType& newObject)
*/
iterator insert(double x, double y, ElementType&& val)
{
if (coordinatesAreOk(x, y))
{
return insert(StoredObject(
LocationCode<maxLevels>(tr.forward(Coordinates(x, y))), std::move(val)));
}
return iterator();
}
/*************************************************************************
* Function name: getRandomGuess
* The Input: -
* The output: guess coordinates
* The Function operation: generates random guess
*************************************************************************/
Coordinates* ComputerPlayer::getRandomGuess() {
int x, y;
// Randomize x and y until we get new guess
do {
x = rand() % 10;
y = rand() % 10;
} while (!isNewGuess(Coordinates(x, y)));
return new Coordinates(x, y);
}
bool FieldView::DrawAllDots(){
bool result(true);
//simply accept DrawDot() for every available dot
for(int xc = 0; xc < width; xc++)
for(int yc = 0; yc < height; yc++)
if(!DrawDot(Coordinates(xc, yc)))
result = false;
return result;
}
/**
* Removes from the QuadTree container all elements that match given coordinates. They are then
* destroyed.
*
* @param x X-axis coordinate of the element to be removed.
* @param y Y-axis coordinate of the element to be removed.
*/
void erase(double x, double y)
{
// TODO: relocate elements to node->parent() if node and its siblings count is lower or equal than capacity.
if (coordinatesAreOk(x, y))
{
LocationCode<maxLevels> code(tr.forward(Coordinates(x, y)));
TreeNode* node = getNode(code);
node->erase(code);
}
}
/*************************************************************************
* Function name: strategicMove
* The Input: -
* The output: guess coordinates
* The Function operation: generates strategic guess
*************************************************************************/
Coordinates* ComputerPlayer::strategicMove() {
/* Running in diagonals.
* first - 3 right ones, then 3 left ones.
* after that (if the enemy survived) - random moves.
*/
if (!hasMoreIdeas) {
return getRandomGuess();
}
do {
// Running in diagonals right
if (movingDiagRight) {
smartX++;
smartY++;
// The first (major) diagonal is over
if (smartX == BOARD_SIZE && smartY == BOARD_SIZE) {
smartX = 0;
smartY = BOARD_SIZE / 2;
// The first small diagonal is over
} else if (smartY == BOARD_SIZE) {
smartX = BOARD_SIZE / 2;
smartY = 0;
// The second small diagonal is over
} else if (smartX == BOARD_SIZE) {
movingDiagRight = false;
smartX = 0;
smartY = BOARD_SIZE - 1;
}
// Running diagonally left
} else {
smartX++;
smartY--;
// The first (major) diagonal is over
if (smartX == BOARD_SIZE && smartY == 0) {
smartX = 0;
smartY = (BOARD_SIZE / 2) + 1;
// The first small diagonal is over
} else if (smartY == 0) {
smartX = (BOARD_SIZE / 2) - 2;
smartY = BOARD_SIZE - 1;
// The second small diagonal is over
} else if (smartX == BOARD_SIZE) {
hasMoreIdeas = false;
return getRandomGuess();
}
}
// If this guess was already made - continue
} while (!isNewGuess(Coordinates(smartX, smartY)));
return new Coordinates(smartX, smartY);
}
/**
* Return the bounds of a range that includes all the elements that are near specified (x, y).
*
* @param x X-axis coordinate of val.
* @param y Y-axis coordinate of val.
* @return Pair of iterators that point to the first and the last of the elements that are
* near the (x, y) point. If any of given x or y is outside of a QuadTree range (i.e.
* x >= startX + width or y >= startY + width), pair of end() is returned.
*/
std::pair<iterator, iterator> near(double x, double y)
{
if (coordinatesAreOk(x, y))
{
TreeNode* node = getExistingNode(
LocationCode<maxLevels>(tr.forward(Coordinates(x, y))));
return std::pair<iterator, iterator>(
iterator(node, 0), ++iterator(node, node->count()));
}
return std::pair<iterator, iterator>(end(), end());
}
void TIM1_UP_IRQHandler(void)//routina diakophs gia diakoph pou prokaleitai apo upcounting tou timer 1
{
TIM_Cmd(TIM1,DISABLE);//apenergopoihsh tou timer
Coordinates();//synarthsh pou pairnei ta dedomena apo to accelerometro kai ta apothikeuei se pinakes
TIM_ClearFlag(TIM1,TIM_FLAG_Update); //kanei clear to flag ths diakophs
TIM_Cmd(TIM1,ENABLE);//energopoihsh tou timer
TIM_SetCounter (TIM1,0x00); //3anarxizei to upcounting apo to 0
}
void Display::updateDisplay(Entities &entities){
al_clear_to_color(al_map_rgba(0, 0, 0, 255));
std::list<Entity*> entitiesTemp = entities.getEntities();
for (std::list<Entity*>::iterator it = entitiesTemp.begin(); it != entitiesTemp.end(); it++){
(*it)->draw();
}
displayText(score, Coordinates(80, 10), font2);
al_flip_display();
}
Coordinates Coordinates::isoToScreen(Coordinates iso, int tileW, int tileH){
Coordinates screen = Coordinates();
screen.x = ApplicationPreferencesManager::getIntegerPreference("OriginX",0) - (iso.y * tileW/2) + (iso.x * tileW/2) - (tileW/2);
screen.y = ApplicationPreferencesManager::getIntegerPreference("OriginY",0) + (iso.y * tileH/2) + (iso.x * tileH/2);
int isoDeltaX = ApplicationPreferencesManager::getIntegerPreference("MapDeltaX",0) - ApplicationPreferencesManager::getIntegerPreference("MapDeltaY",0);
int isoDeltaY = (ApplicationPreferencesManager::getIntegerPreference("MapDeltaY",0) + ApplicationPreferencesManager::getIntegerPreference("MapDeltaX",0))/2;
ApplicationPreferencesManager::setIntegerPreference("IsoDeltaX",isoDeltaX);
ApplicationPreferencesManager::setIntegerPreference("IsoDeltaY",isoDeltaY);
return(screen);
}
Coordinates operator()(osmium::Location location) const {
Coordinates c {location.lon(), location.lat()};
if (m_epsg != 4326) {
c = transform(m_crs_wgs84, m_crs_user, Coordinates(deg_to_rad(location.lon()), deg_to_rad(location.lat())));
if (m_crs_user.is_latlong()) {
c.x = rad_to_deg(c.x);
c.y = rad_to_deg(c.y);
}
}
return c;
}
void Text::update(){
float x1,x2,y1,y2;
const float _height = gxFont->getHeight(text);
const float _width = gxFont->getWidth(text);
// Gauche, droite, centre
if (flags & FTGX_JUSTIFY_LEFT){
x1 = 0;
x2 = _width;
}
else if (flags & FTGX_JUSTIFY_RIGHT){
x1 = -_width;
x2 = 0;
}
else { // Par défaut FTGX_JUSTIFY_CENTER
x1 = -_width/2;
x2 = _width/2;
}
// Haut, bas, milieu
if (flags & FTGX_ALIGN_TOP){
y1 = 0;
y2 = _height;
}
else if (flags & FTGX_ALIGN_MIDDLE){
y1 = -_height/2;
y2 = _height/2;
}
else { // Par défaut FTGX_ALIGN_BOTTOM
y1 = -_height;
y2 = 0;
}
vertices[0] = Coordinates(x1,y1);
vertices[1] = Coordinates(x2,y1);
vertices[2] = Coordinates(x2,y2);
vertices[3] = Coordinates(x1,y2);
}
integer Cas2Shuttle(CASblock & buffer, ShuttlePar & block){
/* Reading M1950 coordinates and velocities from CAs */
const int foot_cm=30.48;
double Coo_M1950[3], Vel_M1950[3], q[4], Greenw_Phi, Vel_angle;
polar Geo,Solar;
Euler Euler_LVLH;
Coo_M1950[0]=CASvalue(buffer,(4490),8) * foot_cm;
Coo_M1950[1]=CASvalue(buffer,(4508),8) * foot_cm;
Coo_M1950[2]=CASvalue(buffer,(4526),8) * foot_cm;
Vel_M1950[0]=CASvalue(buffer,(4687),8) * foot_cm;
Vel_M1950[1]=CASvalue(buffer,(4701),8) * foot_cm;
Vel_M1950[2]=CASvalue(buffer,(4715),8) * foot_cm;
q[0]=CASvalue(buffer,(3291),8);
q[1]=CASvalue(buffer,(3305),8);
q[2]=CASvalue(buffer,(3319),8);
q[3]=CASvalue(buffer,(3333),8);
double times= CAStime(buffer,10);
time_t utime = time_t(times+0.5) + Year1998;
// check record
if((Radius(Coo_M1950)<=.1) || (Radius(Vel_M1950)<=.1) || (times<=0))return 0;
// convert here
Coordinates(Coo_M1950,Vel_M1950,q,utime,&Geo,&Vel_angle,&Euler_LVLH,&Solar,&Greenw_Phi);
if(!td2f(Geo.Teta))return -1;
if(!td2f(Geo.Phi))return -1;
if(!td2f(Geo.R))return -1;
if(!td2f(Greenw_Phi))return -1;
if(!td2f(Euler_LVLH.Yaw))return -1;
if(!td2f(Euler_LVLH.Pitch))return -1;
if(!td2f(Euler_LVLH.Yaw))return -1;
if(!td2f(Vel_angle))return -1;
if(!td2f(Solar.R))return -1;
if(!td2f(Solar.Phi))return -1;
if(!td2f(Solar.Teta))return -1;
block.StationTheta=d2f(Geo.Teta);
block.StationPhi=d2f(Geo.Phi);
block.StationR=d2f(Geo.R);
block.GrMedPhi=d2f(Greenw_Phi);
block.StationYaw=d2f(Euler_LVLH.Yaw);
block.StationPitch=d2f(Euler_LVLH.Pitch);
block.StationRoll=d2f( Euler_LVLH.Roll);
block.StationSpeed=d2f( Vel_angle);
block.SunR=d2f(Solar.R);
block.SunPhi=d2f(Solar.Phi);
block.SunTheta=d2f(Solar.Teta);
//cout <<" "<<ClockTune(utime)<<" "<<ctime(&utime)<<endl;
block.Time=utime-ClockTune(utime);
}
bool Bishop::MayIGoHere(Coordinates position, Coordinates prev_position, QPointer<Player> friends, QPointer<Player>& enemies, bool CheckForCheck/* = true*/)
{
if ((prev_position.y() - prev_position.x() != position.y() - position.x()) &&
(prev_position.y() + prev_position.x() != position.y() + position.x()))
return false;
QPointer<Piece> pieceForDelete;
for (int x = position.x(), y = position.y(); x != prev_position.x(), y != prev_position.y(); (position.x() < prev_position.x())?++x:--x, (position.y() < prev_position.y())?++y:--y)
{
if (!(friends->GetAnotherPiece(Coordinates(x, y), this).isNull()))
return false;
QPointer<Piece> piece = enemies->GetPiece(Coordinates(x, y));
if (!piece.isNull())
{
if ((x == position.x()) && (y == position.y()))
pieceForDelete = piece;
else
{
pieceForDelete.clear();
return false;
}
}
}
if (CheckForCheck)
{
if (enemies->MaySomebodyGoHere(friends->GetKing(), friends, pieceForDelete))
{
pieceForDelete.clear();
return false;
}
}
if (!pieceForDelete.isNull() && CheckForCheck)
enemies->RemovePiece(pieceForDelete);
pieceForDelete.clear();
return true;
}
bool IGCParser::readBRecord(const char *line, int len)
{
qreal lat, lon, ele;
QTime time;
if (len < 35)
return false;
if (!readTimestamp(line + 1, time)) {
_errorString = "Invalid timestamp";
return false;
}
if (!readLat(line + 7, lat)) {
_errorString = "Invalid latitude";
return false;
}
if (!readLon(line + 15, lon)) {
_errorString = "Invalid longitude";
return false;
}
if (!readAltitude(line + 24, ele)) {
_errorString = "Invalid altitude";
return false;
}
if (time < _time)
_date = _date.addDays(1);
_time = time;
Trackpoint t(Coordinates(lon, lat));
t.setTimestamp(QDateTime(_date, _time, Qt::UTC));
t.setElevation(ele);
_tracks.last().append(t);
return true;
}
void Character::Move( DIRECTION dir )
{
if ( !m_isDead )
{
// Check to see if moving in that direction will cause a collision.
// If not, the move the character.
bork::Vector2f newCoords = m_coordinates;
switch( dir )
{
case UP:
newCoords.y = newCoords.y - m_speed;
break;
case DOWN:
newCoords.y = newCoords.y + m_speed;
break;
case LEFT:
newCoords.x = newCoords.x - m_speed;
break;
case RIGHT:
newCoords.x = newCoords.x + m_speed;
break;
default:
break;
}
if ( !bork::LevelManager::CheckCollision( newCoords, m_dimensions ) &&
!CharacterManager::CheckCollision( newCoords, m_dimensions, m_sId ) )
{
// TODO: Reference to CharacterManager, circular dependency :(
Coordinates( newCoords );
}
}
}
const Coordinates Vector::operator+(
const Coordinates &coordinates) const
{
return Coordinates(x_ + coordinates.x_, y_ + coordinates.y_);
}
const Coordinates Coordinates::operator-(const Vector& vector) const
{
return Coordinates(x_ - vector.x_, y_ - vector.y_);
}
void GameState::displayLoop(SDL_Surface * surface) {
Item item1 = Item(1,"Obj1",false,1,Coordinates(0,0),Resource());
Item item01 = Item(6,"Obj01",false,1,Coordinates(0,1),Resource());
Item item10 = Item(7,"Obj10",false,1,Coordinates(1,0),Resource());
Item item11 = Item(8,"Obj11",false,1,Coordinates(1,1),Resource());
Item item02 = Item(9,"Obj02",false,1,Coordinates(0,2),Resource());
Item item20 = Item(10,"Obj20",false,1,Coordinates(2,0),Resource());
Item item22 = Item(11,"Obj22",false,1,Coordinates(2,2),Resource());
Item item2 = Item(2,"Obj2",false,1,Coordinates(9,9),Resource());
Item item3 = Item(3,"Obj3",false,1,Coordinates(9,0),Resource());
Item item4 = Item(4,"Obj4",false,1,Coordinates(0,9),Resource());
Item item5 = Item(5,"Obj5",false,1,Coordinates(4,4),Resource());
std::vector<Item> items;
Scene mainScene = Scene(1,items ,LocalPlayer());
mainScene.addItem(item1);
mainScene.addItem(item2);
mainScene.addItem(item3);
mainScene.addItem(item4);
mainScene.addItem(item5);
mainScene.addItem(item10);
mainScene.addItem(item01);
mainScene.addItem(item11);
mainScene.addItem(item20);
mainScene.addItem(item02);
mainScene.addItem(item22);
mainScene.render(surface);
}
/**
* Override the Render method to draw the battleships on the screen
*/
void CliGridRenderer::RenderGame(battleships::Fleet *fOne, battleships::Fleet *fTwo, std::vector<Coordinates> *pOneShots, std::vector<Coordinates> *pTwoShots)
{
std::cout << std::endl << std::endl;
// AI board
for (int x = 0; x < 11; x++)
{
// First Column so
std::cout << std::setfill('0') << std::setw(2) << x;
for (int y = 0; y < 11; y++)
{
if (x == 0)
{
std::cout << " " << letters[y] << " ";
}
else
{
// We go y,x because of the order in which the for loops are
// Or at least that seems to work when we're playing the game, so we're rolling with it
if (fTwo->IsShipAtPosition(Coordinates(y, x)) && ShotsAtPosition(pOneShots, Coordinates(y,x)))
{
// output X if this shot was a hit
std::cout << " X ";
}
else if(ShotsAtPosition(pOneShots, Coordinates(y, x)))
{
// output # if this shot was a miss
std::cout << " # ";
}
else
{
// Output ~ if there hasn't been an attempted shot here - we don't want the player
// knowing where their enemy's ships are!
std::cout << " ~ ";
}
}
}
// New line for next row
std::cout << std::endl;
}
// Split the boards
std::cout << std::endl << std::endl;
// Player board
for (int x = 0; x < 11; x++)
{
// First Column so output row numbers
std::cout << std::setfill('0') << std::setw(2) << x;
for (int y = 0; y < 11; y++)
{
// First row so output column letters
if (x == 0)
{
std::cout << " " << letters[y] << " ";
}
else
{
if (fOne->IsShipAtPosition(Coordinates(x, y)))
{
// If there's a ship here, output a O to indicate it
std::cout << " O ";
}
else
{
// Otherwise output wavy sea lines
std::cout << " ~ ";
}
}
}
// New line for next row
std::cout << std::endl;
}
}