void Map::setBonus()
{
checkRight();
checkLeft();
checkUp();
checkDown();
}
void testNavigate(){
int check, nextX, nextY;
initDir(); //start by getting the initial direction
solution = createStack();
push(solution, current); // add the starting square to the stack
while (current->val != 'F'){ // the maze sloving loop
printf("current position: (%d, %d)\ncurrent direction: %c\n",current->x, current->y,dir);
switch(dir){
case 'n':
check = checkUp();
nextX = current->x;
nextY = current->y - 1;
break;
case 's':
check = checkDown();
nextX = current->x;
nextY = current->y + 1;
break;
case 'e':
check = checkRight();
nextX = current->x + 1;
nextY = current->y;
break;
case 'w':
check = checkLeft();
nextX = current->x - 1;
nextY = current->y;
break;
}
if (check == 1){ // if you can move, the next space is not a wall
printf("the square ahead is not a wall!\n");
if (maze[nextX][nextY]->wasHere == 1){ //we have been there already
printf("we have been here before!\n");
if (otherOptions(nextX, nextY) == 1){ // there are other options
printf("we have other options, lets turn\n");
changeDir();
printf("new direction: %c\n",dir);
} else { // no other options will need to go back to where we have been
printf("we have no other options we must go this way\n");
pop(solution); // pop from stack
current->deadEnd = 1;
current = maze[nextX][nextY]; // move
}
} else {
printf("we have not been here before, lets go!\n");
current = maze[nextX][nextY]; // move
current-> wasHere = 1;
push(solution, current); // add to stack
}
} else {
printf("the square ahead is a wall, we must change directions\n");
changeDir();
printf("new direction: %c\n",dir);
}
char c = getchar();
}
}
//------------------------------------------------------------------------------
void
Game::checkBorders()
{
checkLeft();
checkRight();
checkTop();
checkBottom();
}
int main() // Main function
{
low(26);
low(27);
int irLeft, irRight;
// Add startup code here.
int leftDist, rightDist;
while(1)
{
drive_setRampStep(10);
drive_ramp(64, 64);
while(1)
{
irLeft = checkLeft();
irRight = checkRight();
irRight = ping_cm(8);
print ("left = %d, right = %d \n", irLeft, irRight);
if(irLeft == 1)
{
high(26);
}
else
{
low(26);
}
if(ping_cm(8)<=10)
{
high(27);
}
else
{
low(27);
}
if(irLeft == 1)
{
drive_ramp(0, 0);
turnLeftH();
print (" Left empty hall detected");
break;
}
if (ping_cm(8)<=9)
{
drive_ramp(0, 0);
turnBack();
print (" End of the line");
break;
}
}
}
}
bool BoundingBox::pointInBounds(int xp, int yp)
{
// Check if the point is in between the top bottom and side lines (all return 0 or negative)
if(checkTop(xp,yp)<= 0 &&
checkBottom(xp,yp) <= 0 &&
checkLeft(xp,yp)<=0 &&
checkRight(xp,yp) <= 0)
return true;
return false;
}
void Character::moveRight(RMTiledMap *tiledMap){
if(this->getPosition().x == WIDTH - 1 && this->getPosition().y == 13){
this->setPosAgian(ccp(0, 13), (CCLayer*)this->getSprite()->getParent(), tiledMap);
this->setRunCurrent(1);
}
else
if(checkRight(tiledMap, this->position)){
this->spr->runAction(CCMoveBy::create(this->getVelocity(), ccp(tiledMap->getTiledMap()->getTileSize().width, 0)));
this->position = ccp(this->position.x + 1, this->position.y);
this->setRunCurrent(1);
}
}
//判断上下左右
void RootEngine::checkFourSides(StarModel* model)
{
if (checkedBlocks->containsObject(model)) {
return;
}else {
checkedBlocks->addObject(model);
}
checkUp(model);
checkDown(model);
checkLeft(model);
checkRight(model);
}
void navigate(){
int check, nextX, nextY;
initDir(); //start by getting the initial direction
solution = createStack();
push(solution, current); // add the starting square to the stack
while (current->val != 'F'){ // the maze sloving loop
switch(dir){
case 'n':
check = checkUp();
nextX = current->x;
nextY = current->y - 1;
break;
case 's':
check = checkDown();
nextX = current->x;
nextY = current->y + 1;
break;
case 'e':
check = checkRight();
nextX = current->x + 1;
nextY = current->y;
break;
case 'w':
check = checkLeft();
nextX = current->x - 1;
nextY = current->y;
break;
}
if (check == 1){ // if you can move, the next space is not a wall
if (maze[nextX][nextY]->wasHere == 1){ //we have been there already
if (otherOptions(nextX, nextY) == 1){ // there are other options
changeDir();
} else { // no other options will need to go back to where we have been
pop(solution); // pop from stack
current->deadEnd = 1;
current = maze[nextX][nextY]; // move
}
} else {
current = maze[nextX][nextY]; // move
current-> wasHere = 1;
push(solution, current); // add to stack
}
} else {
changeDir();
}
}
}
int msasSysReset(int confd,ltMsgHead *ltMsgPk,lt_shmHead *lt_MMHead)
{
char sIp[24];
char strUserName[64];
char caMsg[256];
memset(sIp,0,sizeof(sIp));
memset(strUserName,0,sizeof(strUserName));
if(checkRight(confd,ltMsgPk,MSAS_RIGHT_SYSADMIN,lt_MMHead)==-1){
return -1;
}
ltMsgGetSomeNVar(ltMsgPk,2,"clientip", LT_TYPE_STRING, 19, sIp,"manageruser",LT_TYPE_STRING, 32,strUserName);
sprintf(caMsg,"%s reboot system success.",strUserName);
logWrite(ltMsgPk,caMsg,9);
system("/app/msa/bin/msasshutdownall");
system("/sbin/reboot");
system("/sbin/reboot");
return 0;
}
void FloorGenerator::assignRight(bool room)
{
int temp = rand() % 8;
int posX = start.front().getX();
int posY = start.front().getY();
const int ONEL = 0, TWOH = 1, TWOUL= 2, TWODL = 3, THREEU = 4, THREED = 5, THREEL = 6, FOUR = 7;
switch(temp)
{
case ONEL:
{
bool up, down, right;
if(posX-1 < 0)
up = true;
else
up = !checkUp2(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = true;
else
right = !checkRight2(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomoneL, room);
else
pushCor(posX, posY+1, oneL, room);
}else
assignRight(room);
break;
}
case TWOH:
{
if(posY+2 > LIMIT-1)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = true;
else
up = !checkUp2(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = false;
else
right = checkRight(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomtwoH, room);
else
pushCor(posX, posY+1, twoH, room);
}else
assignRight(room);
}
break;
}
case TWOUL:
{
if(posX-1 < 0)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = false;
else
up = checkUp(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = true;
else
right = !checkRight2(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomtwoUL, room);
else
pushCor(posX, posY+1, twoUL, room);
}else
assignRight(room);
}
break;
}
case TWODL:
{
if(posX+1 > LIMIT-1)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = true;
else
up = !checkUp2(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = false;
else
down = checkDown(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = true;
else
right = !checkRight2(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomtwoDL, room);
else
pushCor(posX, posY+1, twoDL, room);
}else
assignRight(room);
}
break;
}
case THREEU:
{
if(posX-1 < 0)
{
assignRight(room);
break;
}else if(posY+2 > LIMIT-1)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = false;
else
up = checkUp(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = false;
else
right = checkRight(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomthreeU, room);
else
pushCor(posX, posY+1, threeU, room);
}else
assignRight(room);
}
break;
}
case THREED:
{
if(posX+1 > LIMIT-1)
{
assignRight(room);
break;
}else if(posY+2 > LIMIT-1)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = true;
else
up = !checkUp2(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = false;
else
down = checkDown(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = false;
else
right = checkRight(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomthreeD, room);
else
pushCor(posX, posY+1, threeD, room);
}else
assignRight(room);
}
break;
}
case THREEL:
{
if(posX+1 > LIMIT-1)
{
assignRight(room);
break;
}else if(posX-1 < 0)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = false;
else
up = checkUp(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = false;
else
down = checkDown(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = true;
else
right = !checkRight2(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomthreeL, room);
else
pushCor(posX, posY+1, threeL, room);
}else
assignRight(room);
}
break;
}
case FOUR:
{
if(posX + 1 > LIMIT-1)
{
assignRight(room);
break;
}else if(posX -1 < 0)
{
assignRight(room);
break;
}else if(posY+2 > LIMIT-1)
{
assignRight(room);
break;
}else
{
bool up, down, right;
if(posX-1 < 0)
up = false;
else
up = checkUp(posX-1, posY+1);
if(posX+1 > LIMIT-1)
down = false;
else
down = checkDown(posX+1, posY+1);
if(posY+2 > LIMIT-1)
right = false;
else
right = checkRight(posX, posY+2);
if(up && down && right)
{
if(room)
pushRoom(posX, posY+1, roomfour, room);
else
pushCor(posX, posY+1, four, room);
}else
assignRight(room);
}
break;
}
}
}
void BoundingBox::calculateResize(int xp, int yp,bool locked, int corner, double *ans)
{
double xn = 0,
yn = 0,
dh = 0,
dw = 0,
xO1 = 0,
yO1 = 0;
if(corner == CBL)
{
// Find intersection (xn, yn) of two lines
// bottom of element and perpendicular line going through (xp, yp)
xn = (mainSlope * xp - sideSlope * xO - yp + yO) / (mainSlope - sideSlope);
yn = mainSlope * (xn - xp) + yp;
// Calculate the change in width and height (dw, dh)
dh = sqrt( pow((xO - xn),2) + pow((yO - yn),2) );
dw = sqrt( pow((xp - xn),2) + pow((yp - yn),2) );
// If the point is inside the box (negative value from checkLeft/Bottom)
// The size is getting smaller
if(checkLeft(xp, yp) < 0)
dw = dw * -1;
if(checkBottom(xp, yp) < 0)
dh = dh * -1;
// if width/ height is negative invert the dw/dh
if(width < 0)
dw = dw*-1;
if(height < 0)
dh = dh*-1;
// If the aspect ratio is locked choose the bigger change and scale the other appropriately
if(locked)
{
if(fabs(dw) > fabs(dh))
{
// Use dw, scale height proportionaly to find dh
double scale = (double)(dw+width)/width;
double h = height*scale;
// The new dh
dh = h - height;
}else
{
double scale = (double)(dh+height)/height;
double w = width*scale;
// The new dw
dw = w - width;
}
}
// New origin is (xp,yp)
xO1 = xp;
yO1 = yp;
}
if(corner == CBR)
{
// Find intersection (xn, yn) of two lines
// bottom of element and perpendicular line going through (xp, yp)
xn = (mainSlope * xp - sideSlope * xBR - yp + yBR) / (mainSlope - sideSlope);
yn = mainSlope * (xn - xp) + yp;
// Calculate the change in width and height (dw, dh)
dh = sqrt( (xBR - xn)*(xBR - xn) + (yBR - yn)*(yBR - yn) );
dw = sqrt( (xp - xn)*(xp - xn) + (yp - yn)*(yp - yn) );
// If the point is inside the right or bottom then the shape is getting smaller dw/dh should be negative
if(checkRight(xp, yp) < 0)
dw = dw * -1;
if(checkBottom(xp, yp) < 0)
dh = dh * -1;
// if width/ height is negative invert the dw/dh
if(width < 0)
dw = dw*-1;
if(height < 0)
dh = dh*-1;
// If the aspect ratio is locked choose the bigger change and scale the other appropriately
if(locked)
{
if(fabs(dw) > fabs(dh))
{
// Use dw, scale height proportionaly to find dh
double scale = (double)(dw+width)/width;
double h = height*scale;
// The new dh
dh = h - height;
}else
{
double scale = (double)(dh+height)/height;
double w = width*scale;
// The new dw
dw = w - width;
}
}
// Calculate the new origin (xO1, yO1)
xO1 = xO + dh * cos(angle - PI/2); // angle minus 90 degrees
yO1 = yO + dh * sin(angle - PI/2); // angle minus 90 degrees
}
if(corner == CTR)
{
// Find intersection (xn, yn) of two lines
// bottom of element and perpendicular line going through (xp, yp)
xn = (mainSlope * xp - sideSlope * xTR - yp + yTR) / (mainSlope - sideSlope);
yn = mainSlope * (xn - xp) + yp;
// Calculate the change in width and height (dw, dh)
dh = sqrt( (xTR - xn)*(xTR - xn) + (yTR - yn)*(yTR - yn) );
dw = sqrt( (xp - xn)*(xp - xn) + (yp - yn)*(yp - yn) );
// Retain the direction of the change
// Acts opposite if angle is below the x axis
if(checkRight(xp, yp) < 0)// && angle > 0 && angle < 180 || checkRight(xp, yp) > 0 && angle >180)
dw = dw * -1;
if(checkTop(xp, yp) < 0 )//&& angle > 0 && angle < 180)
dh = dh * -1;
// if width/ height is negative invert the dw/dh
if(width < 0)
dw = dw*-1;
if(height < 0)
dh = dh*-1;
// If the aspect ratio is locked choose the bigger change and scale the other appropriately
if(locked)
{
if(fabs(dw) > fabs(dh))
{
// Use dw, scale height proportionaly to find dh
double scale = (double)(dw+width)/width;
double h = height*scale;
// The new dh
dh = h - height;
}else
{
double scale = (double)(dh+height)/height;
double w = width*scale;
// The new dw
dw = w - width;
}
}
// Origin remains the same
xO1 = xO;
yO1 = yO;
}
if(corner == CTL)
{
// Find intersection (xn, yn) of two lines
// bottom of element and perpendicular line going through (xp, yp)
xn = (sideSlope * xTL - mainSlope * xp + yp - yTL) / (sideSlope - mainSlope);
yn = yp - mainSlope * (xp - xn);
// Calculate the change in width and height (dw, dh)
dh = sqrt( (xn - xTL)*(xn - xTL) + (yn - yTL)*(yn - yTL) );
dw = sqrt( (xp - xn)*(xp - xn) + (yp - yn)*(yp - yn) );
// If the point is inside the box (negative value from checkLeft/Top)
// The size is getting smaller
if(checkLeft(xp, yp) < 0)
dw = dw * -1;
if(checkTop(xp, yp) < 0)
dh = dh * -1;
// if width/ height is negative invert the dw/dh
if(width < 0)
dw = dw*-1;
if(height < 0)
dh = dh*-1;
// If the aspect ratio is locked choose the bigger change and scale the other appropriately
if(locked)
{
if(fabs(dw) > fabs(dh))
{
// Use dw, scale height proportionaly to find dh
double scale = (double)(dw+width)/width;
double h = height*scale;
// The new dh
dh = h - height;
}else
{
double scale = (double)(dh+height)/height;
double w = width*scale;
// The new dw
dw = w - width;
}
}
// Calculate the new origin (xO1, yO1)
xO1 = xO + dw * cos(angle + PI); // 180 plus angle
yO1 = yO + dw * sin(angle + PI); // 180 plus angle
}
/// final new origin width and height
ans[0] = xO1;
ans[1] = yO1;
ans[2] = width + dw;
ans[3] = height + dh;
}
void FloorGenerator::assignDown(bool room)
{
int temp = rand() % 8;
int posX = start.front().getX();
int posY = start.front().getY();
const int ONEU = 0, TWOV = 1, TWOUL= 2, TWOUR = 3, THREEU = 4, THREEL = 5, THREER = 6, FOUR = 7;
switch(temp)
{
case ONEU:
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomoneU, room);
else
pushCor(posX+1, posY, oneU, room);
}else
assignDown(room);
break;
}
case TWOV:
{
if(posX + 2 > LIMIT-1)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = false;
else
down = checkDown(posX+2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomtwoV, room);
else
pushCor(posX+1, posY, twoV, room);
break;
}else
assignDown(room);
}
break;
}
case TWOUL:
{
if(posY-1 < 0)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomtwoUL, room);
else
pushCor(posX+1, posY, twoUL, room);
}else
assignDown(room);
}
break;
}
case TWOUR:
{
if(posY+1 > LIMIT-1)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomtwoUR, room);
else
pushCor(posX+1, posY, twoUR, room);
}else
assignDown(room);
}
break;
}
case THREEU:
{
if(posY-1 < 0)
{
assignDown(room);
break;
}else if(posY+1 > LIMIT-1)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = true;
else
down = !checkDown2(posX+2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomthreeU, room);
else
pushCor(posX+1, posY, threeU, room);
}else
assignDown(room);
}
break;
}
case THREEL:
{
if(posY-1 < 0)
{
assignDown(room);
break;
}else if(posX+2 > LIMIT-1)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = false;
else
down = checkDown(posX+2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomthreeL, room);
else
pushCor(posX+1, posY, threeL, room);
}else
assignDown(room);
}
break;
}
case THREER:
{
if(posY+1 > LIMIT-1)
{
assignDown(room);
break;
}else if(posX+2 > LIMIT-1)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = false;
else
down = checkDown(posX+2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomthreeR, room);
else
pushCor(posX+1, posY, threeR, room);
}else
assignDown(room);
}
break;
}
case FOUR:
{
if(posY+1 > LIMIT-1)
{
assignDown(room);
break;
}else if(posY-1 < 0)
{
assignDown(room);
break;
}else if(posX+2 > LIMIT-1)
{
assignDown(room);
break;
}else
{
bool down, left, right;
if(posX+2 > LIMIT-1)
down = false;
else
down = checkDown(posX+2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX+1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX+1, posY+1);
if(down && left && right)
{
if(room)
pushRoom(posX+1, posY, roomfour, room);
else
pushCor(posX+1, posY, four, room);
}else
assignDown(room);
}
break;
}
}//end switch
}
void StringTestCase::testRight()
{
checkRight(Sid::String(), 0, Sid::String());
checkRight(Sid::String(), 1, Sid::String());
checkRight(Sid::String(), -1, Sid::String());
checkRight(Sid::String(4), 0, "");
checkRight(Sid::String(4), 1, "");
checkRight(Sid::String(4), -1, "");
checkRight("f", 0, "");
checkRight("f", 1, "f");
checkRight("f", -1, "f");
checkRight("f", 999, "f");
checkRight("foobajooba", 2, "ba");
checkRight("foobajooba", 7, "bajooba");
checkRight("foobajooba", -1, "foobajooba");
checkRight("foobajooba", 10, "foobajooba");
}
//return how many lifing cels are around a position in field.
int totalAround(uint8_t *field, int position){
int around = checkUpper(field, position)+checkLower(field, position)+checkLeft(field, position)+checkRight(field, position)+checkUpperLeft(field, position)+checkUpperRight(field, position)+checkLowerLeft(field, position)+checkLowerRight(field, position);
return around;
}
void Cat::autoRun(RMTiledMap* tileMap){
if(this->getRunCurrent() == 1){
if(this->checkBelow(tileMap, this->getPosition()) ||
this->checkUpward(tileMap, this->getPosition())){
int randNumber = rand() % 4;
if(!checkRight(tileMap, this->getPosition())){
randNumber = rand() % 2;
}
switch (randNumber) {
case 3:
setRunValue(1);
break;
case 2:
setRunValue(1);
break;
case 1:
if(checkUpward(tileMap, this->getPosition())){
setRunValue(4);
}
else if (checkBelow(tileMap, this->getPosition())){
setRunValue(3);
}
break;
case 0:
if(this->checkBelow(tileMap, this->getPosition())){
setRunValue(4);
}
else if (checkUpward(tileMap, this->getPosition())){
setRunValue(3);
}
break;
default:
break;
}
}
else if(!checkRight(tileMap, this->getPosition())){
setRunValue(2);
}
}
else if(this->getRunCurrent() == 2){
if(this->checkBelow(tileMap, this->getPosition()) ||
this->checkUpward(tileMap, this->getPosition())){
int randNumber = rand() % 4;
if(!checkLeft(tileMap, this->getPosition())){
randNumber = rand() % 2;
}
switch (randNumber) {
case 3:
setRunValue(2);
break;
case 2:
setRunValue(2);
break;
case 1:
if(checkUpward(tileMap, this->getPosition())){
setRunValue(4);
}
else if (checkBelow(tileMap, this->getPosition())){
setRunValue(3);
}
break;
case 0:
if(this->checkBelow(tileMap, this->getPosition())){
setRunValue(4);
}
else if (checkUpward(tileMap, this->getPosition())){
setRunValue(3);
}
break;
default:
break;
}
}
else if(!checkLeft(tileMap, this->getPosition())){
setRunValue(1);
}
}
else if(this->getRunCurrent() == 3){
if(this->checkLeft(tileMap, this->getPosition()) ||
this->checkRight(tileMap, this->getPosition())){
int randNumber = rand() % 4;
if(!checkUpward(tileMap, this->getPosition())){
randNumber = rand() % 2;
}
switch (randNumber) {
case 3:
setRunValue(3);
break;
case 2:
setRunValue(3);
break;
case 1:
if(checkRight(tileMap, this->getPosition())){
setRunValue(1);
}
else if (checkLeft(tileMap, this->getPosition())){
setRunValue(2);
}
break;
case 0:
if(this->checkLeft(tileMap, this->getPosition())){
setRunValue(2);
}
else if (checkRight(tileMap, this->getPosition())){
setRunValue(1);
}
break;
default:
break;
}
}
else if(!checkUpward(tileMap, this->getPosition())){
setRunValue(4);
}
}
else if(this->getRunCurrent() == 4){
if(this->checkLeft(tileMap, this->getPosition()) ||
this->checkRight(tileMap, this->getPosition())){
int randNumber = rand() % 4;
if(!checkBelow(tileMap, this->getPosition())){
randNumber = rand() % 2;
}
switch (randNumber) {
case 3:
setRunValue(4);
break;
case 2:
setRunValue(4);
break;
case 1:
if(checkRight(tileMap, this->getPosition())){
setRunValue(1);
}
else if (checkLeft(tileMap, this->getPosition())){
setRunValue(2);
}
break;
case 0:
if(this->checkLeft(tileMap, this->getPosition())){
setRunValue(2);
}
else if (checkRight(tileMap, this->getPosition())){
setRunValue(1);
}
break;
default:
break;
}
}
else if(!checkBelow(tileMap, this->getPosition())){
setRunValue(3);
}
}
}
void FloorGenerator::assignUp(bool room)
{
//8 different types of Corridors can be assigned
int temp = rand() % 8;
int posX = start.front().getX();
int posY = start.front().getY();
const int ONED = 0, TWOV = 1, TWODR = 2, TWODL = 3, THREED = 4, THREEL = 5, THREER = 6, FOUR = 7;
switch(temp)
{
case ONED:
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = true;
else
up = !checkUp2(posX-2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX-1, posY+1);
if(up && left && right)
{
if(room)
pushRoom(posX-1, posY, roomoneD, room);
else
pushCor(posX-1, posY, oneD, room);
}else
assignUp(room);
break;
}
case TWOV:
{
//check for available position above where this piece is placed
if(posX - 2 < 0)
{
//can't push assign a new piece
assignUp(room);
break;
}else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = false;
else
up = checkUp(posX-2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX-1, posY+1);
//check for compatibility
if(up && left && right)
{
//create a twoV corridor to push
if(room)
pushRoom(posX-1, posY, roomtwoV, room);
else
pushCor(posX-1, posY, twoV, room);
}else
assignUp(room);
}
break;
}
case TWODR:
{
//check right for availability
if((posY+1) > LIMIT-1)
{
//can't push right, assign a new piece
assignUp(room);
break;
}else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = true;
else
up = !checkUp2(posX-2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX-1, posY+1);
//check for existing areas for compatibility
if(up && left && right)
{
if(room)
pushRoom(posX-1, posY, roomtwoDR, room);
else
pushCor(posX-1, posY, twoDR, room);
}else
assignUp(room);
}
break;
}
case TWODL:
{
//Check left for availability
if((posY-1) < 0)
{
//can't assign left, assign a new piece
assignUp(room);
break;
}else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = true;
else
up = !checkUp2(posX-2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX-1, posY+1);
//check existing areas for compatibility
if(up && left && right)
{
//push twoDL corridor to the queue
if(room)
pushRoom(posX-1, posY, roomtwoDL, room);
else
pushCor(posX-1, posY, twoDL, room);
}else
assignUp(room);
}
break;
}
case THREED:
{
//check left and right for edges
if((posY - 1) < 0)
{
//can't assign left, assign a new piece
assignUp(room);
break;
}
else if(posY +1 > LIMIT)
{
//can't assign right, assign a new piece
assignUp(room);
break;
}
else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = true;
else
up = !checkUp2(posX-2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX-1, posY+1);
//check for existing areas for compatibility
if( up && left && right)
{
//push threeD corridor onto the queue
if(room)
pushRoom(posX-1, posY, roomthreeD, room);
else
pushCor(posX-1, posY, threeD, room);
}else
assignUp(room);
}
break;
}
case THREEL:
{
//check left and top
if((posY-1) < 0)
{
//can't assign left, assign a new piece
assignUp(room);
break;
}
if((posX-2) < 0)
{
assignUp(room);
break;
}
else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = false;
else
up = checkUp(posX-2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = true;
else
right = !checkRight2(posX-1, posY+1);
//check existing areas
if(up && left && right)
{
if(room)
pushRoom(posX-1, posY, roomthreeL, room);
else
pushCor(posX-1, posY, threeL, room);
break;
}else
assignUp(room);
}
break;
}
case THREER:
{
//check top and right
if((posX-2) < 0)
{
assignUp(room);
break;
}else if(posY + 1 > LIMIT-1)
{
assignUp(room);
break;
}else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = false;
else
up = checkUp(posX-2, posY);
if(posY-1 < 0)
left = true;
else
left = !checkLeft2(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX-1, posY+1);
//check top and right for compatibility
if(up && left && right)
{
//push threeR corridor onto the queue
if(room)
pushRoom(posX-1, posY, roomthreeR, room);
else
pushCor(posX-1, posY, threeR, room);
break;
}else
assignUp(room);
}
break;
}
case FOUR:
{
//check up, left and right
if(posY -1 < 0)
{
assignUp(room);
break;
}else if(posY+1 > LIMIT-1)
{
assignUp(room);
break;
}else if(posX-2 < 0)
{
assignUp(room);
break;
}else
{
//create temp variables to store checks
bool up, left, right;
//determine whether or not to check for up, left, right due to limits
if(posX-2 < 0)
up = false;
else
up = checkUp(posX-2, posY);
if(posY-1 < 0)
left = false;
else
left = checkLeft(posX-1, posY-1);
if(posY+1 > LIMIT-1)
right = false;
else
right = checkRight(posX-1, posY+1);
if(up && left && right)
{
if(room)
pushRoom(posX-1, posY, roomfour, room);
else
pushCor(posX-1, posY, four, room);
}else
assignUp(room);
}
break;
}
}//end switch
}
int checkScrollDirection(int prevX, int prevY, int x, int y)
{
int badmove = 1;
moveRight = 0, moveLeft = 0, moveDown = 0, moveUp = 0;
/* Check the 8 possible move combinations to ensure correct bounds checking
If the move is possible call the corresponding direction checks that update scrolling values
If move is not possible we return badmove and the x and y values are fixed*/
if(prevX < x && prevY < y) /* move right and down */
{
if (screenRight < MAP_WIDTH - 1 && screenBottom < MAP_HEIGHT - 1)
{
checkRight();
checkDown();
}
else
{
return badmove;
}
}
else if(prevX < x && prevY > y) /* move right and up */
{
if (screenRight < MAP_WIDTH - 1 && screenTop > 0)
{
checkRight();
checkUp();
}
else
{
return badmove;
}
}
else if(prevX > x && prevY < y) /* move left and down */
{
if(screenLeft > 0 && screenBottom < MAP_HEIGHT - 1)
{
checkLeft();
checkDown();
}
else
{
return badmove;
}
}
else if(prevX > x && prevY > y) /* move left and up */
{
if (screenTop > 0 && screenLeft > 0)
{
checkLeft();
checkUp();
}
else
{
return badmove;
}
}
else if(prevX < x) /* move right */
{
if (screenRight < MAP_WIDTH - 1)
{
checkRight();
}
else
{
return badmove;
}
}
else if(prevX > x) //moveLeft
{
if (screenLeft > 0)
{
checkLeft();
}
else
{
return badmove;
}
}
else if(prevY < y) //moveDown
{
if (screenBottom < MAP_HEIGHT - 1)
{
checkDown();
}
else
{
return badmove;
}
}
else if(prevY > y) //moveUp
{
if (screenTop > 0)
{
checkUp();
}
else
{
return badmove;
}
}
/* copy necessary map rows and/or columns to the background buffer */
if (moveLeft)
{
CopyColumnToBackground(screenLeft, nextColumn, mapTop, mapBottom, starmapscrn_Map, bg0map, MAP_COLUMNS);
}
if (moveRight)
{
CopyColumnToBackground(screenRight, nextColumn, mapTop, mapBottom, starmapscrn_Map, bg0map, MAP_COLUMNS);
}
if (moveUp)
{
CopyRowToBackground(screenTop, nextRow, mapLeft, mapRight, starmapscrn_Map, bg0map, MAP_COLUMNS);
}
if (moveDown)
{
CopyRowToBackground(screenBottom, nextRow, mapLeft, mapRight, starmapscrn_Map, bg0map, MAP_COLUMNS);
}
return 0;
}
void DeleteVM::Do()
{
String logContent;
log.write("begin DeleteVM::Do().", Log::INFO);
//参数检查
log.write("begin process parameter.", Log::INFO);
if( getPara() == false)
{
ackCode = "ACK:DELETE VM:RETN=4,DESC=parameters error";
return;
}
log.write("end process parameter.", Log::INFO);
//检测虚拟机是否存在
if( isVMExist() == false)
{
ackCode = "ACK:DELETE VM:RETN=1001,DESC=vm is not exist";
return;
}
//鉴权
if( checkRight( vmID ) == false )
{
ackCode = "ACK:DELETE VM:RETN=14,DESC=no right";
return;
}
if( isVMStarted() == true )
{
ackCode = "ACK:DELETE VM:RETN=1002,DESC=vm is running,please close it first";
return;
}
if( getNFSInfo() == false )
{
ackCode = "ACK:DELETE VM:RETN=8,DESC=system internal error";
return;
}
if( mountNFS() == 1 )
{
ackCode = "ACK:DELETE VM:RETN=8,DESC=system internal error";
return;
}
if ( deleteNATRule() == false )
{
ackCode = "ACK:DELETE VM:RETN=8,DESC=system internal error,delete nat rule failed.";
return;
}
if( delVMFile() == false )
{
ackCode = "ACK:DELETE VM:RETN=8,DESC=system internal error,delete vm files error.";
return;
}
if( applySC2FreeDisk() == false )
{
ackCode = "ACK:DELETE VM:RETN=8,DESC=system internal error,free disk space error.";
return;
}
delVMFromDB();
ackCode = "ACK:DELETE VM:RETN=0,DESC=success";
}