int main()
{
/* Initialize Building */
Building dc;
int num_zones = dc.get_num_zones();
int num_rooms = dc.get_num_rooms();
int update = 0;
printf("DEFAULT: \n Number of Zones = %d \n Number of Rooms = %d \n", num_zones, num_rooms);
printf("Do you want to change? (1-Yes, 0-No): ");
scanf_s("%d", &update);
if (update == 1) {
printf("WARNING: Number should lie between 0-255. Otherwise, Unexpected Results\n");
printf("Enter Number of Zones : ");
scanf_s("%d", &num_zones);
dc.set_num_zones(num_zones);
printf("Enter Number of Rooms : ");
scanf_s("%d", &num_rooms);
dc.set_num_rooms(num_rooms);
}
num_zones = dc.get_num_zones();
num_rooms = dc.get_num_rooms();
printf("UPDATED: \n Number of Zones = %d \n Number of Rooms = %d \n", num_zones, num_rooms);
/* Initialize Simulation Details */
int MIN2SEC = 60;
long int duration = 120000;
int time_step = 600;
printf("DEFAULT: \n Duration = %ld \n Time Step = %d \n", duration, time_step);
printf("Do you want to change? (1-Yes, 0-No): ");
scanf_s("%d", &update);
if (update == 1) {
printf("Enter Simulation Duration (in seconds) : ");
scanf_s("%ld", &duration);
printf("Enter Time Step (in seconds) : ");
scanf_s("%d", &time_step);
}
if ((time_step/MIN2SEC)/duration > 1) {
printf("ERROR: Time step can't be greater than total duration of simulation");
return 0;
}
printf("UPDATED: \n Duration = %ld \n Time Step = %d \n", duration, time_step);
int control_type = 1;
printf("DEFAULT: SPOT Always On \n");
printf("Do you want to change? (1-Yes, 0-No): ");
scanf_s("%d", &update);
if (update == 1) {
printf("Enter Control Type (1 - AlwaysOn, 2 - Reactive, 3 - MPC) : ");
scanf_s("%d", &control_type);
}
if (control_type == 1) {
printf("Updated: SPOT Always On \n");
}
else if (control_type == 1) {
printf("Updated: Reactive Control \n");
}
else {
printf("Updated: MPC Control \n");
}
dc.Simulate(duration, time_step, control_type);
printf("Simulation Complete");
system("pause");
return 0;
}
void AIObjectiveMarker::AdvanceStandard()
{
AIObjective *objective = (AIObjective *)g_app->m_location->GetBuilding( m_objectiveId );
if( objective && objective->m_active )
{
if( m_objectiveBuildingId != -1 )
{
Building *b = g_app->m_location->GetBuilding( m_objectiveBuildingId );
if( b && !b->m_destroyed )
{
if( b->m_type == Building::TypeSolarPanel &&
b->GetNumPorts() == 0 )
{
m_objectiveBuildingId = -1;
}
else
{
SetTeamId( b->m_id.GetTeamId() );
}
}
else
{
AppDebugOut("Registered Objective Building missing\n");
m_objectiveBuildingId = -1;
}
}
if( m_objectiveBuildingId == -1 )
{
if( m_scanRange == 0.0 )
{
SetTeamId(m_defaultTeam);
}
else
{
bool include[NUM_TEAMS];
memset( include, true, sizeof(bool) * NUM_TEAMS );
include[g_app->m_location->GetMonsterTeamId()] = false;
include[g_app->m_location->GetFuturewinianTeamId()] = false;
int total = g_app->m_location->m_entityGrid->GetNumNeighbours( m_pos.x, m_pos.z, m_scanRange, include );
if( total > 0 )
{
int teamCounts[NUM_TEAMS];
memset( teamCounts, 0, sizeof(int) * NUM_TEAMS );
for( int i = 0; i < NUM_TEAMS; ++i )
{
if( i == g_app->m_location->GetMonsterTeamId() ) continue;
if( i == g_app->m_location->GetFuturewinianTeamId() ) continue;
teamCounts[i] = g_app->m_location->m_entityGrid->GetNumFriends( m_pos.x, m_pos.z, m_scanRange, i );
}
int currentWinner = 0;
for( int i = 0; i < NUM_TEAMS; ++i )
{
if( teamCounts[i] > (teamCounts[currentWinner] * 4 ) &&
teamCounts[currentWinner] < 10) currentWinner = i;
}
SetTeamId( currentWinner );
}
else
{
SetTeamId(255);
}
}
}
}
int id = AI::FindNearestTarget( m_pos );
AITarget *target = (AITarget *)g_app->m_location->GetBuilding( id );
if( target )
{
for( int i = 0; i < NUM_TEAMS; ++i )
{
if( g_app->m_location->IsAttacking(i) )
{
AI *ai = AI::s_ai[i];
if( ai )
{
if( ai->m_currentObjective == m_objectiveId )
{
if( m_armourObjective == 0 )
{
if(!g_app->m_location->IsFriend(m_id.GetTeamId(), i ))
{
target->m_priority[i] = 1.0;
target->m_aiObjectiveTarget[i] = true;
}
else
{
target->m_aiObjectiveTarget[i] = false;
}
}
else
{
target->m_aiObjectiveTarget[i] = false;
}
}
else if( m_pickupAvailable )
{
target->m_priority[i] = 1.0;
target->m_aiObjectiveTarget[i] = true;
}
else
{
target->m_aiObjectiveTarget[i] = false;
}
}
}
}
}
}
TEST_F(ModelFixture, Building_SpaceAttributes)
{
Model model;
Building building = model.getUniqueModelObject<Building>();
EXPECT_EQ(0, building.floorArea());
EXPECT_FALSE(building.conditionedFloorArea());
EXPECT_EQ(0, building.lightingPower());
EXPECT_EQ(0, building.lightingPowerPerFloorArea());
EXPECT_EQ(0, building.peoplePerFloorArea());
Space space(model);
// floor
Point3dVector points;
points.push_back(Point3d(0, 10, 0));
points.push_back(Point3d(10, 10, 0));
points.push_back(Point3d(10, 0, 0));
points.push_back(Point3d(0, 0, 0));
Surface floor(points, model);
floor.setParent(space);
EXPECT_EQ("Floor", floor.surfaceType());
EXPECT_NEAR(100, space.floorArea(), 0.0001);
EXPECT_NEAR(100, building.floorArea(), 0.0001);
EXPECT_FALSE(building.conditionedFloorArea());
EXPECT_EQ(0, building.lightingPower());
EXPECT_EQ(0, building.lightingPowerPerFloorArea());
EXPECT_EQ(0, building.peoplePerFloorArea());
LightsDefinition lightsDefinition(model);
Lights light(lightsDefinition);
EXPECT_TRUE(light.setSpace(space));
EXPECT_TRUE(lightsDefinition.setLightingLevel(100));
PeopleDefinition peopleDefinition(model);
People person(peopleDefinition);
EXPECT_TRUE(person.setSpace(space));
EXPECT_TRUE(peopleDefinition.setNumberofPeople(1));
EXPECT_NEAR(100, building.floorArea(), 0.0001);
EXPECT_FALSE(building.conditionedFloorArea());
EXPECT_NEAR(100, building.lightingPower(), 0.0001);
EXPECT_NEAR(1, building.lightingPowerPerFloorArea(), 0.0001);
EXPECT_NEAR(1.0/100.0, building.peoplePerFloorArea(), 0.0001);
EXPECT_TRUE(light.setMultiplier(2));
EXPECT_TRUE(person.setMultiplier(2));
EXPECT_NEAR(100, building.floorArea(), 0.0001);
EXPECT_FALSE(building.conditionedFloorArea());
EXPECT_NEAR(200, building.lightingPower(), 0.0001);
EXPECT_NEAR(2, building.lightingPowerPerFloorArea(), 0.0001);
EXPECT_NEAR(2.0/100.0, building.peoplePerFloorArea(), 0.0001);
ThermalZone thermalZone(model);
EXPECT_TRUE(thermalZone.setMultiplier(2));
EXPECT_TRUE(space.setThermalZone(thermalZone));
EXPECT_EQ(2, space.multiplier());
EXPECT_NEAR(200, building.floorArea(), 0.0001);
EXPECT_FALSE(building.conditionedFloorArea());
EXPECT_NEAR(400, building.lightingPower(), 0.0001);
EXPECT_NEAR(2, building.lightingPowerPerFloorArea(), 0.0001);
EXPECT_NEAR(2.0/100.0, building.peoplePerFloorArea(), 0.0001);
}
void LocationEditor::AdvanceModeBuilding()
{
BuildingEditWindow *ew = (BuildingEditWindow *)EclGetWindow("editor_buildingid");
if (ew && EclMouseInWindow(ew)) return;
Camera *cam = g_app->m_camera;
// Find the ID of the building the user is clicking on
int newSelectionId = -1;
if ( g_inputManager->controlEvent( ControlTileSelect ) )
{
Vector3 rayStart, rayDir;
cam->GetClickRay( g_target->X(), g_target->Y(), &rayStart, &rayDir );
newSelectionId = DoesRayHitBuilding(rayStart, rayDir);
}
if (m_selectionId == -1)
{
// If there isn't currently any selection, then check for a new one
if (newSelectionId != -1)
{
m_selectionId = newSelectionId;
BuildingsCreateWindow *cw = (BuildingsCreateWindow*)EclGetWindow("editor_buildings");
AppDebugAssert(!ew);
AppDebugAssert(cw);
BuildingEditWindow *bew = new BuildingEditWindow("editor_buildingid");
bew->m_w = cw->m_w;
bew->m_h = 140;
bew->m_x = cw->m_x;
EclRegisterWindow(bew);
bew->m_y = cw->m_y - bew->m_h - 10;
m_waitingForRelease = true;
Location *location = g_app->m_location;
Building *building = location->GetBuilding(m_selectionId);
if( building->m_type == Building::TypeTree )
{
TreeWindow *tw = new TreeWindow( "editor_treeditor" );
tw->m_w = cw->m_w;
tw->m_h = 230;
tw->m_y = bew->m_y - tw->m_h - 10;
tw->m_x = bew->m_x;
EclRegisterWindow( tw );
}
}
}
else
{
Location *location = g_app->m_location;
Building *building = location->GetBuilding(m_selectionId);
if ( g_inputManager->controlEvent( ControlTileSelect ) ) // If left mouse is clicked then consider creating a new link
{
if (newSelectionId == -1)
{
EclRemoveWindow("editor_buildingid");
m_selectionId = -1;
}
else if (m_tool == ToolLink)
{
building->SetBuildingLink(newSelectionId);
m_tool = ToolNone;
}
}
else if ( g_inputManager->controlEvent( ControlTileDrag ) && newSelectionId == -1 ) // Otherwise consider rotation and movement
{
switch (m_tool)
{
case ToolMove:
{
Vector3 mousePos = g_app->m_userInput->GetMousePos3d();
building->m_pos = mousePos;
break;
}
case ToolRotate:
{
Vector3 front = building->m_front;
front.RotateAroundY((float)g_target->dX() * 0.01);
building->m_front = front;
break;
}
}
}
}
}
/*
* handleClickInput - if shift is held, then user is wanting to select units,
* and no spell will cast. Otherwise the selected spell, if a single-click
* type spell, will cast.
*/
void InGameState::handleClickInput(int x, int y,int screenX,int screenY){
if(!game->getGSM()->isGameInProgress()){
int overlayState= game->getGSM()->getOverlayGameState();
map<int,GUIScreenOverlay*>::iterator find=overlayWorkers.find(overlayState);
if(find!=overlayWorkers.end())(*find).second->handleClick(screenX,screenY);
return;
}
Viewport *vp = game->getGUI()->getViewport();
Cursor *c = game->getGUI()->getCursor(GS_GAME_IN_PROGRESS);
toolbar.handleClick(game,screenX,screenY);
displayUnits.handleClick(this,game,x,y);
//spDBToolbar.handleClick(this, game, screenX, screenY);
if(!isCursorBusy()){
vector<Tower*>::iterator beginTower=towers.begin(), endTower=towers.end();
b2Vec2 scaleMouse(x,y);
scaleMouse*=BOX2D_Scale_Factor;
for(;beginTower!=endTower;)
{
Tower* t = *beginTower;
if(!t->isDead()){
if(t->p==mainPlayer){
b2AABB rct=t->getAABB();
if(rct.lowerBound.x<scaleMouse.x && rct.lowerBound.y<scaleMouse.y &&
rct.upperBound.x>scaleMouse.x && rct.upperBound.y>scaleMouse.y){
t->mouseClick(game,screenX,screenY);
}
}
beginTower++;
}else{
beginTower=towers.erase(beginTower);
endTower=towers.end();
}
}
vector<Building*>::iterator beginOther=buildings.begin(), endOther=buildings.end();
for(;beginOther!=endOther;)
{
Building* t = *beginOther;
if(!t->isDead()){
if(t->p==mainPlayer){
b2AABB rct=t->getAABB();
if(rct.lowerBound.x<scaleMouse.x && rct.lowerBound.y<scaleMouse.y &&
rct.upperBound.x>scaleMouse.x && rct.upperBound.y>scaleMouse.y){
t->mouseClick(game,screenX,screenY);
}
}
beginOther++;
}
else{
beginOther=buildings.erase(beginOther);
endOther=buildings.end();
}
}
}
if( screenY < vp->getViewportHeight()+vp->getViewportOffsetY() ){
if (canCastSpell() && !isCursorBusy()){
Spell* p = toolbar.getCurrentSpell();
if(p!=NULL && p->getType()==click){
//x+=vp->getViewportX()-vp->getViewportOffsetX();
//y+=vp->getViewportY()-vp->getViewportOffsetY();
if(p->getManaCost(game,x,y,0,0)<=this->mainPlayer->mana){
mainPlayer->mana-=p->getManaCost(game,x,y,0,0);
p=p->clone();
p->start(game,x,y);
p->owner=mainPlayer;
spells.push_back(p);
}
}
//c->setActiveCursorID(2);
}
else{
if(currentBuilding!=NULL&& mappable){
if(!mainPlayer->getWizard()->buildingsTutorials){
tutSys->currentTutorial="BuildBarracks";
game->getGSM()->setOverlayGameState(TUTSYSSCREENOVERLAYNUM);
mainPlayer->getWizard()->buildingsTutorials=true;
}
this->addBuilding(currentBuilding,bx,by,this->players[0]);
currentBuilding=NULL;
}
}
}
}
void Handler::spawnObject(int objectID, ofVec2f inPos) {
if (objectID >= 0 && objectID <= 6) {
for (auto &obj : *gameObjects) {
Building* building = dynamic_cast<Building*>(obj);
if (building) {
if (building->getPos().x == inPos.x&&building->getPos().y == inPos.y) {
if (objectID == 0) {
building->setHealth(0);
}
return;
}
}
}
}
switch (objectID) {
case(objectSheet::warehouse) : {
gameObjects->push_back(new Warehouse(map));
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::forest) : {
gameObjects->push_back(new Forest(map));
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::mine) : {
gameObjects->push_back(new Mine(map));
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::farm) : {
gameObjects->push_back(new Farm(map));
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::house) : {
gameObjects->push_back(new House(map));
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::stockPile) : {
gameObjects->push_back(new Stockpile(map));
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::person) : {
gameObjects->push_back(new Person(gameObjects));
int random = rand();
random = random % 4;
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID+random]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::cow) : {
gameObjects->push_back(new Cow());
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
case(objectSheet::onyxHorse) : {
gameObjects->push_back(new OnyxHorse());
(*gameObjects)[gameObjects->size() - 1]->setMyImage(images[objectID]);
(*gameObjects)[gameObjects->size() - 1]->setPos(inPos);
break;
}
}
}
void BuildingConstructor::construct() {
GLdouble currentMaxH = maxH;
GLdouble currentMinH = minH;
GLdouble xTranslation = ((double) rand() * 0.5) / (double) RAND_MAX;
GLdouble zTranslation = ((double) rand() * 0.5) / (double) RAND_MAX;
GLdouble xScaling = 2.0;
GLdouble zScaling = 2.0;
GLdouble rotationAngle = 90.0;
GLdouble lotBias = 0.02;
Matrix4d translation;
Matrix4d scaling;
Matrix4d rotation;
Matrix4d rotation90;
Building* building = NULL;
GLdouble scaleMax = 0.90;
GLdouble scaleMin = 0.5;
double colorH = 1.0;
double colorL = 0.90;
double r = (double) rand() * (colorH + 1.0 - colorL) / (double) RAND_MAX + colorL;
double g = (double) rand() * (colorH + 1.0 - colorL) / (double) RAND_MAX + colorL;
double b = (double) rand() * (colorH + 1.0 - colorL) / (double) RAND_MAX + colorL;
GLuint buildingChoice = rand() * (3 + 1) / RAND_MAX;
GLuint roofChoice = rand() * (5 - 4 + 1) / RAND_MAX + 4;
std::cerr << "buildingChoice: " << buildingChoice << " roofChoice: " << roofChoice << std::endl;
rotation.identity();
rotation90.makeRotateY(rotationAngle);
switch (choice) {
// medium buildings
case 0:
while (buildingChoice == 1) {
buildingChoice = rand() * (3 + 1) / RAND_MAX;
}
std::cerr << "hhhh" << std::endl;
xScaling = (double) rand() * (3.0 + 1.0 - 2.0) / (double) RAND_MAX + 2.0;
zScaling = (double) rand() * (3.0 + 1.0 - 2.0) / (double) RAND_MAX + 2.0;
translation.makeTranslate(xTranslation, 0.0, zTranslation);
scaling.makeScale(xScaling, currentMaxH, zScaling);
building = new Building(buildingChoice, roofChoice, r, g, b, texture, xScaling, currentMaxH, zScaling, translation * scaling);
root->addChild(building->getRoot());
break;
// mid towards out buildings
case 1:
buildingChoice = rand() * (3 + 1 - 1) / RAND_MAX + 1;
xScaling = zScaling = (double) rand() * (1.0 + 1.0 - 0.5) / (double) RAND_MAX + 0.5;
for (int count = 0; count < layerCount - 1; ++count) {
currentMaxH -= ((double) rand() * (scaleMax - scaleMin)) / (double) RAND_MAX + scaleMin;;
xScaling += 0.3;
zScaling += 0.3;
if (xScaling > 3.0 || zScaling > 3.0) {
break;
}
// std::cerr << "zScaling: " << zScaling << std::endl;
scaling.makeScale(xScaling, currentMaxH, zScaling);
building = new Building(buildingChoice, roofChoice, r, g, b, texture, xScaling, currentMaxH, zScaling, scaling);
root->addChild(building->getRoot());
}
break;
// tall buildings with rotation
case 2:
scaling.makeScale(3.0, 1.0, 3.0);
buildingChoice = rand() * (3 + 1 - 1) / RAND_MAX + 1;
building = new Building(buildingChoice, roofChoice, r, g, b, texture, 3.0, 1.0, 3.0, scaling);
root->addChild(building->getRoot());
translation.makeTranslate(xTranslation, 0.0, zTranslation);
scaling.makeScale(xScaling, currentMaxH, zScaling);
building = new Building(buildingChoice, roofChoice, r, g, b, texture, xScaling, currentMaxH, zScaling, translation * scaling);
root->addChild(building->getRoot());
//t s m
xTranslation = 0.5 - lotBias;
zTranslation = 0.0;
zScaling = ((double) rand() * (currentMaxH - currentMinH)) / (double) RAND_MAX + currentMinH;
for (int count = 0; count < layerCount - 1; ++count) {
currentMaxH -= ((double) rand() * (scaleMax - scaleMin)) / (double) RAND_MAX + scaleMin;;
rotation = rotation90 * rotation;
zScaling = ((double) rand() * (scaleMax - scaleMin)) / (double) RAND_MAX + scaleMin;
// std::cerr << "zScaling: " << zScaling << std::endl;
scaling.makeScale(xScaling, currentMaxH, zScaling);
translation.makeTranslate(xTranslation, 0.0, 0.0);
building = new Building(buildingChoice, roofChoice, r, g, b, texture, xScaling, currentMaxH, zScaling, rotation * translation * scaling);
root->addChild(building->getRoot());
}
break;
default:
break;
}
}
int OpeningPredictor::instantiate_and_compile(int time,
const Building& building, const string& tmpOpening)
{
#ifdef BENCH
clock_t start = clock();
#endif
evidence[observed[building.getEnumValue()]] = 1;
evidence[Time] = time;
#if DEBUG_OUTPUT > 1
cout << "====== evidence ======" << endl;
cout << evidence << endl;
#endif
plDistribution PP_X;
Cnd_P_X_knowing_obs.instantiate(PP_X, evidence);
#if DEBUG_OUTPUT > 1
cout << "====== P(Opening | rest).instantiate ======" << endl;
cout << Cnd_P_Opening_knowing_rest << endl;
cout << PP_Opening.get_left_variables() << endl;
cout << PP_Opening.get_right_variables() << endl;
#endif
PP_X.compile(T_P_X);
#if DEBUG_OUTPUT >= 1
cout << "====== P(Opening | evidence), building: "
<< building << " ======" << endl;
cout << T_P_Opening << endl;
#endif
#ifdef BENCH
vector<pair<plValues, plProbValue> > outvals;
if (T_P_X.is_null())
return -1;
T_P_X.sorted_tabulate(outvals);
#if PLOT > 0
vector<plValues> dummy;
tmpProbV.clear();
T_P_Opening.tabulate(dummy, tmpProbV);
T_P_Opening_v.push_back(tmpProbV);
#endif
for (vector<pair<plValues, plProbValue> >::const_iterator
jt = outvals.begin(); jt != outvals.end(); ++jt)
{
cumulative_prob[jt->first] += jt->second;
}
#endif
#ifdef DIRAC_ON_LAST_OPENING
P_LastOpening.mutate(static_cast<plDistribution>(
PP_Opening.compile().rename(LastOpening)));
#endif
#ifdef BENCH
plValues toTest(Opening);
toTest[Opening] = tmpOpening;
if (T_P_Opening.best()[Opening] == toTest[Opening])
//&& T_P_Opening[toTest[Opening]] > 0.5)
++times_label_predicted ;
if (time > 180 && T_P_Opening.best()[Opening] == toTest[Opening])
++times_label_predicted_after;
#endif
#ifdef BENCH
clock_t end = clock();
double duration = (double)(end - start) / CLOCKS_PER_SEC;
time_taken_prediction.push_back(duration);
#if DEBUG_OUTPUT > 2
cout << "TIME: instantiate+compile took: "
<< duration << " sec" << endl;
#endif
#endif
return 0;
}
void Unit::attackBuilding(Building &building)
{
building.takeDamage(attackDamage_);
}
int main()
{
std::list<Passenger> passengers;
Building* building = Building::getInstance();
// Open the file
std::ifstream myfile("HW6-Elevators.csv");
std::string line;
if(myfile.is_open())
{
while(!myfile.eof())
{
std::getline(myfile, line);
// Simple validation
// Line must have characters
// and first ones need to be numbers
// Short-circuits to avoid dereferencing line[0] when invalid
if(line.length() <= 1 ||
!std::isdigit(line[0])
)
{
continue;
}
// Trim the line
boost::trim(line);
// Use Boost.Tokenizer to parse the line
boost::tokenizer< boost::escaped_list_separator< char > > tok(line);
boost::tokenizer< boost::escaped_list_separator< char > >::iterator
iter = tok.begin();
// Set the start time
uint16_t time = boost::lexical_cast<uint16_t>(*iter++);
// Next is the starting floor
uint16_t start_floor = boost::lexical_cast<uint16_t>(*iter++);
// Finally, set the ending floor
uint16_t end_floor = boost::lexical_cast<uint16_t>(*iter++);
// Add it to the list
Passenger p(time, start_floor, end_floor);
cout << p << endl;
passengers.push_back(p);
}
}
// If every elevator is idle, and passengers is empty, we're done
while(1) // Run forever until internal break triggers
{
if(!passengers.empty() && passengers.front().getTime() == building->getTicker())
{
// Process until all passengers for this timestamp are through
while(passengers.front().getTime() == building->getTicker())
{
Floor& floor = building->getFloor(passengers.front().getStartFloor());
floor.addPassenger(passengers.front());
building->incrementPassengerNumber();
// When we add a passenger, trigger an alert to the elevators
building->alertElevators(floor.getNumber());
passengers.pop_front();
}
}
// Step the elevators
building->stepElevators();
if(passengers.empty() && building->elevatorsIdle())
{
break;
}
++building->getTicker();
}
// Show the average wait time
cout << "The average wait time was: " << building->averageWaitTime() << endl;
// Show the average travel time
cout << "The average travel time was: " << building->averageTravelTime() << endl;
}
bool sortByEmpl(Building i, Building j) { return j.employees() > i.employees(); }
void User_Interface::run()
{
switch (this->status){
case OUTPUT_DATA:
{
int max = this->calcMtrl->size();
for (unsigned int i = 0; i < max; i++)
{
this->calcMtrl->pop_back();
}
this->redraw_window();
this->type_build_box->set_top_index(0);
this->num_floors_edit->set_text("");
this->length_edit->set_text("");
this->width_edit->set_text("");
this->mat_fund_box->set_top_index(0);
this->mat_wall_box->set_top_index(0);
this->mat_roof_box->set_top_index(0);
//this->mat_panel_box->set_top_index(0);
this->enable_all(true);
this->OK_button->set_text("Расчет");
this->OK_button->show(SW_SHOW);
this->show(SW_SHOW);
this->status = INPUT_DATA;
break;
}
case INPUT_DATA:
{
if (!this->materials->empty()){
int type_build = this->type_build_box->get_top_index();
int num_floors = _ttoi(this->num_floors_edit->get_text());
double length = _ttof(this->length_edit->get_text());
double width = _ttof(this->width_edit->get_text());
int mat_fund = this->mat_fund_box->get_id_top_material();
int mat_wall = this->mat_wall_box->get_id_top_material();
int mat_roof = this->mat_roof_box->get_id_top_material();
//int mat_panel = this->mat_panel_box->get_id_top_material();
bool podval = this->checkbox->isChecked();
Building* building = nullptr;
switch (type_build)
{
case 0:
building = new Home((double)width, (double)length, num_floors);
break;
case 1:
building = new Office((double)width, (double)length, num_floors);
break;
case 2:
building = new Storage((double)width, (double)length, num_floors);
break;
case 3:
building = new Garage((double)width, (double)length, num_floors);
break;
default:
break;
}
if (building){
building->createFoundation(mat_fund, podval);
building->createWall(type_build, mat_wall);
building->createRoof(mat_roof, type_build);
building->calculate();
building->addMaterials(this->materials, this->calcMtrl);
this->enable_all(false);
this->OK_button->set_text("Новый");
this->OK_button->show(SW_SHOW);
this->status = OUTPUT_DATA;
int X = 10, Y = 320;
this->textout("Материал", 10, Y);
this->textout("Количество", 230, Y);
this->textout("Цена/шт", 330, Y);
this->textout("Сумма грн", 400, Y);
this->line(5,Y-5, 475, Y-5);
this->line(5, Y + 20, 475, Y + 20);
this->line(5, Y - 5, 5, Y + 20);
this->line(225, Y - 5, 225, Y + 20);
this->line(325, Y - 5, 325, Y + 20);
this->line(395, Y - 5, 395, Y + 20);
this->line(475, Y - 5, 475, Y + 20);
Y += 25;
double itogo = 0;
char * buf = 0;
int decimal;
int sign;
int err;
if (!this->calcMtrl->empty()){
for (unsigned int i = 0; i < this->calcMtrl->size(); i++)
{
if (this->calcMtrl->at(i)->count != 0)
{
char name[25];
strncpy_s(name,25, this->calcMtrl->at(i)->type.c_str(), 24);
this->textout((TCHAR*)name, 10, Y);
buf = (char*)malloc(_CVTBUFSIZE);
err = _fcvt_s(buf, _CVTBUFSIZE, this->calcMtrl->at(i)->count, 0, &decimal, &sign);
this->textout((TCHAR*)buf, 230, Y);
_itoa_s(this->calcMtrl->at(i)->price, buf, _CVTBUFSIZE, 10);
this->textout((TCHAR*)buf, 330, Y);
double summa = this->calcMtrl->at(i)->count * this->calcMtrl->at(i)->price;
err = _fcvt_s(buf, _CVTBUFSIZE, summa, 0, &decimal, &sign);
this->textout((TCHAR*)buf, 400, Y);
itogo += summa;
this->line(5, Y + 20, 475, Y + 20);
this->line(5, Y - 5, 5, Y + 20);
this->line(225, Y - 5, 225, Y + 20);
this->line(325, Y - 5, 325, Y + 20);
this->line(395, Y - 5, 395, Y + 20);
this->line(475, Y - 5, 475, Y + 20);
Y += 25;
}
}
this->textout("Итого:", 350, Y);
err = _fcvt_s(buf, _CVTBUFSIZE, itogo, 0, &decimal, &sign);
this->textout((TCHAR*)buf, 400, Y);
this->line(345, Y + 20, 475, Y + 20);
this->line(345, Y - 5, 345, Y + 20);
this->line(395, Y - 5, 395, Y + 20);
this->line(475, Y - 5, 475, Y + 20);
}
}
}
else{
this->textout("Нет данных о строительных материалах", 10, 320);
this->status = OUTPUT_DATA;
}
break;
}
}
}
Vector3 Entity::PushFromObstructions( Vector3 const &pos, bool killem )
{
Vector3 result = pos;
if( m_onGround )
{
result.y = g_app->m_location->m_landscape.m_heightMap->GetValue( result.x, result.z );
}
Matrix34 transform( m_front, g_upVector, result );
//
// Push from Water
if( result.y <= 1.0 )
{
double pushAngle = syncsfrand(1.0);
double distance = 0.0;
while( distance < 50.0 )
{
double angle = distance * pushAngle * M_PI;
Vector3 offset( iv_cos(angle) * distance, 0.0, iv_sin(angle) * distance );
Vector3 newPos = result + offset;
double height = g_app->m_location->m_landscape.m_heightMap->GetValue( newPos.x, newPos.z );
if( height > 1.0 )
{
result = newPos;
result.y = height;
break;
}
distance += 1.0;
}
}
//
// Push from buildings
LList<int> *buildings = g_app->m_location->m_obstructionGrid->GetBuildings( result.x, result.z );
for( int b = 0; b < buildings->Size(); ++b )
{
int buildingId = buildings->GetData(b);
Building *building = g_app->m_location->GetBuilding( buildingId );
if( building )
{
bool hit = false;
if( m_shape && building->DoesShapeHit( m_shape, transform ) ) hit = true;
if( (!m_shape || m_type == TypeOfficer ) && building->DoesSphereHit( result, 1.0 ) ) hit = true;
// cheap hack, but no point overriding the entire function for this one line
if( !hit )
{
Vector3 oldPos = m_pos - m_vel * SERVER_ADVANCE_PERIOD;
if( building->DoesRayHit( oldPos, m_front, (m_pos - oldPos).Mag() ) ) hit = true;
}
if( hit )
{
if( building->m_type == Building::TypeLaserFence && killem &&
((LaserFence *) building)->IsEnabled())
{
if( !g_app->m_location->IsFriend(building->m_id.GetTeamId(), m_id.GetTeamId() ) )
{
ChangeHealth( -9999 );
((LaserFence *) building)->Electrocute( m_pos );
}
}
else
{
Vector3 pushForce = (building->m_pos - result);
pushForce.y = 0.0f;
pushForce.SetLength(4.0f);
while( building->DoesSphereHit( result, 2.0f ) )
{
result -= pushForce;
//result.y = g_app->m_location->m_landscape.m_heightMap->GetValue( result.x, result.z );
}
}
}
}
}
return result;
}
void AIObjectiveMarker::AdvanceDefensive()
{
AIObjective *objective = (AIObjective *)g_app->m_location->GetBuilding( m_objectiveId );
if( objective && objective->m_active )
{
Building *b = g_app->m_location->GetBuilding( m_objectiveBuildingId );
if( b )
{
if( b->m_type == Building::TypeSolarPanel &&
b->GetNumPorts() == 0 )
{
m_objectiveBuildingId = -1;
}
}
else
{
m_objectiveBuildingId = -1;
}
int teamCounts[NUM_TEAMS];
memset( teamCounts, 0, sizeof(int) * NUM_TEAMS );
for( int i = 0; i < NUM_TEAMS; ++i )
{
if( i == g_app->m_location->GetMonsterTeamId() ) continue;
if( i == g_app->m_location->GetFuturewinianTeamId() ) continue;
teamCounts[i] = g_app->m_location->m_entityGrid->GetNumFriends( m_pos.x, m_pos.z, m_scanRange, i );
}
int currentWinner = 0;
int totalDefenders = 0;
for( int i = 0; i < NUM_TEAMS; ++i )
{
if( g_app->m_location->IsDefending(i) )
{
totalDefenders += teamCounts[i];
if( totalDefenders >= 15 ||
(b && g_app->m_location->IsDefending( b->m_id.GetTeamId() ) ) )
{
currentWinner = i;
break;
}
}
if( teamCounts[i] > (teamCounts[currentWinner] * 2 ) )
currentWinner = i;
}
SetTeamId( currentWinner );
}
int id = AI::FindNearestTarget( m_pos );
AITarget *target = (AITarget *)g_app->m_location->GetBuilding( id );
if( target )
{
for( int i = 0; i < NUM_TEAMS; ++i )
{
if( g_app->m_location->IsDefending(i) )
{
AI *ai = AI::s_ai[i];
if( ai )
{
if( ai->m_currentObjective == m_objectiveId )
{
if(g_app->m_location->IsFriend(m_id.GetTeamId(), i ))
{
target->m_priority[i] = 1.0;
target->m_aiObjectiveTarget[i] = true;
}
else
{
target->m_aiObjectiveTarget[i] = false;
}
}
else
{
target->m_aiObjectiveTarget[i] = false;
}
}
}
}
}
}
void WorldModel::setBuildingsInSightPoints()
{
int extendedSightRange = maxSightRange * 2;
LOG(Main, 2) << "num of roads: " << world->roads.size() << endl;
for (int i = 0; i < (int) world->roads.size(); i++)
{
for (int j = 0; j < (int) world->roads[i]->getInnerPoints().size(); j++)
{
Point p = world->roads[i]->getInnerPoints()[j];
vector<Building*> nearBuildings;
// vector<Point> nearPoints;
// vector<Point> upNearPoints;
// vector<Point> downNearPoints;
LOG(Main, 2) << "road: " << i << " with id " << world->roads[i]->getId() << endl;
for (int k = 0; k < (int) world->buildings.size(); k++)
{
if (distanceBetweenPoints(p, world->buildings[k]->getPos()) < extendedSightRange)
{
nearBuildings.push_back(world->buildings[k]);
// LOG(Main, 1) << "circle" << world->buildings[k]->getPos() << " 2000; ";
}
}
//algorithm for sort near points
// for(int k = 0; k < (int)nearBuildings.size(); k++)
// {
// for(int l = 0; l < nearBuildings[k]->getShape().size(); l++)
// {
// Point tmp = nearBuildings[k]->getShape().getVertex(l);
// if(isLessEqual(p.getY(), tmp.getY()))
// {
// upNearPoints.push_back(tmp);
// }
// else
// {
// downNearPoints.push_back(tmp);
// }
// }
// }
// setComparePoint(p);
// sort(upNearPoints.begin(), upNearPoints.end(), Geometry::angleCompare);
// sort(downNearPoints.begin(), downNearPoints.end(), Geometry::angleCompare);
// for(int k = 0; k < (int)upNearPoints.size(); k++)
// {
// nearPoints.push_back(upNearPoints[k]);
// }
// for(int k = 0; k < (int)downNearPoints.size(); k++)
// {
// nearPoints.push_back(downNearPoints[k]);
// }
// LOG(Main, 2) << "after sort" << endl;
// if(nearPoints.size() == 0)
// {
// continue;
// }
set<Building*> inSightBuildings;
setColor(4);
LOG(Main, 2) << Circle(p, maxSightRange) << ' ';
LOG(Main, 2) << Circle(p, 500) << ' ';
setColor(1);
// LOG(Main, 1) << "circle" << p << " " << extendedSightRange << "; ";
// for(int k = 1; k < (int)nearPoints.size(); k++)
// {
// LOG(Main, 1) << "line" << nearPoints[k - 1] << nearPoints[k] << "; ";
// }
// LOG(Main, 1) << "line" << nearPoints[0] << nearPoints.back() << "; ";
// for(int k = 0; k < (int)nearPoints.size(); k++)
double dAngle = M_PI * 2 / rayCount;
for (int k = 0; k < rayCount; k++)
{
// int next = (k + 1) % nearPoints.size();
// Point mid = Segment(nearPoints[k], nearPoints[next]).getMiddlePoint();
// Segment s(p, mid);
// Vector ext = p.asVector() + s.asVector() * (extendedSightRange / s.getLength());
// s = Segment(p, ext.asPoint());
double angle = k * dAngle;
Segment s(p, (p.asVector() + Vector(sin(angle) * maxSightRange, cos(angle) * maxSightRange)).asPoint());
LOG(Main, 2) << s << ' ';
// LOG(Main, 1) << "circle" << nearPoints[k] << " 200; ";
double minDist = 1e10;
Building* inSightBuilding = NULL;
Segment minLine;
for (int l = 0; l < (int) nearBuildings.size(); l++)
{
for (int m = 0; m < nearBuildings[l]->getIDs().size(); m++)
{
if (nearBuildings[l]->getIDs()[m] == -1)
{
Segment edge = nearBuildings[l]->getShape().getSegment(m);
// LOG(Main, 1) << "line" << edge.getFirstPoint() << edge.getSecondPoint() << "; ";
if (isIntersect(s, edge))
{
// LOG(Main, 1) << "circle" << p << " " << maxSightRange << "; ";
// LOG(Main, 1) << "circle" << p << " " << extendedSightRange << "; ";
// LOG(Main, 1) << "line" << s.getFirstPoint() << s.getSecondPoint() << "; ";
// LOG(Main, 1) << "line" << edge.getFirstPoint() << edge.getSecondPoint() << "; ";
Point intersect = getIntersectPoint(s.asLine(), edge.asLine());
// LOG(Main, 1) << "circle" << intersect << " 200;" << endl;
if (isLess(distanceBetweenPoints(p, intersect), minDist))
{
minDist = distanceBetweenPoints(p, intersect);
inSightBuilding = nearBuildings[l];
minLine = edge;
}
}
}
}
}
if (inSightBuilding != NULL && isLess(minDist, (double) maxSightRange))
{
inSightBuildings.insert(inSightBuilding);
LOG(Main, 2) << Circle(inSightBuilding->getPos(), 1000) << ' ';
LOG(Main, 2) << minLine << ' ';
// LOG(Main, 1) << "line" << s.getFirstPoint() << s.getSecondPoint() << "; ";
}
}
// LOG(Main, 2) << endl << endl;
for (set<Building*>::iterator k = inSightBuildings.begin(); k != inSightBuildings.end(); k++)
{
(*k)->addInSightPoint(i, j);
}
}
LOG(Main, 2) << endl;
}
// Reverse Log (buildings)
// for(int i = 0; i < (int)world->buildings.size(); i++)
// {
// LOG(Main, 2) << "building " << i << " with id " << world->buildings[i]->getId() << endl;
// setColor(0);
// LOG(Main, 2) << Circle(world->buildings[i]->getPos(), 1000) << ' ';
// setColor(2);
// for(int j = 0; j < (int)world->buildings[i]->getInSightPoints().size(); j++)
// {
// LOG(Main, 2) << Circle(world->roads[world->buildings[i]->getInSightPoints()[j].roadIndex]->getInnerPoints()[world->buildings[i]->getInSightPoints()[j].index], 500) << ' ';
// }
// LOG(Main, 2) << endl << endl;
// }
}
TEST_F(ModelFixture, Construction_NetArea_InteriorWall) {
Model model;
Construction construction1(model);
Construction construction2(model);
EXPECT_DOUBLE_EQ(0.0, construction1.getNetArea());
EXPECT_DOUBLE_EQ(0.0, construction2.getNetArea());
// add costs
boost::optional<LifeCycleCost> cost1 = LifeCycleCost::createLifeCycleCost("Brick", construction1, 3.0, "CostPerArea", "Construction");
ASSERT_TRUE(cost1);
boost::optional<LifeCycleCost> cost2 = LifeCycleCost::createLifeCycleCost("Glass", construction2, 5.0, "CostPerArea", "Construction");
ASSERT_TRUE(cost2);
EXPECT_DOUBLE_EQ(0, cost1->totalCost());
EXPECT_DOUBLE_EQ(0, cost2->totalCost());
Building building = model.getUniqueModelObject<Building>();
DefaultSurfaceConstructions defaultExteriorSurfaceConstructions(model);
DefaultSurfaceConstructions defaultInteriorSurfaceConstructions(model);
DefaultSubSurfaceConstructions defaultExteriorSubSurfaceConstructions(model);
DefaultSubSurfaceConstructions defaultInteriorSubSurfaceConstructions(model);
DefaultConstructionSet defaultConstructionSet(model);
defaultConstructionSet.setDefaultExteriorSurfaceConstructions(defaultExteriorSurfaceConstructions);
defaultConstructionSet.setDefaultInteriorSurfaceConstructions(defaultInteriorSurfaceConstructions);
defaultConstructionSet.setDefaultExteriorSubSurfaceConstructions(defaultExteriorSubSurfaceConstructions);
defaultConstructionSet.setDefaultInteriorSubSurfaceConstructions(defaultInteriorSubSurfaceConstructions);
building.setDefaultConstructionSet(defaultConstructionSet);
Space space(model);
Point3dVector points;
points.push_back(Point3d(0, 0, 1));
points.push_back(Point3d(0, 0, 0));
points.push_back(Point3d(0, 1, 0));
points.push_back(Point3d(0, 1, 1));
Surface surface1(points, model);
surface1.setSpace(space);
EXPECT_EQ("Wall", surface1.surfaceType());
EXPECT_EQ("Outdoors", surface1.outsideBoundaryCondition());
EXPECT_DOUBLE_EQ(1.0, surface1.netArea());
points.clear();
points.push_back(Point3d(0, 1, 1));
points.push_back(Point3d(0, 1, 0));
points.push_back(Point3d(0, 0, 0));
points.push_back(Point3d(0, 0, 1));
Surface surface2(points, model);
surface2.setSpace(space);
EXPECT_EQ("Wall", surface2.surfaceType());
EXPECT_EQ("Outdoors", surface2.outsideBoundaryCondition());
EXPECT_DOUBLE_EQ(1.0, surface2.netArea());
EXPECT_DOUBLE_EQ(0.0, construction1.getNetArea());
EXPECT_DOUBLE_EQ(0.0, construction2.getNetArea());
EXPECT_DOUBLE_EQ(0, cost1->totalCost());
EXPECT_DOUBLE_EQ(0, cost2->totalCost());
defaultExteriorSurfaceConstructions.setWallConstruction(construction1);
ASSERT_TRUE(surface1.construction());
ASSERT_TRUE(surface2.construction());
EXPECT_EQ(surface1.construction()->handle(), construction1.handle());
EXPECT_EQ(surface2.construction()->handle(), construction1.handle());
EXPECT_DOUBLE_EQ(2.0, construction1.getNetArea());
EXPECT_DOUBLE_EQ(0.0, construction2.getNetArea());
EXPECT_DOUBLE_EQ(6.0, cost1->totalCost());
EXPECT_DOUBLE_EQ(0, cost2->totalCost());
surface1.setConstruction(construction1);
surface2.setConstruction(construction2);
ASSERT_TRUE(surface1.construction());
ASSERT_TRUE(surface2.construction());
EXPECT_EQ(surface1.construction()->handle(), construction1.handle());
EXPECT_EQ(surface2.construction()->handle(), construction2.handle());
EXPECT_DOUBLE_EQ(1.0, construction1.getNetArea());
EXPECT_DOUBLE_EQ(1.0, construction2.getNetArea());
EXPECT_DOUBLE_EQ(3.0, cost1->totalCost());
EXPECT_DOUBLE_EQ(5.0, cost2->totalCost());
surface1.setAdjacentSurface(surface2);
ASSERT_TRUE(surface1.construction());
ASSERT_TRUE(surface2.construction());
EXPECT_EQ(surface1.construction()->handle(), construction1.handle());
EXPECT_EQ(surface2.construction()->handle(), construction2.handle());
EXPECT_DOUBLE_EQ(1.0, construction1.getNetArea());
EXPECT_DOUBLE_EQ(1.0, construction2.getNetArea());
EXPECT_DOUBLE_EQ(3.0, cost1->totalCost());
EXPECT_DOUBLE_EQ(5.0, cost2->totalCost());
surface2.setConstruction(construction1);
ASSERT_TRUE(surface1.construction());
ASSERT_TRUE(surface2.construction());
EXPECT_EQ(surface1.construction()->handle(), construction1.handle());
EXPECT_EQ(surface2.construction()->handle(), construction1.handle());
EXPECT_DOUBLE_EQ(1.0, construction1.getNetArea());
EXPECT_DOUBLE_EQ(0.0, construction2.getNetArea());
EXPECT_DOUBLE_EQ(3.0, cost1->totalCost());
EXPECT_DOUBLE_EQ(0.0, cost2->totalCost());
}
// -----------------------------------------------------------------
// Name : deserialize
// -----------------------------------------------------------------
bool LuaContext::deserialize(NetworkData * pData, PlayerManagerAbstract * pMngr, Map * pMap)
{
pLua = NULL;
pPlayer = NULL;
pUnit = NULL;
pTown = NULL;
u32 uType = (u32) pData->readLong();
switch (uType)
{
case LUAOBJECT_SPELL:
{
// Find player
u8 uPlayerId = (u8) pData->readLong();
pPlayer = pMngr->findPlayer(uPlayerId);
assert(pPlayer != NULL);
// Find spell
u32 uLuaId = (u32) pData->readLong();
pLua = pPlayer->findSpell(0, uLuaId, pPlayer->m_pActiveSpells);
assert(pLua != NULL);
((Spell*)pLua)->setCaster(pPlayer);
break;
}
case LUAOBJECT_SKILL:
{
// Find player
u8 uPlayerId = (u8) pData->readLong();
pPlayer = pMngr->findPlayer(uPlayerId);
assert(pPlayer != NULL);
// Find unit
u32 uUnitId = (u32) pData->readLong();
pUnit = pPlayer->findUnit(uUnitId);
assert(pUnit != NULL);
// Find skill
u32 uLuaId = (u32) pData->readLong();
pLua = pUnit->findSkill(uLuaId);
assert(pLua != NULL);
((Skill*)pLua)->setCaster(pUnit);
break;
}
case LUAOBJECT_BUILDING:
{
// Find town
u32 uTown = (u32) pData->readLong();
pTown = pMap->findTown(uTown);
assert(pTown != NULL);
// Find building
u32 uLuaId = (u32) pData->readLong();
Building * pBuild = pTown->getFirstBuilding(0);
while (pBuild != NULL)
{
if (pBuild->getInstanceId() == uLuaId)
{
pLua = pBuild;
break;
}
pBuild = pTown->getNextBuilding(0);
}
assert(pLua != NULL);
((Building*)pLua)->setCaster(pTown);
break;
}
case LUAOBJECT_SPECIALTILE:
{
// Find special tile
u32 uLuaId = (u32) pData->readLong();
pLua = pMap->findSpecialTile(uLuaId);
assert(pLua != NULL);
break;
}
}
pLua->setCurrentEffect((int) pData->readLong());
return true;
}
bool IsValid() const { return m_building.IsValid() && m_street.IsValid(); }
//Saves the map. Good for editing maps, not good for saving a game in mid-play because unit statuses are not saved.
void InformationStorage::saveMap(string filename, Map *level)
{
TiXmlDocument doc;
string s;
TiXmlDeclaration* decl = new TiXmlDeclaration("1.0", "", "");
doc.LinkEndChild(decl);
//Set up the root of the XML document
TiXmlElement *root = new TiXmlElement("TileInfo");
doc.LinkEndChild(root);
//Set up the Units, Buildings, and Tiles blocks
TiXmlElement *units = new TiXmlElement("Units");
TiXmlElement *buildings = new TiXmlElement("Buildings");
TiXmlElement *tiles = new TiXmlElement("Tiles");
//Set up pointers to be used throughout saving the map
TiXmlElement *elem;
GameObject *gObj = 0;
Unit *unit = 0;
Building *building = 0;
Terrain *tile = 0;
//Set the width, height, and player count in the XML based on the level
tiles->SetAttribute("width", level->width);
tiles->SetAttribute("height", level->height);
tiles->SetAttribute("playercount", level->playerCount());
//Add the units, buildings, and tiles blocks to the root
root->LinkEndChild(units);
root->LinkEndChild(buildings);
root->LinkEndChild(tiles);
Cell* cell;
//Go through every cell of the map, and check what the terrain, unit(if any), and building(if any)
//there is, and store it in the xml
for(int i=0; i<level->width; i++)
{
for(int j=0; j<level->height; j++)
{
cell = level->getCell(i, j);
gObj = cell->objectAtLayer(CellLayers::Unit);
if(gObj)
{
//Add the unit to the units tag
unit = (Unit*)gObj;
elem = new TiXmlElement("Unit");
elem->SetAttribute("id", unit->id);
elem->SetAttribute("pId", unit->getOwner()->id);
elem->SetAttribute("x", i);
elem->SetAttribute("y", j);
units->LinkEndChild(elem);
}
gObj = cell->objectAtLayer(CellLayers::Building);
if(gObj)
{
//Add the building to the buildings tag
building = (Building*)gObj;
elem = new TiXmlElement("Building");
elem->SetAttribute("id", building->id);
elem->SetAttribute("pId", building->getOwner()->id);
elem->SetAttribute("x", i);
elem->SetAttribute("y", j);
buildings->LinkEndChild(elem);
}
//Don't bother checking for terrain, there should always be one there.
gObj = cell->objectAtLayer(CellLayers::Terrain);
tile = (Terrain*)gObj;
elem = new TiXmlElement("Tile");
elem->SetAttribute("shorthand", tile->id);
elem->SetAttribute("x", i);
elem->SetAttribute("y", j);
tiles->LinkEndChild(elem);
}
}
doc.SaveFile(filename.c_str());
}
/* Fall 3: prüft, ob sich alles korrekt verhält, wenn das Gebäude gedreht ist.
*
* Süd Ost Nord West
* ===== ===== ====== ======
*
* x=88 x=88 x=88 x=88
* | | | |
* □□□□□□□□□ □□□□ ▨▨▨□□□□□□ □▨▨▨
* □▨▨▣▣▣▨▨▨ — y=42 □▨▨□ ▨▨▨▣▣▣▨▨□ — y=42 □▨▨▨
* □▨▨▣▣▣▨▨▨ □▨▨□ ▨▨▨▣▣▣▨▨□ □▨▨▨
* □□□□□□▨▨▨ □▣▣□ — y=42 □□□□□□□□□ □▣▣□ — y=42
* □▣▣□ □▣▣□
* □▣▣□ □▣▣□
* ▨▨▨□ □▨▨□
* ▨▨▨□ □▨▨□
* ▨▨▨□ □□□□
*
* Wir prüfen immer dieselben MapCoords im Test.
* Je nach Gebäude-View sind wir dann innerhalb ..oder außerhalb des Einzugsbereichs.
*/
TEST(CatchmentAreaTest, isInsideCatchmentArea_Views) {
Building building;
building.setMapCoords(MapCoords(88, 42));
building.setView(Direction::SOUTH);
RectangleData<char>* catchmentArea = new RectangleData<char>(9, 4);
memcpy(catchmentArea->data, "000000000011111111011111111000000111", 36);
MapObjectType mapObjectType;
mapObjectType.catchmentArea.reset(catchmentArea);
building.setMapObjectType(&mapObjectType);
building.setMapWidth(3);
building.setMapHeight(2);
building.setView(Direction::SOUTH);
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(88, 42))); // Mitte
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 41))); // Ecken des Quer-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 41)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 44)));
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 39))); // Ecken des Hochkant-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 39)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 47)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 47)));
building.setMapWidth(2);
building.setMapHeight(3);
building.setView(Direction::EAST);
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(88, 42))); // Mitte
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 41))); // Ecken des Quer-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 41)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 39))); // Ecken des Hochkant-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 39)));
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 47)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 47)));
building.setMapWidth(3);
building.setMapHeight(2);
building.setView(Direction::NORTH);
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(88, 42))); // Mitte
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 41))); // Ecken des Quer-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 41)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 39))); // Ecken des Hochkant-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 39)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 47)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 47)));
building.setMapWidth(2);
building.setMapHeight(3);
building.setView(Direction::WEST);
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(88, 42))); // Mitte
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 41))); // Ecken des Quer-Rechtecks
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 41)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(85, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(93, 44)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 39))); // Ecken des Hochkant-Rechtecks
ASSERT_TRUE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 39)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(87, 47)));
ASSERT_FALSE(CatchmentArea::isInsideCatchmentArea(building, MapCoords(90, 47)));
}
void LocationEditor::Render()
{
//
// Render our buildings
g_app->m_renderer->SetObjectLighting();
LevelFile *levelFile = g_app->m_location->m_levelFile;
for( int i = 0; i < levelFile->m_buildings.Size(); ++i )
{
if( levelFile->m_buildings.ValidIndex(i) )
{
Building *b = levelFile->m_buildings.GetData(i);
b->Render(0.0);
}
}
g_app->m_renderer->UnsetObjectLighting();
if (m_mode == ModeBuilding)
{
for( int i = 0; i < levelFile->m_buildings.Size(); ++i )
{
if( levelFile->m_buildings.ValidIndex(i) )
{
Building *b = levelFile->m_buildings.GetData(i);
b->RenderAlphas(0.0);
b->RenderLink();
}
}
}
//
// Render camera mounts
{
g_app->m_renderer->SetObjectLighting();
Shape *camShape = g_app->m_resource->GetShape("camera.shp");
Matrix34 mat;
for (int i = 0; i < g_app->m_location->m_levelFile->m_cameraMounts.Size(); ++i)
{
CameraMount *mount = g_app->m_location->m_levelFile->m_cameraMounts[i];
Vector3 camToMount = g_app->m_camera->GetPos() - mount->m_pos;
if (camToMount.Mag() < 20.0) continue;
mat.OrientFU(mount->m_front, mount->m_up);
mat.pos = mount->m_pos;
camShape->Render(0.0, mat);
}
g_app->m_renderer->UnsetObjectLighting();
}
g_app->m_renderer->UnsetObjectLighting();
//
// Render our instant units
for (int i = 0; i < levelFile->m_instantUnits.Size(); ++i)
{
InstantUnit *iu = levelFile->m_instantUnits.GetData(i);
RenderUnit(iu);
}
switch (m_mode)
{
case ModeLandTile: RenderModeLandTile(); break;
case ModeLandFlat: RenderModeLandFlat(); break;
case ModeBuilding: RenderModeBuilding(); break;
case ModeLight: break;
case ModeInstantUnit: RenderModeInstantUnit(); break;
case ModeCameraMount: RenderModeCameraMount(); break;
}
//
// Render axes
float sizeX = g_app->m_location->m_landscape.GetWorldSizeX() / 2;
float sizeZ = g_app->m_location->m_landscape.GetWorldSizeZ() / 2;
RenderArrow(Vector3(10, 200, 0), Vector3(sizeX, 200, 0), 4.0);
glBegin(GL_LINES);
glVertex3f(sizeX, 250, 0);
glVertex3f(sizeX + 90, 150, 0);
glVertex3f(sizeX, 150, 0);
glVertex3f(sizeX + 90, 250, 0);
glEnd();
glDisable(GL_BLEND);
glDisable(GL_LINE_SMOOTH);
RenderArrow(Vector3(0, 200, 10), Vector3(0, 200, sizeZ), 4.0);
glBegin(GL_LINES);
glVertex3f(0, 250, sizeZ);
glVertex3f(0, 250, sizeZ + 90);
glVertex3f(0, 250, sizeZ);
glVertex3f(0, 150, sizeZ + 90);
glVertex3f(0, 150, sizeZ);
glVertex3f(0, 150, sizeZ + 90);
glEnd();
glDisable(GL_BLEND);
glDisable(GL_LINE_SMOOTH);
//
// Render targetting crosshair
g_app->m_renderer->SetupMatricesFor2D();
glColor3ub(255,255,255);
glLineWidth( 1.0 );
glBegin( GL_LINES );
glVertex2i( g_app->m_renderer->ScreenW()/2, g_app->m_renderer->ScreenH()/2 - 30 );
glVertex2i( g_app->m_renderer->ScreenW()/2, g_app->m_renderer->ScreenH()/2 + 30 );
glVertex2i( g_app->m_renderer->ScreenW()/2 - 30, g_app->m_renderer->ScreenH()/2 );
glVertex2i( g_app->m_renderer->ScreenW()/2 + 30, g_app->m_renderer->ScreenH()/2 );
glEnd();
g_app->m_renderer->SetupMatricesFor3D();
CHECK_OPENGL_STATE();
}
void Fire()
{
if (!game.input->grabbing) return; // Ignore when not selected
if (!NetCode::TryLock())
{
game.firing = true;
return;
}
game.firing = false;
switch (game.player->weapon)
{
case weapWrench:
Build();
return;
case weapLaser:
{
Camera &cam = game.controller->camera;
Vd vec = ~(game.player->rotation * Vd(0,1,0));
double yaw = atan2(vec.x, vec.y);
Pd gunLoc = game.player->origin;// + game.player->model.weapon->origin;
gunLoc.x = gunLoc.x + game.player->model.weapon->origin.x * cos(yaw)
+ game.player->model.weapon->origin.y * sin(yaw);
gunLoc.y = gunLoc.y + game.player->model.weapon->origin.x * sin(yaw)
+ game.player->model.weapon->origin.y * cos(yaw);
gunLoc.z = gunLoc.z + game.player->model.weapon->origin.z;
Vd lookVec = (~(Vd(game.controller->target)+ -Vd(cam.origin))) * 38;
Pd target = game.controller->target;
ObjectHandle collision;
if(game.controller->firstPerson){
lookVec = (~(game.controller->camAngle * Vd(0,1,0)))*38;
collision = game.world->trace(game.controller->camera.origin, lookVec, game.player);
}else{
collision = game.world->trace(game.controller->target, lookVec, game.player);
}
if (collision)
{
Pd collisionPoint;
if(game.controller->firstPerson){
collisionPoint = game.controller->camera.origin + (lookVec);
}else{
collisionPoint = game.controller->target + (lookVec);
}
Qd beam = gunLoc.lookAt(collisionPoint);
ObjectHandle laser = LaserBeam(gunLoc, beam, !lookVec);
game.world->addLaserBeam(laser);
NetCode::Fire(*TO(LaserBeam,laser));
Player *p = TO(Player, collision);
if(p){
//if(p->team != game.player->team){//Precent teamkill
p->damage(10.0, game.player->id);
NetCode::Hit(p->id, 10.0, true);
//}
}else{
Building *b = TO(Building, collision);
if(b){
/* Enable team kill on towers to demolish
Player *own = NULL;
if(Game::game.players.count(t->owner))
own = TO(Player, Game::game.players[t->owner]);
if(own && own->team != game.player->team){*/
b->damage(10.0, game.player->id);
NetCode::Attack(b->loc, 10.0, true);
//}
}
}
}
else{
game.world->addLaserBeam(ObjectHandle(LaserBeam(gunLoc, cam.objective, !lookVec)));
}
return;
}
break;
}
}
#include <catch.hpp>
#include <resourceshandler.hpp>
#include <world/building.hpp>
#include <world/buildingtypehandler.hpp>
using World::Building;
TEST_CASE("Basic Buildings tests")
{
const auto house_bt = World::BuildingTypeHandler::instance().add(World::BuildingType{"House", {3, 3}, {}});
SECTION("Creating a building that can't produce anything has no current recipe")
{
Building b{house_bt, {1, 1}, {{1, 0}, utils::SizeU{3, 3}}};
CHECK_FALSE(b.currentRecipe());
}
ResourcesHandler::clear();
ResourcesHandler::loadResources({"Wood", "Plank"});
const auto wood_id = ResourcesHandler::const_instance().idOf("Wood");
const auto plank_id = ResourcesHandler::const_instance().idOf("Plank");
const auto lumbermill_bt = World::BuildingTypeHandler::instance().add(
World::BuildingType{"LumberMill", {3, 3}, {}, {Recipe{1, {{wood_id, 1}}, {{plank_id, 1}}}}});
SECTION("Creating a building with only one possible recipe has it as current recipe upon construction")
{
Building b{lumbermill_bt, {1, 1}, {{1, 0}, utils::SizeU{3, 3}}};
CHECK(b.currentRecipe());
}
boost::optional<IdfObject> ForwardTranslator::translateBuilding( Building & modelObject )
{
Model model = modelObject.model();
IdfObject idfObject(IddObjectType::Building);
m_idfObjects.push_back(idfObject);
for (LifeCycleCost lifeCycleCost : modelObject.lifeCycleCosts()){
translateAndMapModelObject(lifeCycleCost);
}
OptionalString optS = modelObject.name();
if( optS )
{
idfObject.setName(stripOS2(*optS));
}
if (!modelObject.isNorthAxisDefaulted()){
idfObject.setDouble(openstudio::BuildingFields::NorthAxis, modelObject.northAxis());
}
// terrain comes from Site
OptionalSite site = model.getOptionalUniqueModelObject<Site>();
if (site){
if (!site->isTerrainDefaulted()){
idfObject.setString(openstudio::BuildingFields::Terrain, site->terrain());
}
}
// these fields come from SimulationControl
OptionalSimulationControl simulationControl = model.getOptionalUniqueModelObject<SimulationControl>();
if (simulationControl){
if (!simulationControl->isLoadsConvergenceToleranceValueDefaulted()){
idfObject.setDouble(openstudio::BuildingFields::LoadsConvergenceToleranceValue, simulationControl->loadsConvergenceToleranceValue());
}
if (!simulationControl->isTemperatureConvergenceToleranceValueDefaulted()){
idfObject.setDouble(openstudio::BuildingFields::TemperatureConvergenceToleranceValue, simulationControl->temperatureConvergenceToleranceValue());
}
if (!simulationControl->isSolarDistributionDefaulted()){
idfObject.setString(openstudio::BuildingFields::SolarDistribution, simulationControl->solarDistribution());
}
if (!simulationControl->isMaximumNumberofWarmupDaysDefaulted()){
idfObject.setInt(openstudio::BuildingFields::MaximumNumberofWarmupDays, simulationControl->maximumNumberofWarmupDays());
}
if (!simulationControl->isMinimumNumberofWarmupDaysDefaulted()) {
idfObject.setInt(openstudio::BuildingFields::MinimumNumberofWarmupDays, simulationControl->minimumNumberofWarmupDays());
}
}
// translate shading groups
ShadingSurfaceGroupVector shadingSurfaceGroups = modelObject.shadingSurfaceGroups();
std::sort(shadingSurfaceGroups.begin(), shadingSurfaceGroups.end(), WorkspaceObjectNameLess());
for (ShadingSurfaceGroup& shadingSurfaceGroup : shadingSurfaceGroups){
translateAndMapModelObject(shadingSurfaceGroup);
}
return boost::optional<IdfObject>(idfObject);
}
int main ()
{
Building* b = new Building ("SoftUni", "SoftUni", 11, 106, 200, 60) ;
cout <<(b->getBldgInfo()) <<endl ;
return 0;
}
void
NetworkManager::CreateBuildingForFemtocells (int idBuilding,
int buildingType,
double apartmentSide,
int nbFloors,
double pos_X,
double pos_Y,
int firstFemtoCellID,
int nbOfFemtocells)
{
double side_X;
double side_Y;
if ( buildingType == 0)
{
side_X = 5 * apartmentSide;
side_Y = 5 * apartmentSide;
}
else
{
side_X = 10 * apartmentSide;
side_Y = 5 * apartmentSide;
}
Building* building = new Building (idBuilding,
buildingType,
nbFloors,
side_X,
side_Y,
pos_X,
pos_Y);
// CREATE FEMTO _CELLS
int idCell;
for (int floor = 0; floor < nbFloors; floor++ )
{
int femtocellIndex = 0;
while ( femtocellIndex < nbOfFemtocells )
{
idCell = femtocellIndex + firstFemtoCellID;
double* offset = GetFemtoCellOffsetInBuilding ( building->GetBuildingType(), femtocellIndex, apartmentSide);
building->AddFemtoCell( CreateFemtoCell( idCell,
apartmentSide,
offset[0] + pos_X,
offset[1] + pos_Y) );
GetFemtoCellByID(idCell)->GetCellCenterPosition()->SetCoordinateZ( floor );
delete [] offset;
femtocellIndex++;
}
}
GetBuildingContainer()->push_back(building);
}
