void MakeAnimals()
{
// Use the Animal default constructor.
unique_ptr<Animal> p1 = make_unique<Animal>();
// Use the constructor that matches these arguments
auto p2 = make_unique<Animal>(L"Felis", L"Catus", 12, 16.5);
// Create a unique_ptr to an array of 5 Animals
unique_ptr<Animal[]> p3 = make_unique<Animal[]>(5);
// Initialize the elements
p3[0] = Animal(L"Rattus", L"norvegicus", 3, 2.1);
p3[1] = Animal(L"Corynorhinus", L"townsendii", 4, 1.08);
// auto p4 = p2; //C2280
vector<unique_ptr<Animal>> vec;
// vec.push_back(p2); //C2280
// vector<unique_ptr<Animal>> vec2 = vec; // C2280
// OK. p2 no longer points to anything
vec.push_back(std::move(p2));
// unique_ptr overloads operator bool
wcout << boolalpha << (p2 == false) << endl; // Prints "true"
// OK but now you have two pointers to the same memory location
Animal* pAnimal = p2.get();
// OK. p2 no longer points to anything
Animal* p5 = p2.release();
}
//![0]
int main(int argc, char ** argv)
{
QApplication app(argc, argv);
AnimalModel model;
model.addAnimal(Animal("Wolf", "Medium"));
model.addAnimal(Animal("Polar bear", "Large"));
model.addAnimal(Animal("Quoll", "Small"));
QDeclarativeView view;
QDeclarativeContext *ctxt = view.rootContext();
ctxt->setContextProperty("myModel", &model);
//![0]
view.setSource(QUrl("qrc:view.qml"));
view.show();
return app.exec();
}
//![0]
int main(int argc, char ** argv)
{
QApplication app(argc, argv);
QmlApplicationViewer viewer;
AnimalModel model;
model.addAnimal(Animal("Wolf", "Medium"));
model.addAnimal(Animal("Polar bear", "Large"));
model.addAnimal(Animal("Quoll", "Small"));
QDeclarativeContext *ctxt = viewer.rootContext();
ctxt->setContextProperty("myModel", &model);
//![0]
viewer.setOrientation(QmlApplicationViewer::ScreenOrientationLockLandscape);
viewer.setMainQmlFile(QLatin1String("qml/abstractitemmodel/view.qml"));
viewer.showExpanded();
return app.exec();
}
int main()
{
Animal a1("Monkey", 3);
Animal a2("Bear" , 8);
Animal a3("Turtle", 56);
Animal a4("Monkey", 200);
std::set<Animal> s;
s.insert(a1);
s.insert(a2);
s.insert(a3);
s.insert(a4);
std::cout << "Number of animals: " << s.size() << std::endl;
std::for_each(s.begin(), s.end(), boost::bind(&Animal::print, _1));
std::cout << std::endl;
std::set<Animal>::iterator it(s.find(Animal("Monkey", 200)));
if (it != s.end()) { std::cout << "We found the 200 year old monkey!" << std::endl; it->print(); } // Animal("Monkey", 3) as a match
it = std::find(s.begin(), s.end(), Animal("Monkey", 200));
if (it == s.end()) { std::cout << "No 200 year old monkey could be find in this set." << std::endl; }
}
/* Random initialization */
Population::Population(int size) {
for (int i = 0; i < size; ++i)
list.push_back(Animal());
}
bool Building::load_data(std::istream& data)
{
int tmptype;
data >> tmptype;
if (tmptype <= 0 || tmptype >= BUILD_MAX) {
debugmsg("Building loaded type of %d (range is 1 to %d).",
tmptype, BUILD_MAX - 1);
return false;
}
type = Building_type(tmptype);
data >> open >> pos.x >> pos.y >> construction_left >> workers;
crops_grown.clear();
data >> field_output;
int num_crops;
data >> num_crops;
for (int i = 0; i < num_crops; i++) {
int tmpcrop, crop_amt;
data >> tmpcrop >> crop_amt;
if (tmpcrop <= 0 || tmpcrop >= CROP_MAX) {
debugmsg("Building loaded crop %d/%d; type %d (range is 1 to %d).",
i, num_crops, tmpcrop, CROP_MAX - 1);
return false;
}
crops_grown.push_back( Crop_amount( Crop(tmpcrop), crop_amt ) );
}
minerals_mined.clear();
data >> shaft_output;
int num_mins;
data >> num_mins;
for (int i = 0; i < num_mins; i++) {
int tmpmin, min_amt;
data >> tmpmin >> min_amt;
if (tmpmin <= 0 || tmpmin >= MINERAL_MAX) {
debugmsg("Building loaded mineral %d/%d; type %d (range is 1 to %d).",
i, num_mins, tmpmin, MINERAL_MAX - 1);
return false;
}
minerals_mined.push_back( Mineral_amount( Mineral(tmpmin), min_amt ) );
}
data >> hunter_level;
int tmptarget, tmpaction;
data >> tmptarget >> tmpaction;
if (tmptarget >= ANIMAL_MAX) {
debugmsg("Building loaded hunting target %d (range is 1 to %d).",
tmptarget, ANIMAL_MAX - 1);
return false;
}
hunting_target = Animal(tmptarget);
if (tmpaction >= ANIMAL_ACT_MAX) {
debugmsg("Building loaded hunting action %d (range is 1 to %d).",
tmpaction, ANIMAL_ACT_MAX - 1);
return false;
}
hunting_action = Animal_action(tmpaction);
int queue_size;
data >> queue_size;
for (int i = 0; i < queue_size; i++) {
Recipe tmp_recipe;
if (!tmp_recipe.load_data(data)) {
debugmsg("Building failed to load recipe %d/%d.", i, queue_size);
return false;
}
int recipe_amt;
data >> recipe_amt;
build_queue.push_back( Recipe_amount( tmp_recipe, recipe_amt ) );
}
return true;
}
bool City::load_data(std::istream& data)
{
clear_data();
data >> uid;
std::string tmpstr;
while (tmpstr != "!") {
data >> tmpstr;
if (tmpstr != "!") {
if (!name.empty()) {
name = name + " ";
}
name = name + tmpstr;
}
}
int tmptype, tmprace;
data >> tmptype >> tmprace;
if (tmptype >= CITY_TYPE_MAX || tmptype <= 0) {
debugmsg("City '%s' has type value of %d (range is 1 - %d)!",
name.c_str(), tmptype, CITY_TYPE_MAX - 1);
return false;
}
if (tmprace >= RACE_MAX || tmptype <= 0) {
debugmsg("City '%s' has race value of %d (range is 1 - %d)!",
name.c_str(), tmprace, RACE_MAX - 1);
return false;
}
type = City_type(tmptype);
race = Race(tmprace);
data >> location.x >> location.y;
if (!map.load_data(data)) {
debugmsg("City '%s' failed to load map.", name.c_str());
return false;
}
int num_routes;
data >> num_routes;
for (int i = 0; i < num_routes; i++) {
int tmpuid;
Trade_route tmproute;
data >> tmpuid;
if (!tmproute.load_data(data)) {
debugmsg("City '%s' failed to load trade route to City %d.",
name.c_str(), tmpuid);
return false;
}
trade_routes[tmpuid] = tmproute;
}
for (int i = 0; i < CIT_MAX; i++) {
if (!population[i].load_data(data)) {
debugmsg("City '%s' failed to load %s data.",
name.c_str(), citizen_type_name(Citizen_type(i), true).c_str());
return false;
}
}
for (int i = 0; i < RES_MAX; i++) {
data >> resources[i];
}
for (int i = 0; i < MINERAL_MAX; i++) {
data >> minerals[i];
}
int num_animals;
data >> num_animals;
for (int i = 0; i < num_animals; i++) {
int tmpanimal, tmpnum;
data >> tmpanimal >> tmpnum;
if (tmpanimal <= 0 || tmpanimal >= ANIMAL_MAX) {
debugmsg("City '%s' had animal of index %d (Range is 1 to %d)",
name.c_str(), tmpanimal, ANIMAL_MAX - 1);
return false;
}
livestock[ Animal(tmpanimal) ] = tmpnum;
}
return true;
}
int main(int argc,char **argv){
Warehouse *wh = new Warehouse();
Zoo *z = new Zoo();
int readFlag=0;
int createFlag=0;
if(2!=argc){
usage();
}
while(argc){
if(!std::strcmp("-r",*argv)) readFlag=1;
if(!std::strcmp("-c",*argv)) createFlag=1;
argc--;
argv++;
}
if(readFlag){
std::ifstream infile;
std::ofstream outfile;
outfile.open(WAREHOUSE_BAK,std::ios::out|std::ios::trunc);
infile.open(WAREHOUSE_FILE,std::ios::in);
// build up FoodItems from file
if(infile){
std::string type;
std::string units;
std::string line;
std::string holder;
double quantity;
while(true){
std::getline(infile,line);
if( infile.eof() ){ break; }
outfile << line << "\n";
std::istringstream iss(line);
std::getline(iss,type,'|');
std::getline(iss,units,'|');
std::getline(iss,holder,'|');
std::istringstream bleck(holder);
bleck >> quantity;
if(iss.bad()){
std::cout << "error parsing file." << std::endl;
exit(1);
}
FoodItem fi = FoodItem(type,units,quantity);
wh->addToInv(fi);
}
infile.close();
outfile.close();
} else {
std::cout << WAREHOUSE_FILE << "could not be opened" << std::endl;
}
outfile.open(ZOO_BAK,std::ios::out|std::ios::trunc);
infile.open(ZOO_FILE,std::ios::in);
// build up Animal objects from file
if(infile){
std::string line;
std::string name;
std::string food;
std::string type;
std::string tmp;
double intake;
time_t lastFedTime;
while(true){
std::getline(infile,line);
if( infile.eof() ){ break; }
outfile << line << "\n";
std::istringstream iss(line);
std::getline(iss,name,'|');
std::getline(iss,food,'|');
std::getline(iss,type,'|');
std::getline(iss,tmp,'|');
std::istringstream blah(tmp);
blah >> intake;
std::getline(iss,tmp,'|');
std::istringstream blah2(tmp);
blah2 >> lastFedTime;
if(iss.bad()){
std::cout << "error parsing file." << std::endl;
exit(1);
}
Animal a = Animal(name,food,type,intake,lastFedTime);
z->addToHerd(a);
}
infile.close();
outfile.close();
} else {
Human::Human(string _name, double _energy, double _size, double _weight, Point2D _position, double _strength, State _state)
{
Animal(_name, _energy, _size, _weight, _position, _strength, _state);
}
void AI_city::add_pastures(std::vector<Map_tile*>& tiles, int& food_req)
{
bool unlimited_food = (food_req == -1);
int livestock_skill = Race_data[race]->skill_level[SKILL_LIVESTOCK];
/* First, figure out the three most food-producing animals.
* We look at how much food is produced in 10,000 days; this makes calculating
* the food we can get by slaughtering animals easier. It also makes our food
* amounts work directly with food_req (since that's multiplied by 10,000).
* If food_req is -1, then we're not just trying to produce food; other
* resources are valuable too. So pick ANY livestock animals.
*/
std::vector<Animal> food_animals;
std::vector<int> food_amounts;
int min_food = 0;
for (int i = 0; i < ANIMAL_MAX; i++) {
Animal_datum* ani_dat = Animal_data[i];
// Only multiply food_livestock by 100 since it's measured per 100 animals
int animal_food = ani_dat->food_livestock * 100;
// Now, food from slaughtering animals (divided by how long it takes to birth 1)
// We multiply by 10,000 to match our required food; then also multiply by 100
// since we have 100 animals (and thus need to divide reproduction_rate by 100)
animal_food += (1000000 * ani_dat->food_killed) /
ani_dat->reproduction_rate;
// At livestock skill of 1, tameness must be >= 88; at skill of 5, >= 40
if (ani_dat->tameness + 12 * livestock_skill >= 100 &&
(unlimited_food ||
(animal_food >= min_food || food_animals.size() < 3))) {
// Insert it in the proper place.
bool inserted = false;
for (int n = 0; !inserted && n < food_animals.size(); n++) {
if (food_amounts[n] < animal_food) {
inserted = true;
food_animals.insert( food_animals.begin() + n, Animal(i) );
food_amounts.insert( food_amounts.begin() + n, animal_food );
}
}
if (!inserted) { // Didn't find a place to put it; push it to the end.
food_animals.push_back( Animal(i) );
food_amounts.push_back( animal_food );
}
}
// Clip our vector to the proper size - unless we're using unlimited food
if (!unlimited_food) {
while (food_animals.size() > 3) {
food_animals.pop_back();
food_amounts.pop_back();
min_food = food_amounts.back();
}
}
}
// Since all tiles support pastures equally, we just randomly pick some from all
// tiles that support pastures.
std::vector<Map_tile*> pastures;
std::vector<int> pasture_indices; // For deleting them from tiles
for (int i = 0; i < tiles.size(); i++) {
if (tiles[i]->can_build(AREA_PASTURE)) {
pastures.push_back( tiles[i] );
pasture_indices.push_back( i );
}
}
while (!pastures.empty() && (unlimited_food || food_req > 0)) {
int index = rng(0, pastures.size() - 1);
int orig_index = pasture_indices[index];
pastures.erase( pastures.begin() + index );
tiles.erase( tiles.begin() + orig_index );
// Pick an animal!
int animal_index = rng(0, food_animals.size() - 1);
Animal new_livestock = food_animals[ animal_index ];
int food_amount = 100 * food_amounts[ animal_index ];
food_req -= food_amount;
add_resource_production(RES_FOOD, food_amount / 10000);
add_area(AREA_PASTURE);
// Add resource production for anything else the animal may produce.
Animal_datum* ani_dat = Animal_data[new_livestock];
for (int i = 0; i < ani_dat->resources_livestock.size(); i++) {
Resource_amount res_amt = ani_dat->resources_livestock[i];
add_resource_production(res_amt);
}
for (int i = 0; i < ani_dat->resources_killed.size(); i++) {
Resource_amount res_amt = ani_dat->resources_killed[i];
// Multiply by 100 since we have 100 animals birthing - effectively this
// divides reproduction_rate by 100.
res_amt.amount = (res_amt.amount * 100) / ani_dat->reproduction_rate;
if (res_amt.amount == 0) {
res_amt.amount = 1;
}
add_resource_production(res_amt);
}
if (livestock.count(new_livestock)) {
livestock[new_livestock] += 100;
} else {
livestock[new_livestock] = 100;
}
} // while (!pastures.empty() && food_req > 0)
}
