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greenhouse.cpp
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greenhouse.cpp
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#include <iostream>
#include "greenhouse.h"
#include "interface.h"
#include "input.h"
#include "text.h"
Greenhouse::Greenhouse() // Default factory settings
{
time_ = 0;
temperature_ = 20;
humidity_ = 65;
isWindowOpen_ = false;
isHumidificationOn_ = false;
isForceQuited_ = false;
isWorking_ = true;
}
// Getters
bool Greenhouse::getQuitStatus()
{
return isForceQuited_;
}
bool Greenhouse::getWorkStatus()
{
return isWorking_;
}
bool Greenhouse::getWindowStatus()
{
return isWindowOpen_;
}
bool Greenhouse::getHumidificationDeviceStatus()
{
return isHumidificationOn_;
}
int Greenhouse::getTime()
{
return time_;
}
double Greenhouse::getHumidity() {
return humidity_;
}
double Greenhouse::getTemperature() {
return temperature_;
}
// Setters
void Greenhouse::increaseTime()
{
time_++;
}
void Greenhouse::openWindow() {
isWindowOpen_ = true;
}
void Greenhouse::closeWindow() {
isWindowOpen_ = false;
}
void Greenhouse::startHumidificationDevice() {
isHumidificationOn_ = true;
}
void Greenhouse::stopHumidificationDevice() {
isHumidificationOn_ = false;
}
// Executors
void Greenhouse::executeCommand(int commandCode)
{
if (isWorking_ && commandCode != QUIT) {
increaseTime();
if (commandCode != SKIP_HOUR) {
switch (commandCode) {
case OPEN_WINDOW:
{
openWindow();
break;
}
case CLOSE_WINDOW:
{
closeWindow();
break;
}
case TURN_ON_DEVICE:
{
startHumidificationDevice();
break;
}
case TURN_OFF_DEVICE:
{
stopHumidificationDevice();
break;
}
case OPEN_WINDOW_TURN_ON_DEVICE:
{
openWindow();
startHumidificationDevice();
break;
}
case OPEN_WINDOW_TURN_OFF_DEVICE:
{
openWindow();
stopHumidificationDevice();
break;
}
case CLOSE_WINDOW_TURN_ON_DEVICE:
{
closeWindow();
startHumidificationDevice();
break;
}
case CLOSE_WINDOW_TURN_OFF_DEVICE:
{
closeWindow();
stopHumidificationDevice();
break;
}
}
}
}
else {
// Won't increase time when greenhouse is broken
if (commandCode == QUIT)
isForceQuited_ = true;
}
}
void Greenhouse::modWorkStatus() // The method for checking the possibility of failure due to critical greenhouse conditions
{
if (temperature_ >= MAX_TEMPERATURE || temperature_ <= MIN_TEMPERATURE || humidity_ <= MIN_HUMIDITY || humidity_ >= MAX_HUMIDITY) {
isWorking_ = false;
}
}
void Greenhouse::runHeaterTact() {
// Model changes in temperature
if (isWorking_ && !isForceQuited_ && isHeaterWorking_) // Heater is working on default due to rules
if (isWindowOpen_) {
// Formulas based on:
// - Proportions of substraction between critical and current conditions
// - Overall working time
// - Random deviation
temperature_ -= int((temperature_ - MIN_TEMPERATURE)*(rand() % 10 + 10 + time_ / 2)) / 100 + rand() % 1 + 1 + time_ / 8;
}
else {
temperature_ += int((MAX_TEMPERATURE - temperature_)*(rand() % 10 + 5 + time_ / 3)) / 100 + 1 + time_ / 10;
}
}
void Greenhouse::runHumidificationDeviceTact() {
// Model changes in humidity
if (isWorking_ && !isForceQuited_)
if (isHumidificationOn_) {
humidity_ += int((MAX_HUMIDITY - humidity_)*(rand() % 10 + 10 + time_ / 3)) / 100 + rand() % 2 + 1 + time_ / 10;
}
else {
humidity_ -= int((humidity_ - MIN_HUMIDITY)*(rand() % 10 + 5 + time_ / 2)) / 100 + rand() % 1 + 1 + time_ / 8;
}
}
// Modeling
void Greenhouse::startModeling(const char* argv)
{
changeTextColor(DARK_GREY);
showWelcomeMessage();
// Select working mode
if (!strcmp(argv, "manual")) {
newGreenhouse.runInteractiveMode();
}
else {
newGreenhouse.runAutoMode();
}
changeTextColor(LIGHT_GREY);
}
bool isLastIteration = false;
void Greenhouse::runInteractiveMode()
{
increaseConsoleBufferSize();
while (!isForceQuited_)
{
if (!isLastIteration) {
showTime();
showWorkingStatus();
showConditionsStatus();
showDevicesStatus();
// If-case is used not to duplicate conditions info after greenhouse is broken
startCleanCoords = getCoords();
// Getting console text coordinates to clear menu after choosing command
if (!isWorking_) {
isLastIteration = true;
}
}
showMenu();
executeCommand(getExecuteCommandCode()); // Executing already valid command
endCleanCoords = getCoords();
runHeaterTact();
runHumidificationDeviceTact();
modWorkStatus();
clearConsoleAfterCoords(startCleanCoords, endCleanCoords);
}
showLastConditions();
showQuitMessage();
}
void Greenhouse::runAutoMode()
{
while (isWorking_)
{
showTime();
showWorkingStatus();
showConditionsStatus();
executeCommand(SKIP_HOUR);
runHeaterTact();
runHumidificationDeviceTact();
modWorkStatus();
pause(750);
}
showAutoLastConditions();
}