static public void new_orchestrator_of_service(TF_Demand outbound_demand, Train_obj train, List <Service> services)
{
for (int i = 0; i < outbound_demand.demand.Count; i++)
{
outbound_demand.get_demand(i);
while (!isDemandEmpty(outbound_demand.demand[i]))
{
float p;
int s = 0;
(s, p) = index_of_most_utilize_service(outbound_demand.cal_demand, train, services);
Console.WriteLine("\n\nthis is CARRY_matrix \n\n\n");
showarray(outbound_demand.carry_matrix);
Console.WriteLine("this is PERCENT " + p);
if (p <= 60)
{
for (int out_loop = 0; out_loop < outbound_demand.dimension; out_loop++)
{
for (int in_loop = out_loop + 1; in_loop < outbound_demand.dimension; in_loop++)
{
if (outbound_demand.demand[i][out_loop, in_loop] > 0)
{
outbound_demand.carry_matrix[out_loop, in_loop] = i;
}
}
}
break;
}
Console.WriteLine("----IN ACTUAL ---- " + "\n\n");
actual_run(outbound_demand, train, services[s], i);
Console.WriteLine("----OUT ACTUAL ---- " + "\n\n");
}
Console.WriteLine("----END--OF--orchestrate----LOOP--- " + i + "\n\n\n\n\n");
}
Console.WriteLine("----END--OF--orchestrate-------- ");
}
public static float cal_utilize_percent(int[,] demand, Train_obj train, Service service)
{
float a = Utilize_service(demand, train, service);
float b = max_utilize_of_service(train.cap, service);
return(a / b * 100);
}
static public void actual_run(TF_Demand demands, Train_obj train, Service service, int timeframe)
{
Console.WriteLine("ACTUAL_RUN . ");
Console.WriteLine(service.ServiceId);
Train_a_b_c_d_e(demands, train, service, timeframe);
Console.WriteLine("This is remainning demand . ");
showarray(demands.cal_demand);
Console.WriteLine("This is CURRENT demand . ");
showarray(demands.demand[timeframe]);
Console.WriteLine("------------------ ");
}
public static int cal_all_service_util(int[,] demand, Train_obj train, List <Service> services)
{
int most_util_index = -1;
float most_percent = -1;
for (int i = 0; i < services.Count; i++)
{
float temp = cal_utilize_percent(demand, train, services[i]);
if (temp > most_percent)
{
most_percent = temp;
most_util_index = i;
}
}
return(most_util_index);
}
static public void all_service_n_time(int[,] outbound_demand, Train_obj train, List <Service> services)
{
int indexOfMaxUtilize;
float most_utilize = 0;
while (!isDemandEmpty(outbound_demand))
{
for (int i = 0; i < services.Count; i++)
{
float service_util = Utilize_service(outbound_demand, train, services[i]);
float max_util = max_utilize_of_service(train.cap, services[i]);
float util_percent = service_util / max_util * 100;
if (util_percent > most_utilize)
{
indexOfMaxUtilize = i;
}
}
}
}
public void AddTrain(int capacity)
{
Train_obj _train = new Train_obj(capacity);
trains.Add(_train);
}
public static (int[, ], int[, ]) serve_demand_form_station(TF_Demand demands, Train_obj train, Service aService, int timeframe)
{
Console.WriteLine("\n\nACTUAL_RUN __ serve_demand_form_station ");
Console.WriteLine(aService.ServiceId);
showarray(demands.demand[0]);
int[,] actual_getoff = new int[5, 5];
int[,] actual_getoff_income = new int[5, 5];
int get_off_next_station = 0;
int i, j, k, next_station_index = -1;
int fill_demand;
for (i = 0; i < 5; i++)
{
if (aService.StopStation[i] == 0)
{
continue;
}
for (int a = 4; a > i; a--)
{
if (aService.StopStation[a] == 1)
{
next_station_index = a;
}
}
int demand_at_station = 0;
//Console.WriteLine("Remainning Seat : " + train.remain_cap);
get_off_next_station = train.passenger[i];
// Console.WriteLine("Number of getting off passenger at station " + i + " = " + get_off_next_station);
train.getOff(i);
// Console.WriteLine("Remainning Seat after get off : " + train.remain_cap);
for (k = i + 1; k < 5; k++) // sum of demand at station i
{
if (aService.StopStation[k] == 0)
{
continue;
}
demand_at_station += demands.demand[0][i, k];
// Console.WriteLine("Demand at station " + i + " to station " + k + " is " + demands.demand[0][i, k]);
}
// Console.WriteLine("All of Demand at station " + i + " is " + demand_at_station);
if (demand_at_station < train.remain_cap)
{
for (j = i + 1; j < 5; j++)
{
if (aService.StopStation[j] == 0)
{
continue;
}
train.getOn(demands.demand[0][i, j], j);
actual_getoff[i, j] = demands.demand[0][i, j];
actual_getoff_income[i, j] = demands.demand[0][i, j]; // set for income calculation
demands.demand[0][i, j] = 0;
clear_remain_demand(demands, timeframe, i, j);
}
if (i + 1 < 5)
{
actual_getoff[i, i + 1] += train.remain_cap;
}
}
else
{
if (demand_at_station == 0)
{
demand_at_station += 1;
}
double ratio = (1.0 * train.remain_cap) / demand_at_station;
demand_at_station = 0; //reset
fill_demand = 0; //reset
for (j = i + 1; j < 5; j++)
{
if (aService.StopStation[j] == 0)
{
continue;
}
fill_demand = (int)(demands.demand[0][i, j] * ratio);
demand_at_station += fill_demand;
}
int remain_cap = train.remain_cap;
// Console.WriteLine("..............Debug demand at station " + demand_at_station);
remain_cap -= demand_at_station;
for (j = i + 1; j < 5; j++)
{
if (aService.StopStation[j] == 0)
{
continue;
}
//Console.WriteLine("..............Debug train remainning seat " + train.remain_cap);
//Console.WriteLine("..............Debug train remainning seat " + remain_cap);
//Console.WriteLine("..............Debug Demand at station " + demands.demand[0][i, j]);
//Console.WriteLine("..............Debug ratio " + ratio);
fill_demand = (int)(demands.demand[0][i, j] * ratio);
Console.WriteLine("..............Debug fill_demand " + fill_demand);
if (remain_cap > 0 && demands.demand[0][i, j] > fill_demand)
{// ROUND UP IN CASE OF REMAINING a few demand
// Console.WriteLine("ROUND UP AT : " + i+"_"+j);
train.getOn(fill_demand + 1, j);
update_remain_demand(demands, timeframe, fill_demand + 1, i, j);
remain_cap -= 1;
actual_getoff[i, j] = fill_demand + 1;
actual_getoff_income[i, j] = fill_demand + 1;
}
else
{// NO FEW demand left
train.getOn(fill_demand, j);
update_remain_demand(demands, timeframe, fill_demand, i, j);
actual_getoff[i, j] = fill_demand;
actual_getoff_income[i, j] = fill_demand;
}
demand_at_station += fill_demand;
}
Console.WriteLine("..............train remainning seat AFTER " + train.remain_cap);
}
}
Console.WriteLine("ACTUAL GETOFF ");
showarray(actual_getoff); //served demand
return(actual_getoff, actual_getoff_income);
}
public static void Train_a_b_c_d_e(TF_Demand demands, Train_obj train, Service aService, int timeframe)
{
int[,] actual_getoff = new int[5, 5];
int get_off_next_station = 0;
int i, j, k, next_station_index = -1;
for (i = 0; i < 5; i++)
{
if (aService.StopStation[i] == 0)
{
continue;
}
for (int a = 4; a > i; a--)
{
if (aService.StopStation[a] == 1)
{
next_station_index = a;
}
}
int demand_at_station = 0;
Console.WriteLine("Remainning Seat : " + train.remain_cap);
get_off_next_station = train.passenger[i];
Console.WriteLine("Number of getting off passenger at station " + i + " = " + get_off_next_station);
train.getOff(i);
Console.WriteLine("Remainning Seat after get off : " + train.remain_cap);
for (k = i + 1; k < 5; k++) // sum of demand at station i
{
if (aService.StopStation[k] == 0)
{
continue;
}
demand_at_station += demands.cal_demand[i, k];
Console.WriteLine("Demand at station " + i + " to station " + k + " is " + demands.cal_demand[i, k]);
}
Console.WriteLine("All of Demand at station " + i + " is " + demand_at_station);
if (demand_at_station < train.remain_cap)
{
for (j = i + 1; j < 5; j++)
{
if (aService.StopStation[j] == 0)
{
continue;
}
train.getOn(demands.cal_demand[i, j], j);
demands.cal_demand[i, j] = 0;
clear_remain_demand(demands, timeframe, i, j);
}
}
else
{
double ratio = 1.0 * train.remain_cap / demand_at_station;
demand_at_station = 0;
int fill_demand;
for (j = i + 1; j < 5; j++)
{
if (aService.StopStation[j] == 0)
{
continue;
}
fill_demand = (int)(demands.cal_demand[i, j] * ratio);
demand_at_station += fill_demand;
}
int remain_cap = train.remain_cap;
remain_cap -= demand_at_station;
for (j = i + 1; j < 5; j++)
{
if (aService.StopStation[j] == 0)
{
continue;
}
Console.WriteLine("..............Debug train remainning seat " + train.remain_cap);
Console.WriteLine("..............Debug Demand at station " + demands.cal_demand[i, j]);
Console.WriteLine("..............Debug ratio " + ratio);
fill_demand = (int)(demands.cal_demand[i, j] * ratio);
Console.WriteLine("..............Debug fill_demand " + fill_demand);
actual_getoff[i, j] = fill_demand;
if (remain_cap > 0 && demands.cal_demand[i, j] > fill_demand)
{
demands.cal_demand[i, j] -= (fill_demand + 1);
train.getOn(fill_demand + 1, j);
update_remain_demand(demands, timeframe, fill_demand + 1, i, j);
remain_cap -= 1;
}
else
{
demands.cal_demand[i, j] -= fill_demand;
train.getOn(fill_demand, j);
update_remain_demand(demands, timeframe, fill_demand, i, j);
}
demand_at_station += fill_demand;
}
Console.WriteLine("..............train remainning seat AFTER " + train.remain_cap);
}
}
}
public static (List <Service_summary>, float) genService(List <Service> _services)
{
float sum_waiting_time = 0;
Train_obj train = new Train_obj(PhysicalData.TrainSize);
List <Station> stations = new List <Station>();
List <int[, ]> demStation = new List <int[, ]>();
List <Service_summary> summaries = new List <Service_summary>();
stations.InsertRange(0, Form1.stations); // copy demand form 1 TF of each station
int[] tf_memo = init_memo(stations, 0); // index of start(depart)_time
int[,] carry_demand = init_carry_demand(tf_memo, stations);
List <Service> services = new List <Service>();
services = _services;
Console.WriteLine(PrettyPrintArrays(tf_memo));
Console.WriteLine("____demand_of_this_service");
showarray(carry_demand);
var k = 0;
float last_util_percent_memo = 1;
while (services[0].depart_time[0].TimeOfDay <= stations[0].start_time.Last().TimeOfDay || last_util_percent_memo >= PhysicalData.utilize_percent)
{
Console.WriteLine("CONDITION 1 : " + (services[0].depart_time[0].TimeOfDay <= stations[0].start_time.Last().TimeOfDay).ToString());
Console.WriteLine("CONDITION 2 : " + (last_util_percent_memo >= PhysicalData.utilize_percent).ToString());
Console.WriteLine(" " + services[0].depart_time[0].TimeOfDay);
Console.WriteLine("-------------NEWLOOP-----station-- : " + stations[0].start_time[0]);
Console.WriteLine("-------------NEWLOOP-----service-- : " + services[0].depart_time[0]);
// Console.WriteLine(" " +last_util_percent_memo);
Console.WriteLine("-------------NEWLOOP------------ : " + k);
if (services[0].depart_time[0].Day != 1)
{
break; // new day not allow
}
for (var i = 0; i < services.Count; i++)
{
Console.WriteLine(services[i].depart_time[0].ToShortTimeString());
Console.WriteLine(services[i].depart_time[1].ToShortTimeString());
Console.WriteLine(services[i].depart_time[2].ToShortTimeString());
Console.WriteLine(services[i].depart_time[3].ToShortTimeString());
Console.WriteLine(services[i].depart_time[4].ToShortTimeString());
demStation.Insert(i,
demand_of_this_service(services[i].depart_time, stations, carry_demand, tf_memo));
}
for (var i = 0; i < services.Count; i++)
{
Console.WriteLine("SERVICE : " + services[i].ServiceId);
if (!isDemandEmpty(demStation[i]))
{
showarray(demStation[i]);
}
else
{
Console.WriteLine("-------------THIS DEMAND EMPTY------------ : ");
}
}
var(s, p) = new_index_of_most_utilize_service(demStation, train, services);
Console.WriteLine("S and P index : " + s + " _ " + p);
last_util_percent_memo = p; //set lastest utilize percent
if (p >= PhysicalData.utilize_percent) //util handle
{
TF_Demand outboundDemand = new TF_Demand(demStation[s]).Gen_Outbound_demand();
var(served_demand, served_demand_income) = serve_demand_form_station(outboundDemand, train, services[s], 0);
Console.WriteLine("__ REMAINNING \n");
showarray(outboundDemand.demand[0]);
Console.WriteLine("__ REMAINNING 22222222\n");
Console.WriteLine(services[s].depart_time[0].ToShortTimeString());
update_memo(services[s].depart_time, stations, tf_memo); //set memo
Console.WriteLine(services[s].depart_time[0].ToShortTimeString());
Console.WriteLine("UPDATED_ MEMO " + PrettyPrintArrays(tf_memo));
Console.WriteLine("REMAIN CARRY DEMAND");
carry_demand = outboundDemand.demand[0]; //set carry demand
showarray(carry_demand);
Console.WriteLine("NEXT" + PhysicalData.headway + " MINUTE\n");
var test_depart = services[s].depart_time.Clone() as DateTime[];
int income = calIncome(served_demand_income);
Console.WriteLine("_____________________________________ REMAINNING ___________________________________________________\n");
showarray(served_demand_income);
Service_summary _summary = new Service_summary(services[s].ServiceId, services[s].StopStation, test_depart, served_demand, p, income, served_demand_income);
foreach (var _service in services)
{
_service.add_starttime(PhysicalData.headway);
}
k++;
summaries.Add(_summary);
}
else
{
Console.WriteLine("-------BELOW UTIL PERCENT ------- ");
foreach (var _service in services)
{
_service.add_starttime(PhysicalData.under_util_plus_min);
}
}
}
update_remaining_demand(summaries, stations);
return(summaries, sum_waiting_time);
}
//Cal_remain_seat returns utilization (sum of passenger*distance)
public static float Utilize_service(int[,] demand, Train_obj train, Service service)
{
int[,] actual_getoff = new int[5, 5];
int get_off_next_station = 0;
int i, j, k, next_station_index = 0;
float train_util = 0;
int[,] cal_demand = (int[, ])demand.Clone();
for (i = 0; i < 5; i++)
{
if (service.StopStation[i] == 0)
{
continue;
}
for (int a = 4; a > i; a--)
{
if (service.StopStation[a] == 1)
{
next_station_index = a;
}
}
int demand_at_station = 0;
get_off_next_station = sum_get_off(i);
train.remain_cap += get_off_next_station;
get_off_next_station = 0;
for (k = i + 1; k < 5; k++) // sum of demand at station i
{
if (service.StopStation[k] == 0)
{
continue;
}
demand_at_station += cal_demand[i, k];
}
if (demand_at_station < train.remain_cap)
{
train.remain_cap -= demand_at_station;
for (j = i + 1; j < 5; j++)
{
if (service.StopStation[j] == 0)
{
continue;
}
actual_getoff[i, j] = cal_demand[i, j];
cal_demand[i, j] = 0;
}
}
else
{
double ratio = 1.0 * train.remain_cap / demand_at_station;
demand_at_station = 0;
for (j = i + 1; j < 5; j++)
{
if (service.StopStation[j] == 0)
{
continue;
}
int fill_demand = (int)(cal_demand[i, j] * ratio);
actual_getoff[i, j] = fill_demand;
cal_demand[i, j] -= fill_demand;
demand_at_station += fill_demand;
}
train.remain_cap -= demand_at_station;
int round_up_count = train.remain_cap;
for (j = next_station_index; j < round_up_count + next_station_index; j++)
{
actual_getoff[i, j] += 1;
cal_demand[i, j] -= 1;
demand_at_station++;
train.remain_cap--;
}
}
//Console.WriteLine("CALCULATE UTIL--- Traincap : " + train.cap);
//Console.WriteLine("CALCULATE UTIL--- Remaincap : " + train.remain_cap);
//Console.WriteLine("CALCULATE UTIL--- StationDistance : (METER) " + Station.getDistan_Meter(i, next_station_index));
train_util += (train.cap - train.remain_cap) * Station.getDistan_Meter(i, next_station_index);
Console.WriteLine("Train_util : " + train_util);
}
int sum_get_off(int station)
{
if (station == 0)
{
return(0);
}
int l;
int sum = 0;
for (l = 0; l < station; l++)
{
sum += actual_getoff[l, station];
// Console.WriteLine("in_sum get off At station : " + station + " form station : " + l + " = " + actual_getoff[l, station]);
}
return(sum);
}
return(train_util);
}
static public (int, float) new_index_of_most_utilize_service(List <int[, ]> outbound_demand, Train_obj train, List <Service> services)
{
int counter = 0;
int index_of_max_util = 0;
float util_percent = 0;
for (int i = 0; i < services.Count; i++)
{
if (isDemandEmpty(outbound_demand[i]))
{
continue;
}
Console.WriteLine("----- ROUND " + ++counter + " ----- ");
services[i].show();
showarray(outbound_demand[i]);
float service_util = Utilize_service(outbound_demand[i], train, services[i]);
float max_util = max_utilize_of_service(train.cap, services[i]);
float new_util_percent = service_util / max_util * 100;
Console.WriteLine("This service utilize : " + service_util);
Console.WriteLine("MAX service utilize : " + max_util);
Console.WriteLine("Percent service utilize : " + new_util_percent);
if (Math.Abs(100 - new_util_percent) <= float.Epsilon)
{//float compare
Console.WriteLine("FLOAT CHECK EQUAL 100");
return(i, 100);
}
if (new_util_percent > util_percent)
{
util_percent = new_util_percent;
index_of_max_util = i;
}
}
return(index_of_max_util, util_percent);
}