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main_page.py
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main_page.py
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import numpy as np
import sys
# import data.resources as capacities
import utils.utils as utils
import utils.plots as plots
# from utils import *
from model.environment import EnergyEnvironment
from model.agent import Agent
from model.house import House
import matplotlib.pyplot as plt
def main_function(location, num_of_panels, num_of_turbines, num_of_batteries):
# Get arguments
if len(sys.argv) > 1:
episodes_num = int(sys.argv[1])
else:
episodes_num = 2000
# House dependent parameters
# location = 'California'
# num_of_panels = 30 # Number of 250-watts solar panels
# num_of_turbines = 2 # Number of 400 KW wind turbines
# num_of_batteries = 2
house = House(location, num_of_panels, num_of_turbines, num_of_batteries)
# Main dependent parameters
num_of_months = 12
num_of_days = 30 # number of days per episode
num_time_states = 4
epsilon = 0.5
alpha = 0.8
# Initiate Agent
agent = Agent()
Q = agent.initialize_Q()
avg_Q_old = np.mean(Q)
# For printing and plots
print_iteration = 50
# ARMAN: What is a print_flag?
print_flag = False
# ARMAN: Needs comments
rList = []
solarList = []
windList = []
ffList = []
battstorageList = []
battusedList = []
energyList = []
solarSubList = []
windSubList = []
ffSubList = []
battstorageSubList = []
battusedSubList = []
final_itr = []
final_list = []
final_solar = []
solar_dict = {0: [], 1: [], 2: [], 3: []}
final_wind = []
wind_dict = {0: [], 1: [], 2: [], 3: []}
final_ff = []
ff_dict = {0: [], 1: [], 2: [], 3: []}
final_battery = []
battery_dict = {0: [], 1: [], 2: [], 3: []}
## for realtime plotting
# fig, ax = plt.subplots()
# ax.set_ylabel("Energy (kWh)")
# ax.set_title("Evolution of Energy Use")
for itr in range(episodes_num):
if itr%print_iteration == 0:
print_flag = True
# The house stays constant for every episode
env = EnergyEnvironment(house)
cur_state = env.state
total_reward = 0
solar_avg = 0
wind_avg = 0
ff_avg = 0
batt_storage_avg = 0
batt_used_avg = 0
# for month in range(num_of_months):
# env.state[env.month_index] = month
for day in range(num_of_days):
total_solar_energy = 0
total_wind_energy = 0
total_grid_energy = 0
total_battery_used = 0
for i in range(num_time_states):
action, cur_state_index, action_index = agent.get_action(cur_state, Q, epsilon)
reward, next_state = env.step(action, cur_state)
Q = agent.get_Q(action, cur_state, Q, epsilon, cur_state_index, action_index, reward, alpha)
cur_state = next_state
total_reward += reward
# calculate total
total_solar_energy += env.solar_energy
total_wind_energy += env.wind_energy
total_grid_energy += env.grid_energy
total_battery_used += env.battery_used
if itr == (episodes_num - 1):
solar_dict[i].append(env.solar_energy)
wind_dict[i].append(env.wind_energy)
ff_dict[i].append(env.grid_energy)
battery_dict[i].append(env.battery_used)
# store how much is stored in the battery at the end of each day
total_battery_stored = env.battery_energy
# save total daily energy produced from different sources
solarSubList.append(total_solar_energy)
windSubList.append(total_wind_energy)
ffSubList.append(total_grid_energy)
battstorageSubList.append(total_battery_stored)
battusedSubList.append(total_battery_used)
solar_avg = np.mean(solarSubList)
wind_avg = np.mean(windSubList)
ff_avg = np.mean(ffSubList)
batt_storage_avg = np.mean(battstorageSubList)
batt_used_avg = np.mean(battusedSubList)
if print_flag:
avg_Q_new = np.mean(Q)
avg_Q_change = abs(avg_Q_new-avg_Q_old)
utils.print_info(itr, env, solar_avg, wind_avg, ff_avg, batt_storage_avg, batt_used_avg, avg_Q_change)
avg_Q_old = avg_Q_new
solarList.append(solar_avg)
windList.append(wind_avg)
ffList.append(ff_avg)
battstorageList.append(batt_storage_avg)
battusedList.append(np.mean(batt_used_avg))
# plt.ion()
# plots.real_time_plot([[solar_avg], [wind_avg], [ff_avg],
# [batt_storage_avg], [batt_used_avg]],
# colors=['b', 'g', 'r', 'purple', 'gray'],
# legends=["Solar Energy", "Wind Energy", "Fossil Fuel Energy", "Battery Storage",
# "Battery Usage"], ax=ax)
solarSubList = []
windSubList = []
ffSubList = []
battstorageSubList = []
battusedSubList = []
print_flag = False
#total reward per episode appended for learning curve visualization
rList.append(total_reward)
#decrease exploration factor by a little bit every episode
epsilon = max(0, epsilon-0.0005)
alpha = max(0, alpha-0.0005)
# plt.close()
print("Score over time: " + str(sum(rList) / episodes_num))
print("Q-values:", Q)
plots.plot_learning_curve(rList)
for i in range(num_time_states):
final_solar.append(np.mean(solar_dict[i]))
final_wind.append(np.mean(wind_dict[i]))
final_ff.append(np.mean(ff_dict[i]))
final_battery.append(np.mean(battery_dict[i]))
energyList.append(solarList)
energyList.append(windList)
energyList.append(ffList)
# energyList.append(battstorageList)
energyList.append(battusedList)
final_itr.append(final_solar)
final_itr.append(final_wind)
final_itr.append(final_ff)
final_itr.append(final_battery)
# plots.multiBarPlot_final(list(range(4)), final_itr, colors=['b', 'g', 'r', 'purple', 'gray'], ylabel="Energy (kWh)",
# title="Final Iteration of Energy Use", legends=["Solar Energy", "Wind Energy", "Fossil Fuel Energy", "Battery Storage", "Battery Usage"])
#
# plots.multiBarPlot(list(range(len(solarList))), energyList, colors=['b', 'g', 'r', 'purple', 'gray'], ylabel="Energy (kWh)",
# title="Evolution of Energy Use", legends=["Solar Energy", "Wind Energy", "Fossil Fuel Energy", "Battery Storage", "Battery Usage"])
return list(range(len(solarList))), energyList, list(range(len(final_solar))), final_itr, list(range(len(rList))), rList
if __name__ == "__main__":
x_list, y_list, x_list_final, y_list_final, x_list_learning_curve, y_list_learning_curve = main_function('California', 25, 3, 2)
y_1 = y_list[0]
y_2 = y_list[1]
y_3 = y_list[2]
y_4 = y_list[3]
y_1_final = y_list_final[0]
y_2_final = y_list_final[1]
y_3_final = y_list_final[2]
y_4_final = y_list_final[3]
# print(x_list)
# print()
# print(y_1)
# print(y_2)
# print(y_3)
# print(y_4)
# print()
# print(y_1_final)
# print(y_2_final)
# print(y_3_final)
# print(y_4_final)
# print()
# print(x_list_learning_curve)
# print(y_list_learning_curve)
# print(x_list_final)