import pandas as pd import json import os import argparse from tqdm import tqdm def describe_cooling_setpoint(value, timestamp): """Describes the cooling setpoint status based on value and timestamp.""" month = timestamp.month if month <= 6 or month == 12: if 79 < value < 90: return "It is not Summer now. A cooling setpoint is active at high level." elif 60 < value < 79: return "It is not Summer now. A cooling setpoint is active at low level." else: if 75 < value < 90: return "It is Summer now. A cooling setpoint is active at high level." elif 60 < value < 75: return "It is Summer now. A cooling setpoint is active at low level." return "Cooling setpoint is outside the defined operational ranges." def describe_heating_setpoint(value, timestamp): """Describes the heating setpoint status based on value and timestamp.""" month = timestamp.month if month <= 6 or month == 12: if 71 < value < 90: return "It is not Summer now. A heating setpoint is active at high level." elif 60 < value < 71: return "It is not Summer now. A heating setpoint is active at low level." else: if 67 < value < 90: return "It is Summer now. A heating setpoint is active at high level." elif 60 < value < 67: return "It is Summer now. A heating setpoint is active at low level." return "Heating setpoint is outside the defined operational ranges." def describe_damper_position(value): """Describes the actual damper position.""" abs_value = abs(value) if abs_value <= 30: return "The damper is currently almost closed, restricting most of the airflow." elif 30 < abs_value <= 60: return "The damper is slightly open, providing minimum ventilation." elif 60 < abs_value <= 90: return "The damper is moderately open to meet normal demands." elif 90 < abs_value: return "The damper is wide open to deliver maximum airflow." return "Damper position is in an unhandled state." def describe_reheat_valve_command(value): """Describes the reheat valve command.""" if value < 0 or value > 100: return "Invalid data: The reheat valve command is outside the valid 0-100% range." elif 0 <= value <= 33: return "The reheat system is active with a gentle heating command." elif 33 < value <= 66: return "The reheat system is operating with a significant heating command." else: return "The reheat system is operating at full capacity." def describe_damper_command(value): """Describes the damper command.""" if value > 5 or value < -5: return "Invalid data: The damper command signal is outside its expected operational range." elif value <= 0: return "The system is commanding the damper to close or reduce its opening." elif 0 < value <= 1: return "The system is commanding the damper to a low open position." elif 1 < value <= 2: return "The system is commanding the damper to a moderate open position." else: return "The system is commanding the damper to a high open position." def describe_sup_flow_sp(value): """Describes the supply airflow setpoint.""" if value < 0 or value > 2000: return "Invalid data: The target supply airflow is outside the physically expected range." elif 0 <= value <= 400: return "The target supply airflow is set to a low level." elif 400 < value <= 800: return "The target supply airflow is set to a medium level." else: return "The target supply airflow is set to a high level." def describe_cooling_command(value): """Describes the cooling command.""" if value < 0 or value > 100: return "Invalid data: The cooling command is outside the valid 0-100% range." elif value < 25: return "The cooling demand is very low." elif 25 <= value <= 50: return "The cooling demand is at low level." elif 50 < value <= 75: return "The cooling demand is at medium level." else: return "The cooling demand is high." def describe_heating_command(value): """Describes the heating command.""" if value < 0 or value > 100: return "Invalid data: The heating command is outside the valid 0-100% range." elif value < 25: return "The heating demand is very low." elif 25 <= value <= 50: return "The heating demand is at low level." elif 50 < value <= 75: return "The heating demand is at medium level." else: return "The heating demand is high." def describe_occupied_status(value): """Describes the occupied status.""" if value == 1: return "The system is in 'Unoccupied' mode." elif value == 3: return "The system is in 'Occupied' mode." else: return "Invalid data: The occupied command is not a recognized mode." def main(args): """Main function to load data, generate consolidated descriptions for each room, and save them as separate JSON files.""" print("Loading data...") try: df = pd.read_csv(args.input_file, parse_dates=['Timestamp']) except FileNotFoundError: print(f"Error: Input file not found at '{args.input_file}'") return except KeyError: print("Error: 'Timestamp' column not found in the input file. Please check the column name.") return # Create the output directory os.makedirs(args.output_dir, exist_ok=True) print(f"Output directory '{args.output_dir}' is ready.") # Get all unique room numbers unique_rooms = df['Room'].unique() print(f"Found {len(unique_rooms)} unique rooms to process.") # Loop through each room for room_num in tqdm(unique_rooms, desc="Processing all rooms"): room_df = df[df['Room'] == room_num].copy() if room_df.empty: continue room_descriptions = {} for index, row in room_df.iterrows(): timestamp = row['Timestamp'] # Change the timestamp format for the JSON key timestamp_key = timestamp.strftime('%Y%m%d%H%M') # Generate and combine descriptions desc_cool_sp = describe_cooling_setpoint(row['Actual Cooling Setpt'], timestamp) desc_cool_cmd = describe_cooling_command(row['Cooling Command']) desc_heat_sp = describe_heating_setpoint(row['Actual Heating Setpt'], timestamp) desc_heat_cmd = describe_heating_command(row['Heating Command']) desc_sup_flow_sp = describe_sup_flow_sp(row['Actual Sup Flow SP']) desc_damp_cmd = describe_damper_command(row['Damper Command']) desc_damp_pos = describe_damper_position(row['Actual Damper Position']) current_descriptions = { "Occupied_Status_Description": describe_occupied_status(row['Occupied Status']), "cooling_command": desc_cool_cmd, "cooling_setpoint": desc_cool_sp, "heating_command": desc_heat_cmd, "heating_setpoint": desc_heat_sp, "supply_air_flow_setpoint": desc_sup_flow_sp, "damper_command": desc_damp_cmd, "damper_position": desc_damp_pos, } room_descriptions[timestamp_key] = current_descriptions # Save the JSON file at the end of each room's loop output_filename = f"{room_num}.json" output_path = os.path.join(args.output_dir, output_filename) with open(output_path, 'w', encoding='utf-8') as f: json.dump(room_descriptions, f, indent=4, ensure_ascii=False) print(f"\nProcessing complete. All JSON files have been saved to '{args.output_dir}'.") if __name__ == '__main__': parser = argparse.ArgumentParser(description='Generate consolidated textual descriptions for all HVAC rooms and save to separate JSON files.') parser.add_argument('--input_file', type=str, default='./Bear.csv', help='Path to the input CSV file containing HVAC data.') parser.add_argument('--output_dir', type=str, default='Temperature_Control_Descriptions', help='Path to the directory where output JSON files will be saved.') args = parser.parse_args() main(args)