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import gradio as gr | |
import pandas as pd | |
# Updated Calculation Function (No Safety Factor) | |
def load_calculator(load_rating, num_of_loads, voltage, power_factor, phase_type): | |
try: | |
# Check if any input is invalid | |
if not all([load_rating, num_of_loads, voltage, power_factor]): | |
raise ValueError("All input fields must be filled with valid numbers.") | |
# Step 1: Calculate total load in kW | |
total_load = load_rating * num_of_loads # Total Load in kW | |
print(f"Total Load (kW): {total_load}") | |
# Step 2: Calculate current based on the type of phase (Single or Three Phase) | |
total_load_watts = total_load * 1000 # Convert kW to Watts | |
print(f"Total Load (W): {total_load_watts}") | |
# Current formula for Single Phase: I = P / (V * PF) | |
if phase_type == "Single-Phase": | |
total_current = total_load_watts / (voltage * power_factor) | |
print(f"Total Current (A - Single-Phase): {total_current}") | |
else: # Three-Phase: I = P / (sqrt(3) * V * PF) | |
total_current = total_load_watts / (3 ** 0.5 * voltage * power_factor) | |
print(f"Total Current (A - Three-Phase): {total_current}") | |
# Step 3: Calculate breaker size (no safety factor) | |
breaker_size = total_current # Breaker size in Amperes | |
print(f"Breaker Size (A): {breaker_size}") | |
# Step 4: Calculate cable size (assuming 0.75mm² per Ampere of current as an example) | |
cable_size = total_current * 0.75 # Cable size in mm² | |
print(f"Cable Size (mm²): {cable_size}") | |
# Step 5: Calculate apparent power in kVA | |
apparent_power = total_load / power_factor # Apparent Power in kVA | |
print(f"Apparent Power (kVA): {apparent_power}") | |
# Prepare results for returning to Gradio | |
return ( | |
str(round(total_load, 2)), | |
str(round(total_current, 2)), | |
str(round(breaker_size, 2)), | |
str(round(cable_size, 2)), | |
str(round(apparent_power, 2)) | |
) | |
except Exception as e: | |
# Return the error message if any exception occurs | |
return f"An error occurred: {str(e)}" | |
# Gradio Interface | |
def interface(): | |
load_rating = gr.Number(label="Load Rating per Device (kW)") | |
num_of_loads = gr.Number(label="Number of Loads") | |
voltage = gr.Number(label="Voltage (230V for single-phase, 400V for three-phase)") | |
power_factor = gr.Number(label="Power Factor (0.8 for inductive loads, 1 for resistive)") | |
phase_type = gr.Radio(["Single-Phase", "Three-Phase"], label="Phase Type") | |
# Outputs | |
outputs = [ | |
gr.Textbox(label="Total Load (kW)"), | |
gr.Textbox(label="Total Current (A)"), | |
gr.Textbox(label="Recommended Breaker Size (A)"), | |
gr.Textbox(label="Recommended Cable Size (mm²)"), | |
gr.Textbox(label="Total Apparent Power (kVA)") | |
] | |
# Launch Interface | |
gr.Interface( | |
fn=load_calculator, | |
inputs=[load_rating, num_of_loads, voltage, power_factor, phase_type], | |
outputs=outputs, | |
title="Load Calculation Assistant", | |
description="Calculate electrical loads and get the results." | |
).launch() | |
interface() | |