This document provides an overview and usage guide for the three main modules: "Rings Resistance Calculations," "External Impedance Calculations," and "Module for calculating circuit count."

The "Rings Resistance Calculations" module calculates resistance values based on a given input. It employs predefined multipliers to determine the resistance for different scenarios, producing output values rounded to the desired precision.

1. Input Resistance Value: Provide the resistance value (referred to as r1).

2. Review Calculated Outputs: The module will automatically generate the following outputs:

   • R2 Multiplier 1: The calculated resistance using the first multiplier.
   • R2 Multiplier 2: The calculated resistance using the second multiplier.
   • R Sum 1: The summation of r1 and the result from R2 Multiplier 1, divided by a specific factor.
   • R Sum 2: The summation of r1 and the result from R2 Multiplier 2, divided by the same factor.

3. Outputs: The results are displayed in real-time as you modify the input resistance value.

The "External Impedance Calculations" module focuses on determining the impedance in kilo amperes based on provided voltage and impedance values. If only one value is provided, the module assumes default values for missing inputs to produce results.

1. Provide Inputs:
   • Voltage: Enter the voltage value. If not provided, a default value will be assumed.
   • Zdb (Impedance Value): Provide the impedance value.
2. Review the Calculated Outputs: The module will automatically compute the following:
   • One Phase: Impedance in amperes for a single phase.
   • Three Phase: Impedance in amperes for three phases.
   • Single Phase IPF: Impedance in kilo amperes for a single phase.
   • Three Phase IPF: Impedance in kilo amperes for three phases.
3. Understanding the Conversions: The module will convert impedance values to kilo amperes, displaying results with high precision or low precision based on the impedance input.

The module is designed to help distribute circuit work among engineers. You input the number of engineers and the number of circuits (either single phase or three phase). The module then calculates how the circuits should be distributed among the engineers.

1. Provide Inputs:
   • Number of Engineers: Enter the number of engineers available for the circuit distribution.
   • Number of Single-Phase Circuits (SP): Provide the number of single-phase circuits that need to be distributed.
   • Number of Three-Phase Circuits (TP): Provide the number of three-phase circuits that need to be distributed.
2. Review the Calculated Outputs:
   • One Engineer (Single Phase): This section shows the number of single-phase circuits that one particular engineer will handle, including any excess if the total circuits are not evenly divisible by the number of engineers.
   • Other Engineers (Single Phase): This section shows the number of single-phase circuits that the remaining engineers will handle.
   • One Engineer (Three Phase): This section shows the number of three-phase circuits that one particular engineer will handle, including any excess.
   • Other Engineers (Three Phase): This section shows the number of three-phase circuits that the remaining engineers will handle.
3. Understanding the Distribution: The module divides the circuits equally among the engineers, with one engineer handling any excess circuits if they cannot be evenly divided.