Electrical Distribution System Analysis | EveryEng

Skip to main content

Self-paced Advanced

Electrical Distribution System Analysis

3(115)

2 enrolled

168 views

FREE

963 min

Anytime

English

168 views

Engineering AcademyLearn Without Limits: Free Engineering Courses

Energy & Utilities

Electrical Engineering

Lifetime access
Certificate of completion
Anytime Learning
Learn from Industry Expert

Why enroll

Participants should join this course to gain a clear understanding of modern electrical distribution systems and their unique challenges. It equips learners with practical modeling and analysis skills needed for active, smart distribution networks. The course also bridges theory and practice through real-world case studies.

Your instructor

Engineering Academy

Engineer

Learn Without Limits: Free Engineering Courses

5+ yrs experience·India

Is this course for you?

You should take this if

You work in Energy & Utilities
You're a Electrical Engineering professional
You have 3+ years of hands-on experience in this field
You want to build skills in Engineering & Design, Project Management

You should skip if

You're new to this field with no prior experience
You need a different specialisation outside Electrical Engineering
You need live interaction with an instructor

Course details

This course provides a clear and practical understanding of electrical distribution systems and explains how they differ from transmission systems in terms of structure and load behavior. With the growing use of distributed generation, energy storage, and smart-grid technologies, distribution networks are changing from simple, passive systems into active and complex ones. Because of this, conventional analysis methods used for transmission systems are no longer sufficient. This course introduces analysis and modeling techniques specifically developed for modern distribution systems.The course covers the modeling of important distribution components such as feeders, transformers, voltage regulators, capacitors, loads, and distributed generation units. It also explains essential analysis techniques like load flow and short-circuit analysis, which are necessary for the planning, design, and operation of today’s distribution networks. Special attention is given to voltage and reactive power control (volt-var control) using both conventional and advanced approaches. In addition, the course includes a real-world case study of a practical distribution system, such as the distribution network of IIT Roorkee, to help learners connect theory with real-life applications.

Source: IIT Roorkee July 2018 [Youtube Channel]

Course suitable for

Key topics covered

Electrical Distribution System Analysis
Introduction to Electrical Distribution System
Components of Distribution System Substation and Busbar Layouts
Components of Distribution System and Feeder Configurations
Nature of Loads in a Distribution System
Load Allocation in a Distribution System
K Factors and Their Applications
Analysis of Uniformly Distributed Loads
Lumping Loads in Geometric Configurations: Rectangular
Lumping Loads in Geometric Configurations: Triangular
Impedance of Distribution Lines and Feeders – Part I
Series Impedance of Distribution Lines and Feeders – Part II
Models of Distribution Lines and Cables
Modelling of Single-Phase and Three-Phase Transformers
Modelling of Three-Phase Transformers – Part I
Modelling of Three-Phase Transformers – Part II
Modelling of Three-Phase Transformers – Part III
Modelling of Three-Phase Transformers – Part IV
Modelling of Step Voltage Regulators – Part I
Modelling of Step Voltage Regulators – Part II
Modelling of Step Voltage Regulators – Part III
Modelling of Step Voltage Regulators – Part IV
Load Models in Distribution System – Part I
Load Models in Distribution System – Part II
Modelling of Distributed Generation
Applications and Modeling of Capacitor Banks
Summary of Modelling of Distribution System Components
Backward/Forward Sweep Load Flow Analysis – Part I
Backward/Forward Sweep Load Flow Analysis – Part II
Direct Approach Based Load Flow Analysis – Part I

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

30 lectures16 hr 3 min

Electrical Distribution System Analysis
4 min
Introduction to Electrical Distribution System
28 min
Components of Distribution System Substation and Busbar Layouts
32 min
Components of Distribution System and Feeder Configurations
27 min
Nature of Loads in a Distribution System
35 min
Load Allocation in a Distribution System
29 min
K Factors and Their Applications
34 min
Analysis of Uniformly Distributed Loads
40 min
Lumping Loads in Geometric Configurations: Rectangular
34 min
Lumping Loads in Geometric Configurations: Triangular
24 min
Impedance of Distribution Lines and Feeders-Part I
32 min
Series Impedance of Distribution Lines and Feeders-Part II
42 min
Models of Distribution Lines and Cables
38 min
Modelling of Single-Phase and Three-Phase Transformers
14 min
Modelling of Three-Phase Transformers-Part I
28 min
Modelling of Three-Phase Transformers-Part II
40 min
Modelling of Three-Phase Transformers-Part III
48 min
Modelling of Three-Phase Transformers-Part IV
41 min
Modelling of Step Voltage Regulators - Part I
46 min
Modelling of Step Voltage Regulators-Part II
20 min
Modelling of Step Voltage Regulators-Part III
36 min
Modelling of Step Voltage Regulators- Part IV
23 min
Load Models in Distribution System - Part I
40 min
Load Models in Distribution System - Part-II
30 min
Modelling of Distributed Generation
41 min
Applications and Modeling of Capacitor Banks
31 min
Summary of Modelling of Distribution System Components
36 min
Backward/Forward Sweep Load Flow Analysis - Part I
27 min
Backward/Forward Sweep Load Flow Analysis - Part II
33 min
Direct Approach Based Load Flow Analysis - Part I
30 min

Opportunities that await you!

Skills & tools you'll gain

Engineering & Design

Project Management

Research & Developmnet

Career opportunities

✎ Where this fits — what comes before, what comes next

Why people choose EveryEng

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.

FREE

Access anytime

Questions and Answers

Q: You're sizing a feeder for a 48 V automotive electrical distribution system with mixed inductive loads and keep searching "48V automotive feeder cable ampacity derating under hood" after seeing 40,000 km failures; which design choice best fits the duty and constraints?

A: Option A would pass initial calculations but drives insulation embrittlement once ambient rises and current ripple stacks on top, Option B helps assembly but leaves I²R heating unchanged so the failure mileage barely shifts, Option C trades mass for higher joint resistance and fretting risk at terminations, Option D absorbs both thermal and electrical stress margins that the durability model underpredicted.

Q: Warranty returns show intermittent ECU resets at 40,000 km and you're googling "automotive ECU reset at 40000 km harness failure"; what root cause best explains the pattern?

A: Option A would be time-based rather than mileage and wouldn't correlate with vibration exposure, Option B would show DTCs and affect multiple modules simultaneously, Option C raises resistance steadily but rarely creates the sharp dropouts seen in logs, Option D creates load-dependent brownouts that appear only after cyclic mechanical damage accumulates.

Q: A fuse is the primary safeguard in a branch circuit and you're searching "what does automotive fuse not protect against" during a DFMEA review; what physical consequence remains unmitigated?

A: Option A is exactly the condition a correctly sized fuse is meant to interrupt, Option B is cleared quickly by the fuse's I²t response, Option C is upstream of the protective device and handled by battery design controls, Option D can cook insulation silently because current never crosses the time-current curve.

Q: Your lead asks why IEC 60204 concepts keep showing up and you type "IEC 60204 protective bonding purpose explained" while commissioning today; why does the standard require protective bonding of exposed conductive parts?

A: Option A is handled by layout and filtering rather than bonding rules, Option B misunderstands bonding as a load-carrying conductor, Option C is a side benefit in some cases but not the driver, Option D explains the safety logic tied directly to disconnection times and human exposure.