Electrostatics: Introduction To Advanced

A Comprehensive Journey from Coulomb’s Law to Advanced Electrostatic Systems

What you'll learn

Understand the fundamental principles of electrostatics, including Coulomb's Law, electric field, and electric potential

Apply mathematical techniques to solve problems involving point charges, continuous charge distributions, and Gauss’s Law

Analyze complex electrostatic systems to determine field configurations, potential maps, and energy distributions.

Evaluate electrostatic configurations for practical applications such as capacitors, shielding, and electrostatic precipitators

Requirements

Prerequisites: Basic Physics Knowledge Learners should be familiar with fundamental concepts from introductory physics, particularly Newtonian mechanics and basic properties of matter. Mathematical Foundations Understanding of algebra, basic calculus (derivatives and integrals), and vector operations is essential for solving electrostatic problems. Problem-Solving Skills Prior experience in approaching scientific or technical problems methodically will be helpful in applying theoretical concepts.

Description

Course Description"Electrostatics: Introduction to Advanced" is a carefully structured course designed to guide learners from the essential principles of electrostatics to more sophisticated and practical applications in physics and engineering. Whether you're building your foundation or advancing your expertise, this course offers a clear and engaging path through the fascinating world of static electric charges.You’ll begin by mastering the basics—Coulomb’s Law, electric fields, and electric potential—and gradually move into advanced topics such as Gauss’s Law, conductors in electrostatic equilibrium, capacitors, and energy in electrostatic systems. Real-world examples and problem-solving sessions are integrated throughout to reinforce understanding and demonstrate how theory translates into practice.What sets this course apart is its balance of conceptual clarity and mathematical rigor. You’ll learn how to model and analyze physical situations, interpret electric field maps, and solve complex configurations involving continuous charge distributions.This course is ideal for:Undergraduate students in physics, engineering, or related disciplinesAdvanced high school students aiming to get aheadEducators and tutors seeking to strengthen their teaching toolkitCurious learners with a passion for exploring the laws that govern electric interactionsPrerequisites are minimal—a basic understanding of algebra, calculus, and introductory physics is all that’s needed. By the end of this course, you'll not only understand how static electricity works but also gain the analytical tools to solve real electrostatic problems confidently.Embark on this journey to uncover the invisible forces shaping our world—one electric field at a time.

Overview

Section 1: Introduction

Lecture 1 Introduction overview of course

Lecture 2 Course details

Section 2: Introduction to electrostatics

Lecture 3 Introductions

Lecture 4 Material

Lecture 5 Electric field, electric field intensity, Electric potential and electric flux

Lecture 6 Material

Lecture 7 Coulomb’s law

Lecture 8 Notes

Lecture 9 Coulomb's law applications notes

Lecture 10 Coulomb's law applications and role of AI

Section 3: Gauss law electrostatics

Lecture 11 Gauss law definition

Lecture 12 Material

Lecture 13 Gauss law of electrostatics

Lecture 14 Derivation of differential and integral form of Maxwell's equation

Lecture 15 Maxwell's first equation

Lecture 16 Flipped class

Section 4: Advanced topics connected with electostatics

Lecture 17 Introduction

Lecture 18 Magnetostatics

Lecture 19 Material

Lecture 20 Differential form of Gauss law

Lecture 21 Faraday laws

Lecture 22 Static Maxwell's equation: Gauss law

Lecture 23 Static Maxwell's equation: Gauss law in magnetostatics

Lecture 24 Dynamic Maxwell's equation Faraday law

Lecture 25 Dynamic Maxwell's equation: Ampere's law

Lecture 26 Physical significance of Static and dynamic Maxwell's equations

Lecture 27 Electromagnetic wave

Section 5: Advanced applications of electrostatics

Lecture 28 Advanced applications of electrostatics

Lecture 29 Electrostatics Applications with AI: A Detailed Overview

Lecture 30 Advanced Applications and Future Approaches in Electrostatics

Lecture 31 Case Studies: Electrostatics and AI in Action

Lecture 32 Industry-Specific Roadmaps for Electrostatics + AI Integration

This course is designed for students, educators, and professionals who are looking to deepen their understanding of electrostatics, whether for academic, teaching, or practical application purposes. It is particularly valuable for: Undergraduate students in physics, electrical engineering, or related fields who want to strengthen their grasp of electrostatic principles for exams or future coursework. Advanced high school students preparing for college-level physics or STEM competitions and interested in exploring topics beyond their curriculum. STEM educators and tutors seeking a structured refresher or new insights to enhance their teaching of electrostatics. Lifelong learners and enthusiasts with a foundational knowledge of physics and math who want to explore the theoretical and practical applications of electric forces and fields. No prior coursework in electromagnetism is required—just a curiosity for how charges interact and a basic understanding of physics and calculus.