# Fundamentals of Semiconductors - Best Starter to Electronics

The best way to start your electronics adventure is now available. This course covers everything you need for starter.

Updated on Dec, 2023

Language - English

Lectures -68

Resources -3

Duration -11.5 hours

30-days Money-Back Guarantee

Training 5 or more people ?

## Course Description

Our fundamentals of semiconductors course is designed for those who would like to move on with electronics. It starts from scratch and takes you to top level. So you do not have to worry about your level. All you need is basic Math Knowledge. You can find the curriculum of the course below ;

A. First Part of the Course (Introductory but suggested)

1-) Intro

2-) Particle and Wave Duality

• Electromagnetic Waves
• De Broglie Waves
• Waves of Probability
• Describing a Wave
• Phase and Group Velocities
• Particle in a box
• Uncertainty Principle
• Applying the Uncertainty Principle

3-) Atomic Structure

• Intro
• The Nuclear Atom
• Electron Orbits
• Atomic Spectra
• The Bohr Atom
• Energy Levels and Spectra
• Nuclear Motion
• Atomic Excitation

4-) Quantum Mechanics

• Quantum Mechanics
• The Wave Equation
• Schrödinger's Equation: Time Dependent Form
• Linearity and Superposition
• Expectation Values
• Operators
• Schrödinger's Equation: Steady- State Form
• Particle in a Box (Yes, again)
• Finite Potential Well
• Tunnel Effect
• Harmonic Oscillator

B. Second Part of the Course

5-) Crystal Properties and General Info of Semiconductors

• Semiconductors
• Periodic Structures
• Cubic Lattices
• Planes and Directions
• Diamond Lattices

6-) Energy Bands and Charge Carriers in Semiconductors

• Bonding Forces in Semiconductors
• Energy Bands
• Metals, Semiconductors and Insulators
• Direct and Indirect Semiconductors
• Variation of Energy Bands with Alloy Composition
• Electrons and Holes
• Effective Mass
• Intrinsic Material
• Extrinsic Material
• The Fermi Level
• Electron and Hole Concentrations at Equilibrium
• Temperature dependence of Carrier Concentrations
• Compensation and Space Charge Neutrality
• Conductivity and Mobility
• Drift and Resistance
• Effects of Temperature and Doping on Mobility
• High-Field Effects
• The Hall Effect
• Invariance of the Fermi Level at Equilibrium

7-) Excess Carriers in Semiconductors

• Optical Absorption
• Luminescence
• Photoluminescence
• Electroluminescence
• Direct Recombination of Electrons and Holes
• Indirect Recombination; Trapping
• Steady State Carrier Generation ; Quasi- Fermi Levels
• Photoconductive Devices
• Diffusion of Carriers
• Diffusion Processes
• Diffusion and Drift of Carriers; Built in Fields

8-) Junctions

• Fabrication of P-N Junctions
• Equilibrium Conditions
• The Contact Potential
• Equilibrium Fermi Levels
• Space Charge at a Junction
• Forward and Reverse Biased Junctions
• Reverse Bias Breakdown

### Goals

What will you learn in this course:

• Describe the particle properties of waves and wave properties of particles. (Wave-Particle Duality)
• Will gain an understanding of the Photoelectric Effect, uncertainty principle and Bohr's Atom Model.
• Will learn about intrinsic and extrinsic semiconductors together with doping, mobility and resistivity concepts.
• Will analyze P-N junctions and understand their I-V characteristics.
• Will gain knowledge about the unipolar and bipolar transistors.

### Prerequisites

What are the prerequisites for this course?

• Basic Math
• Basic Circuit Knowledge
• Basic Differential Equations Knowledge ( Optional )

## Curriculum

Check out the detailed breakdown of what’s inside the course

1 - Introduction to Topics
18 Lectures
• Introduction 06:39 06:39
• 2 - Particle and Wave Duality 02:51 02:51
• 2.2 Electromagnetic Waves 13:06 13:06
• 2.3 Blackbody Radiation 20:04 20:04
• Example 1 : Blackbody Radiation 02:53 02:53
• 2.4 Photoelectric Effect 14:02 14:02
• 2.5 De Broglie Waves 06:01 06:01
• Example 2 : De Broglie Waves 03:53 03:53
• 2.6 Waves of Probability 05:42 05:42
• 2.7 Describing a Wave 15:03 15:03
• 2.8 Phase and Group Velocities 11:33 11:33
• 2.9 Particle in a Box 09:13 09:13
• Example : Particle in a Box 04:07 04:07
• Example : Particle in a Box -2 02:25 02:25
• 2.10 Uncertainty Principle 13:22 13:22
• Example 4 : Uncertainty Principle 04:27 04:27
• 2.10.1 Uncertainty Principle II 06:08 06:08
• 2.10.2 Applying Uncertainty Principle 10:46 10:46
3 - Atomic Structure
11 Lectures
5 - Semiconductors and Structure
5 Lectures
Energy Bands and Charge Carriers in Semiconductors
17 Lectures
Excess Carriers in Semiconductors
11 Lectures
Junctions
3 Lectures
Problem Solving Sessions
3 Lectures

## Instructor Details

Afterclap Academy aims to provide education for all the students around the world for an affordable fee. We believe that every student deserves to get a decent education without being over-charged. Our notice that education in the world getting worse and worse, makes us consider to create innovator, student-friendly, well-planned and affordable courses. In a world that is run by unbeliavebly sick people, we must show a great respect to every stakeholder in education including administrators, teachers, staff members, students, parents, families, community members and so on. Therefore, we are here to show respect that must be shown, we are here to consecrate ourselves to education. Enjoy your time here.

Sincerely,

AFTERCLAP

## Course Certificate

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