Канал: Dr. Chrysler's Engineering Education Channel

Series RLC Derivation

Series RLC Derivation

LTSPICE Tutorial: Voltage Controlled Switch, Pulsed Voltage Source, RC Charge & Discharge

LTSPICE Tutorial: Voltage Controlled Switch, Pulsed Voltage Source, RC Charge & Discharge

Breaking a Vector into Tangent and Normal Components

Breaking a Vector into Tangent and Normal Components

Dealing with Surface Normal Vectors in Undergraduate Electromagnetics

Dealing with Surface Normal Vectors in Undergraduate Electromagnetics

Finding Normal and Tangent Unit Vector from Normal and Tangent Lines

Finding Normal and Tangent Unit Vector from Normal and Tangent Lines

Finding a Normal Line to a Function at a Point (When a Tangent Line is Already Known)

Finding a Normal Line to a Function at a Point (When a Tangent Line is Already Known)

Finding a Tangent Line to a Function at a Point

Finding a Tangent Line to a Function at a Point

Derivation of Inductor Impedance

Derivation of Inductor Impedance

Example - Converting Complex Numbers from Polar to Rectangular

Example - Converting Complex Numbers from Polar to Rectangular

Example - Converting Complex Numbers from Rectangular to Polar

Example - Converting Complex Numbers from Rectangular to Polar

Review of Complex Numbers

Review of Complex Numbers

Example - Functional "Standard" Wave Form Equation

Example - Functional "Standard" Wave Form Equation

Introduction to AC Analysis

Introduction to AC Analysis

Phasor Diagram Example Problem

Phasor Diagram Example Problem

Equivalent Impedance Example Problem

Equivalent Impedance Example Problem

Transform to Phasor Example Problems

Transform to Phasor Example Problems

Designing an Averaging Op Amp Example Problem

Designing an Averaging Op Amp Example Problem

Calculating Non-Inverting Op Amp Gain Example Problem

Calculating Non-Inverting Op Amp Gain Example Problem

Finding Current Response in Inductor Example Problem

Finding Current Response in Inductor Example Problem

Plotting Voltage when Current in Capacitor is Known Example Problem

Plotting Voltage when Current in Capacitor is Known Example Problem

Thevenin Equivalent Circuit & Superposition Example Problem

Thevenin Equivalent Circuit & Superposition Example Problem

Mesh Current Circuit Solution Example Problem

Mesh Current Circuit Solution Example Problem

Node Voltage Circuit Solution Example Problem

Node Voltage Circuit Solution Example Problem

Equivalent Circuits & Source Transformation Example Problem

Equivalent Circuits & Source Transformation Example Problem

Node Voltage Example Problem

Node Voltage Example Problem

Kirchhoff Current Law (KCL) Example Problem

Kirchhoff Current Law (KCL) Example Problem

Finding Voltage in a Circuit with a Dependent Source Example Problem

Finding Voltage in a Circuit with a Dependent Source Example Problem

Finding Voltage in a Circuit with a Dependent Source Example Problem

Finding Voltage in a Circuit with a Dependent Source Example Problem

Net Charge Over Time Example Problem

Net Charge Over Time Example Problem

Circuit Node, Series, Parallel Identification Example Problem

Circuit Node, Series, Parallel Identification Example Problem

Summary and Comparison of Solutions of Wave Equations for Transmission Lines and Plane Waves

Summary and Comparison of Solutions of Wave Equations for Transmission Lines and Plane Waves

Intro to Plane Wave Propagation Series & Defining a Wavenumber, k

Intro to Plane Wave Propagation Series & Defining a Wavenumber, k

Defining a UNIFORM PLANE WAVE in z direction, Electric Field Equations

Defining a UNIFORM PLANE WAVE in z direction, Electric Field Equations

No Electric or Magnetic Field Magnitude in the Direction of Propagation

No Electric or Magnetic Field Magnitude in the Direction of Propagation

Reducing the E Field Wave Equation into Vector Component Equations

Reducing the E Field Wave Equation into Vector Component Equations

Deriving the Solution for the Magnetic Field from the Wave Equation

Deriving the Solution for the Magnetic Field from the Wave Equation

Deriving the Solution for the Electric Field from the Wave Equation

Deriving the Solution for the Electric Field from the Wave Equation

Defining a UNIFORM PLANE WAVE in z direction, Magnetic Field Equations

Defining a UNIFORM PLANE WAVE in z direction, Magnetic Field Equations

Defining an Intrinsic Impedance and Instantaneous Fields

Defining an Intrinsic Impedance and Instantaneous Fields

General Relationship Between Electric and Magnetic Field Propagation Direction

General Relationship Between Electric and Magnetic Field Propagation Direction

Smith Chart: Given Load Impedance, Find Reflection Coefficient

Smith Chart: Given Load Impedance, Find Reflection Coefficient

Deriving the Homogeneous Wave Equation for Magnetic Field

Deriving the Homogeneous Wave Equation for Magnetic Field

Deriving the Homogeneous Wave Equation for Electric Field

Deriving the Homogeneous Wave Equation for Electric Field

Maxwell's Equations in a "Source Free" Environment

Maxwell's Equations in a "Source Free" Environment

Defining Complex Permittivity

Defining Complex Permittivity

Deriving Maxwell's Equations in Phasor Domain

Deriving Maxwell's Equations in Phasor Domain

1-7 Deriving the Phasor Relationship for Electromagnetics

1-7 Deriving the Phasor Relationship for Electromagnetics

1-7 Conversion between Instantaneous and Phasor Domain

1-7 Conversion between Instantaneous and Phasor Domain

1-7 Why Use Phasors in Electromagnetics?

1-7 Why Use Phasors in Electromagnetics?

1-7 Adopting a Cosine Reference for Phasors

1-7 Adopting a Cosine Reference for Phasors

6-9 Charge-Current Continuity Derivation

6-9 Charge-Current Continuity Derivation

6-9 Continuity Equation and the KCL

6-9 Continuity Equation and the KCL

6-7 Displacement Current

6-7 Displacement Current

6-3 Ideal Transformer

6-3 Ideal Transformer

5-3 Amperian Path and Ampere's Law Overview

5-3 Amperian Path and Ampere's Law Overview

Chapter 5-6 - Example Magnetic Boundary Conditions, Ex.5-7

Chapter 5-6 - Example Magnetic Boundary Conditions, Ex.5-7

Chapter 5-1 - Magnetostatics Introduction

Chapter 5-1 - Magnetostatics Introduction

Example - P4.38 (Ulaby Electromagnetics) Part 2

Example - P4.38 (Ulaby Electromagnetics) Part 2

Example - P4.38 (Ulaby Electromagnetics) Part 1

Example - P4.38 (Ulaby Electromagnetics) Part 1

Example - Electric Scalar Potential

Example - Electric Scalar Potential

Where is the r-component? Electric Field of a Ring of Charge Derivation - no geometric assumptions.

Where is the r-component? Electric Field of a Ring of Charge Derivation - no geometric assumptions.

4.10 Frequency Division Multiplexing (FDM)

4.10 Frequency Division Multiplexing (FDM)

12 - 4.11 VCO Conclusions, Stability, Pull In Range

12 - 4.11 VCO Conclusions, Stability, Pull In Range

11 - 4.11 Higher Order PLL Loop Filters

11 - 4.11 Higher Order PLL Loop Filters

10 - 4.11 PLL Error Analysis in Time Domain

10 - 4.11 PLL Error Analysis in Time Domain

9 - 4.11 Setting up Inverse Laplace Tranform with Partial Fraction Decomposition

9 - 4.11 Setting up Inverse Laplace Tranform with Partial Fraction Decomposition

8 - 4.11 Small Error Analysis

8 - 4.11 Small Error Analysis

7 - 4.11 Converting to the s-domain

7 - 4.11 Converting to the s-domain

6 - 4.11 A Model for the PLL

6 - 4.11 A Model for the PLL

5 - 4.11 Viewing the PLL as a Feedback System

5 - 4.11 Viewing the PLL as a Feedback System

2 - 4.11 Intro to Voltage Controlled Oscillator

2 - 4.11 Intro to Voltage Controlled Oscillator

4 - 4.11 Multiplying the Input and VCO Output Signals

4 - 4.11 Multiplying the Input and VCO Output Signals

3 - 4.11 The Input Signal

3 - 4.11 The Input Signal

1 - 4.11 Phase Locked Loop Introduction

1 - 4.11 Phase Locked Loop Introduction

4 - 4.9 Armstrong Indirect Method for Creating FM Signals

4 - 4.9 Armstrong Indirect Method for Creating FM Signals

3 - 4.9 Nonlinear Devices in Cascade Convert Narrow into Wideband Signals

3 - 4.9 Nonlinear Devices in Cascade Convert Narrow into Wideband Signals

2 - 4.9 Narrowband Angle Modulated Signal Generation

2 - 4.9 Narrowband Angle Modulated Signal Generation

1 - 4.9 Introduction to Generating FM Signals

1 - 4.9 Introduction to Generating FM Signals

8 - 4.8 Image Stations and Superheterodyne Receivers

8 - 4.8 Image Stations and Superheterodyne Receivers

7 - 4.8 Why Superheterodyne is Better Than Subheterodyne Receiver

7 - 4.8 Why Superheterodyne is Better Than Subheterodyne Receiver

6 - 4.8 Superheterodyne Block Diagram

6 - 4.8 Superheterodyne Block Diagram

5 - 4.8 Mathematic Description of Intermediate Frequency

5 - 4.8 Mathematic Description of Intermediate Frequency

4 - 4.8 Need for Tunable Filters

4 - 4.8 Need for Tunable Filters

3 - 4.8 Nonlinear Devices as Frequency Mixers

3 - 4.8 Nonlinear Devices as Frequency Mixers

2 - 4.8 Frequency Mixing and Frequency Conversion

2 - 4.8 Frequency Mixing and Frequency Conversion

1 - 4.8 Introduction to Superheterodyne Process

1 - 4.8 Introduction to Superheterodyne Process

7 - 4.4.4 Coherent Detection and Need for Phase Locked Loops PLL

7 - 4.4.4 Coherent Detection and Need for Phase Locked Loops PLL

6 - 4.4.3 Designing the VSB Complimentary Output Filter

6 - 4.4.3 Designing the VSB Complimentary Output Filter

5 - 4.4.3 VSB in Quadrature Form

5 - 4.4.3 VSB in Quadrature Form

4 - 4.4.3 VSB Visualization of Complimentary Filters

4 - 4.4.3 VSB Visualization of Complimentary Filters

3 - 4.4.3 VSB Complimentary Filter Recovers Original Message

3 - 4.4.3 VSB Complimentary Filter Recovers Original Message

2- 4.4.3 VSB Mathematics and Explanation of Complementary Filters

2- 4.4.3 VSB Mathematics and Explanation of Complementary Filters

1 - 4.4.3 Intro to Vestigial Sideband VSB Amplitude Modulation

1 - 4.4.3 Intro to Vestigial Sideband VSB Amplitude Modulation

7 - 4.4.1 SSB Modulation and Demodulation Methods

7 - 4.4.1 SSB Modulation and Demodulation Methods

6 - 4.4.1 SSB Phase Shifter System Diagram

6 - 4.4.1 SSB Phase Shifter System Diagram

5 - 4.4.1 SSB Signal Definition in Time Domain

5 - 4.4.1 SSB Signal Definition in Time Domain

4 - 4.4.1 Defining the Sidebands Using Hilbert Transform

4 - 4.4.1 Defining the Sidebands Using Hilbert Transform

3 - 4.4.1 Hilbert Transform from a System Perspective

3 - 4.4.1 Hilbert Transform from a System Perspective

2 - 4.4.1 Hilbert Transform in the Time Domain

2 - 4.4.1 Hilbert Transform in the Time Domain

1 - 4.4.1 Introduction to Single Sideband (SSB) Amplitude Modulation (AM)

1 - 4.4.1 Introduction to Single Sideband (SSB) Amplitude Modulation (AM)

1 - 4.4 Introduction to Bandwidth Efficient Amplitude Modulation

1 - 4.4 Introduction to Bandwidth Efficient Amplitude Modulation

2 - 4.3.2 AM Demodulation, Rectifier Continued

2 - 4.3.2 AM Demodulation, Rectifier Continued

1 - 4.3.2 AM Demodulation, Rectifier

1 - 4.3.2 AM Demodulation, Rectifier

3 - 4.3.2 Envelope Detector

3 - 4.3.2 Envelope Detector

2 - 4.3.1 Efficiency Continued, How to make AM Signals

2 - 4.3.1 Efficiency Continued, How to make AM Signals

1 - 4.3.1 AM Sideband and Carrier Power, Efficiency

1 - 4.3.1 AM Sideband and Carrier Power, Efficiency

6 - 4.3 Example of Modulation Index Effect

6 - 4.3 Example of Modulation Index Effect

5 - 4.3 Modulation Index and Selection of A

5 - 4.3 Modulation Index and Selection of A

4 - 4.3 The AM Envelope has the Same Information as the Message

4 - 4.3 The AM Envelope has the Same Information as the Message

3 - 4.3 Idea to Improve DSB SC

3 - 4.3 Idea to Improve DSB SC

2 - 4.3 Effect of Distortion on DSB SC

2 - 4.3 Effect of Distortion on DSB SC

1 - 4.3 Amplitude Modulation Introduction

1 - 4.3 Amplitude Modulation Introduction

6 - 4.2.2 Intro To Switching Modulator

6 - 4.2.2 Intro To Switching Modulator

5 - 4.2.2 Nonlinear Modulator Part 3 - Single Balanced

5 - 4.2.2 Nonlinear Modulator Part 3 - Single Balanced

3 - 4.2.2 Nonlinear Modulator 1

3 - 4.2.2 Nonlinear Modulator 1

4 - 4.2.2 Nonlinear Modulator 2

4 - 4.2.2 Nonlinear Modulator 2

2 - 4.2.2 Multiplier Modulator

2 - 4.2.2 Multiplier Modulator

1 - 4.2.2 Introduction to Amplitude Modulator Devices and Circuits

1 - 4.2.2 Introduction to Amplitude Modulator Devices and Circuits

7 - 4.2.2 Finding Fourier Coefficients for a Pulse/Switch

7 - 4.2.2 Finding Fourier Coefficients for a Pulse/Switch

8 - 4.2.2 Finding Fourier Coefficient an

8 - 4.2.2 Finding Fourier Coefficient an

9 - 4.2.2 Finding Fourier Coefficient bn

9 - 4.2.2 Finding Fourier Coefficient bn

10 - 4.2.2 Bringing the Fourier Concept Together with Modulation

10 - 4.2.2 Bringing the Fourier Concept Together with Modulation

11 - 4.2.2 Switching Modulator Concept in Time Domain

11 - 4.2.2 Switching Modulator Concept in Time Domain

12 - 4.2.2 Diode Bridge Switching Modulator Explained

12 - 4.2.2 Diode Bridge Switching Modulator Explained

13 - 4.2.2 Ring Modulator Explained as Double Balanced

13 - 4.2.2 Ring Modulator Explained as Double Balanced

14 - 4.2.2 Demodulator Devices Explained

14 - 4.2.2 Demodulator Devices Explained

1 - 4.2 Introduction to Double Sideband Amplitude Modulation

1 - 4.2 Introduction to Double Sideband Amplitude Modulation

2 - 4.2 The Meaning of Double Sideband Suppressed Carrier

2 - 4.2 The Meaning of Double Sideband Suppressed Carrier

3 - 4.2.1 Visual of a Sample DSB-SC Modulated Message

3 - 4.2.1 Visual of a Sample DSB-SC Modulated Message

4 - 4.2.1 Demodulation of DSB-SC in Time Domain

4 - 4.2.1 Demodulation of DSB-SC in Time Domain

5 - 4.2.1 Demodulation of DSB SC, Fourier Transform

5 - 4.2.1 Demodulation of DSB SC, Fourier Transform

6 - 4.2.1 Frequency Visualization of Modulation and Demodulation

6 - 4.2.1 Frequency Visualization of Modulation and Demodulation

7 - 4.2.1 Full Overview of DSB-SC Modulation and Demodulation

7 - 4.2.1 Full Overview of DSB-SC Modulation and Demodulation

6 - 3.5 Practical Filter, FFT Example

6 - 3.5 Practical Filter, FFT Example

9 - 3.8.4 Power of Modulated Signals

9 - 3.8.4 Power of Modulated Signals

8 - 3.8.3 Input PSD vs Output PSD

8 - 3.8.3 Input PSD vs Output PSD

7 - 3.8.2 Time Autocorrelation, PSD and ESD

7 - 3.8.2 Time Autocorrelation, PSD and ESD

6 - 3.8.2 Time Autocorrelation and Power Signals

6 - 3.8.2 Time Autocorrelation and Power Signals

5 - 3.8.2 Autocorrelation and PSD

5 - 3.8.2 Autocorrelation and PSD

4 - 3.8.2 A Signal Power is its Mean Value

4 - 3.8.2 A Signal Power is its Mean Value

3 - 3.8.1 Power Signal Density

3 - 3.8.1 Power Signal Density

2 - 3.8 Signal Power and Comparison to Signal Energy

2 - 3.8 Signal Power and Comparison to Signal Energy

4.1 Introduction and Comparison of Baseband and Carrier

4.1 Introduction and Comparison of Baseband and Carrier

1 - 3.8 Introduction and Review of Energy vs Power Signals

1 - 3.8 Introduction and Review of Energy vs Power Signals

6 - 3.7.3 Energy of Modulated Signals

6 - 3.7.3 Energy of Modulated Signals

7 - 3.7.4 Time Autocorrelation Function and ESD

7 - 3.7.4 Time Autocorrelation Function and ESD

4 - 3.7.2 Energy Spectral Density Part 2

4 - 3.7.2 Energy Spectral Density Part 2

3 - 3.7.2 Energy Spectral Density Part 1

3 - 3.7.2 Energy Spectral Density Part 1

2 - 3.2.1 Parseval's Theorem

2 - 3.2.1 Parseval's Theorem

1 - 3.7 Introduction and Review of Signal Energy and Power

1 - 3.7 Introduction and Review of Signal Energy and Power

5 - 3.7.3 Essential Bandwidth

5 - 3.7.3 Essential Bandwidth

7 - 3.6 Channels Fading in Time

7 - 3.6 Channels Fading in Time

6 - 3.6 Frequency Selective Fading Explained

6 - 3.6 Frequency Selective Fading Explained

5 - 3.6 Distortion Caused by Multipath

5 - 3.6 Distortion Caused by Multipath

4 - 3.6 Distortion Caused by Channel Nonlinearities

4 - 3.6 Distortion Caused by Channel Nonlinearities

3 - 3.6 Dispersion MATLAB Example

3 - 3.6 Dispersion MATLAB Example

2 - 3.6 Linear Distortion

2 - 3.6 Linear Distortion

1 - 3.6 Introduction to Signal Distortion over a Communication Channel

1 - 3.6 Introduction to Signal Distortion over a Communication Channel

7 - 3.5 Realizing Digital Filters

7 - 3.5 Realizing Digital Filters

4 - 3.5 Mathematical Criteria for Real Filters

4 - 3.5 Mathematical Criteria for Real Filters

5 - 3.5 Tricks for Approximating Ideal Filters

5 - 3.5 Tricks for Approximating Ideal Filters

3 - 3.5 Effect of Time Delay on Time Domain Response

3 - 3.5 Effect of Time Delay on Time Domain Response

2 - 3.5 Inverse Fourier Transform of Ideal Low Pass Filter

2 - 3.5 Inverse Fourier Transform of Ideal Low Pass Filter

1 - 3.5 Ideal Filters

1 - 3.5 Ideal Filters

1 - 3.4 LTI System Review

1 - 3.4 LTI System Review

2 - 3.4.1 Signal Distortion During Transmission

2 - 3.4.1 Signal Distortion During Transmission

3 - 3.4.2 The Form of a Distortionless Transfer Function

3 - 3.4.2 The Form of a Distortionless Transfer Function

4 - 3.4.2 Even with All-Pass Filters, Distortion is Possible

4 - 3.4.2 Even with All-Pass Filters, Distortion is Possible

1 - 3.3 Some Fourier Transform Properties

1 - 3.3 Some Fourier Transform Properties

1 - 3.2 Useful Functions and Transforms

1 - 3.2 Useful Functions and Transforms

12-2

12-2

11-30

11-30

11-16 (Part 2)

11-16 (Part 2)

11-11

11-11

11-9

11-9

11-2

11-2

3 Ampere's Law - Infinite Current Sheet (Final Solution)

3 Ampere's Law - Infinite Current Sheet (Final Solution)

1 Ampere's Law - Infinite Current Sheet (Set Up)

1 Ampere's Law - Infinite Current Sheet (Set Up)

2 Ampere's Law - Infinite Current Sheet (Amperian Loop Explanation on Cartesian Coordinates)

2 Ampere's Law - Infinite Current Sheet (Amperian Loop Explanation on Cartesian Coordinates)

10-26

10-26

2 - Faraday's Law Example - Motional EMF

2 - Faraday's Law Example - Motional EMF

2 - Faraday's Law Example - Motional EMF

2 - Faraday's Law Example - Motional EMF

1 - Faraday's Law Example - Motional EMF

1 - Faraday's Law Example - Motional EMF

10-21

10-21

10-19

10-19

10-14

10-14

Ch. 5 - Problem 5.10 in Fundamentals of Applied Electromagnetics by Ulaby (Part 2)

Ch. 5 - Problem 5.10 in Fundamentals of Applied Electromagnetics by Ulaby (Part 2)

10-12

10-12

Ch. 5 - Problem 5.10 in Fundamentals of Applied Electromagnetics by Ulaby (Part 1)

Ch. 5 - Problem 5.10 in Fundamentals of Applied Electromagnetics by Ulaby (Part 1)

10-5

10-5

EE 4495 System Level Design - Examples

EE 4495 System Level Design - Examples

EE 4495 - Systems Engineering Design

EE 4495 - Systems Engineering Design

9-28

9-28

9-23

9-23

9-21

9-21

9-16

9-16

9-14

9-14

9-9

9-9

9-7-2021

9-7-2021

9-2-2021

9-2-2021