Канал: AKH

Transposed Signal Flow Graphs in DSP Analysis

Transposed Signal Flow Graphs in DSP Analysis

Feedback IIR and Non-computable System in Digital Signal Processing

Feedback IIR and Non-computable System in Digital Signal Processing

Structure of IIR in DSP using SFG

Structure of IIR in DSP using SFG

DTFT of Moving Average Filter

DTFT of Moving Average Filter

DSP Calculating output with impulse and cos function input

DSP Calculating output with impulse and cos function input

Frequency domain representation in discrete time signal and system

Frequency domain representation in discrete time signal and system

Signal flow graph SFG of LTI DT LCCDE System with Examples

Signal flow graph SFG of LTI DT LCCDE System with Examples

Direct Form I & II in LTI Systems: A Beginner's Guide with Block Diagrams | DT LCCDE |

Direct Form I & II in LTI Systems: A Beginner's Guide with Block Diagrams | DT LCCDE |

How to Avoid ISI in Digital Communication (Tutorial) | Pulse Shaping and Raised Cosine | ADC 4.17

How to Avoid ISI in Digital Communication (Tutorial) | Pulse Shaping and Raised Cosine | ADC 4.17

Periodic Square Wave Fourier Series Coefficients | Signals and Systems Example

Periodic Square Wave Fourier Series Coefficients | Signals and Systems Example

Magnitude and Phase Plot of Fourier Series Coefficients Example | Signals and Systems

Magnitude and Phase Plot of Fourier Series Coefficients Example | Signals and Systems

Fourier Series: Solving Two-level Square Function Examples

Fourier Series: Solving Two-level Square Function Examples

Convolution Integral: Solving Example and Understanding its Solution | Signals and Systems

Convolution Integral: Solving Example and Understanding its Solution | Signals and Systems

Convolution Sum: Solving Example and Understanding the Solution

Convolution Sum: Solving Example and Understanding the Solution

Tutorial: Solution of 2nd Order Difference equation with initial conditions using Convolution | 2.6

Tutorial: Solution of 2nd Order Difference equation with initial conditions using Convolution | 2.6

What are Bandwidth and Data Rate of a Network?

What are Bandwidth and Data Rate of a Network?

Rayleigh fading and Rician Fading Explained with Cricket Analogy

Rayleigh fading and Rician Fading Explained with Cricket Analogy

Simulink Tutorial on BPSK Modulation and Demodulation under AWGN

Simulink Tutorial on BPSK Modulation and Demodulation under AWGN

AWGN, WGN, Autocorrelation and PSD Explained using Matlab

AWGN, WGN, Autocorrelation and PSD Explained using Matlab

Review Example: Signal-to-noise ratio of Quatizer SQNR, Quantization Level, SNR and Capacity

Review Example: Signal-to-noise ratio of Quatizer SQNR, Quantization Level, SNR and Capacity

PAM, PWM and PPM Modulation and Demodulation Explained Using Simulink | ADC 4.6

PAM, PWM and PPM Modulation and Demodulation Explained Using Simulink | ADC 4.6

Example: Indirect Method of FM Generation by Armstrong WBFM Approach | FM 3.10

Example: Indirect Method of FM Generation by Armstrong WBFM Approach | FM 3.10

Indirect Method of FM Generation by Armstrong WBFM Approach | FM 3.9

Indirect Method of FM Generation by Armstrong WBFM Approach | FM 3.9

Vestigial Sideband VSB Modulation Example | AM 2.8b

Vestigial Sideband VSB Modulation Example | AM 2.8b

Single Sideband Modulation With Hilbert Transform Example | AM 2.7b

Single Sideband Modulation With Hilbert Transform Example | AM 2.7b

Amplitude Modulation: Solving Modulation Index Example | AM 2.4b

Amplitude Modulation: Solving Modulation Index Example | AM 2.4b

Power Spectral Density Example | How to find auto-correlation function from PSD? |

Power Spectral Density Example | How to find auto-correlation function from PSD? |

FM & PM: A Step-by-Step Tutorial with 4 Solved Examples | FM 3.2

FM & PM: A Step-by-Step Tutorial with 4 Solved Examples | FM 3.2

FM & PM Explained with Simulink Design | Frequency Modulation and Phase Modulation | FM 3.1

FM & PM Explained with Simulink Design | Frequency Modulation and Phase Modulation | FM 3.1

LTI Systems: Understanding Linear Time Invariant Systems | 1.10

LTI Systems: Understanding Linear Time Invariant Systems | 1.10

Superheterodyne receiver for AM and FM | AM 2.9

Superheterodyne receiver for AM and FM | AM 2.9

Vestigial Sideband Modulation | VSB Modulation and Demodulation | AM 2.8

Vestigial Sideband Modulation | VSB Modulation and Demodulation | AM 2.8

Single Sideband Modulation and SSB Demodulation | AM 2.7

Single Sideband Modulation and SSB Demodulation | AM 2.7

QAM and Constellation Diagrams: Understanding Quadrature Amplitude Modulation | AM 2.6

QAM and Constellation Diagrams: Understanding Quadrature Amplitude Modulation | AM 2.6

Amplitude Modulation and AM Demodulation Explained using Simulink | AM 2.5

Amplitude Modulation and AM Demodulation Explained using Simulink | AM 2.5

Amplitude Modulation Explained Using AM Modulation Index & Power Efficiency | AM 2.4

Amplitude Modulation Explained Using AM Modulation Index & Power Efficiency | AM 2.4

DSBSC Double Sideband Suppressed Carrier Explained using Simulink | AM 2.3

DSBSC Double Sideband Suppressed Carrier Explained using Simulink | AM 2.3

Amplitude, Frequency, and Phase Modulation: A Brief Overview| AM 2.2

Amplitude, Frequency, and Phase Modulation: A Brief Overview| AM 2.2

Modulation: The Key to Understanding Communication Systems | AM 2.1

Modulation: The Key to Understanding Communication Systems | AM 2.1

Power Spectral Density using Auto-correlation Function | Random Binary Signal Example

Power Spectral Density using Auto-correlation Function | Random Binary Signal Example

Power Spectral Density and Time Auto-correlation Function

Power Spectral Density and Time Auto-correlation Function

Signal Energy & Energy Spectral Density Explained with Examples

Signal Energy & Energy Spectral Density Explained with Examples

Introduction to Communication System | A playlist header of the Course |

Introduction to Communication System | A playlist header of the Course |

LTI Systems: The Building Blocks of Distortion-less Transmission and Filter Design using MATLAB

LTI Systems: The Building Blocks of Distortion-less Transmission and Filter Design using MATLAB

Pulse amplitude modulation experiment using Simulink

Pulse amplitude modulation experiment using Simulink

Fourier Series Coefficients of Triangle Wave, Square Wave, and Impulse train | 5.6

Fourier Series Coefficients of Triangle Wave, Square Wave, and Impulse train | 5.6

Modulation Property of Fourier Transform Explained with AM Broadcast Example | 5.12

Modulation Property of Fourier Transform Explained with AM Broadcast Example | 5.12

Duality Property of Fourier Transform | Proof and Examples | 5.11

Duality Property of Fourier Transform | Proof and Examples | 5.11

Properties of Fourier Transform with Proof and Examples | 5.10

Properties of Fourier Transform with Proof and Examples | 5.10

Fourier Transform of Periodic Signals | Proof and Examples | 5.9

Fourier Transform of Periodic Signals | Proof and Examples | 5.9

Fourier Transform of Common Signals | unit step, Dirac delta, cos, sin, exponential signals | 5.8

Fourier Transform of Common Signals | unit step, Dirac delta, cos, sin, exponential signals | 5.8

Fourier Series Properties: A Beginner's Guide to Using Table for Problem Solving| 5.5

Fourier Series Properties: A Beginner's Guide to Using Table for Problem Solving| 5.5

Fourier Series Coefficients of Some Fundamental Signals | 5.3

Fourier Series Coefficients of Some Fundamental Signals | 5.3

Fourier Series and Fourier Transforms | A Visual Inspection | 5.7

Fourier Series and Fourier Transforms | A Visual Inspection | 5.7

Full Wave Rectifier | Exponential Fourier Series & Simulink Simulation | 5.4

Full Wave Rectifier | Exponential Fourier Series & Simulink Simulation | 5.4

Fourier Series | Introduction, Types, and Orthogonal Basis | 5.2

Fourier Series | Introduction, Types, and Orthogonal Basis | 5.2

Interplay of Laplace Transform, Fourier Transform, and Fourier series | 5.1

Interplay of Laplace Transform, Fourier Transform, and Fourier series | 5.1

z Transform Example of 2nd Order Difference Equation with Initial Conditions | 4.7b

z Transform Example of 2nd Order Difference Equation with Initial Conditions | 4.7b

Unilateral z Transform and its inverse | 4.7a

Unilateral z Transform and its inverse | 4.7a

z Transform | How to check Causality & Stability of LTI System Using Transfer Function | 4.6

z Transform | How to check Causality & Stability of LTI System Using Transfer Function | 4.6

Inverse z Transform Explained Using Power Series Expansion Method | 4.5c

Inverse z Transform Explained Using Power Series Expansion Method | 4.5c

Inverse z Transform Explained Using Partial Fraction Expansion Method | 4.5b

Inverse z Transform Explained Using Partial Fraction Expansion Method | 4.5b

Inverse z Transform | Contour Integral Method with Examples | 4.5a

Inverse z Transform | Contour Integral Method with Examples | 4.5a

z Transform: Understanding Properties with Proofs and Examples | 4.4

z Transform: Understanding Properties with Proofs and Examples | 4.4

z Transform Common Pairs with Proof | 4.3

z Transform Common Pairs with Proof | 4.3

ROC Properties of z-Transform Explained with examples | 4.2

ROC Properties of z-Transform Explained with examples | 4.2

z Transform Explained with Examples | 4.1

z Transform Explained with Examples | 4.1

Series RLC Circuit Analysis using Time domain & Convolution | 2.4b

Series RLC Circuit Analysis using Time domain & Convolution | 2.4b

Series RLC Circuit Analysis using Laplace Transform |3.6c

Series RLC Circuit Analysis using Laplace Transform |3.6c

Differentiation Property of Unilateral Laplace Transform | Proof & Example | 3.6b

Differentiation Property of Unilateral Laplace Transform | Proof & Example | 3.6b

Unilateral Laplace Transform Explained With Examples | 3.6a

Unilateral Laplace Transform Explained With Examples | 3.6a

2 Solved Examples of Analysis of LTI System Using Laplace Transform | 3.5b

2 Solved Examples of Analysis of LTI System Using Laplace Transform | 3.5b

Laplace Transform & Analysis of LTI Systems | How to check Causality & Stability | 3.5a

Laplace Transform & Analysis of LTI Systems | How to check Causality & Stability | 3.5a

Laplace transform properties | Explained with Examples | 3.4

Laplace transform properties | Explained with Examples | 3.4

Inverse Laplace transform | Distinct and Repeated poles problems | 3.3

Inverse Laplace transform | Distinct and Repeated poles problems | 3.3

ROC Properties of Laplace Transform Explained with Examples | 3.2

ROC Properties of Laplace Transform Explained with Examples | 3.2

Laplace Transform & Visualization of ROC Explained With Example & MATLAB | 3.1c

Laplace Transform & Visualization of ROC Explained With Example & MATLAB | 3.1c

Laplace transform problem solving | 3.1b

Laplace transform problem solving | 3.1b

What is Laplace Transform? | 3.1a

What is Laplace Transform? | 3.1a

Causal LTI System Described by LCCDE | Discrete Time Systems & Intro of FIR and IIR | 2.5

Causal LTI System Described by LCCDE | Discrete Time Systems & Intro of FIR and IIR | 2.5

Causal LTI System Described by LCCDE | Example of RLC Series Circuit at rest | CT 2.4a

Causal LTI System Described by LCCDE | Example of RLC Series Circuit at rest | CT 2.4a

Properties of LTI Systems | Discussion with Solved Examples | 2.3

Properties of LTI Systems | Discussion with Solved Examples | 2.3

Convolution of two signals explained using examples | 2.2b

Convolution of two signals explained using examples | 2.2b

Convolution theorem and convolution integral | 2.2

Convolution theorem and convolution integral | 2.2

Convolution Sum Example | 2.1b

Convolution Sum Example | 2.1b

Convolution Sum | Introduction and Example | 2.1

Convolution Sum | Introduction and Example | 2.1

Complex Signals & Complex Exponential Signals | 1.9

Complex Signals & Complex Exponential Signals | 1.9

Periodicity of Discrete Time Signal | Fundamental Period of Sum of Periodic signals | 1.8

Periodicity of Discrete Time Signal | Fundamental Period of Sum of Periodic signals | 1.8

Fundamental Period of Periodic Signal | Sum of Periodic signals | 1.7

Fundamental Period of Periodic Signal | Sum of Periodic signals | 1.7

Signal Energy and Signal Power with Worked Examples | 1.6

Signal Energy and Signal Power with Worked Examples | 1.6

Even and odd signals | 1.5

Even and odd signals | 1.5

Unit Step and Dirac Delta function in Signal and System Explained with Examples | 1.4

Unit Step and Dirac Delta function in Signal and System Explained with Examples | 1.4

Signal and System time domain operations | continuous time & discrete time | 1.3

Signal and System time domain operations | continuous time & discrete time | 1.3

What are Continuous and Discrete time Signals? | 1.2

What are Continuous and Discrete time Signals? | 1.2

Why we need Frequency domain analysis? | 1.1

Why we need Frequency domain analysis? | 1.1

Signal and System | Introduction & Outlook of Signals and Systems Playlist | 0.0

Signal and System | Introduction & Outlook of Signals and Systems Playlist | 0.0

AM vs FM: Understanding Non-linear Channel Effects using Simulink | FM 3.12

AM vs FM: Understanding Non-linear Channel Effects using Simulink | FM 3.12

Hexagonal Cell Geometry in Wireless Communication

Hexagonal Cell Geometry in Wireless Communication

Wireless Communication: Understanding Frequency Reuse

Wireless Communication: Understanding Frequency Reuse

Telecom Industry: Understanding Cell Phone Systems

Telecom Industry: Understanding Cell Phone Systems

1G to 5G and 6G Cellular Networks | Overview, Features & Evolution

1G to 5G and 6G Cellular Networks | Overview, Features & Evolution

Frequency Modulation FM Stereo System | FM 3.14

Frequency Modulation FM Stereo System | FM 3.14

Noise in analog communication system | Interference and Noise in FM Using Simulink | FM 3.13

Noise in analog communication system | Interference and Noise in FM Using Simulink | FM 3.13

Frequency Modulation and FM Demodulation Explained using Simulink | FM 3.11

Frequency Modulation and FM Demodulation Explained using Simulink | FM 3.11

Indirect FM Generation: The Complete Tutorial

Indirect FM Generation: The Complete Tutorial

WBFM Direct Method of FM generation Using VCO and Simulink Insights | FM 3.8

WBFM Direct Method of FM generation Using VCO and Simulink Insights | FM 3.8

WBFM Bandwidth Estimation: The Carson's Rule, Bessel Function and Universal Curve Method | FM 3.7

WBFM Bandwidth Estimation: The Carson's Rule, Bessel Function and Universal Curve Method | FM 3.7

WBFM | Bandwidth Estimation using Bessel Function Table & Universal Curve | FM 3.6

WBFM | Bandwidth Estimation using Bessel Function Table & Universal Curve | FM 3.6

Wideband FM Bandwidth Estimation: The Staircase Approximation Method | FM 3.5

Wideband FM Bandwidth Estimation: The Staircase Approximation Method | FM 3.5

NBFM Bandwidth Estimation of Single Tone Explained Using MATLAB | FM 3.4

NBFM Bandwidth Estimation of Single Tone Explained Using MATLAB | FM 3.4

NBFM Bandwidth Estimation with Taylor Series Approximation | FM 3.3

NBFM Bandwidth Estimation with Taylor Series Approximation | FM 3.3

FM Tutorial & Solved examples of PM

FM Tutorial & Solved examples of PM

The Fundamentals of Frequency and Phase Modulation

The Fundamentals of Frequency and Phase Modulation

Carrier Recovery of DSB-SC by Signal Squaring and Costas Loop Methods | AM 2.11

Carrier Recovery of DSB-SC by Signal Squaring and Costas Loop Methods | AM 2.11

Phase Lock Loop PLL for AM Carrier Acquisition | AM 2.10

Phase Lock Loop PLL for AM Carrier Acquisition | AM 2.10

Line Coding Lab Experiment: Oscilloscope & EMONA Board | ADC 4.16

Line Coding Lab Experiment: Oscilloscope & EMONA Board | ADC 4.16

Line Coding: A Comprehensive Overview and Comparison | ADC 4.15

Line Coding: A Comprehensive Overview and Comparison | ADC 4.15

Delta Modulation: A Beginner's Guide | ADC 4.14

Delta Modulation: A Beginner's Guide | ADC 4.14

Differential Pulse Code Modulation DPCM Explained using MATLAB | ADC 4.13

Differential Pulse Code Modulation DPCM Explained using MATLAB | ADC 4.13

Quantization and Companding Explained using MATLAB | Audio Signal Analysis | ADC 4.12

Quantization and Companding Explained using MATLAB | Audio Signal Analysis | ADC 4.12

Companding and Non-Uniform Quantization | ADC 4.11

Companding and Non-Uniform Quantization | ADC 4.11

PWM and PPM Explained using Simulink | ADC 4.7

PWM and PPM Explained using Simulink | ADC 4.7

Pulse Code Modulation PCM and Quantization | ADC 4.8

Pulse Code Modulation PCM and Quantization | ADC 4.8

Transmission BW of PCM Signals with a Worked Example | ADC 4.10

Transmission BW of PCM Signals with a Worked Example | ADC 4.10

Image Processing in MATLAB to Reducing Quantization Levels | ADC 4.9

Image Processing in MATLAB to Reducing Quantization Levels | ADC 4.9

Time Division Multiplexing TDM | MATLAB code for 2 Audio Signals | ADC 4.5

Time Division Multiplexing TDM | MATLAB code for 2 Audio Signals | ADC 4.5

Time Division Multiplexing TDM Explained Using Simulink | ADC 4.4

Time Division Multiplexing TDM Explained Using Simulink | ADC 4.4

Sampling and Aliasing Explained Using Sampling Theorem Proof & Aliasing in Sampling | ADC 4.2

Sampling and Aliasing Explained Using Sampling Theorem Proof & Aliasing in Sampling | ADC 4.2

Sampling and Aliasing Explained Using MATLAB & Audio Signal Processing | ADC 4.3

Sampling and Aliasing Explained Using MATLAB & Audio Signal Processing | ADC 4.3

Digital Communication : An Introduction | ADC 4.1

Digital Communication : An Introduction | ADC 4.1