Nowadays, having a deep understanding of wireless communications enhances the career prospects of electrical and electronics engineers.
Are you fascinated by the world of wireless communications and eager to explore its underlying principles?
Are you having difficulty comprehending the complexities of modulation, transceiver architectures, and digital communication techniques?
Are you seeking for a comprehensive course that can assist you in mastering the fundamental skills required for wireless communication systems?
Look no further than "The Ultimate Crash Course for RF Transceiver Fundamentals" - The final course in The Tao of Phasor Series.
The aim of this course is to provide a simplified and easily understandable approach to RF transceiver and digital communications.
This course encompasses the fundamental knowledge required to gain entry into the field of RF transceivers and digital communications:
With high-quality content and insightful lessons, you'll have a solid foundation in RF transceivers and digital communications.
Our focus is not just on the HOW, but also on the WHY and the evolution of analytical methods in this field.
We will highlight the crucial factor - the time-varying phasor, in comprehending RF signals and systems.
We will present specific examples of modulated signals and their conversions in frequency to provide a clear understanding.
Without difficult math!
By the end of this course:
You'll have a solid foundation in wireless transceiver architecture, modulators, and demodulators. To name a few, linear transmitter, linear receiver, polar transmitter, polar recevier, I/Q modulator and demodulator, DSB/SSB modulator, etc.
You'll learn the purposes of VCOs, phase-locked loops, mixers, power amplifiers, and low-noise amplifiers, etc.
You'll learn about thec concepts of modulation techniques such as AM, FM, PM, amplitude shift keying (ASK), phase shift keying (PSK), quadrature amplitude modulation (QAM), OQPSK, pi/4-QPSK, MSK, etc.
You'll learn the practical application of the Hilbert transform, analytic signals, and phasing techniques.
You'll also gain a practical understanding of pulse shaping and optimum receivers.
You'll be well on your way to mastering the art of wireless communications.
Join us on this journey and discover the fun parts of RF transceivers and digital communications!
Course Highlights:
Development of Radio Transmission
What is Modulation?
Spark-Gap Transmitter
Fessenden and Continuous Wave
Vacuum Tube
Armstrong
The Key to Radio Downsizing
Why Modulation?
Modulation and Transmitter
Amplitude Modulation (AM), Frequency and Phase Modulation (FM and PM), and Angle Modulation
Linear Modulation and Complex Envelope
Linear Modulator (IQ Modulator)
Linear Transmitter
Polar Transmitter
Demodulation and Receiver
Linear Demodulation
Linear Receiver
Polar Receiver
Modulated Spectrum
Double-sided and Single-sided Spectrum
Double sidebands (DSB) Spectrum of AM Signals
DSB and SSB Spectrum of Upconverted Signals
Spectrum of PM & IQ-modulated Signals
Complex Envelope
Envelope Simulation
Definition of Hilbert Transform
Transformation of a Cosine Wave
Spectrum Efficiency
A Simple Analytical Signal
Analytical Signal of a Modulated Signal
Phasing Techniques
Can Digital Signals Be Transmitted?
QPSK
Symbols
Constellation Diagram
BPSK and 8PSK
QAM
Pulse Shaping
Inter-symbol Interference (ISI)
OQPSK and pi/4-QPSK
Optimum Receiver
Digital Signals in Transceivers