About Course
RF Communication System Design- Analog and Digital
An RF communication system design involves the integration of components and subsystems to create a complete and functioning radio frequency system. The system design begins with an analysis of the communication requirements, which includes the transmission frequency, bandwidth, power requirements, modulation type, and other parameters. Once the requirements are determined, the system design is developed, which includes selecting the appropriate RF components, such as amplifiers, antennas, and receivers. The design also includes determining the power levels, antenna types, and other factors to ensure that the system performs optimally. Once the system is designed, the components are then integrated, tested, and calibrated to ensure that the system operates correctly. Finally, the system is deployed in the field and monitored to ensure that it is performing as expected.
- The principles and techniques of designing radio frequency (RF) communication systems.
- The fundamental concepts of RF communication, including modulation, demodulation, multiplexing, and signal processing.
- How to design and optimize RF components, such as antennas, amplifiers, filters, and mixers, for specific communication systems.
- Hands-on experience with RF communication system design through projects, simulations, and laboratory experiments.
- Understanding of current and emerging RF communication technologies, such as 5G, IoT, and satellite communication.
- Analysis and optimization of RF communication systems.
- The impact of RF communication technology on the industry.
- The design of RF communication systems for various applications
- RF circuit design and simulation using industry standard software
- RF measurement and testing techniques.
This course is targeted towards:
- Students who are pursuing a degree in electrical engineering, computer engineering, or a related field and are interested in the field of RF communication systems design.
- Professionals who are currently working in the field of RF communication systems design and want to expand their knowledge and skills.
- Engineers, technicians, and other professionals who want to gain a deeper understanding of RF communication systems and their design principles.
- Individuals who are looking to make a career change into the field of RF communication systems design.
- Any individual who is interested in learning more about RF communication systems and their design principles.
Course Content
Analog and Digital RF system design
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Module 0: Introduction
02:07 -
Module 1: Basic Definitions
29:34 -
Module 1: Time vs Frequency Domains
07:57 -
Module 1: dB, dBm and dBc
18:14 -
Module 2: Modulation Basics
26:32 -
Module 2: Modulation Introduction
09:15 -
Module 2: Amplitude Modulation
10:19 -
Module 2: Phase and Frequency Modulation
03:33 -
Module 3: Double Side Band (DSB)
08:06 -
Module 3: Quadrature Modulation and Single Side Band (SSB)
08:06 -
Module 4: Digital Modulation – 1
28:07 -
Module 4: Digital Modulation
13:57 -
Module 4: Phase Shift Key (PSK)
10:55 -
Module 4: Quadrature Modulator
02:03 -
Module 4: Quadrature Amplitude Modulation
07:08 -
Module 5: Pulse Shaping
10:32 -
Module 5 RC pulse filter eye diagram
09:31 -
Module 5 Modulation Bandwidth and Pulse Filtering
29:22 -
Module 5: Inter-Symbol-Interference
04:17 -
Module 5: Bit vs Symbol and Spectral Efficiency
03:47 -
Module 6: Direct – Conversion Transmitter
03:03 -
Module 6: Carrier Leakage
04:19 -
Module 6: Amplitude and Phase Imbalance
03:14 -
Module 6: Phase and Frequency Instability
04:16 -
Module 7: Two-Step Conversion Transmitter
05:45 -
Module 7: Choice of Intermediate Frequency (IF)
03:04 -
Module 8: Time, Frequency and Code Division Multiple Access
13:41 -
Module 8: Advanced Transmitter Architectures
15:31 -
Module 9: Linear and Nonlinear Systems
08:15 -
Module 9: Effects of Nonlinearity
01:35 -
Module 10: Input – Output Power Relation
04:19 -
Module 10: Nonlinear Gain
02:30 -
Module 10: Nonlinear Gain
02:30 -
Module 10: 1db Compression
04:21 -
Module 11: Harmonic Distortion
04:17 -
Module 11: Spectral Growth
03:04 -
Module 11: Power Back-off Operation
01:51 -
Module 12: Intermodulation
03:45 -
Module 12: Intermodulation – Characterization
12:29 -
Module 12: Intermodulation – Intercept Point (IIP)
03:26 -
Module 13: Power and Efficiency
06:18 -
Module 14: Channel Capacity and Nyquists Theorum
09:23 -
Module 14: Hartley’s Law
05:34 -
Module 14: Shannon’s Theorem
13:06 -
Module 15: Antenna Gain
13:25 -
Module 15: Friis Equation
02:28 -
Module 16: Receiver Basics
08:40 -
Module 16: Noise and BW and Wienen Khinchen Theorem
15:14 -
Module 17: Homodyne Receiver
06:08 -
Module 17: Heterodyne Receiver –and Image Rejection
09:10 -
Module 18: Super Heterodyne Receiver
02:21 -
Module 18: Image Reject Receiver
05:24 -
Module 19: Signal to Noise Ratio (SNR)
11:55 -
Module 20: Noise Power
06:56 -
Module 20 – Input Referred Noise
05:45 -
Module 20 – KTB Noise
08:32 -
Module 21: Noise Figure
10:36 -
Module 22: Receiver Nonlinearity
05:37 -
Module 23- Intermodulation – Intercept Point
07:37 -
Module 23 – Receiver RF Budget Calculation
05:31 -
SMD Soldering tutorial – bits2waves
04:26 -
How to scale FFT and PSD in Matlab
14:45 -
PCB cutter device
00:24 -
Circuit Design – 1
06:07 -
Circuit Design – 2
11:30 -
PVB FABA design
00:00 -
SMD Soldering tutorial – bits2waves
04:26
