
MICRO DEGREE
Power and RF System Design
Power and RF System Design
100% LIVE Interactive Classes
Power and RF System Design

100% LIVE Interactive Classes
Reserve your spot today!
Basic Info
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Application closes on:21 Jun 2026
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What is in it for you?
100% Live Classes
Instructor-led Live Sessions
Attend 4 weeks of instructor led live classes from the top 1% industry experts
Projects & Case Studies
Projects & Case Studies
Gain hands-on experience with projects and real-world case studies for impactful learning.
Verified Certificate
Verified Certificate
Earn a industry recognized certificate and kick start your career
Session Recordings
Session Recordings
Revisit older chapters anytime with recorded sessions
Flexible Schedule
Flexible Schedule
Choose live classes from different cohorts that fit your availability.
Hands-on Classes
Hands-on Classes
Hands-on classes to enhance your learning experience
100% Moneyback Guarantee
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Reserve your spot today!
Basic Info
Select Offers
Application closes on:21 Jun 2026
Get instant access of pre-course material!
Talk to Us
We’re here to help! Reach us at:
Learn from Top 1%
Sr. Managers, VPs, CXOs, Directors & Founders from companies shaping the future.

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Curriculum
Duration: 6 weeks
Max Batch Size: 15 persons
Live Sessions Schedule
Sat - Sun (Weekends Only)
Timing 7:00 AM - 9:00 AM / 8:30 AM - 10:30 AM / 11:00 AM - 1:00 PM / 5:00 PM - 7:00 PM / 7:30 PM - 9:30 PM EST
- Overview of power and RF subsystems in modern electronics
- Key performance metrics: efficiency, noise, gain, and linearity
- Frequency spectrum and power domain interactions
- Trade-offs between analog, RF, and digital sections
- Block-level hardware design considerations
- Industry applications: IoT, automotive, wireless, and telecom
- Linear vs. switching regulators: principles and design trade-offs
- DC-DC converter topologies (buck, boost, buck-boost)
- Power sequencing and soft-start techniques
- Feedback loop design and compensation methods
- Thermal design and heat dissipation strategies
- Designing regulated power rails for RF and mixed-signal systems
- Understanding power distribution networks (PDN)
- Grounding and decoupling for mixed-signal and RF systems
- Noise coupling, EMI/EMC considerations, and mitigation
- Transient response and load regulation techniques
- Simulation of power integrity using SPICE tools
- PCB layout guidelines for clean power delivery
- Fundamentals of electromagnetic waves and RF signal behavior
- Frequency bands, modulation techniques, and spectrum usage
- Key RF parameters: S-parameters, VSWR, gain, and noise figure
- Passive RF components: filters, couplers, and attenuators
- Active components: amplifiers, mixers, and oscillators
- Overview of RF front-end architecture in wireless systems
- Power amplifier classes (A, B, AB, C, D, E, F) and applications
- Impedance matching and maximum power transfer
- Low-noise amplifier (LNA) design and stability analysis
- RF filter design using lumped and distributed elements
- Band-pass, band-stop, and LC filter tuning
- Practical simulation and testing of RF gain stages
- Oscillator fundamentals and feedback conditions
- Crystal, LC, and RC oscillator designs
- PLLs and frequency synthesizer design for RF systems
- Phase noise and jitter considerations
- Frequency stability and temperature compensation
- Simulation and measurement of oscillator performance
- Antenna types, parameters, and selection criteria
- Basics of impedance matching and Smith chart usage
- Transmission line theory and wave propagation
- Coaxial, microstrip, and stripline design practices
- VSWR measurement and reflection minimization
- Antenna tuning and real-world measurement techniques
- Layer stack-up design for RF and mixed-signal boards
- Controlled impedance routing and differential pair design
- Crosstalk, reflections, and shielding best practices
- Grounding and partitioning analog, digital, and RF sections
- Design for manufacturability and assembly for RF PCBs
- Simulation-driven layout validation (ADS, HFSS, or KiCad RF tools)
- Using VNAs, spectrum analyzers, and signal generators
- Measuring return loss, insertion loss, and S-parameters
- Power amplifier linearity and distortion testing
- RF emission, immunity, and EMC testing setup
- Calibrating and maintaining RF test environments
- Compliance with CE, FCC, and ETSI standards
- Co-design strategies for power and RF subsystems
- Managing coupling and interference between power and RF domains
- System-level efficiency and thermal trade-offs
- Design optimization for portable and battery-powered systems
- Case study: wireless transceiver with integrated power delivery
- Design documentation and production readiness checklist
Mentors

20+ Years, Sr. R&D Engineer, Ideaforge

10+ Years, Sr. Robotics R&D, Unbox Robotics
Course Includes

LIVE Interactive Sessions

Quizzes, Assignments & Projects

Study Materials & Session Recordings

Certificate
Course Includes

LIVE Interactive Sessions

Quizzes, Assignments & Projects

Study Materials & Session Recordings

Certificate
Course Pre-requisites
Foundational knowledge of electromagnetic theory and Maxwell's equations
Solid understanding of circuit analysis (AC/DC, Kirchhoff's laws, Thevenin/Norton equivalents)
Basic proficiency in analog electronics (op-amps, transistor biasing, filters)
Familiarity with basic PCB design concepts and schematic capture
Outcomes
Design efficient power conversion topologies including buck, boost, and buck-boost converters for embedded and RF applications
Implement impedance matching networks and transmission line designs for optimal RF power transfer
Analyze RF system performance using S-parameters, noise figure, gain compression, and linearity metrics
Design RF circuits including low-noise amplifiers, power amplifiers, mixers, oscillators, and filters
Architect frequency synthesis and control subsystems using PLLs and VCOs for wireless communication systems
Create RF and power PCB layouts with proper grounding, shielding, decoupling, and high-frequency routing techniques
Simulate and validate power and RF designs using industry-standard EDA tools such as LTspice and ADS
Integrate power delivery and RF subsystems at the system level for IoT, wireless, and radar applications
Projects You Will Build
Practical, enterprise-grade projects that reflect real industry challenges
Battery-Powered IoT Sensor Node with Integrated RF Transceiver
Design a complete battery-powered IoT sensor node featuring a high-efficiency DC-DC power supply and a sub-GHz RF transceiver front-end. Optimize the power budget, RF link margin, and PCB layout to achieve target range, battery life, and cost constraints for a smart home deployment scenario.
77 GHz Automotive Radar RF Front-End
Develop the RF front-end and power supply subsystem for a 77 GHz FMCW automotive radar module used in advanced driver-assistance systems. Implement the LNA, power amplifier, frequency synthesizer, and antenna feed network using simulation-driven design in ADS, and validate performance against automotive EMC requirements.
5G Small-Cell Power Distribution and RF Chain Design
Architect the multi-rail power distribution network and wideband RF signal chain for a 5G NR small-cell base station operating in the sub-6 GHz band. Optimize power amplifier efficiency and linearity using envelope tracking techniques, and address thermal management and regulatory compliance for RF emissions.

for successfully completing the 'Power and RF System Design' course conducted from 09 May 2026 to 20 Jun 2026
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for successfully completing the 'Power and RF System Design' course conducted from 09 May 2026 to 20 Jun 2026

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Frequently Asked Questions
Everything you need to know about the course
You should have a foundational understanding of electromagnetic theory, circuit analysis (AC/DC), and basic analog electronics including transistor operation and op-amp circuits. Familiarity with basic PCB design concepts is also helpful. A bachelor's degree in electrical engineering or equivalent experience is recommended.
The course covers power conversion topologies (buck, boost, buck-boost), RF fundamentals including transmission line theory, impedance matching, S-parameter analysis, amplifier design (LNA and PA), mixer and oscillator design, PLL-based frequency synthesis, RF PCB layout techniques, and full system-level integration of power and RF subsystems for applications like IoT, wireless communications, and radar.
Over the 6-week duration, you should plan for approximately 10-15 hours per week, which includes video lectures, interactive sessions with instructors, simulation exercises, and hands-on project work. Some weeks with project milestones may require additional time.
You will complete three industry-relevant projects: designing a battery-powered IoT sensor node with an RF transceiver, developing a 77 GHz automotive radar RF front-end, and architecting a 5G small-cell power and RF chain. Each project involves schematic design, simulation in tools like LTspice and ADS, and PCB layout considerations.
This course prepares you for roles such as Power Electronics Engineer, RF/Microwave Design Engineer, Wireless Systems Architect, and Hardware Integration Specialist. The hands-on projects and simulation experience provide a portfolio of work directly applicable to industries including telecommunications, automotive radar, IoT, and defense electronics.
You will use LTspice for power circuit simulation, Keysight ADS (Advanced Design System) for RF circuit and system simulation, KiCad for schematic capture and PCB layout, MATLAB for system-level analysis and signal processing, and gain practical understanding of Vector Network Analyzer (VNA) measurement techniques for RF characterization.
The Micro Degree course is an online LIVE course, where LIVE sessions will be conducted online on our Classroom platform. Prior to the start of the course, you'll receive preparatory material in the form of recorded content which can be access on the same platform.
In this course instructors will use English language for teaching.
Upon successful registration, you will receive a confirmation email on your registered email ID. In this email you will receive login details for your newly created account on the Edyoda Classroom platform (https://classroom.edyoda.com). Additionally, you will receive a PDF guide containing step-by-step instructions on how to utilize the platform to access live sessions and learning materials.
Our instructors are the industry experts with a minimum working experience of 10 years with a strong technical and teaching background. They bring industry knowledge and practical expertise to the course.
Yes, the course includes online assignments, quizzes, and a final project to reinforce your learning and assess your proficiency in Power and RF System Design.
Yes, you can interact with instructors and fellow students through discussion forums, live Q&A sessions. We encourage a supportive learning community.
We offer a 100% money-back guarantee to ensure your complete satisfaction. If you're not satisfied, you can request a full refund within 3 days of purchase or before the second session, whichever comes earlier. Simply contact our support team(support@edyoda.com) with your purchase details, such as the order ID or email address, and share your reason for the refund. Requests made after 3 days or after the second session will not be eligible for a refund. There are no hidden charges, you will receive the full amount paid. Refunds are processed within 7–10 business days and credited back to your original payment method.
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