Radar and RF Systems Engineering Corporate Training
Turn radar and RF theory into field-ready systems your team can design, measure, and troubleshoot.
Give your enterprise teams the radar and RF engineering skills that turn theory into fielded systems. Edstellar's Radar & RF Systems Engineering corporate training program helps your engineers master RF fundamentals, antenna design, radar architecture, and signal processing through instructor-led, hands-on labs. As the corporate training company enterprises trust for emerging-technology programs, we tailor every workshop to your industry, systems, and goals.
Instructor-led group trainingVirtual / on-site / off-site10 languagesDelivered inEnglish, Spanish, Mandarin, German, Arabic, Portuguese, Hindi, French, Japanese, Italian100+ countriesWe have delivered inUnited States, United Kingdom, India, Canada, Germany, France, Netherlands, UAE, Saudi Arabia, Singapore, Australia, Japan, Brazil, South Africa and 90+ more countries
How we build radar-ready engineering teams
THE EDSTELLAR RADAR & RF SYSTEMS CAPABILITY MODEL
Baseline RF skills
Prerequisite checks and skill assessments pinpoint your team's starting RF and radar capability.
Set one design standard
One shared standard for RF design, radar equations, and signal processing across the team.
Practice in real labs
Hands-on labs with spectrum analyzers, VNAs, and simulations turn theory into working skill.
Prove the lift
Lab assessments and the capstone design review show measurable capability growth.
Scale across cohorts
One RF standard rolls out across engineering teams, sites, and batches.
Need more than one program?Get a group quote
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Program Overview: What is Radar and RF Systems Engineering Corporate Training?
Radar & RF Systems Engineering is an instructor-led program for engineering teams that design, build, and test radio frequency systems and radar. Participants master RF fundamentals, antenna theory and design, front-end circuits, radar principles and the range equation, signal processing, and link performance. Hands-on labs turn the theory into working capability from the first module.
After a training needs analysis maps the curriculum to the team's RF skill gaps, eight modules and 26 hours of live sessions follow. Trainers lead sessions built around the team's industry systems, with guided labs, simulations, and troubleshooting exercises. Pre- and post-assessments plus Edstellar's Skills Matrix track progress at individual and team level. The program closes with a radar system design capstone where the team specifies, budgets, and validates a complete design.
Radar and RF expertise is scarce and hard to hire, and teams without it make expensive guesses: overspecified antennas, failing link margins, and signal processing that dies on hardware. This program builds the expertise inside the team, from electromagnetic basics to validated designs, so programs stop depending on a single specialist.
The capstone is a Radar System Design Capstone. Each team specifies antennas, budgets link margins, designs the signal processing chain, and validates the design with test equipment and measurements. Trainers challenge the design decisions the way a design review board would, probing every assumption about range, resolution, and interference. Your engineers return able to defend a radar design on its merits, and the team's next RF program starts with in-house expertise instead of a recruiting search.
Radar and RF expertise is scarce and hard to hire for. This program builds it inside your team, covering the full chain from electromagnetic basics to radar system design. Your engineers learn to specify antennas, budget link margins, process radar returns, and validate designs with test equipment.
The result: engineers who design RF systems with confidence, diagnose field issues faster, and deliver the radar capability your programs rely on.
What's Included in this Workshop for Your Enterprise Teams
- 1
RF fundamentals and decibel math
Frequency, wavelength, and dB math for RF work.
- 2
Antennas and front-end circuits
Antennas, matching, filters, and low-noise chains.
- 3
Radar equations and waveforms
Range equation, Doppler, and waveform choices.
- 4
Hands-on RF labs
Measure, simulate, and troubleshoot real RF circuits.
- 5
Capstone system design
Design and analyze an end-to-end radar system.
- Training delivered at any of your offices globally
- 10+ languages
- Schedule around your calendar
- Group size set along with you
- Run as one cohort or split into batches
- Instructor-led (virtual/onsite/hybrid)
- Recurring and annual options
- Trainer sourcing, matching and logistics
Build your team's skills. Anywhere in the world.
Real-world use cases
from day one
Instructor-led training
for your teams
Delivered globally
in 100+ countries
Enterprise Training Solutions Customized for Your Company
One partner for instructor-led corporate training, delivered the way your teams work.
Request a Training Quote- Customized Training Delivery
- Scale Your Training: Small to Large Teams
- In-person Onsite, Live Virtual or Hybrid Training Modes
- Plan from 2000+ Industry-ready Training Programs
- Hands-On Labs on Live Infrastructure, Led by Industry Experts
Radar and RF Systems Engineering Course Topics and Program Outline
Eight modules move from RF fundamentals to a radar system design capstone. Sessions are customized to your industry and systems, and every lab turns theory into working engineering capability.
Built by Edstellar with radar and RF engineers
Built by practitioners with hands-on radar and RF systems experience across defense and industry programs.
Baseline each participant's radar and RF systems readiness before module 01 begins
Build strong radar and RF engineering foundations in instructor-led sessions for your team
Reinforce skills through guided hands-on labs on radar waveforms and RF measurement rigs
Apply radar and RF skills to real-world scenarios and a capstone link-budget project
A short pre-training assessment sets each participant's entry level, so the program starts where your team actually is. The rest is weighted toward hands-on practice: radar waveform labs, RF link budgets, and realistic scenarios drawn from your team's work, not slides.
Delivered as
Entry level set by the assessment. Depth and schedule customized to your team.
Warm up with decibel and wavelength drills and a guided tour of the lab instruments you will use throughout the program.
learna)Frequency, wavelength, and spectrum bands
b)Decibels, dBm, and dBW in practice
c)Impedance, VSWR, and matching basics
d)Regulatory bands and spectrum use
Model a dipole and a patch antenna in simulation, then compare the predicted patterns with measured results.
learna)Antenna parameters: gain, directivity, efficiency
b)Dipoles, monopoles, and patch antennas
c)Phased arrays and beam steering basics
d)Selecting antennas for system requirements
Assemble a receive chain in simulation, then budget its gain, noise figure, and linearity end to end.
practicea)Filters: types, specs, and selection
b)Low-noise and power amplifiers
c)Mixers, oscillators, and frequency planning
d)Nonlinearity, intermodulation, and dynamic range
e)Cascaded link budget and noise figure
Work the radar range equation by hand, then verify your calculations in a guided spreadsheet model.
learna)Radar types: pulsed, CW, FMCW
b)The radar range equation, term by term
c)Doppler shift and velocity measurement
d)Target detection and false alarms
Implement matched filtering and pulse compression in code and run a CFAR detector on simulated radar returns.
practicea)Sampling and digital receiver basics
b)Matched filters and correlation
c)Pulse compression and range resolution
d)CFAR detection in clutter and noise
e)Tracking fundamentals and data association
Simulate digital modulation schemes and measure bit error rates across noisy, fading channels.
practicea)Digital modulation: PSK, QAM, FSK
b)Bit error rate and link margin
c)Channel effects: fading and multipath
d)Receiver design for reliable links
Characterize a circuit with a spectrum analyzer and VNA, then isolate a planted fault with a systematic method.
practicea)Spectrum analyzer measurements
b)Vector network analyzer basics
c)Signal sources and calibration
d)Systematic RF fault isolation
Design an end-to-end radar system for a mission brief: requirements, waveform, link budget, and validation plan, then defend it in a design review.
applya)Mission requirements and system specs
b)Waveform and architecture trade studies
c)Performance prediction and validation
d)Capstone design review and feedback
Customize this program tailored to your team?
Tell us your training needs: what your team already works with, the level they’re at, and the topics you want them to focus on. We’ll adjust the modules, duration and hands-on labs, and send you a customized outline for your group.
Key Skills and Outcomes Your Team Will Gain
Your engineers will leave able to design, measure, and validate radar and RF systems. Every outcome is practiced in hands-on labs and proven in the capstone design exercise.
Apply RF math with confidence
Use frequency, wavelength, and decibel math to size up any RF design or measurement on the spot.
Select and specify antennas
Match antenna types, gain, and patterns to system requirements and mounting constraints.
Design RF front-end chains
Assemble filters, amplifiers, and mixers into receive chains with a defended link budget.
Work the radar range equation
Predict detection range and velocity accuracy from radar parameters and target specs.
Process radar signals in code
Implement matched filtering, pulse compression, and CFAR detection on real signal data.
Measure and debug RF hardware
Use spectrum analyzers and VNAs to characterize circuits and isolate faults fast.
Build a full radar system
Turn mission requirements into a validated radar architecture, ready for review.
Teams that Benefit from this Radar and RF Systems Engineering Group Training
This program is built for engineering teams that design, build, or test RF and radar systems. Content adapts to each cohort's baseline, from RF newcomers in adjacent roles to experienced engineers going deeper, so every participant practices the tasks their role actually owns.
Design RF hardware with confidence.
Hardware engineers deepen RF circuit skills: impedance matching, front-end design, and measurement with real test equipment, so designs work on the first prototype.
Workflow friction
- Theory that never connected to real circuits
- Prototype spins wasted on matching errors
- Test equipment used only at surface level
How the program helps
- Match and tune circuits with confidence
- Cut prototype spins with right-first-time design
- Use VNAs and spectrum analyzers fully
Practice use cases
- Front-end design
- Link budgeting
- Lab measurement
Field radar systems that perform.
Radar and systems engineers connect waveforms, processing, and hardware into complete radar designs, validated against mission requirements in the capstone.
Workflow friction
- Waveform choices made without analysis
- Signal processing treated as a black box
- System trade-offs decided too late
How the program helps
- Choose waveforms from analysis, not habit
- Own the full signal processing chain
- Make trade-offs early with data
Practice use cases
- Radar architecture
- Pulse compression
- System trade studies
Measure and verify RF performance.
Systems and test engineers learn to specify, measure, and troubleshoot RF performance, from link budgets to fault isolation on the bench.
Workflow friction
- Link budgets that do not add up
- RF faults that take weeks to isolate
- Measurements nobody trusts
How the program helps
- Budget links with margin you can defend
- Isolate RF faults in hours, not weeks
- Produce measurements the team trusts
Practice use cases
- Test planning
- Fault isolation
- Compliance testing
Each cohort works on role-relevant labs and systems, then leaves with radar and RF skills ready for day-to-day engineering work.
Prerequisites: An engineering degree or equivalent experience is recommended, with basic math and physics helping. No prior radar experience is needed: the program builds from RF fundamentals, and cohorts are grouped by baseline so newcomers and experienced engineers each work at the right depth.
Electronics Engineer to Radar System Architect
The program takes engineers from RF basics to boardroom-ready radar system design: foundation math and components, intermediate antennas and signal processing, then advanced system trade studies and a capstone review.
Engineers grow from RF fundamentals to full radar system design as the modules progress, with labs matched to each level.
Different Teams, Locations, Time Zones, or Languages? We've Got You Covered.
Whether your teams are spread across countries, time zones, languages, or experience levels, we deliver tailored training programs that ensure a consistent learning experience across your global workforce.
Certificate of Training Completion.
On successful completion, employees receive an Edstellar course completion certificate, recognizing their commitment to ongoing learning and professional development. It validates the skills they have built and motivates them to keep growing and contribute to organizational success.
Earned, not attended. Awarded on completion of all hands-on labs and the capstone project.
Training Delivery Modes: Onsite, Virtual and Hybrid
Every mode blends expert instruction with supervised hands-on labs. Tell us your team's locations, schedule, and systems, and we will recommend the onsite, live virtual, or hybrid format that fits.
Onsite Training
Your instructor delivers at your facility, with labs set up around your radar and RF systems and test equipment. Engineers work real measurement and design exercises with direct coaching.
- Instructor delivers at your site
- Labs set up around your systems
- Direct coaching during every exercise
- Best for co-located engineering teams
Live Virtual Training
Live virtual sessions on Zoom or Microsoft Teams, with remote simulation labs and screen-shared guidance through every exercise. Your engineers design, model, and analyze radar systems together in real time.
- Live sessions on Zoom or Microsoft Teams
- Remote access to the simulation environment
- Screen-shared guidance through every lab
- Best for distributed engineering teams
Hybrid Training
Live instructor-led sessions blend conceptual teaching with supervised hands-on labs across sites. Your engineers model antennas, simulate signal processing, and work measurement exercises with instructor guidance throughout.
- Live instruction with supervised lab practice
- Simulations plus instrument-based exercises
- Real radar and RF systems as examples
- Best for engineers across sites and shifts
Need a customized training format that works for your team?
Our training delivery is customized to your team's schedule, full days, half days, sessions spread across weeks, or modular formats. Share your preferred timeline, and we'll plan the training around it.
Frequently Asked Questions
Share your team size, preferred dates, and delivery mode in the lead form below. We reply with a tailored proposal covering scope, labs, schedule, and pricing for your group, usually within one business day.
Both, and as a hybrid mix. The standard technical format blends instructor-led sessions with supervised hands-on labs, delivered live online, at your facility, or across sites.
The standard program runs 26 hours of instructor-led sessions, typically over four days. We can reshape the schedule around your team's calendar.
We recommend 12 to 16 engineers per cohort so every participant gets bench time in the labs. Larger teams can run as parallel batches.
Yes. We customize examples, lab exercises, and the capstone around your radar and RF systems, frequency bands, and test equipment before delivery.
Question not answered here?
Put it in the request. A training specialist answers it directly, within one business day.
Where this Training Fits in Your Team's learning path.
RF engineering is the second step after radar basics. In this course your team engineers the radio frequency hardware, then the path moves to phased array antenna design and ends with modelling and simulating complete radar systems.
LEARN RADAR BASICS
Radar Systems Fundamentals Training
Learn radar principles such as detection, range and Doppler before working on hardware.
ENGINEER RF SYSTEMS
Radar & RF Systems Engineering Training
Engineer radar and RF systems: transmitters, receivers, antennas, link budgets and noise.
DESIGN PHASED ARRAYS
Phased Array Antenna Training
Design phased array antennas and beamforming that build directly on the RF engineering principles from this course.
MODEL AND SIMULATE
Radar Systems Modeling and Simulation Training
Model and simulate full radar systems to predict performance and test design choices before hardware is built.
Why Choose Edstellar as Your Radar and RF Systems Engineering Enterprise Training Provider
From a single engineering workshop to a multi-site capability rollout, Edstellar is your one-stop partner for corporate training. Tell us your goals. Our learning consultants will design a radar and RF program that closes skill gaps, engages your engineers, and delivers results you can measure.
EXPERT TRAINERS
YEARS DELIVERING
ORGANIZATIONS TRAINED
CERTIFIED
Tailored
Content shaped around your radar and RF systems use cases, so every session maps to your real antenna and signal needs.
Proven Methodology
5+ years delivering corporate training to RF and electronics engineers across industries and regions.
Practice-Based Learning
8 hands-on labs across 8 modules. Your team builds radar and RF subsystem designs with instructor guidance.
Expert Trainers
5,000+ certified trainers matched to your radar and RF systems stack, with a full trainer profile shared before your program is booked.
Global Scale
One radar and RF systems program across your offices worldwide, in hybrid, onsite, or live virtual.
Measurable Outcomes
Baseline-to-capstone measurement and Skills Matrix reporting keep your radar and RF systems capability lift visible.
Connect RF Design, Radar Analysis, and Measurement Evidence in System Reviews
Edstellar develops radar and RF engineering skills through linked calculations, simulations, and measurement exercises. Participants examine antennas, receive chains, waveforms, and signal processing before diagnosing circuit behavior. A system design review brings requirements and validation together, assessed for consistent budgets, transparent assumptions, and evidence supporting the proposed architecture.
- Step 01
Consult
We assess engineering, mathematics, and physics foundations to identify gaps in RF calculations, antenna behavior, receive-chain analysis, or systematic measurement and troubleshooting.
- Step 02
Plan
We establish RF fundamentals before antennas and front-end circuits, then connect range analysis, signal processing, link performance, and measurement with the design capstone.
- Step 03
Align
We align RF design and measurement expertise with the cohort's baseline, confirming appropriate simulation tools and available instrument arrangements before hands-on testing exercises.
- Step 04
Customize
We adapt sample antenna models, receive chains, and notional sensing briefs to familiar engineering contexts, preserving noisy-channel comparisons and controlled circuit faults for analysis.
- Step 05
Execute
Participants compare antenna patterns, budget receive-chain performance, and investigate test results, receiving feedback on gain and noise assumptions, processing choices, and fault-isolation reasoning.
- Step 06
Evaluate
We assess the system proposal for traceable requirements, coherent RF and waveform calculations, and a validation plan that addresses the uncertainties exposed during analysis and testing.
Also from Edstellar
Talent assessments
Psychometric, behavioral, leadership and 360-degree assessment.
→Training needs analysis
Needs analysis, gap identification, and a training roadmap.
→L&D consulting
Learning strategy, content, technology and ROI measurement.
→OD consulting
Org design, succession planning and cultural change.
→Managed training services
Training outsourcing, vendor management, logistics and administration.
→Coaching solutions
Executive and manager coaching that keeps skills in use.
Start an RFP shaped to your needs.
Answer three quick questions about team size, scope, and how often you need the program run, then send the request from the last step. Everything you choose travels with it, so you only fill this in once.
How many team members need training?
Radar & RF Systems Engineering Training Packages & Pricing
Where L&D holds an annual budget, license packages price the whole year at once instead of raising a purchase order per workshop. Hours and licenses are pooled across teams, programs and locations, so unused capacity is not stranded in one department.
Starter
120
trainee licenses64 hours of group training
Tailored for SMBs
Growth
320
trainee licenses160 hours of group training
Ideal for growing SMBs
Enterprise
800
trainee licenses400 hours of group training
Designed for large corporations
Custom
Unlimited
trainee licensesDuration set by the rollout
Multi-region and multi-year
Training Packages & Pricing
Choose the training format that works for your team. Pricing is customized based on your requirements, cohort size, and delivery needs.
Request a Quote for Radar and RF Systems Engineering Training for Your Team
Share your team size, current RF systems, preferred delivery mode, and timelines. We will respond with a tailored training plan covering scope, labs, schedule, and pricing, and confirm trainer availability.