Length: 2 Days

Ku-Band RF & Antenna Design for SATCOM and ISR Platforms Fundamentals Training by Tonex

Ku Band Radar Systems

Master Ku-band RF engineering and antenna design principles that power modern GEO/LEO SATCOM links and airborne ISR payloads. You’ll connect system-level goals—availability, throughput, and SWaP—back to antenna choices, link budgets, and platform constraints. The course also addresses contested environments where jamming, rain fade, and motion dynamics degrade performance. Cybersecurity matters here because SATCOM ground segments, modems, and phased arrays ride on IP-based control and management planes. Secure beam steering, crypto-agile keying, and hardening of RF control paths protect mission traffic and command links. You’ll leave ready to specify, evaluate, and defend Ku-band terminals end-to-end.

Learning Objectives

  • Explain Ku-band spectrum, propagation, and regulatory limits
  • Compare reflector and phased-array antenna architectures
  • Build and stress-test Ku-band link budgets with realistic margins
  • Mitigate rain fade, platform motion, and pointing errors
  • Evaluate anti-jamming and interference resilience for contested links
  • Apply secure configuration, telemetry hardening, and cybersecurity controls to SATCOM systems

Audience

  • RF and antenna engineers
  • Satellite communications engineers
  • ISR payload and mission systems engineers
  • Systems and integration engineers
  • Program and technical managers
  • Cybersecurity Professionals

Course Modules

Module 1 – Ku-Band Foundations

  • Ku allocations, 12–18 GHz overview
  • GEO, MEO, LEO SATCOM use cases
  • Space/air/ground segment roles
  • Propagation, atmospheric losses, clutter
  • Polarization options and trade-offs
  • Standards, licensing, ITU/NTIA context

Module 2 – Antenna Architectures

  • Reflector vs phased-array comparisons
  • Aperture, gain, G/T fundamentals
  • Feed networks, illumination, spillover
  • Active phased array basics, TRMs
  • Beamwidth, sidelobes, shaping methods
  • Mechanically vs electronically steered trade-offs

Module 3 – Beam Control and Pointing

  • Beam steering accuracy drivers
  • Calibration, boresight, squint control
  • Scan loss and element pattern effects
  • Tracking modes: conical, monopulse, Kalman
  • Inertial/GNSS aiding and stabilization
  • Platform motion compensation techniques

Module 4 – Link Budget and Availability

  • EIRP, G/T, C/N₀ relationships
  • Rain fade statistics and margins
  • Availability targets, 99.5–99.99% design
  • Adaptive coding and modulation choices
  • Uplink power control strategies
  • Carrier planning, guard bands, roll-off

Module 5 – Contested and Congested Environments

  • SATCOM jamming threat taxonomy
  • Spot-beam defense and null steering
  • Cross-polarization interference mitigation
  • EMI/EMC hardening, filtering, shielding
  • Spectrum monitoring and interference geolocation
  • LPI/LPD waveforms and obfuscation concepts

Module 6 – Platforms, Integration, and Security

  • Airborne, maritime, land terminal constraints
  • SWaP, thermal, environmental qualification
  • Modem and RF chain interfaces
  • Ground segment orchestration and control paths
  • Secure keys, crypto agility, configuration hygiene
  • Telemetry/authentication logging for cybersecurity assurance

Ready to level up Ku-band SATCOM and ISR capability—performance, resilience, and security included? Contact Tonex to schedule this course for your team and tailor it to your mission profile.

Request More Information