PCB Design for Satellite Systems - Extended EditionPractical Engineering for Space-Grade Electronics, RF, High-Speed Digital, Power, Thermal Management, Reliability and VerificationDesigning a PCB for a satellite requires far more than placing components and routing traces. Space electronics must remain electrically functional, electromagnetically predictable, thermally manageable, mechanically robust, manufacturable, inspectable, and reliable throughout the mission lifecycle. PCB Design for Satellite Systems - Extended Edition is an expanded professional guide to PCB engineering for spacecraft, satellite communications, payload electronics, RF systems, digital processing hardware, and other high-reliability space applications. The book develops an integrated methodology:REQUIREMENTS → ARCHITECTURE → CURRENT PATHS → FIELDS → MATERIALS → THERMAL / MECHANICAL → MANUFACTURING → VERIFICATION → MISSION RELIABILITYThe Extended Edition provides detailed treatment of the complete development process, connecting system requirements with physical PCB implementation and verification. Topics include: Space Environment - launch vibration and shock, vacuum, thermal cycling, radiation, contamination, outgassing, and mission-life considerations. Architecture & Reliability - requirements flow-down, functional partitioning, redundancy, fault containment, FMEA, derating, and design assurance. Components, Materials & Stackup - radiation-aware selection, RF materials, controlled impedance, reference planes, copper and surface finishes. Power Integrity & Grounding - spacecraft power interfaces, PDN architecture, decoupling, filtering, sequencing, return currents, and chassis bonding. High-Speed Digital & FPGA Design - transmission lines, differential interfaces, memory, BGA escape, clocks, reset, signal integrity, and test access. Analog & Mixed-Signal Design - sensors, ADC/DAC interfaces, references, filtering, calibration, and noise control. RF, Microwave & mmWave Design - LNAs, PAs, filters, matching, synthesizers, coaxial launches, microwave transitions, PCB antennas, Ku/Ka-band structures, and EM verification. Phased Arrays & Beamforming - RF distribution, synchronization, calibration, array architecture, power, and thermal management. EMC & EMI - common-mode currents, harnesses, shielding, chassis bonding, switching noise, and RF coexistence. Thermal & Mechanical Engineering - heat conduction in vacuum, thermal vias, chassis coupling, vibration, shock, PCB flex, and component retention. HDI & Dense Packaging - microvias, blind/buried vias, via-in-pad, sequential lamination, and fine-pitch BGA escape. Manufacturing, Assembly & Verification - DFM, fabrication documentation, traceability, soldering, cleanliness, inspection, AOI, X-ray, electrical testing, qualification, acceptance, and nonconformance control. A complete satellite RF and digital control board case study connects RF front ends, FPGA processing, data converters, clocks, power conversion, high-speed routing, EMC, thermal paths, manufacturing, and verification. Part of the PCB Engineering Master Series, this volume complements the books covering PCB fundamentals, layout, stackup, RF, signal integrity, EMC, power electronics, manufacturing, and reliability. Together, the series forms a connected engineering reference for professional PCB development. PCB Design for Satellite Systems - Extended Edition is intended for PCB designers, electronic and RF engineers, hardware engineers, aerospace professionals, and advanced students seeking a practical understanding of reliable PCB engineering for satellite and space hardware.