Why do ordinary PCBs fail in space while others continue operating for years?

In this episode of Silicon to Software, Imran Valiani explains the engineering realities behind designing printed circuit boards for satellites and spacecraft.

You'll learn:

• How cosmic radiation damages semiconductor devices • Single Event Upsets (SEUs), Total Ionizing Dose (TID), and latch-up failures • Why launch vibration, thermal cycling, and vacuum environments challenge PCB reliability • Radiation hardening techniques used in modern satellite electronics • PCB materials, shielding strategies, redundancy, and fault-tolerant system design • Why reliability engineering is more important than raw performance in orbit

Whether you're a PCB designer, hardware engineer, aerospace engineer, electronics manufacturer, semiconductor professional, or engineering student, this episode explains the real engineering tradeoffs behind building electronics that survive in space.

Topics Covered:

✔ Satellite PCB Design ✔ Space Electronics ✔ Radiation Hardening ✔ Aerospace PCB Manufacturing ✔ PCB Reliability Engineering ✔ Radiation Effects on Electronics ✔ Hardware Design for Space Missions ✔ Aerospace Electronics Manufacturing

Subscribe for weekly engineering insights covering:

• PCB Design • PCB Manufacturing • Semiconductor Engineering • AI Hardware • Embedded Systems • Electronics Reliability • Advanced Manufacturing • Cybersecurity • Emerging Technologies

Silicon to Software is hosted by Imran Valiani, bringing over 20 years of experience in PCB manufacturing and technology sales to explain the engineering realities behind today's most important technologies.

Read the full article: https://www.silicontosoftware.com/satellite-pcb-space-radiation/

Radiation-induced failures such as SEUs and TID remain fundamental design constraints for space electronics, while radiation-aware design, redundancy, shielding, and qualification testing are standard engineering approaches for improving mission reliability.