October 26, 2023
AI Shortcuts for PCB Design
Share
The Copilot Context Menu makes harnessing the power of Copilot easier than ever before. By giving users a list of predetermined prompts and actions to choose from, the Context Menu lets you access Copilot with the click of a button. Simply right-click on a component or project, and choose the prompt you want to use.
Some options include:
Copilot relies on Large Language Model (LLM) technology, whose quality and accuracy may vary. For this reason, it’s important to think of Copilot as a tool to augment your work, not a replacement for a real engineer. But, now that Copilot is even easier to use, the opportunities are endless.
As a professional, you can catch errors earlier on, save time, and reduce risks in your design. As a student, you can learn faster and get a deeper understanding of your designs. As anyone who loves hardware, you can have more confidence in your design knowing that a powerful AI has your back every step along the way.
Copilot keeps getting better, but it would be meaningless without the Flux community. The real power of Copilot lies in what each Flux user will create with it. We can’t wait to see what amazing designs you all come up with. So what are you waiting for? Try out Copilot today!
A 2026 comparison of the top PCB design tools — Flux, Altium Designer, KiCad 10, and Fusion 360 — covering usability, features, collaboration, pricing, and the shift toward cloud-native, AI-assisted workflows.
A beginner-friendly guide to electronic circuit design, walking through schematics, key components, the schematic-to-PCB workflow, and how modern collaborative tools speed up hardware development.
A practical guide to high-current PCB design, covering trace width and copper weight, thermal management with vias and copper pours, layout best practices, and common mistakes to avoid in power electronics boards.
A guide to choosing PCB materials, comparing standard FR4 with advanced substrates like Rogers, PTFE, polyimide, and ceramics, and explaining how dielectric, thermal, and mechanical properties affect performance.
A practical guide to calculating PCB trace resistance, covering the core formula, how geometry affects resistance, worked examples, and design tips to minimize voltage drop and heat.
A practical guide to diagnosing and fixing PCB failures, covering common symptoms, a step-by-step debugging workflow, essential tools (multimeter, oscilloscope, logic analyzer, thermal camera), a pre-power-up checklist, and the design mistakes that most often lead to broken boards.
A practical guide to PCB impedance control, covering why it matters for signal integrity, the four physical variables that shape trace impedance, and how to enforce impedance targets from stackup planning through routing and fabrication.
A practical guide to reducing EMI in PCB design through grounding, return path control, shielding, and layout best practices. Covers EMC compliance with CISPR 32 and FCC Part 15.
