Designing PCBs for Medical Devices: Key Considerations & Compliance Tips

PCB design for medical electronics demands more than just electrical functionality. Devices must mee...

LPI Solder Mask vs. Polyimide Coverlay: Choosing the Right Protection for Flexible Circuits

Why You Should Involve Your Flex Circuit Manufacturer Early in the Design Process

In product development, timing is everything. But too often, the flexible circuit comes late in the ...

Rigid-Flex: The Winning Technology Behind Impact Monitoring Sensor

Next-Generation Wearable Health Monitoring: Polymer Thick Film Electronics and Biosensor Patches

Flexible Circuits Powering the Next Generation of Drones

Modern drones demand electronic systems that are lightweight, compact, and highly reliable. Traditio...

Designing for Edge-Mounted PCBs: Best Practices and Considerations

Roll-to-Roll Processing: Driving the Next Generation of Flexible Circuits

Metal Core PCBs (MCPCBs): Thermal Muscle for High-Power Electronics

Compact Power, Cooler Systems: The Case for Ceramic PCBs in Modern Electronics

Hybrid Flex PCB Assemblies: Combining Technologies for Smarter Designs

Using Flex Circuits to Design Smaller, Smarter Electronics: The Smartphone Advantage

Environmental Resilience in Flex PCB Design

Biocompatible Substrates for Flex and Rigid PCBs

Best Practices for Grounding, Enclosure-Level Shielding, and Cable Shielding

Advanced Trace Routing Techniques for Flexible PCBs: Boost Reliability and Performance

Mastering Thermal Management in Flex PCB and Rigid PCB Design

Step-by-Step Guide to the Flex Printed Circuit Board Assembly (FPCBA) Process

Designing for Precision: Controlled Impedance in Flexible Circuits

As electronic devices shrink and signal speeds increase, one design requirement becomes mission-crit...

Bending Without Breaking: How Flexible Circuits Are Tested for Reliability

Flexible circuits are built to bend—but only when designed and tested to handle real-world mechanica...