PCB design and manufacturing are critical steps in building electronic products. Our guides and tutorials cover everything from schematic design and layout to fabrication and assembly. Learn best practices for designing efficient, high-quality PCBs and gain insights into the entire manufacturing process, ensuring your designs are optimized for performance and cost.
The SMT pick-and-place process is only as stable as the data, feeders, board support, and print quality behind it. This guide explains where placement accuracy is really won or lost before reflow.
A PCB BOM structure is not just column formatting. This guide explains which fields, alternate rules, and DNP conventions let purchasing and assembly read the same part-level truth without manual cleanup.
The impedance of a capacitor is not just 1 over omega C once ESR, ESL, DC bias, and PCB mounting are involved. This guide explains how real capacitors behave across frequency and why the lowest-value part is not always the best bypass choice.
Cheap PCB assembly only stays cheap when DFM, sourcing quality, test coverage, logistics, and rework exposure are controlled together. This guide shows where low quotes usually hide engineering and supply-chain cost.
PCB silkscreen is not cosmetic when reference designators, polarity, test points, and connector labels have to stay readable after assembly. This guide shows what to print, what to leave out, and where silkscreen mistakes create real manufacturing trouble.
What is BOM becomes a more serious question once a PCB release leaves the engineer’s screen. This guide explains what a bill of materials controls, which fields matter most, and why weak BOM data creates sourcing, assembly, and revision errors.
SMT assembly problems rarely begin at the oven. This guide explains how paste control, placement accuracy, inspection access, and board design determine whether a surface-mount build stays predictable or turns into rework.
A PCB prototype is not just a faster board order. This guide explains what the first build should prove, where prototype packages usually break down, and how to turn one board spin into better manufacturing and bring-up decisions.
Dual inline package meaning is easy to define, but the useful question is why a DIP still appears on some boards. This guide explains what the package is, when socketing and repairability make sense, and where board density and assembly cost push designs toward SMT instead.
How to make labels in KiCad is really a question about net scope. This guide explains when to use local, global, and hierarchical labels so your schematic stays readable, reviewable, and less likely to hide accidental connections.
