Confused about 4 layer PCB thickness? This guide covers standard options like 1.6mm (default), 1.2mm (compact), and thinner variants, with stackup examples, impedance impact, DFM rules, and selection checklist for reliable production.
Standard 4 Layer PCB Thickness: 0.8mm, 1.2mm, 1.6mm Options Explained Read More »
This guide shows you how to design a robust 4 layer PCB step by step, from selecting the right stackup to routing high‑speed signals, planning power and ground planes, and applying DFM rules so your design can move smoothly from prototype into volume production.
4 Layer PCB Design Guidelines: From Stackup Planning to DFM Read More »
Choosing between a 4 layer and 6 layer PCB is often a trade‑off between performance, EMI risk, routing freedom, and budget. This guide walks you through real‑world use cases, key comparison points, and a simple checklist you can use to decide whether 4 layers are enough or it is time to step up to a 6 layer stackup.
4 Layer vs 6 Layer PCB: How to Choose the Right Stackup for Your Design Read More »
A practical 4 layer PCB stackup guide for hardware engineers. See common FR4 layer orders, when to choose each option, how stackup affects EMI and impedance, and what your manufacturer needs from you.
4 Layer PCB Stackup Guide: Standard FR4, EMI, and Best Practices Read More »
Satellite communication terminals rely on specialized high frequency PCBs to route low‑loss RF signals, interface with antennas, and survive harsh thermal and mechanical conditions on the ground and in orbit. This guide explains how to choose materials, stackups, and layouts for a satellite communication PCB and high frequency PCB for satellite systems that deliver low loss, stable impedance, and long‑term reliability.
Automotive radar PCB design sits at the heart of modern ADAS systems, where 77–79 GHz signals, harsh automotive environments, and strict safety targets all meet on a high frequency PCB. This guide explains how to choose materials, stackups, and layouts for automotive radar PCBs and high frequency PCBs for ADAS that are accurate, robust, and ready for mass production.
High frequency PCBs are at the core of 5G macro base stations and small cells, where Sub‑6 and mmWave signals demand low loss, tight impedance control, and robust reliability in harsh outdoor environments. This guide shares practical design and manufacturing tips—from material and stackup choices to RF layout, thermal, and DFM checks—to help you turn 5G concepts into stable, high‑volume hardware.
High Frequency PCBs for 5G Base Stations and Small Cells | Design & Manufacturing Tips Read More »
Hybrid high frequency PCBs use Rogers for critical RF layers and FR4 for digital, control, and power layers in a single stackup. This article explains why and when to choose a hybrid design, shows common Rogers+FR4 stackup patterns, and shares practical layout and manufacturing guidelines so your RF and digital sections work together without blowing up the budget.
Hybrid High Frequency PCBs: Combining Rogers and FR4 for RF and Digital Integration Read More »
High frequency PCBs often fail not because of the RF schematic, but because of layout and manufacturing details. This article walks through the most common design mistakes—poor stackup, bad routing, weak grounding, via stubs, and wrong materials—and shows exactly how to avoid them in your next RF board.
Common High Frequency PCB Design Mistakes (And How to Avoid Them) Read More »
This article walks through RF PCB design for high‑frequency circuits step by step, covering stackup planning, controlled‑impedance routing, grounding, matching networks, and manufacturing guidelines so your first build is much closer to “right first time.”
RF PCB Design Guidelines for High‑Frequency Circuits (From Layout to Manufacturing) Read More »
