News & Updates
In this article, I’ll present some design basics that every new designer should follow to help ensure their design process is successful. Some of these points may challenge the conventional view of how circuit boards are constructed, but they are intended to help balance low noise signaling, manufacturability, and ease of solving a layout.
High voltage PCBs are subject to certain safety and reliability concerns that you won’t find in most other boards. If your fabrication house specializes in high voltage PCBs and keeps materials in stock, they can likely recommend a material set, as well as a standard stackup you might use for certain voltage ranges and frequencies. If you need to choose your own materials, follow the tips below to help you narrow down to the right material set.
There are some guidelines I see many designers implement as a standard practice, often without thinking about it. Some of these practices are misunderstood or implemented without best practices. Others are implemented without thinking about the potential problems. One of these is the use of tented vias, which is sometimes implemented in a PCB layout by default. Is this always the right practice?
The idea of a purely capacitive load is something of a fallacy. Yes, capacitors exist, but all capacitors are non-ideal, and it is this deviation from a theoretical capacitance that determines how to impedance match a load that exhibits capacitive behavior. Let’s take a look at this important aspect of interconnect design and see what it really means to terminate a capacitive load.
There are all sorts of version control systems out there that people have been using with their PCB design software. As discussed in Why Use a Version Control System, we looked at different options ranging for local hard drive storage to sophisticated online revisioning systems. In this article we will be reviewing the differences between a standard VCS and Altium 365.
Version Control Systems (VCS) have been around for many decades within the software world but can be surprisingly new to some folks in the electronics design industry. This article will cover what a VCS is, what it does, and why you should be using one for your PCB design projects.
Designers often conflate leftover annular ring and pad sizes - they need to place a sufficiently large pad size on the surface layer to ensure that the annular ring that is leftover during fabrication will be large enough. As long as the annular ring is sufficiently large, the drill hit will not be considered defective and the board will have passed inspection. In this article, I'll discuss the limits on IPC-6012 Class 3 annular rings as these are a standard fabrication requirement for high-reliability rigid PCBs.
Sending a board out for fabrication is an exciting and nerve-wracking moment. Why not just give your fabricator your design files and let them figure it out? There are a few reasons for this, but it means the responsibility comes back to you as the designer to produce manufacturing files and documentation for your PCB. It’s actually quite simple if you have the right design tools. We’ll look at how you can do this inside your PCB layout and how this will help you quickly generate data for your manufacturer.
As the world of technology has evolved, so has the need to pack more capabilities into smaller packages. PCBs designed using high-density interconnect techniques tend to be smaller as more components are packed in a smaller space. An HDI PCB uses blind, buried, and micro vias, vias in pads, and very thin traces to pack more components into a smaller area. We’ll show you the design basics for HDI and how Altium Designer® can help you create a powerful HDI PCB.
Test points in your electronic assembly will give you a location to access components and take important measurements to verify functionality. If you’ve never used a test point or you’re not sure if you need test points, keep reading to see what options you have for test point usage in your PCB layout.
Preventing DFM problems starts before fabrication not during the fab review. This article covers eight common PCB manufacturing issues and the design rules that help engineers identify and resolve them early.
Different CAD tools shouldn't mean disconnected teams. Learn how Multi-CAD workflows help engineers review designs, collaborate across disciplines, and catch mechanical or sourcing issues before they become costly redesigns.
This article explores how manufacturing-driven design can help teams validate multiboard products before they reach the factory. It highlights how early checks of interconnects, harnesses, mechanical fit, sourcing, and manufacturing data can reduce late-stage changes and accelerate production readiness.
Automated design sign-offs can eliminate much of the administrative friction surrounding hardware approvals. This article explores how in-context reviews, structured workflows, and automated traceability help teams accelerate release cycles while maintaining control.
Flexible circuits introduce unique assembly challenges that aren't always visible during PCB design, from panel instability and component movement to thermal distortion during reflow. This article explains how design decisions around stiffeners, placement, panelization, and materials can improve assembly yield and reduce costly rework.
Fixing one design problem can sometimes create another you didn't see coming. This article uses the S-80 submarine program to show how better requirements traceability can help teams spot hidden impacts before they turn into expensive rework.
A BOM is only valuable if everyone can trust the data it contains. This article shows how connected BOM management helps teams eliminate errors, improve collaboration, and keep fast-moving hardware projects on schedule.
PCB design rules are the foundation of every successful layout. This article explores how defining and managing constraints helps engineers improve design accuracy, simplify verification, and deliver manufacturing-ready PCBs with confidence.
Great products are built by connected teams, not disconnected tools. This article shows how cloud ECAD platforms enable real-time co-design, structured design reviews, and seamless collaboration across engineering, manufacturing, and supply chain teams.
A five-minute conversation with your fabricator could save weeks of redesign. Discover the ten questions that can improve manufacturability, boost yield, and help your rigid-flex project succeed on the first build.
Finding the right component shouldn't mean searching through dozens of websites and datasheets. This article shows how integrated component search helps engineers select parts faster while reducing sourcing risks and design delays.
The best sourcing decisions happen when procurement is involved early. This webinar demonstrates how BOM Portal gives both engineering and procurement access to live lifecycle, pricing, compliance, and availability data to drive smarter decisions from prototype through production.
This article walks through the complete PCB design workflow, from schematic capture and component selection to layout, design reviews, and manufacturing documentation. It highlights the key decisions at each stage that help engineering teams produce reliable, manufacturable products.
The biggest threat to your power integrity might be outdated design advice. This article challenges five common AC power integrity myths and shows what really matters when designing today's high-speed PCBs.
Your design data may be more exposed than you think. This webinar shows how to identify common security gaps and secure engineering workflows with centralized access control and governance.
Your flex PCB may look perfect in CAD but coverlay doesn't stay perfectly still during manufacturing. This article reveals why designing for lamination behavior is one of the most important steps in building reliable flex circuits.