News & Updates
Blog
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Copper Pour and Via Stitching: Do You Need Them in a PCB Layout?
To pour or not to pour, to stitch or not to stitch… Over many years, some common “rules of thumb” have become very popular and, ultimately, taken a bit out of context. Rules of thumb are not always wrong, but taking PCB design recommendations out of context helps justify bad design practices, and it can even affect the producibility of your board. Like many aspects of a physical PCB layout, via stitching and copper pour can be like acid: quite useful if implemented properly, but also dangerous if used indiscriminately.
On-Demand Webinar
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What is High-Speed Design?
The primary source of high-speed problems is not due to high clock frequency but rather the fast rise and fall times of component signals. With fast edge rates, reflections may occur at the receiver side, and when the board routing is dense, crosstalk may become a problem. During this webinar, you'll sharpen your knowledge and develop new skills that you can use to design High-Speed PCB's more efficiently and effectively.
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Should You Use Power MOSFETs in Series?
Power MOSFETs enable a huge range of electronic systems, specifically in situations where BJTs are not useful or efficient. MOSFETs can be used in high current systems in parallel arrangements, but what about their use in series? Both arrangements of MOSFETs have their pitfalls that designers should consider. Let’s look at MOSFETs in series as they are quite useful in certain systems, but be careful to design your circuits and your PCB for reliability.
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Controlled ESR Capacitors: Should You Use Them for Power Integrity?
I can’t think of a single product I’ve built that doesn’t require capacitors. We often talk a lot about effective series inductance (ESL) in capacitors and its effects on power integrity. What about effective series resistance (ESR)? Is there a technique you can use to determine the appropriate level of resistance, and can you use ESR to your advantage?
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Microstrip Ground Clearance Part 2: How Clearance Affects Losses
If your goal is to hit a target impedance, and you’re worried about how nearby pour might affect impedance, you can get closer than the limits set by the 3W rule. But what are the effects on losses? If the reason for this question isn’t obvious, or if you’re not up-to-date on the finer points of transmission line design, then keep reading to see how nearby ground pour can affect losses in impedance-controlled interconnects.
On-Demand Webinar
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What is High-Speed Design?
The primary source of high-speed problems is not due to high clock frequency but rather the fast rise and fall times of component signals. With fast edge rates, reflections may occur at the receiver side, and when the board routing is dense, crosstalk may become a problem. During this webinar, you'll sharpen your knowledge and develop new skills that you can use to design High-Speed PCB's more efficiently and effectively.
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Choosing the Right Microphone for Embedded Applications
If you need to capture sound waves for your electrical device to process, you'll need a microphone. However, microphones these days have become very advanced, and there are so many options to choose from. They range from the relatively simple and popular condenser type microphones to state-of-the-art sound conversion solutions incorporating internal amplifiers and other electronic processing functionality. In this article, we'll take a look at some of the options available.
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Composite Amplifiers and How They Give the Best of Both Worlds
There are many times where you need an amplifier with high gain, low noise, high slew rate, and broad bandwidth simultaneously. However, not all of these design goals are possible with all off-the-shelf components. Here are some points to consider when working with a composite amplifier design and how to evaluate your design with the right set of circuit simulation tools.
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Reduce Common-Mode Noise in Your Power Supply with Impedance Balancing
Simple switching regulator circuits that operate in compact spaces, like on a small PCB, can usually be deployed in noisy environments without superimposing significant noise on the output power level. As long as you lay out the board properly, you’ll probably only need a simple filter circuit to remove EMI on the inputs and outputs. As the regulator becomes larger, both physically and electrically, noise problems can become much more apparent, namely radiated EMI and conducted EMI in the PCB layout.
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Part 1: Why Your PCB Design Review Process Is Obsolete and What You Can Do About It
A PCB design review is a practice to review the design of a board for possible errors and issues at various stages of product development. It can range from a formal checklist with official sign-offs to a more free-form inspection of schematic drawings and PCB layouts. For this article, we will not delve into what to check during a design review process but rather look at how a review process itself usually unfolds and how to optimize it to get the most out of your time.
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Part 2: Why Your PCB Design Review Process Is Obsolete and What You Can Do About It
As we established in Part 1, the PCB design review and collaboration practices have room for improvement in many organizations. To address this, we developed Altium 365. Let's examine how running a PCB project through Altium 365 compares to other methods.
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Understanding Systems Engineering
Read our brand-new article where we explore the key areas of an engineering project and the different stages of electronic product development from a project execution perspective. From initiation and planning to design, development, validation, testing, and certification, we walk you through each phase to help you understand how successful electronic products are brought to life.
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PCB First-Pass Yield: Small Decisions That Make a Big Difference
This article highlights how seemingly minor layout choices like trace spacing, component footprints, or stack-up details can dramatically impact whether a board passes fabrication and assembly the first time.
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Implementing Design for Supply Chain Principles in Electronic Product Development
Designing with supply chain principles in mind helps you avoid delays, reduce costs, and ensure manufacturability. This article outlines practical strategies for component selection, sourcing, and lifecycle management to make your designs more resilient and production-ready.
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Beyond the BOM: How Proactive Component Selection Is Transforming Workflows
Learn how proactive component selection helps you avoid supply chain risks, reduce costs, and design more reliably. Our new article outlines key strategies and shows how tools like Altium 365 support smarter part decisions.
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Power Integrity Issues?
Power problems can be hard to spot until it’s too late. See how easy it is to analyze your power nets, check voltage drops, and improve reliability with Power Analyzer by Keysight - all without leaving your design environment.
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How to Design High-Speed PCBs Without Signal Surprises
Signal issues can sneak in early and cost you later. Read our whitepaper to see how Signal Analyzer by Keysight (inside Altium Designer) helps you catch problems fast and design with confidence.
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Beyond Basic Part Selection: Using Supply Chain Data to Validate Choices
Learn how to enhance part selection by using real-time supply chain data. This article shows how integrating insights like availability and lifecycle status helps you make smarter, risk-aware design choices.
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Signal Mistakes Are Expensive
See how the Signal Analyzer by Keysight in Altium Designer lets you run signal integrity checks directly within your design environment. Read our article to learn how to effectively manage impedance, return paths, stackups, and more.
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Twice the Insight. One Seamless Simulation Bundle
Ensure power and signal integrity with the Keysight Bundle in Altium Designer. Catch issues early, reduce rework, and optimize your PCBs - all within one integrated environment featuring Signal & Power Analyzer.
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Preparing for Prototype: Final Component Validation
Final component validation is the last critical check before building a prototype, ensuring all parts are accurate, available, and viable. This article shows how Altium’s integrated tools—like SiliconExpert, Z2Data, Octopart, and BOM Portal—help teams avoid costly surprises and prepare with confidence.
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Getting Started with Harness Design in Altium Designer 25
Explore the essential steps and tools for Harness Design in Altium Designer 25, from initial setup to final documentation. The article highlights how the unified design environment streamlines the entire process, improving efficiency and project integration.
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The Future of PCB Design Starts Here
Altium Designer is constantly evolving, with powerful new features and updates on the way. Get an exclusive first look at what’s coming next—visit our Coming Soon page to stay up to date with the latest innovations.
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Simplify Harness-to-System Connections for Better PCB Design Outcomes
Struggling to keep harness and system designs in sync? In our brand-new article we explore how integrating PCB and harness design workflows can eliminate errors, improve collaboration, and accelerate your development process. Discover a smarter approach to connecting your harness to the system.
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The Crucial Balance: Cost, Quality, and Availability In Electronic Component Selection
Balancing cost, quality, and availability is key when selecting electronic components. This article explores how to make informed choices that meet design goals while managing supply chain and sourcing challenges.
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Wire Harness Failures: The Hidden Costs and Real-World Recalls That Could Have Been Prevented
Wire harness failures can lead to significant financial losses, production delays, and safety hazards. This article delves into real-world examples of such failures across industries and illustrates how modern CAD tools can help prevent these costly issues.
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Part Selection Fundamentals: Creating Resilient Component Requirements
Learn how to ensure electronic components meet the demands of harsh environments. This article explores key standards, testing protocols, and design considerations for building resilient systems that perform reliably under extreme conditions.
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