News & Updates

Today’s PCB designers and layout engineers often need to put on their simulation hat to learn more about the products they build. When you need to perform simulations, you need models for components, and simulation models often need to be shared with other team members at the project level or component level. What’s the best way for Altium Designer users to share this data? Read this article to learn more about sharing your models with other design participants.

Kinetic Vision, a Cincinnati-based design, engineering, and development firm, is an innovator’s one-stop shop for transforming even the wildest ideas into real products. The company’s design approach keeps everything in-house, including industrial design, mechanical, and electrical design, as well as, engineering, hardware/software development, machine learning, and sometimes even short-run production. Watch this webinar to learn how Kinetic Vision uses the Altium 365 platform to enable a connected and frictionless PCB design experience, increasing their productivity 5 times even

When some designers start talking materials, they probably default to FR4 laminates. The reality is there are many FR4 materials, each with relatively similar structure and a range of material property values. Designs on FR4 are quite different from those encountered at the low GHz range and mmWave frequencies. So what exactly changes at high frequencies, and what makes these materials different? To see just what makes a specific laminate useful as an RF PCB material, take a look at our guide below.

In today’s fast-paced world where iterations of electronics are spun at lightning speeds, we often forget one of the most critical aspects of development: testing. Even if we have that fancy test team, are we really able to utilize them for every modification, every small and insignificant change that we make to our prototypes? In this article, we will review a very low cost, yet highly effective and quite exhaustive test system that will get you that bang for your buck that you’ve been looking for.

If you’ve ever looked at the BOM for a reference design or an open-source project, you may have seen a comment in some of the entries in your BOM. This comment is either “DNP” or “DNI”. If you think about it, every component placed in the PCB requires some level of placement and routing effort, which takes time and money if you’re working for a client. This begs the question, why would anyone design a board with components they don’t plan to include in the final assembly?

When it’s time to share your design data with your manufacturer, it’s like taking a leap of faith. Sending off a complete documentation package might seem as easy as placing your fab files in a zip folder, but there are better ways to ensure your manufacturer understands your project and has access to all your design data. For Altium Designer users, there are multiple options for creating and packaging release data into a complete package for your manufacturers.

A heavy focus is usually put on managing your design data, but what about managing your design team? A mismanaged design team can lead to a disorganized and inaccurate design library and data. Watch this webinar to see how Altium 365 can help you to organize users into access restricted groups, manage design and designer access rights, avoid design conflicts when multiple members are working on the same design, and standardize your entire project using templates

If you’re designing a circuit board to be powered by anything except a bench-top regulated power supply, you’ll need to select a power regulator to place on your board. Just like any other component, your regulator has stated operating specs you’ll see in a product summary, and it has more detailed specs you’ll find in a datasheet. The fine details in your datasheets are easy to overlook, but they are the major factors that determine how your component will interact with the rest of your system.

It would be nice if the power that came from the wall was truly noise-free. Unfortunately, this is not the case, and although a power system can appear to output a clean sine wave, zooming into an oscilloscope trace or using an FFT will tell you a different story. When you take "dirty" power, put it through rectification, and then pass it through a switching regulator, you introduce additional noise into the system that further degrades power quality. If you’re a power supply or power systems designer, then you know the value of supplying your devices with clean, noise-free power.

If you’re an electronics designer or you’re just beginning your career as an engineer, the PCB stackup is probably one of the last things you’ll think about. Simple items like PCB copper thickness and board thickness can get pushed to the back burner, but you’ll need to think about these two points for many applications as not every board will be fabricated on a standard 1.57 mm two-layer PCB

I often get questions from designers asking about things like signal integrity and power integrity, and this most recent question forced me to think about some basic routing practices near planes and copper pour. "Is it okay to route signal traces on the same layer as power planes? I’ve seen some stackup guidelines that suggest this is fine, but no one provides solid advice." Once again, we have a great example of a long-standing design guideline without enough context.

Electronics schematics form the foundation of your design data, and the rest of your design documents will build off of your schematic. If you’ve ever worked through a design and made changes to the schematic, then you’re probably aware of the synchronization you need to maintain with the PCB layout. At the center of it all is an important set of data about your components: your schematic netlist. What’s important for designers is to know how the netlist defines connections between different components and schematics in a large project.

There are plenty of PCB manufacturing services you can find online, and they can all start to blend together. If you’re searching for a new service provider, it can be hard to compare all of them and find the best manufacturer that meets your needs. While experienced designers can spot bogus manufacturers from afar, there is always a temptation to go with the lowest priced, supposedly fastest overseas company you can find. However, there is a lot more that should go into choosing a PCB manufacturing service than just price.

Pi Filters are a type of passive filter that gets its name from the arrangement of the three constituent components in the shape of the Greek letter Pi (π). Pi filters can be designed as either low pass or high pass filters, depending on the components used. The low-pass filter used for power supply filtering is formed from an inductor in series between the input and output with two capacitors, one across the input and the other across the output. Keep reading to learn more about their application in the PCB Design.

Ultra-HDI technology is transforming RF design by enabling finer line widths, improved signal integrity, and more compact, high-performance boards. Our brand-new article explores its advantages over traditional methods and the benefits of integrating flexible circuits.

Testpoints are essential for efficient PCBA testing and debugging. Our latest whitepaper dives into testpoint optimization, fault detection, and automated testing strategies, along with a full tutorial on using Testpoint Manager in Altium Designer. Discover how to streamline your testpoint assignments and improve measurement accuracy!

Krishna Sundaram explores the hidden challenges of cable harness design, from routing complexity to mechanical constraints and manufacturability. Learn how to design a robust and efficient harness.

Ultra-HDI technology is transforming PCB design, enabling unprecedented miniaturization and performance. In this article, explore what sets Ultra-HDI apart from traditional HDI and how it’s shaping the future of electronics.

This article addresses common misconceptions about cloud security in PCB design. It explains how modern cloud platforms, such as Altium 365, often provide superior security compared to traditional on-premises solutions. Key features like advanced infrastructure, granular access controls, and compliance with stringent regulations ensure the protection of valuable design data.

Last week, Renesas Electronics and Altium proudly announced the introduction of Renesas 365, Powered by Altium—a first-of-its-kind industry solution designed to streamline electronic system development, from silicon selection to system lifecycle management. Renesas 365 will be demonstrated at Embedded World, Booth 5-371, from March 11-13 in Nuremberg, Germany.

Learn how integrating DFM and DFA principles into systems engineering ensures manufacturable, cost-effective PCB designs by optimizing CAD, CAM, and requirements management in our new article by Javier Alcina.

Crosstalk control is essential for better EMI performance. Learn effective design techniques to reduce interference in the final installment of this series by Dario Fresu.

Part 2 of this series covers essential project management techniques for electronics design teams. Rafał Stępień discusses effective data organization, revision control, and collaboration strategies to improve efficiency and minimize errors.

Read our new article which discusses the advantages of rigid-flex PCBs, such as space-saving designs and enhanced reliability, while also addressing potential challenges in their fabrication. It provides essential design and manufacturing tips to help engineers effectively implement this technology in various applications.

Our new article highlights how automation and robotics are transforming wire harness assembly, improving efficiency, precision, and cost-effectiveness. Technologies like robotic wire handling and AI-driven testing are paving the way for smarter production. However, challenges like custom designs and high costs still persist.

Check out the first part of "Best Practices for Electronics Project Management" by Rafał Stępień. It offers valuable advice on enhancing team communication and documentation in hardware design projects.

Wiring harnesses are mission-critical in space systems, requiring strict adherence to ECSS-Q-ST-70-61C and NASA-STD-8739.4A. In "Wiring for the Final Frontier: A Guide to Space-Grade Harness Design", Kamil Jasiński explores key design principles, material selection, and testing to ensure reliability in extreme environments.

Discover how wire harnesses are evolving to meet the demands of electric vehicles and modern electronics. Our latest article explores key trends like higher voltages, lightweight designs, and smart harnesses, along with challenges such as cost and supply chain issues.

Dario Fresu explores effective decoupling strategies for power distribution networks (PDNs) to minimize EMI in PCB designs. The article covers techniques like decoupling capacitors and power planes to ensure stable power delivery for integrated circuits.

Learn how to turn a Raspberry Pi into a custom Android device. This guide covers hardware selection, software setup, and troubleshooting common issues.