News & Updates

As much as we would like to build every high speed PCB perfectly, with ideal SI/PI/EMI characteristics, it isn’t always possible due to many practical constraints. Sometimes a stackup can be “good enough,” even for a high-speed PCB. This always comes from the need to balance engineering constraints, functional requirements, and the need to ensure signal and power integrity in a high-speed design, and finally to ensure compliance with EMC requirements.

When it's time to release your project to your manufacturer, it's essential to ensure that all the necessary design aspects like assembly, BOM, and documentation are accurately and completely conveyed. Consistency is key to ensuring a successful release. Without clear release documentation, the designer faces increased risks of costly manufacturing response, time-consuming rework, or unintentional defects that can make it into the final product.

Involving the whole team that will bring a product to completion early on in the development cycle is vital to efficient development. Design reviews with all the relevant parties are critical at each step of the design process, starting with high-level component selection, then through the schematic capture and PCB layout stages.

Ergonomics and convenience are important issues when designing a printed circuit board and the device as a whole. A lot of Altium Designer tools are aimed at solving them. These include Countersink and Counterbore holes, which allow the use of various types of screws in the mounting holes of the board.

The development of electronic devices always involves the release of many different types of files. And these files are not static - they change as the project progresses. When filling a project with data, a user creates new files, modifies outdated files that have become irrelevant. Managing project data is a separate task, especially for large developments where several participants with different specializations are involved in the process.

High-speed PCBs often require tuning groups of tracks, both single and differential. Altium Designer includes powerful tools that allow you to solve such tasks quickly and with high quality. Study this document and achieve the desired result even faster.

One of the most difficult and frustrating things to arise when traveling to a foreign country is the language barrier. Communicating a simple greeting can sometimes seem like a big hassle. The same thing is true for different CAD tools. When your tools aren’t speaking the same language, you’re going to run into problems. Bridge this gap by building out your component libraries with everything it takes to truly define a component, including 3D models that seamlessly propagate into the PCB editor and beyond.

There is one confusion related to impedance matching that comes up again and again, and it appears to be a fundamental confusion between reflection and power delivery. This leads to an apparent contradiction that arises when we try to generalize power delivery to wave reflection, despite the fact that the two were not meant to be related.

Routing is one of the most time-consuming stages of PCB design. Altium Designer has a large set of tools that allow you to do it as accurately and quickly as possible. This document will help you to learn how to manage your routing effectively and use it to its fullest extent.

RF systems operate with specific impedance values across entire interconnects, including on PCBs. Not all RF components are packaged in integrated circuits with defined impedances, so impedance matching circuits and line sections are needed to ensure signal transmission between different sections of an interconnect. One of these impedance matching techniques is the quarter-wave impedance transformer, which can be implemented as a printed trace with specific impedance.

Introduce an update on the My Altium user page that highlights your certificates and tracks your training progress, with one-click access to the Training Dashboard and Training Catalog pages. Easily view and share your certificates, keep an eye on your learning journey, and explore a variety of training resources.

In this article, we will begin with a basic explanation of how rigid-flex technology differs from rigid board technology. We will then provide an overview of the advantages and conclude with a discussion of the challenges to be aware of.

Through-hole components are frequently employed in power electronics, particularly when dealing with AC power from a wall outlet. In this article, you can delve into the intrusive soldering process and discover when it can be applied in PCB design.

Multi-board designs are the key to meeting evolving demands, requiring robust PCB Harness Design for seamless interconnection and success. Join us as we explore the importance of PCB Harness Design capabilities and how they are crucial for the success of multi-board designs.

Whether you purchase products off-the-shelf or online, they all come housed within an enclosure. In some cases, these enclosures are intentionally ruggedized to withstand harsh environments or mechanical shocks. You can learn more about enclosures in this new and interesting article.

We are continuing our journey through the lid assembly design phase of our Open Source Laptop project. In this section, we will discuss the layout of the test adapter and provide a demonstration of the first test for the display panel, along with the initial steps involved in assembling the boards.

In the exciting next phase of the open-source laptop project we're (finally) diving into design, and getting hands-on with the display panel. Discover how we're selecting the right panel, integrating it seamlessly, and creating a custom DisplayPort adapter to illuminate the screen. Plus, learn how our choices impact features like microphones, webcams, and touch sensors, and how Altium can help bring it all to life. It’s not too late to join as we continue on this innovative journey!

Concurrent PCB Design is essential to unlocking the full potential of engineering teams and delivering innovative products that meet the demands of the modern world. Learn more about the main capabilities and the numerous benefits of this upcoming feature in Altium Designer.

Whether you're designing a digital board with a ton of traces, or an RF board operating at very high frequencies, any electronic device with propagating signals will experience crosstalk. Learn more about some sure-fire ways you can reduce crosstalk in your high-speed designs.

The Baxandall volume control is an especially useful, flexible, and simple-to-implement circuit for numerous audio designs. In this article, we will demonstrate how to design this type of equipment.

Designing flexible circuits involves managing numerous factors. Discover how to prevent mistakes in this process and how to rectify them post-implementation.

In this article you will learn about finding the right balance between PCB mask expansion and potential problems.

RF power amplifiers can be found in many wireless products, often integrated into chipsets or modems. However, in certain specialized systems, you might require higher power output at a specific frequency. This necessitates a discrete amplifier circuit to deliver that power. In this article, we present an example project for a power amplifier that you can incorporate into your RF project.

Simulation tools are extremely useful for understanding electromagnetic behavior in a design. Learn more about how to avoid obtaining inaccurate results during your PCB simulation process.

When designing the power supply for your device, there are lots of different options. In this article, we will take a brief tour of the main choices in DC power supply design.

Learn more about the combination of using both flexible materials and ultra-HDI feature sizes in this article.