News & Updates
Check out this article where Rafał Stępień dives into the essentials of maintaining signal integrity in high-speed digital systems. Discover key techniques like controlling signal reflections, reducing crosstalk, and designing differential pairs in Altium Designer 24 to ensure reliable and efficient PCB performance.
The Requirements & Systems Portal is now live in Altium 365! Engineers can write, manage, and verify requirements within the Altium 365 workspace. You can link your requirements directly to schematics and PCB designs to ensure all engineers are working with the latest data. Request access today!
Watch our webinar to learn more about the new application joining the Altium 365 suite. The new Requirements & Systems Portal will help align engineering teams to get to market quicker.
Looking to enhance signal integrity in your PCB designs? Check out our latest article by David Marrakchi, where he shares key strategies and best practices for achieving reliable high-speed designs.
Check out our article, where Lawrence Romine shares his top tools for conducting efficient Bill of Materials (BOM) reviews in PCB design. It highlights key features in Altium 365, Octopart, and ActiveBOM that help engineers avoid unsourceable components and streamline procurement.
As the first article in the "Mastering EMI Control in PCB Design" series from our new asset Dario Fresu, this piece explores signal propagation in PCBs, highlighting the crucial roles of impedance, dielectric materials, and trace geometry in maintaining signal integrity.
Discover essential strategies for high-speed PCB design, focusing on signal integrity, EMI mitigation, and thermal management. Our latest article provides insights on managing crosstalk, optimizing grounding, and addressing thermal challenges to ensure reliable PCB performance.
Designing microvias with sintered paste in rigid-flex PCBs offers enhanced electrical conductivity and mechanical strength, crucial for high-density applications. Our new article explores the benefits of sintered paste and provides essential design tips to optimize microvia performance and reliability.
Watch our webinar to learn how our centralized electronics design data platform can quickly integrate with your IT access, tracking, and compliance tools, while also making it easier to work in teams.
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.
The first question that should come up when selecting materials and planning a stackup is: what materials are needed and how many layers should be used? Assuming you’ve determined you need a low-loss laminate and you’ve determined your required layer count, it’s time to consider whether you should use a hybrid stackup. There are a few broad situations where you could consider using a hybrid stackup with low-loss laminates in your PCB
Batteries offer a great power source for electrical devices that need to be mobile or located somewhere where connection to a mains electricity supply or other power source is impossible. The biggest problem with battery power is the expectation of users that the device will operate for significant periods with the need for recharging or replacing the batteries. This demand is placing the onus on the designer to improve efficiency and reduce power demand to meet this need.
A number of us on this blog and in other publications often bring up the concept of target impedance when discussing power integrity in high-speed designs. Some designs will be simple enough that you can take a “set it and forget it” approach to design a functional prototype. For more advanced designs, or if you’re fine-tuning a new board that has existing power integrity problems, target impedance is a real consideration that should be considered in your design.
Dual power supplies are circuits that generate two different output voltages from a single input source. The simplest method of generating dual output voltages is to use a transformer with two taps on the output winding. Bespoke transformers can have any voltage ratio depending on the number of windings in each part of the output side of the transformer.
With digital boards that are nominally running at DC, splitting up a power plane or using multiple power planes is a necessity for routing large currents at standard core/logic levels to digital components. Once you start mixing analog and digital sections into your power layers with multiple nets, it can be difficult to implement clean power in a design if you’re not careful with your layout.
High-speed digital PCBs are challenging enough to design, but what about mixed-signal boards? Many modern systems contain elements that operate with both digital and analog signaling, and these systems must be designed to ensure signal integrity in both domains. Altium Designer has the layout and signal integrity tools you need to ensure your mixed-signal PCB design does not experience interference and obeys important design standards.
Just as WiFi 6 and 6E are starting to hit the market and new chipsets become available, WiFi 7 is in the works under the 802.11be standard. While this technology still has not hit the market, I would expect more inquiries for experimental systems, evaluation modules, and surface-mountable modules to come up once the first chipsets become available. Now is the time to start thinking about these systems, especially if you’re developing evaluation products to support WiFi 7.
Rugged electronics need to take a punch mechanically, but there is more that goes into a rugged system than being able to survive a drop on the pavement. This is as much about enclosure design as it is about component selection and manufacturing choices. Mil-aero designers often use the term “harsh environment” to describe a number of scenarios where an electronic device’s reliability and lifetime will be put to the test. If you want to make your next product truly rugged, it helps to adopt some of their strategies in your PCB layout.
There are many quality checks used to ensure a design will be manufacturable at scale and with high quality, but a lot of this can happen in the background without the designer realizing. No matter what level of testing and inspection you need to perform, it’s important to determine the basic test requirements your design must satisfy and communicate these to your manufacturer. If it’s your first time transitioning from prototyping to high-volume production, read our list of PCB testing requirements so that you’ll know what to expect.
Learn how to make informed decisions and mitigate supply chain risks with Altium 365 BOM Portal. Improve your time to market and proactively manage supply chain risks.
Watch the webinar and get a sneak peek at revolutionizing your engineering, compliance, and procurement approach with Altium 365 and Z2Data integration. Leverage comprehensive component data and advanced risk management strategies to enhance resilience in your operations.
Watch our webinar and learn how to design PCBs while staying compliant with US government security regulations. Understand the differences between commercial Altium 365 and Altium 365 GovCloud in real-case scenarios.
Learn how to make informed decisions and mitigate supply chain risks with Altium 365 BOM Portal. Improve your time to market and proactively manage supply chain risks.
Have you ever dealt with a component shortage or unexpected EOL causing a design change at the last minute? Watch our webinar to learn how to solve these problems and overcome production blockers with Altium 365 and Basler AR!
Do you need help with disjointed design and requirement processes? Watch the webinar and learn how Altium 365 Requirements Manager powered by Valispace connects design data and requirements for faster design with fewer errors.
Watch the webinar to learn how the SiliconExpert Integration in Altium 365 can optimize your workflows and elevate your design process. Make data-driven design decisions!
Watch the webinar and learn from Altium's Director of Security, Bruno Blasigh, and Renata Lang, Altium 365 Product Marketing Manager, about designing PCBs that meet US government requirements using Altium 365's GovCloud.
Learn how the SiliconExpert integration in Altium 365 can optimize your workflows and elevate your design process. Hear from experts from SiliconExpert and discover insights into data-driven design decisions. Also don't miss the chance to see the integration in action and explore improved risk analysis and alternative component discovery features.
Dive into the world of Altium's MCAD CoDesigner and its compatibility with SOLIDWORKS. Watch the recording to explore a unified approach with a real-life project that will redefine your design process and find out more about how you can optimize your Electronic Lifecycle Management by bringing together all experts involved in product development.
Looking for a way to reduce time and increase the accuracy of the manual assembly of PCBs? Watch this webinar recording for a transformative session and learn how XVP Photonics achieved these goals with Assembly Assistant!
? Join our experts to learn how you can develop products faster with fewer errors with the Altium 365 + Valispace Integration. This integration connects your live design and requirements workflow to implement design intent better and comply with industry standards.
An exclusive Expert Panel Discussion on Altium 365 GovCloud featuring industry experts Mahesh Venugopala and Bruno Blasigh. Gain valuable insights on cloud security, compliance, and more.
Join our insightful webinar on Altium 365 Version Control System (VCS) designed for solo users, where Ari Mahpour will guide you through creating and managing projects on the cloud-based platform.
Get ready to speed up your design process with new Altium Designer collaboration capabilities. Designing a PCB is a team effort. Engineers must work with customers, manufacturers, and other stakeholders to get the best results. You need help to bring your design to life, even if you're a one-person team.
It is essential to ask questions and review the design approaches used with your team. Design reviews are essential in the design process, but they can be inconvenient for team members and lack traceability or history. To create the best designs, you need review methods that are as cutting edge as the boards you're making.