News & Updates
When we talk about S-parameters, impedance matching, transmission lines, and other fundamental concepts in RF/high-speed PCB design, the concept of 50 Ohm impedance comes up over and over. Look through signaling standards, component datasheets, application notes, and design guidelines on the internet; this is one impedance value that comes up repeatedly. So where did the 50 Ohm impedance standard come from and why is it important?
For the home hobbyist, protecting their electrical devices usually means keeping the coffee cup or soda can away from anything that carries a large voltage. Good practice indicates that electrical devices should be housed in an enclosure to protect expensive components and reduce the risk of electric shocks from exposed circuitry. However, what do you do if the fantastic new device you’ve designed needs to work in a humid, damp, or dripping wet environment?
Have you ever opened up an old design and wondered how much of it was still usable? Maybe you were contacted by an old client, and they want you to provide some updates on an old design. No matter what the situation is, there are times where updating old PCB designs with new parts makes sense. If done correctly and when armed with all the right information up front, you can cut down the total design time while preserving the best parts of your design in a new iteration. Here’s what you can do to update your old designs successfully and how your PCB design features can help.
The more complex the product gets, the more involved your customer will need to be to ensure you’re designing to their requirements. When you’re using a data sharing system that integrates with your PCB design tools, it’s easy to give your customers visibility into the product development process. Altium 365 is the only system that integrates with Altium Designer® and gives you the ability to give anyone access to your PCB projects, including your customers and manufacturer.
Anytime you’re looking for a fabricator to produce your new design, you should ensure they have a robust quality control program. Where can quality defects arise and how can manufacturers quickly get this information back to a design team? Sometimes emails can leave too much ambiguity and it is difficult to track progress on specific design changes in the PCB layout. If you’re planning to put a new design into high volume production, there are some basic points that should be checked during fabrication and assembly as part of a PCB manufacturing quality control program.
Controlling crosstalk is one of the key goals in any PCB design. In most instances, when we talk about crosstalk, it’s in reference to the unwanted interaction of the electromagnetic field traveling on one transmission line with a neighboring transmission line. But crosstalk can also occur in the connector pin out. This article will describe this type of crosstalk, the types of disruptions it causes, wherein the design cycle it needs to be factored in and how it can be successfully controlled.
The design process often requires repetitive work with tedious tasks. Altium Designer 21 represents a better way to design by revitalizing long-standing functionality and improving the user experience, as well as performance and stability, based on the feedback from our users. These improvements streamline existing design tasks and empower you to complete sophisticated rigid and rigid-flex designs with realistic 3D modeling.
When you’re working through a new PCB design project, and you need to keep track of your project revisions, Altium 365™ creates the ideal environment for collaborative PCB design and revision tracking. Once you upload your projects onto the cloud through the Altium 365 platform, Altium 365 creates a Git repository for your project. It allows you to make it available to collaborators through Altium Designer®. This includes a complete project history, which can be easily accessed by collaborators working on a complex project.
The moment you push your Gerbers to a manufacturer for a DFM inspection, it can be a nerve-wracking experience waiting for a response. Before you receive your working boards, there will likely be some back-and-forth communication before your board hits the fabrication line. When manufacturers and designers need to resolve problems in Gerber files before fabrication, it helps to have a Gerber compare utility. The newest version of Altium Designer now offers this feature through the Altium 365 platform, giving everyone visibility into changes to Gerbers before fabrication.
No matter how you might feel about renewable energy and associated environmental issues, electric vehicles are becoming more mainstream and will become the primary mode of transportation in the future. For the engineering community, what’s much more interesting is how our power distribution and management infrastructure can support this shift to massive increases in the use of electricity on the grid. So what’s the rub for PCB designers?
When you’re working through a complex PCB layout, it always helps to know the shortcuts you can use to stay productive. Altium Designer® keyboard shortcuts, and keyboard + mouse shortcuts, can help you easily walk through your PCB layout during design and as part of final checks during a design review. Here are some of my favorite keyboard shortcuts and viewing options that help me stay productive, and I hope they can do the same for you.
Printed Electronics is emerging to become as common as 3D printing. With this fast-emerging technology, new possibilities have come into the manufacturing arena, allowing engineers and designers to develop products in markets never before realized. With the emergence of many contract manufacturers possessing this capability, the cost is competitive. Quick-turn prototypes and volume production are now all possibilities, and with Altium 365® you stay connected directly with your manufacturer throughout the design process.
High speed PCB interconnects have continued to remain an active challenge in modeling and simulation, particularly when dealing with broadband signals. The IEEE P370 standard is a step towards addressing the challenges faced by many designers in determining broadband S-parameters for high speed structures up to 50 GHz. Although this standard has been in the works since 2015, it finally passed board approval and appears as an active draft standard.
Amplifiers can come in all shapes and sizes, depending on their bandwidth, power consumption, and many other factors. A Class-D amplifier design is normally used with high fidelity audio systems, and circuits for a Class-D amplifier are not too difficult to build in a schematic. If you’ve never worked with a Class-D amplifier or you’re looking for a fun audio project, follow along with this PCB layout.
Modern digital systems throw the digital electronics textbooks out the window, and high-speed DDR memories are a perfect example of the paradigm shift that occurs when you jump into IC and PCB design. With DDR5 still being finalized, and DDR6 now being discussed, designers who are already comfortable with DDR4 will need to consider how their design practices should adjust to accommodate the constant doubling of data speeds in these high-speed memory technologies.
In my experience, the somewhat vague information you might find in a typical crystal datasheet doesn’t enable an engineer to be wholly confident that their design expectations can be met. On the other hand, “blindly” adopting what the crystal datasheet says usually results in adequate frequency stability. If you want to get inside and uncover what is going on, you need to start thinking about the crystal as a phase-shifting network.
An OutJob is simply a pre-configured set of outputs. Each output is configured with its own settings and its own output format, for example, output to a file or to a printer. OutJobs are very flexible – they can include as many or as few outputs as required and any number of OutJobs can be included in a project. The best approach is to use one OutJob to configure all outputs required for each specific type of output being generated from the project.
Antipads on vias and landing pads are a point of contention in modern PCB design, and the debate around the use of these elements in a multilayer PCB is framed as a binary choice. Like thermal reliefs, ground plane splits, and orthogonal routing, the debate around antipads on landing pads and vias is framed as an always/never choice. With today’s modern PCBs, it pays to understand the effects of antipads on signal integrity.
RF structures can be complicated to design and layout, particularly because many RF systems lead double lives as digital systems. Getting an analog signal out of a component and into a waveguide for high isolation routing is not so simple as placing a microstrip or stripline coming off your source component. Instead, you need to create a special microstrip to waveguide transition structure to ensure strong coupling into and out of your waveguide.
Poor ECAD-MCAD coordination often leads to enclosure conflicts, connector misalignment, and costly redesigns. This article shows how integrated collaboration helps teams catch manufacturability issues earlier and keep projects moving smoothly.
Ultra HDI is changing the rules of PCB design and registration tolerance is now part of the design conversation from day one. Discover how smarter spacing, stackup planning, and collaboration with fabricators can dramatically improve manufacturability and reliability.
Because ECAD formats are typically incompatible, teams often struggle with versioning, conversions, and fragmented review processes. This article breaks down how multi-CAD viewers provide a unified, read-only environment that supports structured design reviews, comments, and task assignment across disciplines.
Sharing PCB designs doesn’t have to be complicated. Check out the best online ECAD viewers that let anyone view and collaborate on designs right from a browser.
Rigid-flex PCBs help modern devices get smaller, lighter, and more compact by eliminating connectors and fitting into tight 3D spaces. This article explains how to design them properly to avoid common reliability issues.
This webinar walks through the complete post-release workflow, from generating a managed BOM to sourcing components and assembling the first prototype. It demonstrates how integrated tools streamline data enrichment, supplier selection, and guided assembly to reduce delays and errors.
BOM management is no longer just a checklist. It’s becoming a real-time engine for smarter decisions! Discover how AI, automation, and connected systems are transforming BOMs into powerful tools for navigating supply chain uncertainty.
Working across different ECAD tools can make design reviews messy and inefficient. This article shows how a multi-CAD viewer simplifies collaboration by letting teams view, comment, and manage designs in one place.
This article examines how fragmented ECAD-MCAD workflows create costly misalignments, late-stage conflicts, and inefficiencies in multiboard system design. It shows how unified, collaborative platforms enable real-time synchronization, digital twins, and cross-domain visibility to eliminate rework and streamline development.
Choosing the right PCB tool can define your entire design workflow. Discover how Altium Designer empowers professional product development, while Flux.ai keeps things simple for fast experimentation.
Rigid-flex stackups are more complex than they seem and getting them wrong early can lead to costly failures later. This article shows how smart decisions around materials, transitions, and layer structure help ensure a reliable design.
Understand how structured design reviews within Altium Agile Teams enhance visibility, traceability, and cross-team collaboration. This webinar highlights methods to detect issues early and optimize your development workflow.
Parsing long datasheets manually slows down embedded development and introduces errors. This article shows how to use a local LLM pipeline to convert datasheets into structured data that speeds up driver creation.
PCB simulation isn’t one-size-fits-all and that’s where it gets interesting! Discover the wide range of tools available, from quick circuit checks to advanced multiphysics simulations, and how they help you design with confidence.
This article explores the shift from PCB-centric design to complex, system-level development where wiring and harnesses play a critical role in product performance. It highlights how unified electromechanical workflows and bi-directional ECAD–MCAD integration improve accuracy, reduce delays, and ensure reliable, production-ready designs.
Want to catch manufacturability issues before they turn into expensive delays? Discover the essential DFM tools from real-time checks to post-layout analysis that help you get your PCB right the first time.