News & Updates
The use of ferrites in a PDN is one design recommendation that is fraught with unclear guidance and over-generalized recommendations. If you see an application note or a reference design that recommends placing a ferrite in a PDN, should you follow this in your specific design, or should you ignore this and focus on adding capacitance?
When you’re done creating a new board, it’s time to send your design data to the manufacturer. Before releasing your designs, you’ll want to make sure that everything is ready and works as intended. In this informative webinar, we’ll review some of the must-have checks before sending your output data for fabrication.
Before your board can be put into production and prepared for assembly, you have to generate a set of files that assist your manufacturer. These are your PCB design output files, also known as manufacturing files, fabrication data, assembly files, and a host of other names. Before you send your design file off to a manufacturer in an email, make sure to get a list of their required fabrication and assembly files first. If you’re a new designer, take some time to read over the basic PCB manufacturing file extensions below.
Transformers can provide very effective signal isolation and are used to manipulate AC voltage and current levels. They can achieve all this with a greater than 95% power efficiency, which is why we commonly see them used in bench power supplies, audio gear, computers, kitchen appliances, and wall-warts. However, transformer theory can be unintuitive and in this article we answer on questions about them
There are all sorts of version control systems (VCS) out there that people have been using with their PCB design software. As discussed in Why Use a Version Control System, we looked at different options ranging for local hard drive storage to sophisticated online revisioning systems. In this article we will be reviewing the differences between a standard VCS and Altium 365.
Controlled impedance routing at high frequencies is difficult enough, and it's important to make sure that you stay within your loss budget on long routes or in lossy media. When you have to route a long trace or a long differential pair to a connector or another component, what can you do if you're reaching the end of your loss budget? In this article, we’ll take a look at the skip reference routing method and explain how it can help recover some loss budget in a lossy interconnect.
What most people don’t seem to grasp is that every aspect of the PCB is critical. It all plays a significant part in the operation of the final product. The layer stack is no different. We need to keep in mind materials and the intricacies therein, including thickness, weave, dielectric constants, and more. A proper layer stack is needed for each and every design, so it's important to know how to navigate the layer stack manager and all of its features.
We are pleased to announce that Altium 365 is officially SOC 2 Type 1 certified. System and Organization Controls (SOC) 2 is a widely recognized attestation of security compliance defined by the AICPA and is considered the standard for ensuring data security and operational maturity. A SOC 2 certification provides valuable information for companies to assess the quality of the security provided by a service such as Altium 365.
It’s no secret that component shortages have become more frequent this year. Companies will continue to grapple with supply chain challenges into 2022 and beyond. The impact of manufacturing delays can be substantial if a part is not available. Delays occur and sales plans get put on hold. It can also be very expensive and risky to replace parts from multiple sources. Fortunately, many shortages can be avoided by introducing proactive supply chain practices.
Reliability testing and failure analysis of a PCB/PCBA go hand-in-hand; when designs are stressed to the limit, their failure modes need to be determined through thorough inspection and analysis. To get started on this topic, it’s important to understand the qualification aspects that will govern your bare board design and the PCBA. We’ll look at the various dimensions of PCB/PCBA reliability, as well as some of the standard failure analysis techniques used to identify potential design change requirements.
As hardware development grows more collaborative, disconnected point tools can introduce data inconsistencies, traceability gaps, and costly coordination challenges. This article examines how integrated PCB design environments connect design, mechanical, supply chain, and review workflows to improve efficiency throughout the product lifecycle.
Signal integrity and power integrity are closely connected, with problems in one often affecting the other as designs become faster and more complex. This webinar explains how integrated analysis workflows help engineers evaluate PDN performance, identify potential issues early, and improve overall design quality.
Every manual handoff adds time and risk to the product development process. This article shows how modern design workflows automate routine tasks, improve data visibility, and help engineering teams focus on innovation instead of administration.
Your signal may be perfect on the PCB and fail the moment it crosses a connector. This article explores the hidden SI challenges in multi-board systems and how engineers can eliminate them before they become costly debugging sessions.
Still building BOMs the hard way? Discover how modern workflows can help you create a prototype-ready BOM faster while improving visibility into pricing, availability, and risk.
This article examines the challenges of maintaining power integrity and controlling EMI in complex multiboard systems. It provides practical strategies for managing return paths, connector transitions, and power distribution across interconnected assemblies.
Learn how Agile Teams evolves beyond traditional PCB design workflows to support connected product development. This webinar explores how centralized data, collaboration tools, and governance capabilities help teams accelerate delivery while maintaining control.
Using separate tools often creates inefficiencies and increases the risk of mistakes. This article explains how integrated design environments streamline workflows by keeping design data connected and accessible.
PCB design challenges change significantly as organizations scale. This article explores the key differences between mid-size and enterprise design environments, from collaboration and governance to data management and workflow automation.
Not all BOM solutions work the same way. This article explains the key differences between BOM tools and BOM portals, and why real-time data and collaboration are becoming essential for modern electronics development.
Starting with a simple board today doesn't mean your next project will stay simple. Learn how Altium Designer and KiCAD compare when designs become more complex, teams get larger, and products move toward manufacturing.
Learn how Agile Teams and Duro connect design and production workflows through a unified system of record. This webinar shows how structured change management and automated data synchronization help teams reduce errors and accelerate product releases.
Agile hardware development isn’t just about working faster, it’s about working together in real time. This article explores how shared environments for ECAD, MCAD, sourcing, and requirements management eliminate handoff delays and improve decision-making across teams.
Verification becomes much easier when requirements and system performance data stay connected automatically. This article explains how reusable parameters and V&V rules help teams detect violations earlier and validate designs with greater confidence.
This article explores how modern engineering teams manage complex projects involving multiple ECAD, MCAD, and manufacturing file formats across distributed workflows. It highlights the importance of design authority, disciplined revision control, and bidirectional collaboration to ensure accurate integration between PCBs and mechanical systems.
Complex multiboard designs demand more than just connecting boards together. They require every interface to work flawlessly under real-world conditions. Discover how better pin assignments, return paths, and mechanical planning can dramatically improve reliability and reduce rework.