News & Updates
Blog
•
SPI vs. I2C: How to Choose the Best Protocol for Your Memory Chips
One of the common implementations of SPI and I2C in a PCB layout is as a protocol for reading and writing to an external Flash memory. Flash chips are a very common component in embedded systems and can offer high capacities of non-volatile memory up to Gb values. When choosing a memory chip, you'll want to match the application requirements and functionality with the bus speed you need for read and write operations in your memory chip. There is also the matter of the type of Flash memory you'll need to access (NOR vs. NAND).
On-Demand Webinar
•
Tips & Tricks: Board Shape Creation
Being able to design a board in your ECAD environment doesn’t mean that it is manufacturable in real life. You have to make sure your CAD representation won’t have any problems in the real world by taking some precautions. For example, there are certain areas that need to be free of components and have specified clearances like your board edge. This webinar will help you get acquainted with the creation and modification of your board shape so that you can ensure manufacturability.
Blog
•
Is There an SPI Trace Impedance Requirement?
There is no SPI trace impedance requirement? The reality is that SPI lines only start to need impedance control when the length of the interconnect becomes very long. And because there is no specific impedance requirement in the bus, you have some freedom in channel design and termination. So what exactly qualifies as “very long” and when is some termination method needed? We’ll break it down in this article.
Blog
•
The Skin Effect, Current Density, and the Electromagnetic Field
During this year's AltiumLive CONNECT event, I recall receiving an interesting question about the skin effect and the distribution of current due to the presence of ground in coplanar transmission lines. In this article, we'll look at the electric field around a transmission line carrying a signal, and how this might be impacted by the skin effect.
Blog
•
What You Need for PCB Packaging and Shipping
When you get your PCBA back from an assembler, you’ll notice the packaging materials used to pack and ship the PCBA. Those materials are specific to electronics, and if you build products on behalf of clients, it’s important to know the packaging materials used for packing and shipping electronics. In this article I’ll show the main set of materials and equipment used to package electronics assemblies.
Blog
•
How to Make PCB Gerber Files in Altium Designer Step-by-Step
Once you've got your PCB layout finished and you're ready to start preparing for manufacturing, one of the critical steps is to create PCB Gerber files. When you're ready to create your Gerber files, you need the right set of CAM processor tools that can take data from your PCB layout. In this article, we'll guide you through this process of how to make PCB Gerber files and show some example tasks you might need to perform to generate them.
On-Demand Webinar
•
Help Ensure The Best Designs With Component Management
There are many aspects to designing a PCB. One of the larger aspects has to do with managing your components. We all need components for our designs, but are those components in our library and designs up-to-date or even purchasable? These questions need to be answered before we can safely use them. Altium Designer® has several tools to help you manage the components in your libraries and designs.
Blog
•
Should You Place Teardrops on Differential Pairs?
One of the major factors impacting reliability of a PCBA is the use of teardrops on traces in the PCB. Like many aspects of reliability, the considerations also span into the signal integrity domain, particularly as more high-reliability products require greater data handling capabilities and run at higher speeds. In this article, I’ll break down the issues present in teardrop usage on differential pairs and how these may affect impedance.
Blog
•
The High-Reliability PCBA Design and Test Challenge
High-reliability electronics must go through multiple rounds of testing and qualification to ensure they can withstand their intended operating environment. Designing to performance standards, whether the baseline IPC standards or more stringent industry standards, is the first step in ensuring a reliable circuit board. In this e-book, readers will gain a thorough look into PCB testing and analysis, starting from basic tests performed on bare boards and completed assemblies.
Blog
•
AC Coupling Capacitors in PCIe Routing
Coupling capacitors find plenty of uses in analog applications and on differential protocols, acting essentially as high pass filters that remove DC bias carried seen on a signal. In the case of PCIe, there are a few reasons to place AC coupling capacitors on differential pairs beyond the fact that AC coupling capacitors are listed in the standard. In this article, we’ll look briefly at where to place coupling capacitors on PCIe links, as well as the reasons these are placed on PCIe links.
NEW
Blog
•
Understanding Power Integrity in PCB Design: Power Analyzer by Keysight Whitepaper
Power integrity is the backbone of reliable PCB design. This whitepaper explains how to analyze and optimize voltage drop, current density, and grounding directly within Altium Designer Agile using the Power Analyzer by Keysight.
NEW
Blog
•
How to Manage ECAD Libraries for Consistent PCB Layout Design
Strong hardware starts with strong libraries. Discover how disciplined ECAD-library management dramatically improves design consistency and accelerates every stage of your PCB workflow.
Blog
•
High Speed PCB Design Review: Signal Integrity Questions You Should Always Ask
As data rates increase, the risks hidden in your layout grow with them. This quick guide highlights the critical SI checkpoints that can save you from late-stage surprises and redesigns. If you design high-speed boards, you’ll want to read this before your next review.
Blog
•
Supplier Negotiation: Turn Market Data Into Your Best Negotiation Tool
Don’t walk into supplier talks blind. Use market data to benchmark quotes, check lead times and uncover alternate parts. This article shows how visibility can shift the balance and de-risk your BOM.
Blog
•
Via-in-Pad in Rigid-Flex Designs: When Space Is Tight, Details Matter
Designing rigid-flex boards is like solving a 3D puzzle of materials, bends and tight spaces, and via-in-pad might just be the piece you need. Dive into how and when to use via-in-pad in rigid-flex designs, and what to watch out for from fabrication to field reliability.
Blog
•
Wearable Electronics: Innovations, Challenges & Future Trends
This whitepaper examines how next-generation wearable electronics are evolving through advancements in flexible and rigid-flex design, smart materials, AI, energy innovations, and connectivity. Discover what’s required to transform early prototypes into scalable, reliable products across healthcare, sports, defense, fashion, and enterprise applications.
Blog
•
Streamlining Component Selection for Long Product Lifecycles
Electronic parts may now cycle from launch to end-of-life in just a few years, but many systems are expected to serve for 10–20+ years. Here’s how to build a component selection process that aligns engineering, procurement and design for longevity and stability.
Blog
•
Using ECAD Software to Track Part Availability During PCB Design
As component lead-times extend and obsolescence becomes a persistent threat, PCB projects demand more than schematic capture and layout tools alone. This article details how ECAD software with embedded supply-chain intelligence can: unify engineering and procurement teams; provide visibility into stock levels, lead times and alternates; and enable proactive risk mitigation within the design loop.
Blog
•
PCB Design Data Management Tips for Multi-Board Projects
In complex electronic systems, managing data from multiple printed circuit boards can quickly become a logistical challenge. This article outlines a structured workflow for handling both board-level and assembly-level design outputs, ensuring clarity and consistency across fabrication, assembly and product-level documentation.
Blog
•
6 Areas Your PCB Design Reviews Should Focus On
Learn the six essential topics every electronics team should address in design reviews to improve quality, avoid surprises and bring products to market faster.
Blog
•
What Is BOM Management? A Practical Guide to Avoiding Costly Part Mismatches
From design to production, effective Bill of Materials (BOM) management is critical to ensuring smooth collaboration between engineering, procurement, and manufacturing teams. In this practical guide, we break down proven strategies for structuring, maintaining, and synchronizing your BOM to prevent costly mistakes and accelerate time-to-market.
Blog
•
Requirements Portal Introductory Tutorials
This series of guided demos shows how the Altium Requirements Portal transforms scattered requirement spreadsheets and emails into traceable, version-controlled data that stays aligned with your PCB design efforts.
Blog
•
Bridging the Gap: When to Use Rigid-Flex Instead of Flex & Connector
Discover when a rigid-flex PCB is a better choice than a separate flex circuit and connector, especially for designs requiring compact packaging, repeated motion or high reliability. The article emphasizes that although rigid-flex needs more upfront planning and fabrication collaboration, it often pays off in simpler assemblies and improved performance.
Blog
•
Bridging Mechanical and Electrical Teams for Smarter Automotive Design
As vehicles evolve into advanced electronic systems, the separation between electrical and mechanical design teams becomes a critical bottleneck. This article explores how synchronized ECAD–MCAD workflows help automotive projects move faster, reduce rework and maintain design integrity.
Blog
•
Via Structures: Designing for Reliability, Not Just Density
We all want to pack more into our PCB designs, but the smallest via isn’t always the smartest one. Dive in to learn how picking the right structure can save you headaches down the line.
Blog
•
How Structural Electronics Enables 3D, Flexible, and Wearable Integration
Structural electronics integrates electronic functionality directly into the physical structure of a product, eliminating the need for traditional circuit boards. This article examines how advances in materials, additive manufacturing, and flexible substrates are enabling compact, 3D, and wearable systems with enhanced performance and design freedom.
Your search returns no results.
