News & Updates

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.

Getting started with design rules can sometimes be a difficult task, but it doesn’t have to be. Altium Designer has added a new design rules user interface along with a new way to define rules, while not compromising past methods. Now, rules and constraints have a design-centric view rather than a rules-centric view which allows for easier visualization and is less prone to error. Watch this video to learn how you can best utilize the improved Rules 2.0 design rule interface.

Embedded computers, vision devices, DAQ modules, and much more will all need some memory, whether it’s a Flash chip or a RAM module. Normally, something like a Flash memory chip or a small eMMC module would not be used for temporary storage as the device requires constant rewrites. Instead, if you happen to need a volatile memory solution, you would go for static (SRAM) or dynamic RAM (DRAM). If you need to decide which type of memory to use in your board, keep reading to see some of the basic design guidelines for SDRAM vs. DDR memory modules.

Using a PCB ground plane in a stackup is the first step towards ensuring power and signal integrity, as well as keeping EMI low. However, there are some bad myths about ground planes that seem to persist, and I’ve seen highly experienced designers make some simple mistakes when defining grounds in their PCB layouts. If you’re interested in preventing excess emissions and ensuring signal integrity in your layout, follow these simple guidelines for implementing a PCB ground plane in your next board.

As much as we’d like, the power we supply to electronics isn’t always stable. Real power sources contain noise, they might exhibit power instability, or they dropout unexpectedly. Thankfully, we have power regulators to help prevent some of these problems. For low power devices, we generally see two types of power regulators: a low dropout regulator (LDO) or a switching regulator. You can mix and match these at different points along your power bus, but there’s still the matter of choosing whether to use an LDO vs. a switching regulator in your designs.

Post-layout simulators for your PCB are very valuable tools. If you’re working through a complex design, it’s a good idea to put it through some level of simulation and analysis to evaluate the design before manufacturing. This is all easy with the cloud collaboration tools in Altium 365 and Ansys field solvers thanks to the EDB Exporter utility in Altium Designer. These existing tools in Altium Designer and any of the Ansys field solver utilities give you a simplified way to share design data, EDB files, and simulation results with anyone on your design team.

Working between the Electronic and Mechanical design domains brings unique challenges. ECAD and MCAD tools have different design objectives and have evolved down different paths, and so has the way they store and manage their design and project data. Watch this video to learn about seamless ECAD/MCAD Collaboration on the project, how to comments for other design teams and how to review, Approve or Reject design changes from your mechanical engineer.

Experienced fabricators will tell you: any design could have some hidden DFM problem that will interfere with manufacturability, quality, or yield. Making use of your design rules is just the start of preventing DFM problems, you’ll want to collaborate with your manufacturer throughout the design process if you want to spot and correct DFM problems. Within Altium Designer, there are multiple reports you can generate for your projects that will help you summarize important information on your board for a client or a manufacturer.

With modern systems running at higher frequencies, incorporating multiple wireless protocols, and interfacing with many analog sensors, advanced designs require knowledge from digital and RF design disciplines. If you’re now starting to work in the RF realm and you need to design an all-analog or mixed-signal system, RF PCB layout will need to become a new specialty. If you’re a digital designer and you’re now jumping into high-frequency analog design, keep reading to learn more about RF PCB layout and routing.

If you take a look at any guidelines for controlled impedance traces, you’ll clearly see that the trace width is calculated without any ground pour near the trace. However, most designers will state that unused areas on each PCB layer should be filled in with grounded copper pour. If you bring some ground pour near a microstrip, you’ve now formed a coplanar waveguide arrangement. So now the question becomes, how much microstrip to ground clearance do you need to ensure you’ve hit your impedance goals?

In this article, I want to briefly focus on how power supplies and regulators are different, although this should already be clear to most designers. For a power supply and for a PCB with an on-board regulator, the switching regulator layout will be a major determinant of overall system performance. Therefore, we’ll largely look at some layout guidelines for switching power supplies in terms of regulator layout.

Altium 365 is giving design teams a new way to share and manage their design data. Most users are probably aware of project-level and component-level PCB sharing features, but sharing actually extends down to the level of individual files thanks to the managed content system within Altium 365. If you’ve ever wanted a single place to store and manage all of your design data, then Altium 365 is here to help you and your team stay organized.

Power supplies are one of those systems we all tend to take for granted. Everyone’s first task in power supply design is usually to ensure the voltage and current output reach the desired level, probably followed by thermal considerations. However, due to safety issues, EMC requirements, the use of higher PWM frequencies, and the need for smaller packaging, power supply EMI should be a major design consideration. With that being said, what are the major sources of power supply EMI, and how can power supply designers keep them in check?

Designing footprints is a job most people hate. It’s tedious, time-consuming, and doesn’t result in much except, well, a footprint. Companies now realize this pain point and offering designers free, well-designed PCB footprints. Why would they spend their time doing this? In this article, we’re going to review some of the free offerings that exist within the PCB design community. Once you’re armed with this information, you will spend most of your time designing and routing boards instead of pulling your hair out creating footprints all day.

The majority of our PCB designs sit as a single PCB under our Altium Designer projects. It sometimes happens that we have a single project that requires multiple PCBs with various stuffing options, but when it happens, a lot of us tend to get stuck. How do you handle the exact change across both projects? How do you guarantee those changes to be identical? This article will review an approach to managing multiple PCB designs within a single project, ensuring your single source of truth.

The next stage in the evolution of mobile telephony is here with the roll-out of 5G. The designer looking to incorporate functionality to handle 5G signals into their circuits will face some challenging issues. So, what’s so special about 5G?

The maximum PCB trace length you can place between two components depends on multiple factors, such as signaling protocol, component specification, losses in PCB laminate, and skew. With all this in mind, let’s look at where losses accumulate along the channel.

For low power devices, we generally see two types of power regulators: a low dropout regulator (LDO) or a switching regulator. You can mix and match these at different points along your power bus, but there’s still the matter of choosing whether to use an LDO vs. a switching regulator in your designs. If you’ve ever wondered how these decisions are made and when to use each type of regulator, just know that there is more to this decision than simply looking at the input/output voltage/current.

PCB fabrication is an extremely complex technological topic that deserves recognition as the most fundamental part of PCB engineering. Unless connectors, conductive adhesive, wire-bonding, or zebra-tape are used, in the modern electronics industry it’s always necessary to use some kind of flux during the soldering process to create an electric connection. In this article, we’ll discuss fluxes — what they are, what they are made of (yes, there is going to be a lot of chemistry, don’t be scared), how they should be used, and in what direction the industry is going.

Human error is a leading cause of cybersecurity breaches—even in electrical engineering. Our article explores how everyday design and collaboration habits can create vulnerabilities, and what engineers can do to build safer, more secure workflows.

Discover how modern wire harness engineering is evolving to meet the growing complexity of electrified systems. This whitepaper explores best practices, intelligent automation, and ECAD-MCAD collaboration to improve efficiency and reduce errors. Download now to stay ahead in an increasingly connected world.

Ultra-HDI technology is transforming RF design by enabling finer line widths, improved signal integrity, and more compact, high-performance boards. Our brand-new article explores its advantages over traditional methods and the benefits of integrating flexible circuits.

Testpoints are essential for efficient PCBA testing and debugging. Our latest whitepaper dives into testpoint optimization, fault detection, and automated testing strategies, along with a full tutorial on using Testpoint Manager in Altium Designer. Discover how to streamline your testpoint assignments and improve measurement accuracy!

Krishna Sundaram explores the hidden challenges of cable harness design, from routing complexity to mechanical constraints and manufacturability. Learn how to design a robust and efficient harness.

Ultra-HDI technology is transforming PCB design, enabling unprecedented miniaturization and performance. In this article, explore what sets Ultra-HDI apart from traditional HDI and how it’s shaping the future of electronics.

This article addresses common misconceptions about cloud security in PCB design. It explains how modern cloud platforms, such as Altium 365, often provide superior security compared to traditional on-premises solutions. Key features like advanced infrastructure, granular access controls, and compliance with stringent regulations ensure the protection of valuable design data.

Last week, Renesas Electronics and Altium proudly announced the introduction of Renesas 365, Powered by Altium—a first-of-its-kind industry solution designed to streamline electronic system development, from silicon selection to system lifecycle management. Renesas 365 will be demonstrated at Embedded World, Booth 5-371, from March 11-13 in Nuremberg, Germany.

Learn how integrating DFM and DFA principles into systems engineering ensures manufacturable, cost-effective PCB designs by optimizing CAD, CAM, and requirements management in our new article by Javier Alcina.

Crosstalk control is essential for better EMI performance. Learn effective design techniques to reduce interference in the final installment of this series by Dario Fresu.

Part 2 of this series covers essential project management techniques for electronics design teams. Rafał Stępień discusses effective data organization, revision control, and collaboration strategies to improve efficiency and minimize errors.

Read our new article which discusses the advantages of rigid-flex PCBs, such as space-saving designs and enhanced reliability, while also addressing potential challenges in their fabrication. It provides essential design and manufacturing tips to help engineers effectively implement this technology in various applications.

Our new article highlights how automation and robotics are transforming wire harness assembly, improving efficiency, precision, and cost-effectiveness. Technologies like robotic wire handling and AI-driven testing are paving the way for smarter production. However, challenges like custom designs and high costs still persist.

Check out the first part of "Best Practices for Electronics Project Management" by Rafał Stępień. It offers valuable advice on enhancing team communication and documentation in hardware design projects.

Wiring harnesses are mission-critical in space systems, requiring strict adherence to ECSS-Q-ST-70-61C and NASA-STD-8739.4A. In "Wiring for the Final Frontier: A Guide to Space-Grade Harness Design", Kamil Jasiński explores key design principles, material selection, and testing to ensure reliability in extreme environments.

Discover how wire harnesses are evolving to meet the demands of electric vehicles and modern electronics. Our latest article explores key trends like higher voltages, lightweight designs, and smart harnesses, along with challenges such as cost and supply chain issues.