Weaving A Digital Thread For Design And Manufacture Of Additive Electronics


Additive manufacturing has been around electronics since thick-film, screened hybrids came on the scene more than 30 years ago. And while those never quite went away, they never gained the prominence we all expected alongside the more traditional laminated, subtractive-etched PCBs. Today, emerging technologies are bringing a resurgence in additive manufacturing, also known as printed electro... » read more

Advanced DFT And Silicon Bring-Up For AI Chips


The AI market is growing quickly, spurring an insatiable demand for powerful AI accelerators. AI chip makers are pressed with aggressive time-to-market goals and need the tools to help them get their chips into the hands of customers as quickly as possible. IC test and silicon bring-up are tasks that can affect both the quality and the time-to-market of AI chips. Different companies are usin... » read more

Designing Automotive ICs For Cybersecurity


The day has already arrived when we need to be concerned about the cybersecurity of our cars. An average modern car includes about 1400 ICs and many of them are used in sophisticated applications, like autonomous driving and vehicle-to-everything (V2X) communication. The security of road vehicles is an important issue to automakers and OEMs but is rooted in the IC devices that power the vehicle... » read more

Simplifying Power Module Verification Using Compliance Checking


By Wilfried Wessel, Siemens EDA; Simon Liebetegger, University of Applied Sciences, Darmstadt; and Florian Bauer, Siemens EDA Current simulation and verification methods for power modules are time-consuming. Each domain has specific solutions based on finite elements analysis, computational fluid dynamics and solvers for electric circuits like SPICE. This article investigates if it is possib... » read more

Integration Of S-Parameters For Power Module Verification Into The Engineers’ Design Environment


By Wilfried Wessel (Siemens EDA), Simon Liebetegger (University of Applied Sciences Darmstadt), and Florian Bauer (Siemens EDA) Developing a power module requires enhanced design and verification methods. Currently, multiple iterations are needed to get the design done. Today, design and manufacturing processes are heavily dependent on physical prototypes. The reason for this is the unique s... » read more

How To Use S-Parameters For Power Module Verification


By Wilfried Wessel (Siemens EDA), Simon Liebetegger (University of Applied Sciences Darmstadt), and Florian Bauer (Siemens EDA) Power modules are high-power switching circuits that convert DC- in AC-currents in electric vehicles, renewable energy, and many more applications. New materials [14] and device technologies [14], such as wide bandgap semiconductors, including silicon carbide (SiC) ... » read more

Welcome To EDA 4.0 And The AI-Driven Revolution


By Dan Yu, Harry Foster, and Tom Fitzpatrick Welcome to the era of EDA 4.0, where we are witnessing a revolutionary transformation in electronic design automation driven by the power of artificial intelligence. The history of EDA can be delineated into distinct periods marked by significant technological advancements that have propelled faster design iterations, improved productivity, and fu... » read more

Hardware-Based Cybersecurity For Software-Defined Vehicles


As vehicle technology advances, so does the complexity of the electrical/electronic systems within these smart vehicles. A software-defined vehicle (SDV) relies on centralized compute and an advanced software stack to control most of its functionality, from engine performance to infotainment systems. SDVs are becoming more important as automakers look to improve vehicle performance, reduce emis... » read more

Chip Monitoring For Max Performance And Security


In a semiconductor market dominated by SoCs for high-performance computing, AI, automotive and 5G, semiconductor companies face myriad challenges and device requirements. The specific challenges for any given SoC vary but can include issues around performance debug and security against hacking. Top of the list includes the need to ensure quality, enhance safety, optimize performance, and increa... » read more

Automotive IoT Security By Design


A good example of the wider adoption and application of IoT devices is in automotive uses. It’s a growing market, with the worldwide number of IoT-connected devices projected to increase to 43 billion by 2023, an almost threefold increase from 2018. The modern vehicles that host so many IoT devices are increasingly connected—for cellular over-the-air updates, but also potentially to comm... » read more

← Older posts Newer posts →