Made in the Cloud!


While software developers have been building and delivering software in the cloud for many years now, how much IC hardware is “made in the cloud”? We’re here to help you understand the case for IC hardware development in the cloud and answer the most common questions. Download the paper and learn: Why isn’t everybody doing it? Why cloud? Why now? Can you afford to ignore i... » read more

Silicon Lifecycle Management’s Growing Impact On IC Reliability


Experts at the Table: Semiconductor Engineering sat down to talk about silicon lifecycle management, how it's expanding and changing, and where the problems are, with Prashant Goteti, principal engineer at Intel; Rob Aitken, R&D fellow at Arm; Zoe Conroy, principal hardware engineer at Cisco; Subhasish Mitra, professor of electrical engineering and computer science at Stanford University; a... » read more

Site-To-Site Variation In Parallel Test


From wafer to system level test, parallel test execution delivers significant benefits, including reduced costs, yet it’s never as simple as that PowerPoint slide you present to management. An engineering effort is required to balance the thermo-electrical challenges that occur as you increase the number of sites to be tested, or the number of slots in a burn-in oven or system level te... » read more

Fundamental Shifts In IC Manufacturing Processes


High chip value and 3D packaging are changing where and how tests are performed, tightening design-for-reliability and accelerating the shift of tools from lab to fab. Heterogeneous integration and more domain-specific designs are causing a string of disruptions for chip manufacturers, up-ending proven fab processes and methodologies, extending the time it takes to manufacture a chip, and ul... » read more

Software-Driven and System-Level Tests Drive Chip Quality


Traditional semiconductor testing typically involves tests executed by automatic test equipment (ATE). But engineers are beginning to favor an additional late-test pass that tests systems-on-chip (SoCs) in a system context in order to catch design issues prior to end-product assembly. “System-level test (SLT) gives a high-volume environment where you can test the hardware and software toge... » read more

Addressing The ABF Substrate Shortage With In-Line Monitoring


Ajinomoto build-up film (ABF) substrate has been a key component in chip manufacturing since its introduction shortly before the turn of the millennium. Substrates made with Ajinomoto build-up film – an electrical insulator designed for complex circuits – are found in PCs, routers, base stations, and servers. Looking ahead, the ABF substrate market will continue to grow, with revenue up ... » read more

A Practical Approach To DFT For Large SoCs And AI Architectures, Part II


By Rahul Singhal and Giri Podichetty Part I of this article discusses the design-for-test (DFT) challenges of AI designs and strategies to address them at the die level. This part focuses on the test requirements of AI chips that integrate multiple dies and memories on the same package. Why 2.5D/3D chiplet-based designs for AI SoCs? Many semiconductor companies are adopting chiplet-based d... » read more

Auto Chipmakers Dig Down To 10ppb


How do engineers deliver 10 defective parts per billion (Dppb) to auto makers if they only screen 1 million parts per year? Answer: By comprehending failure mechanisms and proactively screening for them. Modern automobiles contain nearly 1,000 ICs that must perform over the vehicle’s life (15 years). This drives quality expectations ever higher. While 10 Dppm used to be a solid benchmark, ... » read more

Enabling Silicon Lifecycle Solutions


The concepts of product lifecycle management (PLM) should be familiar, although the semiconductor industry has yet to adopt a system for managing the entire lifecycle of a product from inception through design, realization, deployment, and field service, right through to end-of-life activities such as final disposal. Now, a combination of business and technical pressures is bringing PLM capabil... » read more

Improving Performance And Simplifying Coding With XY Memory’s Implicit Parallelism


Instruction-level Parallelism (ILP) refers to design techniques that enable more than one RISC instruction to be executed simultaneously in the same instruction, which boosts processor performance by increasing the amount of work done in a given time interval, thereby increasing the throughput. This parallelism can be explicit, where each additional instruction is explicitly part of the instruc... » read more

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