Faster Formal Verification Closure For Datapaths In AI Designs


In recent years, many longstanding assumptions about formal verification have been rendered obsolete by ever-improving technology. Applications such as connectivity checking have shown that formal can work on large system-on-chip (SoC) designs, not just small blocks. Standard SystemVerilog Assertions (SVA) have eliminated the need to learn an abstruse mathematical language for each new formal t... » read more

Rethinking Your Approach To Radiation Mitigation


Formal verification and automation provide an effective, high quality, and repeatable process for fault analysis, protection, and verification for FPGA designs used in high radiation environments. This paper describes an automated systematic approach based on formal verification structural and static analysis that identifies design susceptibility to radiation induced faults. To read more, clic... » read more

The Increasingly Ordinary Task Of Verifying RISC-V


As RISC-V processor development matures and its usage in SoCs and microcontrollers grows, engineering teams are starting to look beyond the challenges of the processor core itself. So far, the majority of industry verification efforts have focused on ISA compliance to standardize the RISC-V core. Now the focus is shifting to be how to handle verification as the system grows, especially as this... » read more

(Artificially) Intelligent Verification


Functional verification produces a lot of data, , but does that make it suitable for Artificial Intelligence (AI) or Machine Learning (ML)? Experts weigh in about where and how AI can help and what the industry could do to improve the benefits. "It's not necessarily the quantity," says Harry Foster, chief scientist for verification at Mentor, a Siemens Business. "It's the quality that matter... » read more

An Eye For An AI


AI comes in multiple forms and flavors. The challenge is choosing the right one for the right purpose, and recognizing that just because AI can be applied to a particular process or problem doesn't mean it should be. While AI has been billed as a ideal solution for just about every problem, there are three primary requirements for a successful application. First, there needs to be sufficient q... » read more

FPGA Equivalence Checking For A Nuclear Safety Controller


Every chip development team wants to find and fix all the bugs they possibly can in pre-silicon verification. Turning a chip to fix issues found in the bring-up lab incurs high costs and product delays; bugs found in the field are even more expensive to repair. But for some applications, including military/aerospace, implanted medical devices, and autonomous vehicles, the consequences of a faul... » read more

FPGA Prototyping Complexity Rising


Multi-FPGA prototyping of ASIC and SoC designs allows verification teams to achieve the highest clock rates among emulation techniques, but setting up the design for prototyping is complicated and challenging. This is where machine learning and other new approaches are beginning to help. The underlying problem is that designs are becoming so large and complex that they have to be partitioned... » read more

The Seven Steps Of Formal Signoff


“Signoff” may be the most exciting—and frightening—word in semiconductor development. After many months, or even years of team effort, committing a design to silicon fabrication is indeed an exciting and rewarding event. But, there’s often significant anxiety involved as well – if any missed issues result in having to “turn” the chip, the increased costs and time-to-market delay... » read more

What Will The Next-Gen Verification Flow Look Like?


Semiconductor Engineering sat down to discuss what's ahead for verification with Daniel Schostak, Arm fellow and verification architect; Ty Garibay, vice president of hardware engineering at Mythic; Balachandran Rajendran, CTO at Dell EMC; Saad Godil, director of applied deep learning research at Nvidia; and Nasr Ullah, senior director of performance architecture at SiFive. What follows are exc... » read more

UPF 1.0, UPF 2.0, UPF 2.1, UPF 3.0, And Now UPF 3.1


UPF is the fastest evolving IEEE standard, and UPF 3.1 is a major milestone in its evolution. This paper provides an in-depth analysis and relevant examples of all the new features introduced in UPF 3.1 along with semantic differences with earlier versions. It also highlights migration challenges to help users migrate from existing power formats to UPF 3.1. To read more, click here. » read more

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