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2419 Results

  • Conclusion: Impact of Design Size on First Silicon Success

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I present verification results findings in terms of schedules, number of required spins, and classification of functional bugs. In this blog, I conclude the series on the 2014 Wilson Research Group Functional Verification Study by providing a deeper analysis of respins by design size.

  • Part 12: IC/ASIC Verification Results Trends

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I provided data that suggest a significant amount of effort is being applied to functional verification. An important question the various studies have tried to answer is whether this increasing effort is paying off.

  • Part 11: IC/ASIC Power Management Trends

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I presented our study findings on various verification language and library adoption trends. In this blog, I focus on power trends. Today, we see that about 73 percent of design projects actively manage power with a wide variety of techniques, ranging from simple clock-gating, to complex hypervisor/OS-controlled power management schemes.

  • Evolution of Debug

  • Part 10: IC/ASIC Language and Library Adoption Trends

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I presented our study findings on various verification technology adoption trends. In this blog, I focus on language and library adoption trends. As previously noted, the reason some of the results sum to more than 100 percent is that some projects are using multiple languages; thus, individual projects can have multiple answers.

  • Part 9: IC/ASIC Verification Technology Adoption Trends

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I focused on the growing IC/ASIC design project resource trends due to rising design complexity. In this blog I examine various verification technology adoption trends.

  • Unleashing the Full Power of UPF Power States

  • Part 8: IC/ASIC Resource Trends

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I focused on IC/ASIC design trends and rising complexity. In this blog, I plan to discuss the growing IC/ASIC design project resource trends due to rising design complexity.

  • Part 7: IC/ASIC Design Trends

    This blog is a continuation of a series of blogs related to the 2014 Wilson Research Group Functional Verification Study ( click here ). In my previous blog , I focused on FPGA design and verification trends. I now will shift the focus of this series of blogs from FPGA trends to IC/ASIC trends.

  • EZ Verification with Questa Verification IP

  • New School Connectivity Checking

    This session discusses the use of a new school formal verification method which can be easily applied to solve the problem of connectivity checking with detailed case studies of how this formal app was used to automatically verify connectivity and accelerate the debug process.

  • Power Aware CDC Verification

    In this track, you will learn the low power CDC methodology by discussing the low power CDC challenges, describing the UPF-related power logic structures relevant to CDC analysis, and explaining a low power CDC verification methodology.

  • Power Aware CDC Introduction and Overview

    This session introduces the design challenges created by low power designs and the implications that these designs have on CDC verification.

  • Understanding Low Power Impact on CDC Logic

    This session describes the impact of low power design techniques on design and CDC logic and also explains dynamic voltage and frequency scaling (DVFS) and its effect on CDC design and verification.

  • Describing Low Power Logic with UPF

    This session describes the clock-domain crossing requirements for low power designs and explains the CDC issues introduced by power control logic.

  • Integrating Power Aware CDC into a Design Flow

    This session describes a low power verification methodology and how the Questa Power Aware CDC solution may be integrated into your design flow.

  • Questa CDC Demo: Power Aware

    This session demonstrates the Questa CDC Power Aware solution for verifying low power designs including clock-domain crossing (CDC) and voltage domain crossing (VDC) paths.

  • Verification Methodology Cookbooks

    Find all the methodology you need in this comprehensive and vast collection. The UVM and Coverage Cookbooks contain dozens of informative, executable articles covering all aspects of UVM and Coverage.

  • DAC 2015 Academy PDF Presentation: New Coverage Closure Techniques - Mentor Graphics

  • Debug Data API (DDA)

  • Boosting Test-Creation Productivity with Portable Stimulus

    Portable stimulus boosts test-creation productivity 10-100x, and enables test reuse across simulation, emulation, and post-silicon engines.

  • DAC 2015 Academy PDF Presentation: Successive Refinement: A Methodology for Incremental Specification of Power Intent using UPF - Mentor Graphics

  • Off and Running with UVM

  • Industry Standards and FPGA Verification Trends

  • An Agile Evolution in SoC Verification