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2413 Results

  • Part 8: IC/ASIC Resource Trends

    In my previous blog ( click here ), I presented trends related to various aspects of design to illustrate growing design complexity. In this blog, I plan to discuss the growing IC/ASIC project resource trends resulting from growing design complexity.

  • Industry Advancements Required to Close the Power Management Verification Gap

    In this session, you will learn how Qualcomm overcomes their power verification challenges and how they utilize power aware verification techniques.

  • Deploying a Metrics Driven Low Power Methodology for Your RTL IP

    In this session, you will learn how PowerPro is a single solution for RTL audit, power optimization, estimation and exploration.

  • Low Power Verification & Analysis with Emulation

    In this session, you will learn how Emulation techniques can be used for low power verification including power analysis and power estimation.

  • Productive Low Power Debug Across All Engines and Flows

    In this session, we will answer the top nine questions asked for debugging low power in your design.

  • Accelerating Verification through Verification IP, Configurator and UVM Framework

  • Making Verification Fun Again

  • Verification Acceleration for FPGA Designs with Matlab

  • Welcome & Overview

  • ASIC & FPGA SoC Functional Verification Trends

  • Part 7: IC/ASIC Design Trends

    In my previous blog ( click here ), I focused on FPGA design and verification trends. Now my plan is to shift the focus in this series of blogs from FPGA trends to IC/ASIC trends. And specifically in this blog, I present trends related to various aspects of design to illustrate growing design complexity.

  • Part 6: FPGA Verification Language and Library Adoption Trends

    In my previous blog ( click here ) I discussed FPGA verification techniques and technologies adoption trends, as identified by the 2018 WRG study. In this blog, I’ll present FPGA design and verification language adoption trends. It is not uncommon for FPGA projects to use multiple languages when constructing their RTL and testbenches. This practice is often due to legacy code as well as purchased IP.

  • Part 5: FPGA Verification Technology Adoption Trends

    In my previous blog ( click here ) I discussed verification effort trends specifically focused on where FPGA design and verification engineers spend their time. In this blog I present verification techniques and technologies adoption trends, as identified by the 2018 Wilson Research Group study.

  • Part 4: FPGA Verification Effort Trends (Continued)

    In my previous blog ( click here ) I discussed verification effort trends in terms of project time spent in verification, as well as increasing headcount as indicated by the rising mean peak number of design and verification engineers working on FPGA projects. In this blog I continue the discussion of FPGA verification effort trends by looking at where engineers spend their time.

  • How to Unearth Deep Bugs Faster and Cheaper Using Formal Bug Hunting Techniques

    In this session, you will learn how to leverage formal analysis to find and fix as many functional bugs as possible, ultimately improving the quality of your end-product, and lowering the risk of re-spins.

  • Effective Elements List and Transitive Natures of UPF Commands

    It is evident now that UPF commands-options are inherently transitive in nature through the implicit or explicit – transitive option. With the progression of UPF versions and revisions from UPF 2.0 to 2.1 and onward, the transitive nature becomes more realistic and consistent with all UPF semantics, specifically for UPF strategies, as well as for UPF and DUT objects.

  • Effective Elements List and Transitive Natures of UPF Commands

    The UPF commands are, in general, transitive in nature. For example, for any given instance included in a power domain, all child instances of that given instance are transitively included in the power domain, unless any child instance is explicitly excluded from this particular power domain or is explicitly included in the definition of another power domain.

  • Full-Featured SOC Debug Cross-Triggering

  • Part 3: FPGA Verification Effort Trends

    This blog is a continuation of a series of blogs related to the 2018 Wilson Research Group Functional Verification Study ( click here ). In my previous blog ( click here ), I presented the findings from our new study related to how successful FPGA projects are in terms of verification effectiveness. In this blog I focus on FPGA verification effort trends.

  • C Stimulus Package (.tgz)

    Compressed code archive file.

  • FPGA Verification Challenges and Opportunities

    There have been multiple studies on IC/ASIC functional verification trends published over the years. 1,2,3,4 However, there are no published studies specifically focused on Field-Programmable Gate Array (FPGA) verification trends.

  • Building a Better Virtual Sequence with Portable Stimulus

    When using the Universal Verification Methodology (UVM), sequences are the primary mechanism by which stimulus is generated in the testbench. Sequences come in two flavors: simple sequences for driving a single interface, and virtual sequences that control more complex behavior. Simple sequences tend to work with a single sequence item, while virtual sequences often spawn off multiple sub-sequences to accomplish their intended task.

  • A New Approach to Low Power Verification: Power Aware Apps

    The effective verification of low power designs has been a challenge for many years now. The IEEE Std 1801-2015 Unified Power Format (UPF) standard for modeling low power objects and concepts is continuously evolving to address the low power challenges of today’s complex designs.

  • Simplifying Mixed-Signal Verification

    Mixed-signal design is the art of taking real world analog information, such as light, touch, sound, vibration, pressure, or temperature, and bringing it into the digital world for processing.

  • Part 2: FPGA Verification Effectiveness Trends

    This blog is a continuation of a series of blogs related to the 2018 Wilson Research Group Functional Verification Study ( click here ). In my previous blog ( click here ), I focused on FPGA design trends. In this blog, I present the findings from our new study related how successful FPGA projects are in terms of verification effectiveness.