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2326 Results

  • Protocol Layering in UVM

    In this session, you will learn how to deconstruct sequence items and sequences across the protocol hierarchy and how to encapsulate each layer to preserve reuse.

  • Introduction to UVM Registers

    In this session, you will be introduced to the Register Layer and how to get started writing tests and sequences and checking results at the register layer.

  • C-Based Stimulus for UVM

    In this session, you will learn more about a technique in which C stimulus can be applied to the DUT via an existing UVM testbench that contains one or more bus agents.

  • UVM Debug

    In this Verification Cookbook session, you will learn how to maximize your ability debug your testbench so you can get on with the real task of verifying your design.

  • UVM Scoreboarding and Results Prediction

    In this session, you will learn how to outline the proper architecture of scoreboards and predictors in UVM and how they relate to coverage.

  • OVM to UVM Migration

    In this session you will be introduced to a step-by-step discussion of how to migrate your OVM code to UVM, including running the transition script, known differences between OVM and UVM and additional steps to take advantage of the new features offered in UVM.

  • Customization in UVM

    In this session, you will learn how to set up configuration objects for your environment and verification components, including setting virtual interfaces to connect to your DUT and how to use packages to organize parameters and other configuration information to allow an efficient compilation strategy while maximizing flexibility.

  • Improving FPGA Debugging with Assertions

    Here’s one reason why FPGA design starts dwarf ASIC design starts: choosing flexible, inexpensive and readily available FPGAs is one fairly obvious way to reduce risk when designing complex SoCs for everything from mobile devices and smartphones to automobile electronics.

  • UVM Connect 2.2 Kit

  • Improve AMS Verification Performance

    This track will introduce various modeling practices available in an Analog/Mixed-Signal (AMS) design environment to help understand how to efficiently utilize them. Understanding the modeling tools available in AMS domain, will help learn how to properly address them, thus, help improve the AMS verification performance.

  • Overview to Improve AMS Performance

    This session introduces the challenges in mixed-signal verification performance. A high-level description of the accuracy vs. performance/capacity tradeoffs is also provided along with the various available technologies that attempt to address the different areas of tradeoffs.

  • AMS Engines

    This session covers the 2 main simulator technologies used in mixed-signal verification: AMS Simulation and Analog/Digital Co-Simulation. In each case, the technology is presented along with its merits and demerits. Additionally, capabilities expected from AMS engines are presented.

  • Modeling Abstraction

    This session defines the language choices available in a mixed-signal design structure and how each choice impacts the performance and quality of the results. Then, introduces the concept of abstraction which helps define only a subset of effects that are of interest to each design phase. Abstraction helps the mixed-signal verification performance which directly helps improve the quality of the design by allowing the designer to cover/test more behaviors of the design.

  • AMS Modeling Guidance

    This session attempts to offer some general guidelines in developing models for the various analog and mixed-signal domains to achieve the optimum design flow to meet the requirements with reasonable resources. The session also covers some of the "good modeling practices" and comparing them to the "bad modeling practices" oftentimes a model developer would fall into.

  • Questa ADMS: AMS Performance

    This session introduces Questa ADMS, and how this tool can be adapted in existing design flows supporting the available methodologies with little or no impact on the design flow, supporting virtually all language standards with a variety of features and capabilities to help accurately and efficiently model and verify complex mixed-signal designs to reach the goal of successful first tape-out using reasonable resources.

  • FPGA Verification Capabilities

    This track introduces techniques for addressing complexity by evolving your organization’s FPGA verification process capabilities.

  • Introduction from Harry Foster

    This session is an introduction to various code coverage metrics and how to apply them.

  • Overview and Welcome

    This session is an introduction to the seven steps for evolving your FPGA verification capabilities.

  • Code Coverage

    This session is an introduction to various code coverage metrics and how to apply them.

  • Test Planning

    This session shows how you can create a test plan that systematically captures all the functionality in your design so you can test it.

  • Applied Assertions

    This session discusses how to use assertions in a design, and then demonstrates how to insatiate an OVL checker into a VHDL design.

  • Transactions

    This session shows you how to create a transaction level testbench using modules instead of object. You will quickly have a testbench where modules talk to each other using transactions instead of signals.

  • Self-Checking Testbenches

    This session demonstrates how to combine predictors and comparators to form a self-checking testbench.

  • Automatic Stimulus

    This session introduces constrained-random stimulus for automatic stimulus generation.

  • Functional Coverage

    This session shows you how to implement functional coverage using SystemVerilog covergroups.