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2075 Results

  • UVM 1.1d Class Reference

    v1.1d The UVM Class Library provides the building blocks needed to quickly develop well-constructed and reusable verification components and test environments in SystemVerilog. This UVM Class Reference provides detailed reference information for each user-visible class in the UVM library. For additional information on using UVM, see the UVM User’s Guide located in the top level directory within the UVM kit.

  • Using Formal Analysis to Block and Tackle

    This article will explain how we applied formal analysis at the block level, extended this to full chip and describe how we significantly reduced verification time at both the block and chip level. Just like a block and tackle provides a mechanical advantage, the formal connectivity flow provides a verification advantage

  • Bringing Verification and Validation under One Umbrella

    The standard practice of developing RTL verification and validation platforms as separate flows, forgoes large opportunities to improve productivity and quality that could be gained through the sharing of modules and methods between the two. Bringing these two flows together would save an immense amount of duplicate effort and time while reducing the introduction of errors, because less code needs to be developed and maintained.

  • System Level Code Coverage using Vista Architect and SystemC

    SoC are constantly becoming more and more complex forcing design teams to eke out as much performance as possible just to stay competitive. Design teams need to get it right from the start and can't wait until it's built to find out how it truly performs. This is where System Level Modeling and SystemC/TLM shine.

  • The Evolution of UPF: What’s Next?

    Usage of the Unified Power Format (UPF) is growing rapidly as low power design and verification becomes increasingly necessary. In parallel, the UPF standard has continued to evolve. A previous article1 described and compared the initial UPF standard, defined by Accellera, and the more recent IEEE 1801-2009 UPF standard, also known as UPF 2.0. The IEEE definition of UPF is the current version of the standard, at least for now, but that is about to change.

  • Top Five Reasons Why Every DV Engineer Will Love the Latest SystemVerilog 2012 Features

    SystemVerilog has become the most widely deployed Verification language over the last several years. Starting with the early Accellera release of 3.1a standard, the first IEEE 1800-2005 standard fueled the widespread adoption in tools and user base. Since 2005 there is no look-back to this "all encompassing" standard that tries to satisfy and do more for RTL Designers and Verification engineers alike.

  • SVA in a UVM Class-based Environment

    This article demonstrates how SVA complements a UVM class-based environment. It also demonstrates how the UVM severity levels can be used in all SVA action blocks instead of the SystemVerilog native severity levels.

  • The Formal Verification of Design Constraints

    There are two approaches to the verification of design constraints: formal verification and structural analysis. Structural analysis refers to the type of analysis performed by a static timing tool where timing paths either exist or not based on constant settings and constant propagation.

  • OVM to UVM Migration, or There and Back Again: A Consultant’s Tale

    This article presents an interesting OVM to UVM migration story where we successfully translated a whole family of verification components from OVM 2.1.2 to UVM, assessed the impact, and then reworked the original OVM code, which was still live in a series of ongoing derivative projects, to make the ongoing translations totally automatic and part of the project release mechanism.

  • Monitors, Monitors Everywhere – Who Is Monitoring the Monitors

    In a verification environment the task of a monitor is to monitor activity on a set of DUT pins. This could be as simple as looking at READ/WRITE pins or as complex as a complete protocol bus, such as AXI or PCIe. In a very simple case a monitor can be looking at a pin or a set of pins and generating an event or raising a flag every time there is a change in signal values. The flag or event can trigger a scoreboard or coverage collector to perform an activity.

  • Monitors, Monitors Everywhere – Who Is Monitoring the Monitors

    This paper will review phase-level monitoring, transaction-level monitoring, and general monitoring. In-order and out-of-order transaction-level monitors and UVM constructs for single and multiple port monitors will be demonstrated, including discussion about simple function implementations versus FIFO and threaded implementations. A protocol specific AXI monitor written at the transaction-level of abstraction will be demonstrated.

  • Verification Horizons - Volume 9, Issue 1

    "As verification engineers, we have to be able to forecast the accurate completion of our projects and also be able to cope with problems that may occur. Unfortunately, there are severe consequences when we get it wrong.”

  • Improve AMS Verification Quality

    This session introduces a tool can be adapted in existing design flows supporting the available methodologies with little or no impact on the design flow.

  • Extend Structured Formal Verification to AMS

    This sessions defines the necessary extensions to the Digital Structured Formal Verification to the Mixed-Signal environment.

  • Extend Power-Aware Verification to AMS

    This session introduces the concept of Power-Aware verification, why it’s needed in a Digital domain and how it can be used in an AMS design.

  • Analog Aspects in AMS

    This session covers the main aspects that affect the Quality of an Analog design and introduces the possible means to address those areas.

  • Overview to Improve AMS Quality

    This session introduces the challenges in improving Mixed-Signal Verification Quality.

  • AMS Design Configuration Schemes

    This session introduces a tool can be adapted in various topologies supporting the available methodologies with little or no impact on the design flow.

  • Mixing Languages

    This session defines the language choices available in a Mixed-Signal design structure and how each choice impacts the performance and quality of the process.

  • Design Topologies

    This session covers the 2 main design topologies: Analog-Centric Mixed-Signal Designs and Digital-Centric Mixed-Signal Designs

  • Design Methodologies

    This session covers the 2 main flows used in Mixed-Signal design environments: Bottom-Up Design Flow and Top-Down Design Flow.

  • Analog/Mixed-Signal Domain

    This session introduces the definition for Mixed-Signal domain and addresses the three main areas for AMS design: functionality, robustness and reliability.

  • Overview to AMS Configuration

    This session introduces the opposing powers in Design Methodologies and the concept of Mixed-Signal design environments. Challenges and techniques will also be covered.

  • Improve AMS Verification Performance

    This session introduces a tool that will help verify complex Mixed-Signal designs to reach the goal of successful first tape-out.

  • AMS Modeling Guidance

    This session attempts to offer some general guidelines in developing Models for the various Analog and Mixed-Signal domain.