SystemVerilog reference verification methodology: Introduction
(03/27/2006 9:00 AM EST), EE Times
Verification is the single biggest challenge in the design of system-on-chip (SoC) devices and reusable IP blocks. Traditional verification methods struggle to keep pace with the ever-increasing size and complexity of designs. The only way to address this problem is to adopt a reuse-oriented, coverage-driven verification methodology built on the rich semantic support of a standard language.
This is the first in a series of four articles outlining just such a solution: a reference verification methodology enabled by the SystemVerilog hardware design and verification language standard. This methodology is documented in a comprehensive book — the Verification Methodology Manual (VMM) for SystemVerilog — jointly authored by ARM and Synopsys.
The VMM for SystemVerilog addresses how to build a scalable, predictable and reusable environment enabling users to take full advantage of assertions, reusability, testbench automation, coverage, formal analysis, and other advanced technologies to help solve their RTL and system-level verification problems. Such an environment increases user verification confidence for first-pass silicon success. The VMM for SystemVerilog enables all SoC and IP projects to establish an effective, efficient and predictable verification process that is based upon the experience of leading industry experts from ARM, Synopsys, and their customers.
To read the full article, click here
Related Semiconductor IP
- Power-OK Monitor
- RISC-V-Based, Open Source AI Accelerator for the Edge
- Securyzr™ neo Core Platform
- 112G Multi-SerDes
- SHA3 Cryptographic Hash Cores
Related White Papers
- SystemVerilog reference verification methodology: RTL
- SystemVerilog reference verification methodology: ESL
- SystemVerilog Reference Verification Methodology: VMM Adoption
- Five Vital Steps to a Robust Testbench with DesignWare Verification IP and Reference Verification Methodology (RVM)
Latest White Papers
- Practical Considerations of LDPC Decoder Design in Communications Systems
- A Direct Memory Access Controller (DMAC) for Irregular Data Transfers on RISC-V Linux Systems
- A logically correct SoC design isn’t an optimized design
- AI in VLSI Physical Design: Opportunities and Challenges
- cMPI: Using CXL Memory Sharing for MPI One-Sided and Two-Sided Inter-Node Communications