NVIDIA Bets on In-House CPU to Accelerate Chip Design, Marking an AI Turning Point for the EDA Industry
Complete. Here is the key summaryNVIDIA announced that its engineers are using proprietary chip design software and collaborating with Cadence and Synopsys to optimize EDA platforms for the Vera CPU, achieving a 1.5x performance boost. Meanwhile, NVIDIA is integrating AI libraries such as PhysicsNeMo into the Nvidia Agent Toolkit, aiming to accelerate simulation, verification, and other stages in the chip manufacturing process through AI agents, thereby driving the EDA industry toward automation and intelligence
NVIDIA Corporation stated that its engineers are using proprietary chip design software to design next-generation graphics processing units.
It is collaborating with two major suppliers of electronic design automation (EDA) software, Cadence Systems Inc. and Synopsys Inc., both of which are currently optimizing their platforms to run on the NVIDIA Vera central processing unit, thereby accelerating chip design workloads.
The chipmaker stated that Cadence’s formal verification platform, Jasper, and Synopsys VCS (a logic simulation tool used to verify chip designs before manufacturing), achieved a 1.5x performance improvement when running on the Vera central processing unit.
NVIDIA announced that it would integrate its PhysicsNeMo physical AI library and a series of GPU math libraries into the Nvidia Agent Toolkit, aiming to enhance the role of autonomous AI agents in the chip manufacturing process. At the 2026 Design Automation Conference held today in Long Beach, California, NVIDIA stated that AI agents can now invoke accelerated solvers just like other third-party tools.
Accelerating EDA Workloads
NVIDIA is attempting to accelerate chip development by speeding up EDA workloads and increasing the level of automation across various stages of the design process. The chipmaker explained that simulation, verification, and implementation are all critical steps in the semiconductor design flow.
Traditionally, these steps were performed by engineers and were quite tedious. It is not uncommon for engineers to spend years verifying device performance, identifying issues, and refining designs through thousands of iterations before finalizing the blueprint for a new generation of semiconductors.
For years, NVIDIA has been working to accelerate these processes. While GPUs and AI have provided assistance in certain areas, many aspects of EDA still heavily rely on CPU performance. For instance, logic simulation, formal verification, and parts of digital implementation require fast single-core performance, efficient memory systems, and high overall throughput. These characteristics are best provided by CPU architectures, meaning they continue to play a crucial role in verifying new chip designs and exploring alternatives.
By optimizing the Vera CPU for EDA workloads, NVIDIA stated that it has demonstrated the ability to accelerate two computationally intensive stages in the early chip design lifecycle. Cadence Jasper is a verification platform that uses intelligent verification techniques and machine learning algorithms to identify and fix bugs; while Synopsys VCS is used to simulate and verify complex chip designs before manufacturing. In NVIDIA’s early tests, the company stated it was able to boost the performance of these two applications by 1.5x.
The chipmaker said it will collaborate with Cadence and Synopsys to optimize other EDA workflows on the Vera platform. Ultimately, they hope to accelerate the design of its subsequent product (codenamed Rosa CPU), which will feature the next-generation Nvidia Rigel core.
Chip Design Automation
NVIDIA is building a continuous feedback loop, where its current-generation Vera CPU accelerates the development of future generations of products. By adding PhysicsNeMo and CUDA-X libraries to the Nvidia Agent Toolkit, NVIDIA is also strengthening its agents' involvement in the chip design process.
Creating more sophisticated chips requires engineers to integrate physics, simulation, and performance analysis within increasingly complex design cycles. With today’s update, PhysicsNeMo and CUDA-X have become tools available for agents. PhysicsNeMo provides agents with the physical skills needed to train and deploy AI models, while CUDA-X libraries introduce accelerated solvers and quantum chemistry capabilities into agent engineering workflows.
Additionally, NVIDIA announced updates to the CUDA-X libraries, supporting “iterative sparse solvers” on its GPUs for the first time. The new libraries released today include:
- cuISS: For iterative solvers
- cuDSS: Direct sparse solver for circuit and device simulation
- cuEST: Quantum chemistry simulation for predicting material behavior at the atomic scale
NVIDIA stated that its partners have achieved encouraging results:
- Keysight Technologies Inc. saw electromagnetic simulation speeds increase by up to 10x after using the new cuDSS library;
- Silvaco Group Inc. completed a photonics edge coupler simulation with 3.2 billion mesh nodes in under 4 hours on a cluster of 32 GPUs.
The chipmaker also mentioned that Cadence’s AuraStack AI super-agent is now running on cuDSS on its Millenium M2000 supercomputer. Cadence stated that its design verification workflow speed increased by 15x—a particularly encouraging figure considering that verification workloads in the chip design industry consume billions of compute hours annually.
All this software is provided free of charge to chip designers. PhysicsNeMo is licensed under Apache 2.0, while the new CUDA-X libraries are free and can directly replace the manual code that engineers typically need to write themselves. Notably, PhysicsNeMo and CUDA-X can only run on NVIDIA’s own chips.
“Engineering technology has reached a turning point. AI can now work in concert with physics, simulation, and design tools. With the Nvidia Agent Toolkit, developers can build agent engineers capable of reasoning with physical principles, running simulations, and generating high-fidelity data, thus becoming a new engine for innovation in chip and system design.” — Vice President and General Manager of Computing Engineering, NVIDIA
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