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# Advancing Semiconductor Innovation Across Materials Engineering and Manufacturing

**[NVIDIA Developer](https://daily.dev/sources/nvidiadev)** · 5 min read · 1 upvotes · 1 comments

## Summary

NVIDIA and Applied Materials are collaborating to accelerate semiconductor innovation through an end-to-end digital development model. Key components include: NVIDIA cuDSS integrated into Applied Materials' Ginestra platform for atomic-scale materials simulation (up to 10x speedup), NVIDIA cuEST for density functional theory calculations (55x speedup on B200 GPUs vs CPU), the ACE+ multiphysics platform with NVIDIA PhysicsNeMo for process chamber simulation (35x faster), and NVIDIA Omniverse for full-fab digital twins. Together these tools compress multi-day simulations into hours, enabling engineers to explore broader materials design spaces and optimize manufacturing processes before physical experimentation.

## Full article

daily.dev links to this article rather than hosting it. Read it at the original source: <https://developer.nvidia.com/blog/advancing-semiconductor-innovation-across-materials-engineering-and-manufacturing>

## Questions this post answers

### How much faster does NVIDIA cuEST make density functional theory simulations compared to CPU-only methods?

Simulations that took about five days on 64 CPU cores can complete in roughly two hours on a single NVIDIA B200 GPU using cuEST, an approximately 55x speedup. Complex reaction-search tasks that previously needed hundreds of CPU cores for over a week can also finish in hours. cuEST accelerates the demanding steps of Gaussian-basis density functional theory workflows used in quantum chemistry.

_daily.dev surfaces GPU-acceleration benchmarks for engineers evaluating compute-heavy simulation workloads._

### What speedup does NVIDIA cuDSS provide for Applied Materials' Ginestra simulation platform?

NVIDIA cuDSS, a CUDA-X direct sparse solver, delivers up to a 10x speedup over CPU-only approaches for the sparse linear algebra underlying Ginestra's defect-centric materials simulations, without sacrificing accuracy. This lets engineers run thousands of virtual experiments across material combinations for high-k metal gate stacks in gate-all-around transistors, rather than relying solely on costly physical experimentation.

_Engineers comparing sparse-solver acceleration options for materials simulation can track updates like this on daily.dev._

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---

Tags: [#nvidia](https://daily.dev/tags/nvidia), [#cuda](https://daily.dev/tags/cuda), [#digital-twin](https://daily.dev/tags/digital-twin)

[View this post on daily.dev](https://daily.dev/posts/advancing-semiconductor-innovation-across-materials-engineering-and-manufacturing-bpmloobhh)

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