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How AI Coding Agents Can Unlock Materials Simulation with NVIDIA ALCHEMI Toolkit

18 August 2026 at 18:00
Atomistic simulation requires three things: knowledge of the science, compute-efficient implementation of simulations, and accessible interfaces to the...

Atomistic simulation requires three things: knowledge of the science, compute-efficient implementation of simulations, and accessible interfaces to the simulation stack. The first remains the researcher’s domain, as no tool substitutes for knowing what to simulate or recognizing a physically meaningful result. NVIDIA ALCHEMI Toolkit, introduced earlier this year, has dramatically reduced the…

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How AI and self-driving labs could accelerate semiconductor materials discovery

14 August 2026 at 07:01
By Joseph F. Krause, co-founder and CEO, Radical AI The next great semiconductor breakthrough will come down to new materials, not just engineering. The field is running into multiple walls of physics: the minimum wavelength of visible light, carrying current with less than an electron, electrical insulators with high thermal transport. As linewidths shrink below […]

Advancing Semiconductor Innovation Across Materials Engineering and Manufacturing

27 July 2026 at 00:45
As AI workloads increase, explosive compute demand is pushing the semiconductor industry to meet unprecedented performance targets. Even small delays can have...

As AI workloads increase, explosive compute demand is pushing the semiconductor industry to meet unprecedented performance targets. Even small delays can have outsized financial impact in fast-moving AI hardware cycles. Simultaneously, the shift from chip-level optimization to system-level engineering is compounding thermal and power challenges. Meeting these demands requires breakthroughs…

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Building Custom Atomistic Simulation Workflows for Chemistry and Materials Science with NVIDIA ALCHEMI Toolkit

14 April 2026 at 16:30
For decades, computational chemistry has faced a tug-of-war between accuracy and speed. Ab initio methods like density functional theory (DFT) provide high...

For decades, computational chemistry has faced a tug-of-war between accuracy and speed. Ab initio methods like density functional theory (DFT) provide high fidelity but are computationally expensive, limiting researchers to systems of a few hundred atoms. Conversely, classical force fields are fast but often lack the chemical accuracy required for complex bond-breaking or transition-state analysis.

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