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NVIDIA Physics NeMo is an open-source deep-learning framework designed for building, training, and fine-tuning deep learning models utilizing state-of-the-art Physics-informed Machine Learning (Physics-ML) methods. Accelerate scientific computing and engineering simulations.
Physics NeMo is NVIDIA's open-source framework empowering researchers and engineers to build and deploy deep learning models that respect the underlying physics of the system they model. It provides the building blocks and tools necessary for state-of-the-art Physics-ML development.
Traditional data-driven deep learning models often lack physical consistency, struggle with extrapolation beyond training data, and require vast amounts of labeled data. Physics-ML addresses these issues by embedding physical principles, leading to more robust, interpretable, and data-efficient models, particularly crucial in scientific and engineering domains.
Includes a library of pre-built neural network modules and architectures specifically designed for integrating physical constraints and laws.
Provides tools and workflows optimized for training models that combine data-driven approaches with physical equations on accelerated hardware.
Supports integration with existing scientific simulation data and environments to enhance model accuracy and generalizability.
Physics NeMo is applicable across various scientific and engineering disciplines where deep learning can benefit from incorporating physical laws.
Develop PINNs to solve partial differential equations (PDEs) that govern fluid flow, heat transfer, or structural mechanics without needing large datasets from traditional solvers.
Enable faster simulation and analysis of complex physical systems; discover new solutions space.
Build models that predict material properties or reaction dynamics by embedding known physical relationships, improving accuracy and generalizability beyond training data.
Accelerate materials discovery and process optimization; develop more robust predictive models.
Create data-driven models for climate or weather forecasting that respect atmospheric physics, leading to more stable and accurate long-term predictions.
Improve the reliability and interpretability of climate models; enhance forecasting accuracy.
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