article · The Journal of Chemical Physics
The Amsterdam Modeling Suite (AMS) is a comprehensive software platform designed for advanced molecular and materials simulations. It integrates cutting-edge quantum chemical methods, such as Density Functional Theory, with molecular mechanics, fluid thermodynamics, and machine learning techniques. This allows for multi-scale modelling of diverse chemical systems, ranging from small molecules to complex biomolecular and solid-state structures. AMS is built for versatility, supporting interdisciplinary research challenges in both industrial and academic environments. It also prioritises user accessibility through an intuitive graphical interface, extensive scripting capabilities, and compatibility with high-performance computing systems.
This software provides a powerful and integrated approach to understanding and predicting the behaviour of materials and molecules. By combining diverse simulation techniques, it can accelerate research and development in fields ranging from drug discovery to new material design, offering a unified platform for complex scientific inquiry.
This software platform is an applied tool designed for use by researchers and developers in both industrial and academic settings. It could be used to accelerate the design and optimisation of new materials, catalysts, or pharmaceutical compounds by providing advanced simulation capabilities. As a comprehensive and user-friendly suite, it appears to be a near-market product for scientific and engineering organisations.
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In this paper, we present the Amsterdam Modeling Suite (AMS), a comprehensive software platform designed to support advanced molecular and materials simulations across a wide range of chemical and physical systems. AMS integrates cutting-edge quantum chemical methods, including Density Functional Theory (DFT) and time-dependent DFT, with molecular mechanics, fluid thermodynamics, machine learning techniques, and more, to enable multi-scale modeling of complex chemical systems. Its design philosophy allows for seamless coupling between components, facilitating simulations that range from small molecules to complex biomolecular and solid-state systems, making it a versatile tool for tackling interdisciplinary challenges, both in industry and in academia. The suite also emphasizes user accessibility, with an intuitive graphical interface, extensive scripting capabilities, and compatibility with high-performance computing environments.
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DOI: 10.1063/5.0258496
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