4.5 Article

SPONGE: A GPU-Accelerated Molecular Dynamics Package with Enhanced Sampling and AI-Driven Algorithms

Journal

CHINESE JOURNAL OF CHEMISTRY
Volume 40, Issue 1, Pages 160-168

Publisher

WILEY-V C H VERLAG GMBH
DOI: 10.1002/cjoc.202100456

Keywords

Molecular dynamics; Molecular modeling; Enhanced sampling; Machine learning; Computational chemistry

Funding

  1. National Key R&D Program of China [2017YFA0204702]
  2. National Natural Science Foundation of China [21821004, 21873007, 21927901]
  3. CAAI-Huawei MindSpore Open Fund

Ask authors/readers for more resources

SPONGE is a software package for molecular dynamics simulation that utilizes various potential energy functions and the latest CUDA-enabled GPUs. The research group focuses on developing methods and theories to understand molecular mechanisms, combining enhanced sampling methods with machine learning techniques. The researcher got into theoretical chemistry as a PhD student and emphasizes curiosity, passion, and persistence as important qualities for scientific research.
Comprehensive Summary SPONGE (Simulation Package tOward Next GEneration molecular modeling) is a software package for molecular dynamics (MD) simulation of solution and surface molecular systems. In this version of SPONGE, the all- atom potential energy functions used in AMBER MD packages are used by default and other all-atom/coarse- grained potential energy functions are also supported. SPONGE is designed to extend the timescale being approached in MD simulations by utilizing the latest CUDA- enabled graphical processing units (GPU) and adopting highly efficient enhanced sampling algorithms, such as integrated tempering, selective integrated tempering and enhanced sampling of reactive trajectories. It is highly modular and new algorithms and functions can be incorporated con veniently. Particularly, a specialized Python plugin can be easily used to perform the machine learning MD simulation with MindSpore, TensorFlow, PyTorch or other popular machine learning frameworks. Furthermore, a plugin of Finite-Element Method (FEM) is also available to handle metallic surface systems. All these advanced features increase the power of SPONGE for modeling and simulation of complex chemical and biological systems. What is the most favorite and original chemistry developed in your research group? Our research centers at developing methods and theories to unravel molecular mechanisms of chemical and biological systems. By establishing theoretical models, developing enhanced sampling methods combined with machine learning techniques, we are able to conduct comprehensive thermodynamic and dynamic analyses for these complex systems. How do you get into this specific field? Could you please share some experiences with our readers? I got into theoretical chemistry as a PhD student. My PhD adviser Prof. Rudolph A. Marcus led me into this field and inspired me by his love of science. Enjoy life, always learn new things and be independent in thinking are something I learnt from my advisers (Professors Dalin Yang, Qihe Zhu, Rudy Marcus, and Martin Karplus) and would love to pass to my students. How do you supervise your students? We learn from each other. What is the most important personality for scientific research? Curiosity, passion, and persistence have been of great value to my career. What are your hobbies? What's your favorite book(s)? Reading, Ping-Pong, and jogging. I always enjoy reading history. Who influences you mostly in your life? Too many, family, academic advisors, friends, students, and colleagues.

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