Integration of the Rosetta suite with the python software stack via reproducible packaging and core programming interfaces for distributed simulation. (2nd December 2019)

• Record Type: Journal Article
• Authors: Ford, Alexander S.; Weitzner, Brian D.; Bahl, Christopher D.
• Is Part Of: Protein science. Volume 29:Number 1(2020)
• Page Start: 43
• Page End: 51
• Publication Date: 2019-12-02
• Subjects: conda -- containerization -- dask -- de novo protein design -- disulfide‐rich miniprotein -- elastic cloud services -- high performance computing -- jupyter -- python -- Rosetta; Proteins -- Periodicals; 572.6
• DOI: 10.1002/pro.3721
• Languages: English
• ISSNs: 0961-8368

Abstract

Abstract: The Rosetta software suite for macromolecular modeling is a powerful computational toolbox for protein design, structure prediction, and protein structure analysis. The development of novel Rosetta‐based scientific tools requires two orthogonal skill sets: deep domain‐specific expertise in protein biochemistry and technical expertise in development, deployment, and analysis of molecular simulations. Furthermore, the computational demands of molecular simulation necessitate large scale cluster‐based or distributed solutions for nearly all scientifically relevant tasks. To reduce the technical barriers to entry for new development, we integrated Rosetta with modern, widely adopted computational infrastructure. This allows simplified deployment in large‐scale cluster and cloud computing environments, and effective reuse of common libraries for simulation execution and data analysis. To achieve this, we integrated Rosetta with the Conda package manager; this simplifies installation into existing computational environments and packaging as docker images for cloud deployment. Then, we developed programming interfaces to integrate Rosetta with the PyData stack for analysis and distributed computing, including the popular tools Jupyter, Pandas, and Dask. We demonstrate the utility of these components by generating a library of a thousand de novo disulfide‐rich miniproteins in a hybrid simulation that included cluster‐based design and interactive notebook‐based analyses. Our new tools enable users, who would otherwise not have access to the necessary computational infrastructure, to perform state‐of‐the‐art molecular simulation and design with Rosetta.