scholarly journals PCAViz: An Open-Source Python/JavaScript Toolkit for Visualizing Molecular Dynamics Simulations in the Web Browser

2019 ◽  
Vol 59 (10) ◽  
pp. 4087-4092 ◽  
Author(s):  
Sayuri Pacheco ◽  
Jesse C. Kaminsky ◽  
Iurii K. Kochnev ◽  
Jacob D. Durrant
2020 ◽  
Author(s):  
Michael Gecht ◽  
Marc Siggel ◽  
Max Linke ◽  
Gerhard Hummer ◽  
Juergen Koefinger

Molecular dynamics simulations resolve biomolecular processes and material properties with incomparable detail. As a result, they consume a significant fraction of worldwide supercomputing resources. With our open source benchmarking software MDBenchmark, expert and novice users alike can easily determine the optimal settings for their specific simulation system, MD engine, software environment, and hardware configuration. Ultimately, saving computation time, energy, and money at essentially no additional cost will produce better science.<br>


2017 ◽  
Author(s):  
Jonathan Barnoud ◽  
Hubert Santuz ◽  
Pierrick Craveur ◽  
Agnel Praveen Joseph ◽  
Vincent Jallu ◽  
...  

ABSTRACTProteins are highly dynamic macromolecules. A classical way to analyze their inner flexibility is to perform molecular dynamics simulations. In this context, we present the advantage to use small structural prototypes, namely the Protein Blocks (PBs). PBs give a good approximation of the local structure of the protein backbone. More importantly, by reducing the conformational complexity of protein structures, they allow analyzes of local protein deformability which cannot be done with other methods and had been used efficiently in different applications. PBxplore is a suite of tools to analyze the dynamics and deformability of protein structures using PBs. It is able to process large amount of data such as those produced by molecular dynamics simulations. It produces various outputs with text and graphics, such as frequencies, entropy and information logo. PBxplore is available at https://github.com/pierrepo/PBxplore and is released under the open-source MIT license.


Author(s):  
Sumith Yesudasan

In this paper, we introduce a simple yet powerful and working version of the molecular dynamics code using the Python 3.9 language. The code contents are published in the link given in the appendix 1. The structure and components of the program is given in detail using flowcharts and code snippets. The program consists of major features like velocity verlet integrator, thermostats, COM removal, input and output modules, virial, pressure, and other thermodynamic quantities estimation etc. The author believes that this program will be helpful to graduate students who perform research in molecular dynamics simulations who intend to write their own code instead of the sophisticated open source packages.


PeerJ ◽  
2017 ◽  
Vol 5 ◽  
pp. e4013 ◽  
Author(s):  
Jonathan Barnoud ◽  
Hubert Santuz ◽  
Pierrick Craveur ◽  
Agnel Praveen Joseph ◽  
Vincent Jallu ◽  
...  

This paper describes the development and application of a suite of tools, called PBxplore, to analyze the dynamics and deformability of protein structures using Protein Blocks (PBs). Proteins are highly dynamic macromolecules, and a classical way to analyze their inherent flexibility is to perform molecular dynamics simulations. The advantage of using small structural prototypes such as PBs is to give a good approximation of the local structure of the protein backbone. More importantly, by reducing the conformational complexity of protein structures, PBs allow analysis of local protein deformability which cannot be done with other methods and had been used efficiently in different applications. PBxplore is able to process large amounts of data such as those produced by molecular dynamics simulations. It produces frequencies, entropy and information logo outputs as text and graphics. PBxplore is available at https://github.com/pierrepo/PBxplore and is released under the open-source MIT license.


2020 ◽  
Author(s):  
Michael Gecht ◽  
Marc Siggel ◽  
Max Linke ◽  
Gerhard Hummer ◽  
Juergen Koefinger

Molecular dynamics simulations resolve biomolecular processes and material properties with incomparable detail. As a result, they consume a significant fraction of worldwide supercomputing resources. With our open source benchmarking software MDBenchmark, expert and novice users alike can easily determine the optimal settings for their specific simulation system, MD engine, software environment, and hardware configuration. Ultimately, saving computation time, energy, and money at essentially no additional cost will produce better science.<br>


Author(s):  
Michael Gecht ◽  
Marc Siggel ◽  
Max Linke ◽  
Gerhard Hummer ◽  
Juergen Koefinger

Molecular dynamics simulations resolve biomolecular processes and material properties with incomparable detail. As a result, they consume a significant fraction of worldwide supercomputing resources. With our open source benchmarking software MDBenchmark, expert and novice users alike can easily determine the optimal settings for their specific simulation system, MD engine, software environment, and hardware configuration. Ultimately, saving computation time, energy, and money at essentially no additional cost will produce better science.<br>


2017 ◽  
Vol 14 (12) ◽  
pp. 1123-1124 ◽  
Author(s):  
Johanna K S Tiemann ◽  
Ramon Guixà-González ◽  
Peter W Hildebrand ◽  
Alexander S Rose

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