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title: ZnVis: Python-based visualisation and rendering | ||
tags: | ||
- Python | ||
- Molecular Dynamics | ||
- Particle Simulation | ||
- Visualisation | ||
- Rendering | ||
authors: | ||
- name: Samuel Tovey | ||
orcid: 0000-0001-9537-8361 | ||
corresponding: true # (This is how to denote the corresponding author) | ||
affiliation: 1 | ||
- name: Paul Hohenberger | ||
affiliation: 1 | ||
- name: Christoph Lohrmann | ||
orcid: 0000-0002-9011-2975 | ||
affiliation: 1 | ||
- name: Jannik Drotleff | ||
affiliation: 1 | ||
- name: Christian Holm | ||
affiliation: 1 | ||
affiliations: | ||
- name: Institute for Computational Physics, University of Stuttgart, DE | ||
index: 1 | ||
date: 1st July 2024 | ||
bibliography: paper.bib | ||
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# Summary | ||
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Visualisation of complex particle interactions is essential in the design of novel materials, programming of robots, and general study of mechanical processes. | ||
While the majority of science is performed using the Python programming language, there is yet to be a suitable Python-interfaced visualisation tool that can handle large systems, interactive visualisation, and powerful rendering. | ||
ZnVis has been developed to address this gap in the community by interfacing between several lower-level packages including Open3D and Mitsuba. | ||
With ZnVis, users can perform complex simulations, interactively visualize their results, and then create high-definition, ray-traced renderings of frames or entire videos. | ||
While ZnVis has been developed alongside tools and simulations for reinforcement-learning controlled microrobots, we are confident that the easy-to-use interface and powerful capabilities can serve the community well. | ||
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# Statement of need | ||
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* No powerful Python visualiser | ||
* No powerful Python rendering | ||
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* How do we address these | ||
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# Key Features | ||
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* Shapes | ||
* Vector Fields | ||
* Rendering with Mitsuba | ||
* Video creation | ||
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# Examples | ||
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* Simple spheres | ||
* Vector fields | ||
* Growing particle number | ||
* Capillary system | ||
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# Acknowledgements | ||
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# References |