MicroLabVR: A VR-Based Platform for Interactive 3D Microbiome Data Visualization

Microbiome data are inherently complex, high-dimensional, and often challenging to interpret using conventional two-dimensional visualization techniques. To address this limitation, we present MicroLabVR, a proof-of-concept virtual reality (VR) application designed for the immersive visualization and exploration of simulated microbiome data. MicroLabVR supports the interactive inspection of spatial population dynamics and substance concentration distributions in two and three dimensions, offering a more intuitive understanding of microbial behavior. The application integrates data exported from BacArena, a hybrid constraintand agent-based modeling tool, and visualizes metabolic fluxes and explores spatiotemporal changes within a simulated Petri dish environment. Unlike existing microbiome visualization tools, MicroLabVR enables real-time exploration of dynamic, spatially resolved simulation data in an immersive 3D environment. It provides a novel interface that enhances the interpretation of microbiome simulations by allowing users to interactively examine spatial patterns, temporal changes, and metabolic activities. Future developments will focus on volumetric representations, integration of metabolic flux directions, and streamlined data transfer from simulation tools. MicroLabVR extends the capabilities of existing desktop platforms and highlights VR’s potential in microbiome research.

Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2025-11-14
DOI
https://doi.org/10.1051/bioconf/202519502002/pdf
Primary Topic
Cell Image Analysis Techniques
Type
article
Field-Weighted Citation Impact
0.00
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article

MicroLabVR: A VR-Based Platform for Interactive 3D Microbiome Data Visualization

Springer Link (Chiba Institute of Technology)
Cell Image Analysis Techniques
article

MicroLabVR: A VR-Based Platform for Interactive 3D Microbiome Data Visualization

article en

Abstract

Microbiome data are inherently complex, high-dimensional, and often challenging to interpret using conventional two-dimensional visualization techniques. To address this limitation, we present MicroLabVR, a proof-of-concept virtual reality (VR) application designed for the immersive visualization and exploration of simulated microbiome data. MicroLabVR supports the interactive inspection of spatial population dynamics and substance concentration distributions in two and three dimensions, offering a more intuitive understanding of microbial behavior. The application integrates data exported from BacArena, a hybrid constraintand agent-based modeling tool, and visualizes metabolic fluxes and explores spatiotemporal changes within a simulated Petri dish environment. Unlike existing microbiome visualization tools, MicroLabVR enables real-time exploration of dynamic, spatially resolved simulation data in an immersive 3D environment. It provides a novel interface that enhances the interpretation of microbiome simulations by allowing users to interactively examine spatial patterns, temporal changes, and metabolic activities. Future developments will focus on volumetric representations, integration of metabolic flux directions, and streamlined data transfer from simulation tools. MicroLabVR extends the capabilities of existing desktop platforms and highlights VR’s potential in microbiome research.

Springer Link (Chiba Institute of Technology)
Openalex Percentile: Top 26%
Cell Image Analysis Techniques
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