VividVR: Real-Time Optimization of Dynamic Light Probe Placement for Enhanced Visual Fidelity in VR Environments; Using SVM and Random Forest under Changing Conditions

This paper explores optimizing light probe placement in virtual reality (VR) environments to improve visual realism and performance. We develop a methodology to evaluate light probe configurations by analyzing light intensity, color, and shadow data. Our approach includes three steps: removing probes iteratively to collect data, applying machine learning techniques to this data, and optimizing probe configurations based on the findings. We introduce Light Intensity Variance and Color Consistency as key metrics, utilize Random Forests to set optimal thresholds, and employ a Support Vector Machine classifier to automate probe configuration selection. This method reduces manual adjustments, accelerates VR content development, and enhances scene realism through strategic light probe arrangement.

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Publication Details

Published
2024-10-21
DOI
https://doi.org/10.1109/ismar-adjunct64951.2024.00176
Citations
1
Primary Topic
Advanced Optical Imaging Technologies
Type
article
Field-Weighted Citation Impact
0.32
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article

VividVR: Real-Time Optimization of Dynamic Light Probe Placement for Enhanced Visual Fidelity in VR Environments; Using SVM and Random Forest under Changing Conditions

Majid Behravan, Denis Gračanin, Elham Mohammadrezaei, Fatemeh Sarshartehrani
1 citations
Advanced Optical Imaging Technologies
0.32
article

VividVR: Real-Time Optimization of Dynamic Light Probe Placement for Enhanced Visual Fidelity in VR Environments; Using SVM and Random Forest under Changing Conditions

Majid Behravan, Denis Gračanin, Elham Mohammadrezaei, Fatemeh Sarshartehrani
article en
1 citations

Abstract

This paper explores optimizing light probe placement in virtual reality (VR) environments to improve visual realism and performance. We develop a methodology to evaluate light probe configurations by analyzing light intensity, color, and shadow data. Our approach includes three steps: removing probes iteratively to collect data, applying machine learning techniques to this data, and optimizing probe configurations based on the findings. We introduce Light Intensity Variance and Color Consistency as key metrics, utilize Random Forests to set optimal thresholds, and employ a Support Vector Machine classifier to automate probe configuration selection. This method reduces manual adjustments, accelerates VR content development, and enhances scene realism through strategic light probe arrangement.

Virginia Tech (US)
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Openalex Percentile: Top 34%
Advanced Optical Imaging Technologies
0.32
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