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April 5, 2026Experiments in FluidsOpen Access

Adaptation and validation of physics-informed neural networks for rotating 3D velocimetry

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Authors

MMMahyar MoavenAGAbbishek GururajVRVrishank Raghav

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Overview

Adaptation and validation of PINNs improve depthwise motion estimations in 3D velocimetry, suggesting enhanced accuracy.

Key Points

  • This research aims to adapt and validate physics-informed neural networks for improving velocity measurements in rotating three-dimensional velocimetry.
  • Adaptation of physics-informed neural networks (PINNs) for R3DV applications.
  • Experimental validation against high resolution stereoscopic particle image velocimetry (stereo-PIV).
  • Integration with plenoptic particle tracking velocimetry (PTV).
  • Exploration of design considerations and hyperparameters affecting performance.
  • Out-of-plane velocity error reduced by an average of 72.6% compared to plenoptic-PTV.
  • Demonstrated improved accuracy in depthwise motion estimations under various Rossby numbers.
  • Identified critical adjustments for conventional PINN configurations to minimize errors.

Cite This Study

Moaven et al. (2026) studied this question.

synapsesocial.com/papers/69d1fe18a79560c99a0a48d3https://doi.org/10.1007/s00348-026-04203-4
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