Calibration‐Jitter: Augmentation of hyperspectral data for improved surgical scene segmentation

Semantic surgical scene segmentation is crucial for accurately identifying and delineating different tissue types during surgery, enhancing outcomes and reducing complications. Hyperspectral imaging provides detailed information beyond visible color filters, offering an enhanced view of tissue characteristics. Combined with machine learning, it supports critical tumor resection decisions. Traditional augmentations fail to effectively train machine learning models on illumination and sensor sensitivity variations. Learning to handle these variations is crucial to enable models to better generalize, ultimately enhancing their reliability in deployment. In this article, <i>Calibration-Jitter</i> is introduced, a spectral augmentation technique that leverages hyperspectral calibration variations to improve predictive performance. Evaluated on scene segmentation on a neurosurgical dataset, <i>Calibration-Jitter</i> achieved a F1-score of 74.35% with SegFormer, surpassing the previous best of 70.2%. This advancement addresses limitations of traditional augmentations, improving hyperspectral imaging segmentation performance.

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Publication Details

Journal
Healthcare Technology Letters
Published
2024-11-29
DOI
https://doi.org/10.1049/htl2.12102
Citations
5
Primary Topic
Optical Imaging and Spectroscopy Techniques
Type
article
Field-Weighted Citation Impact
2.02

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article

Calibration‐Jitter: Augmentation of hyperspectral data for improved surgical scene segmentation

Tobias Czempiel, Alfie Roddan, Stamatia Giannarou, Daniel S. Elson
5 citations
Healthcare Technology Letters
Optical Imaging and Spectroscopy Techniques
2.02
article

Calibration‐Jitter: Augmentation of hyperspectral data for improved surgical scene segmentation

Tobias Czempiel, Alfie Roddan, Stamatia Giannarou, Daniel S. Elson
article en
5 citations

Abstract

Semantic surgical scene segmentation is crucial for accurately identifying and delineating different tissue types during surgery, enhancing outcomes and reducing complications. Hyperspectral imaging provides detailed information beyond visible color filters, offering an enhanced view of tissue characteristics. Combined with machine learning, it supports critical tumor resection decisions. Traditional augmentations fail to effectively train machine learning models on illumination and sensor sensitivity variations. Learning to handle these variations is crucial to enable models to better generalize, ultimately enhancing their reliability in deployment. In this article, <i>Calibration-Jitter</i> is introduced, a spectral augmentation technique that leverages hyperspectral calibration variations to improve predictive performance. Evaluated on scene segmentation on a neurosurgical dataset, <i>Calibration-Jitter</i> achieved a F1-score of 74.35% with SegFormer, surpassing the previous best of 70.2%. This advancement addresses limitations of traditional augmentations, improving hyperspectral imaging segmentation performance.

Healthcare Technology LettersVol. 11(6)
Imperial College London (GB)
Royal Society, Engineering and Physical Sciences Research Council
Openalex Percentile: Top 12%
Optical Imaging and Spectroscopy Techniques
2.02
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