Burn characterization using object-oriented hyperspectral image classification.
Sorin Viorel ParascaMihaela Antonina CalinPublished in: Journal of biophotonics (2022)
This paper presents a new approach based on hyperspectral imaging combined with an object-oriented classification method that allows the generation of burn depth classification maps facilitating easier characterization of burns. Hyperspectral images of 14 patients diagnosed with burns on the upper and lower limbs were acquired using a pushbroom hyperspectral imaging system. The images were analyzed using an object-oriented classification approach that uses objects with specific spectral, textural and spatial attributes as the minimum unit for classifying information. The method performance was evaluated in terms of overall accuracy, sensitivity, precision and specificity computed from the confusion matrix. The results revealed that the approach proposed in this study performed well in differentiating burn classes with a high level of overall accuracy (95.99% ± 0.60%), precision (97.30% ± 2.46%), sensitivity (97.23% ± 3.02%) and specificity (98.02% ± 1.98%). In conclusion, the object-based approach for burns hyperspectral images classification can provide maps that can help surgeons identify with better precision different depths of burn wounds.
Keyphrases
- deep learning
- machine learning
- convolutional neural network
- working memory
- optical coherence tomography
- wound healing
- high resolution
- end stage renal disease
- ejection fraction
- newly diagnosed
- health information
- peritoneal dialysis
- single cell
- patient reported outcomes
- prognostic factors
- fluorescence imaging
- mass spectrometry
- diffusion weighted imaging