Deep neural network classification of in vivo burn injuries with different etiologies using terahertz time-domain spectral imaging.
Omar B OsmanZachery B HarrisMahmoud E KhaniJuin W ZhouAndrew ChenAdam J SingerMohammad Hassan ArbabPublished in: Biomedical optics express (2022)
Thermal injuries can occur due to direct exposure to hot objects or liquids, flames, electricity, solar energy and several other sources. If the resulting injury is a deep partial thickness burn, the accuracy of a physician's clinical assessment is as low as 50-76% in determining the healing outcome. In this study, we show that the Terahertz Portable Handheld Spectral Reflection (THz-PHASR) Scanner combined with a deep neural network classification algorithm can accurately differentiate between partial-, deep partial-, and full-thickness burns 1-hour post injury, regardless of the etiology, scanner geometry, or THz spectroscopy sampling method (ROC-AUC = 91%, 88%, and 86%, respectively). The neural network diagnostic method simplifies the classification process by directly using the pre-processed THz spectra and removing the need for any hyperspectral feature extraction. Our results show that deep learning methods based on THz time-domain spectroscopy (THz-TDS) measurements can be used to guide clinical treatment plans based on objective and accurate classification of burn injuries.
Keyphrases
- neural network
- deep learning
- machine learning
- optical coherence tomography
- high resolution
- artificial intelligence
- convolutional neural network
- primary care
- wound healing
- emergency department
- single molecule
- blood pressure
- magnetic resonance
- drinking water
- computed tomography
- magnetic resonance imaging
- solid state
- mass spectrometry
- density functional theory
- smoking cessation
- image quality
- molecular dynamics
- replacement therapy