Park, Jae-Hyeon
(School of Electrical Engineering, Korea Advanced Institute of Science and Technology (KAIST))
,
Yu, Hyeong-Geun
(School of Electrical Engineering, Korea Advanced Institute of Science and Technology (KAIST))
,
Park, Dong-Jo
(School of Electrical Engineering, Korea Advanced Institute of Science and Technology (KAIST))
,
Nam, Hyunwoo
(The CRB Defense Technology Directorate, Agency for Defense Development)
,
Chang, Dong Eui
(School of Electrical Engineering, Korea Advanced Institute of Science and Technology (KAIST))
Target detection and classification by Raman spectroscopy are important techniques for biological and chemical defense in military operations. Conventionally, these techniques preprocess the observed spectra using smoothing or baseline correction and apply detection algorithms like the generalized l...
Target detection and classification by Raman spectroscopy are important techniques for biological and chemical defense in military operations. Conventionally, these techniques preprocess the observed spectra using smoothing or baseline correction and apply detection algorithms like the generalized likelihood ratio test, independent component analysis, nonnegative matrix factorization, etc. These conventional detection algorithms need preprocessing and multiple shots of Raman spectra to get a reasonable accuracy. Recently, techniques based on deep learning are being used for target detection and classification due to its great adaptability and high accuracy over other methods and due to no requirement for preprocessing. Deep learning may give a good performance, but need retraining when untrained class targets are introduced which is time-consuming and bothersome. We devise a novel algorithm using a variant of the pseudo-Siamese network, one of the deep learning algorithms, that does not need retraining to detect and classify untrained class targets. Our algorithm detects and classifies targets with only one shot. In addition, our algorithm does not need preprocessing. We verify our algorithm with Raman spectra measured using a Raman spectrometer.Graphic AbstractWe devise our network based on a pseudo-Siamese deep neural network (DNN). Thanks to the pseudo-Siamese DNN structure, our network detects and classifies untrained chemicals with only one shot without preprocessing or retraining.
Target detection and classification by Raman spectroscopy are important techniques for biological and chemical defense in military operations. Conventionally, these techniques preprocess the observed spectra using smoothing or baseline correction and apply detection algorithms like the generalized likelihood ratio test, independent component analysis, nonnegative matrix factorization, etc. These conventional detection algorithms need preprocessing and multiple shots of Raman spectra to get a reasonable accuracy. Recently, techniques based on deep learning are being used for target detection and classification due to its great adaptability and high accuracy over other methods and due to no requirement for preprocessing. Deep learning may give a good performance, but need retraining when untrained class targets are introduced which is time-consuming and bothersome. We devise a novel algorithm using a variant of the pseudo-Siamese network, one of the deep learning algorithms, that does not need retraining to detect and classify untrained class targets. Our algorithm detects and classifies targets with only one shot. In addition, our algorithm does not need preprocessing. We verify our algorithm with Raman spectra measured using a Raman spectrometer.Graphic AbstractWe devise our network based on a pseudo-Siamese deep neural network (DNN). Thanks to the pseudo-Siamese DNN structure, our network detects and classifies untrained chemicals with only one shot without preprocessing or retraining.
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