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Hauptverfasser: Patil, Anoop C., Sng, Benny Jian Rong, Chang, Yu-Wei, Pereira, Joana B., Nam-Hai, Chua, Sarojam, Rajani, Singh, Gajendra Pratap, Jang, In-Cheol, Volpe, Giovanni
Format: Preprint
Veröffentlicht: 2025
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Online-Zugang:https://arxiv.org/abs/2507.15772
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author Patil, Anoop C.
Sng, Benny Jian Rong
Chang, Yu-Wei
Pereira, Joana B.
Nam-Hai, Chua
Sarojam, Rajani
Singh, Gajendra Pratap
Jang, In-Cheol
Volpe, Giovanni
author_facet Patil, Anoop C.
Sng, Benny Jian Rong
Chang, Yu-Wei
Pereira, Joana B.
Nam-Hai, Chua
Sarojam, Rajani
Singh, Gajendra Pratap
Jang, In-Cheol
Volpe, Giovanni
contents Detecting stress in plants is crucial for both open-farm and controlled-environment agriculture. Biomolecules within plants serve as key stress indicators, offering vital markers for continuous health monitoring and early disease detection. Raman spectroscopy provides a powerful, non-invasive means to quantify these biomolecules through their molecular vibrational signatures. However, traditional Raman analysis relies on customized data-processing workflows that require fluorescence background removal and prior identification of Raman peaks of interest-introducing potential biases and inconsistencies. Here, we introduce DIVA (Deep-learning-based Investigation of Vibrational Raman spectra for plant-stress Analysis), a fully automated workflow based on a variational autoencoder. Unlike conventional approaches, DIVA processes native Raman spectra-including fluorescence backgrounds-without manual preprocessing, identifying and quantifying significant spectral features in an unbiased manner. We applied DIVA to detect a range of plant stresses, including abiotic (shading, high light intensity, high temperature) and biotic stressors (bacterial infections). By integrating deep learning with vibrational spectroscopy, DIVA paves the way for AI-driven plant health assessment, fostering more resilient and sustainable agricultural practices.
format Preprint
id arxiv_https___arxiv_org_abs_2507_15772
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Deep-Learning Investigation of Vibrational Raman Spectra for Plant-Stress Analysis
Patil, Anoop C.
Sng, Benny Jian Rong
Chang, Yu-Wei
Pereira, Joana B.
Nam-Hai, Chua
Sarojam, Rajani
Singh, Gajendra Pratap
Jang, In-Cheol
Volpe, Giovanni
Machine Learning
Artificial Intelligence
Biomolecules
Detecting stress in plants is crucial for both open-farm and controlled-environment agriculture. Biomolecules within plants serve as key stress indicators, offering vital markers for continuous health monitoring and early disease detection. Raman spectroscopy provides a powerful, non-invasive means to quantify these biomolecules through their molecular vibrational signatures. However, traditional Raman analysis relies on customized data-processing workflows that require fluorescence background removal and prior identification of Raman peaks of interest-introducing potential biases and inconsistencies. Here, we introduce DIVA (Deep-learning-based Investigation of Vibrational Raman spectra for plant-stress Analysis), a fully automated workflow based on a variational autoencoder. Unlike conventional approaches, DIVA processes native Raman spectra-including fluorescence backgrounds-without manual preprocessing, identifying and quantifying significant spectral features in an unbiased manner. We applied DIVA to detect a range of plant stresses, including abiotic (shading, high light intensity, high temperature) and biotic stressors (bacterial infections). By integrating deep learning with vibrational spectroscopy, DIVA paves the way for AI-driven plant health assessment, fostering more resilient and sustainable agricultural practices.
title Deep-Learning Investigation of Vibrational Raman Spectra for Plant-Stress Analysis
topic Machine Learning
Artificial Intelligence
Biomolecules
url https://arxiv.org/abs/2507.15772