A multi-temporal multi-spectral attention-augmented deep convolution neural network with contrastive learning for crop yield prediction

Fuente: arXiv
Salvato in:
Dettagli Bibliografici
Autori principali: Dangi, Shalini, Mullapudi, Surya Karthikeya, Raghaw, Chandravardhan Singh, Dar, Shahid Shafi, Rehman, Mohammad Zia Ur, Kumar, Nagendra
Natura: Preprint
Pubblicazione: 2025
Soggetti:
Accesso online:
Tags: Aggiungi Tag
Nessun Tag, puoi essere il primo ad aggiungerne!!
_version_ 1866918144421920768
author Dangi, Shalini
Mullapudi, Surya Karthikeya
Raghaw, Chandravardhan Singh
Dar, Shahid Shafi
Rehman, Mohammad Zia Ur
Kumar, Nagendra
author_facet Dangi, Shalini
Mullapudi, Surya Karthikeya
Raghaw, Chandravardhan Singh
Dar, Shahid Shafi
Rehman, Mohammad Zia Ur
Kumar, Nagendra
contents Precise yield prediction is essential for agricultural sustainability and food security. However, climate change complicates accurate yield prediction by affecting major factors such as weather conditions, soil fertility, and farm management systems. Advances in technology have played an essential role in overcoming these challenges by leveraging satellite monitoring and data analysis for precise yield estimation. Current methods rely on spatio-temporal data for predicting crop yield, but they often struggle with multi-spectral data, which is crucial for evaluating crop health and growth patterns. To resolve this challenge, we propose a novel Multi-Temporal Multi-Spectral Yield Prediction Network, MTMS-YieldNet, that integrates spectral data with spatio-temporal information to effectively capture the correlations and dependencies between them. While existing methods that rely on pre-trained models trained on general visual data, MTMS-YieldNet utilizes contrastive learning for feature discrimination during pre-training, focusing on capturing spatial-spectral patterns and spatio-temporal dependencies from remote sensing data. Both quantitative and qualitative assessments highlight the excellence of the proposed MTMS-YieldNet over seven existing state-of-the-art methods. MTMS-YieldNet achieves MAPE scores of 0.336 on Sentinel-1, 0.353 on Landsat-8, and an outstanding 0.331 on Sentinel-2, demonstrating effective yield prediction performance across diverse climatic and seasonal conditions. The outstanding performance of MTMS-YieldNet improves yield predictions and provides valuable insights that can assist farmers in making better decisions, potentially improving crop yields.
format Preprint
id arxiv_https___arxiv_org_abs_2509_15966
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle A multi-temporal multi-spectral attention-augmented deep convolution neural network with contrastive learning for crop yield prediction
Dangi, Shalini
Mullapudi, Surya Karthikeya
Raghaw, Chandravardhan Singh
Dar, Shahid Shafi
Rehman, Mohammad Zia Ur
Kumar, Nagendra
Computer Vision and Pattern Recognition
Precise yield prediction is essential for agricultural sustainability and food security. However, climate change complicates accurate yield prediction by affecting major factors such as weather conditions, soil fertility, and farm management systems. Advances in technology have played an essential role in overcoming these challenges by leveraging satellite monitoring and data analysis for precise yield estimation. Current methods rely on spatio-temporal data for predicting crop yield, but they often struggle with multi-spectral data, which is crucial for evaluating crop health and growth patterns. To resolve this challenge, we propose a novel Multi-Temporal Multi-Spectral Yield Prediction Network, MTMS-YieldNet, that integrates spectral data with spatio-temporal information to effectively capture the correlations and dependencies between them. While existing methods that rely on pre-trained models trained on general visual data, MTMS-YieldNet utilizes contrastive learning for feature discrimination during pre-training, focusing on capturing spatial-spectral patterns and spatio-temporal dependencies from remote sensing data. Both quantitative and qualitative assessments highlight the excellence of the proposed MTMS-YieldNet over seven existing state-of-the-art methods. MTMS-YieldNet achieves MAPE scores of 0.336 on Sentinel-1, 0.353 on Landsat-8, and an outstanding 0.331 on Sentinel-2, demonstrating effective yield prediction performance across diverse climatic and seasonal conditions. The outstanding performance of MTMS-YieldNet improves yield predictions and provides valuable insights that can assist farmers in making better decisions, potentially improving crop yields.
title A multi-temporal multi-spectral attention-augmented deep convolution neural network with contrastive learning for crop yield prediction
topic Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2509.15966