lly yielding with a more generalizable model to help understand the biology of grapevine 526 freezing tolerance and quantify the threat of freezing under climate change. 527 5. Data availability 528 All the original training data and source code for feature extraction, modeling training and model 529 deployment are available at https://github.com/imbaterry11/NYUS.2 530 6. Acknowledgements 531 The authors would like to thank Lynn Mills (WA), Beth Ann Workmaster (WI), Katherine 532 Benedict (NS), Alexander Campbell and Jessee Tinslay (QC), Don Smith and Meredith Persico 533 (PA) and Hanna Martins, Felex Pike, and Bill Wilsey (NY) for their help in LT50 data collection. 534 This work was par
Open resource ↗https://github.com/imbaterry11/NYUS.2 · NYUS.2 · pdf-raw-page:25 lines:1-64Unverified paper record
NYUS.2: an Automated Machine Learning Prediction Model for the Large-scale Real-time Simulation of Grapevine Freezing Tolerance in North America
bioRxiv · 22 Aug 2023 · 10.1101/2023.08.21.553868
Abstract
O_LIAccurate and real-time monitoring of grapevine freezing tolerance is crucial for the sustainability of the grape industry in cool climate viticultural regions. However, on-site data is limited. Current prediction models underperform under diverse climate conditions, which limits the large-scale deployment of these methods. C_LIO_LIWe combined grapevine freezing tolerance data from multiple regions in North America and generated a predictive model based on hourly temperature-derived features and cultivar features using AutoGluon, an automatic machine learning engine. Feature importance was quantified by AutoGluon and SHAP value. The final model was evaluated and compared with previous models for its performance under different climate conditions. C_LIO_LIThe final model achieved an overall 1.36 {degrees}C root-mean-square error during model testing and outperformed two previous models using three test cultivars at all testing regions. Two feature importance quantification methods identified five shared essential features. Detailed analysis of the features indicates that the model might have adequately extracted some biological mechanisms during training. C_LIO_LIThe final model, named NYUS.2, was deployed along with two previous models as an R shiny-based application in the 2022-2023 dormancy season, enabling large-scale and real-time simulation of grapevine freezing tolerance in North America for the first time. C_LI
Plant phenotyping relevance
ブドウの凍結耐性という植物状態を大規模・リアルタイムに推定する自動機械学習モデルを開発し、既存モデルとの性能比較と実運用展開まで行っており、表現型推定手法が中心です。
abstractWe combined grapevine freezing tolerance data from multiple regions in North America and generated a predictive model based on hourly temperature-derived features and cultivar features using AutoGluon, an automatic machine learning engine.
abstractThe final model achieved an overall 1.36 {degrees}C root-mean-square error during model testing and outperformed two previous models using three test cultivars at all testing regions.
abstractThe final model, named NYUS.2, was deployed along with two previous models as an R shiny-based application in the 2022-2023 dormancy season, enabling large-scale and real-time simulation of grapevine freezing tolerance in North America for the first time.
Code and data availability
The authors publicly released the original LT50 training data and the source code for feature extraction, model training, and deployment in a GitHub repository explicitly stated in the Data availability section. The ACIS URL is a generic external climate data service, not a paper-specific asset.
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