[{"data":1,"prerenderedAt":-1},["ShallowReactive",2],{"item-4310":3,"related-4310":128},{"id":4,"title":5,"url":6,"summary":7,"summary_zh":8,"content":9,"source_name":10,"source_url":6,"published_at":11,"category":12,"cover_url":9,"hotness":13,"is_selected":14,"score":15,"score_detail":16,"sources":24,"tags":28,"primary_topic":34,"secondary_topics":39,"classification":51,"search_phrases":109,"slug":112,"view_count":113,"doi":114,"paper":115,"created_at":127},4310,"Comprehensive remote sensing and machine learning framework for multi-regional rice yield forecasting under hydroclimatic variability in Sahelian Niger","https:\u002F\u002Fdoi.org\u002F10.5281\u002Fzenodo.23149579","It is crucial to forecast rice yields effectively in order to improve agricultural planning and resilience to climate change in the Sahel, where production is greatly affected by hydroclimatic variability. This research has developed an integrated framework combining remote sensing analysis and machine learning to assess the variability in rice production in Niamey, Dosso, Tillaberi and Diffa, in Niger, over the period 2010–2025. They combined Landsat-derived NDVI and EVI with parameters such as evapotranspiration, precipitation, temperature, humidity, solar radiation, soil moisture, cultivated area, year and season. We processed and harmonised the datasets using Google Earth Engine and Python. We then evaluated four regression algorithms separately, Random Forest (RF), k-nearest neighbours (KNN), support vector regression (SVR) and XGBoost (XGB), for each region. The correlation analysis revealed modest positive links between rice yield and the NDVI (r = 0.27) and the EVI (r = 0.14), while a strong correlation was observed between the NDVI and the EVI (r = 0.80). The vegetation indices showed marked seasonal and interannual variability, generally exhibiting higher values during the wet season. Model performance varied considerably from one region to another","在萨赫勒地区，有效预测水稻产量对于改善农业规划和增强气候变化适应能力至关重要，因为该地区的生产在很大程度上受到水文气候变率的制约。本研究开发了一个集成框架，将遥感分析与机器学习相结合，以评估尼日尔尼亚美、多索、蒂拉贝里和迪法在2010—2025年期间水稻产量的变异性。研究将基于Landsat的归一化植被指数（NDVI）和增强型植被指数（EVI）与蒸散发、降水、温度、湿度、太阳辐射、土壤水分、耕地面积、年份和季节等参数相结合。利用Google Earth Engine和Python对数据集进行了处理和协调。随后，针对每个地区分别评估了四种回归算法：随机森林（RF）、k近邻（KNN）、支持向量回归（SVR）和XGBoost（XGB）。相关分析显示，水稻产量与NDVI（r = 0.27）和EVI（r = 0.14）之间存在弱正相关，而NDVI与EVI之间则观察到强相关（r = 0.80）。植被指数表现出明显的季节性和年际变异性，通常在湿季呈现较高值。模型性能在不同地区之间差异显著。",null,"Zenodo (CERN European Organization for Nuclear Research)","2026-10-05T00:00:00Z","论文",25,false,72,{"impact":17,"substance":18,"depth":19,"authority":20,"freshness":21,"relevant":22,"comment":23},12,21,17,13,9,1,"基于Landsat植被指数与四种机器学习模型的多区域水稻产量预测研究，方法扎实、数据跨度长，但属区域性学术成果，对国内农业信息化有方法借鉴价值。",[25,26],{"name":10,"url":6},{"name":10,"url":27},"https:\u002F\u002Fdoi.org\u002F10.5281\u002Fzenodo.23149580",[29,30,31,32,33],"智慧农业","农业人工智能","水稻","产量预测","遥感",{"code":35,"slug":36,"name":31,"path":37,"parent_code":38},"A1","rice","\u002Ftopic\u002Ffield-crops\u002Frice","A",[40,46],{"code":41,"slug":42,"name":43,"path":44,"parent_code":45},"I2","agricultural-ai","农业AI与大模型","\u002Ftopic\u002Fdigital-agriculture\u002Fagricultural-ai","I",{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},"I3","remote-sensing","遥感与农情监测","\u002Ftopic\u002Fdigital-agriculture\u002Fremote-sensing",{"status":52,"locked":14,"version":53,"method":54,"evidence":55},"classified","2026-10-22.2","rules",{"candidates":56,"agricultural_evidence":59},[57,64,69,75,83,90,97,104],{"code":47,"score":58,"supported":59,"title":60,"abstract":62,"tags":63},16,true,[61],"remote sensing",[33,61],[32,33],{"code":35,"score":65,"supported":59,"title":66,"abstract":67,"tags":68},15,[36],[31,36],[31],{"code":41,"score":65,"supported":59,"title":70,"abstract":72,"tags":74},[71],"machine learning",[73,71],"机器学习",[30],{"code":76,"score":77,"supported":59,"title":78,"abstract":79,"tags":82},"H2",6,[],[80,81],"土壤","soil",[],{"code":84,"score":77,"supported":59,"title":85,"abstract":86,"tags":89},"H3",[],[87,88],"蒸散发","evapotranspiration",[],{"code":91,"score":77,"supported":59,"title":92,"abstract":93,"tags":96},"H7",[],[94,95],"气候变化","climate change",[],{"code":98,"score":99,"supported":59,"title":100,"abstract":101,"tags":103},"J1",3,[],[102],"农业规划",[],{"code":105,"score":22,"supported":14,"title":106,"abstract":107,"tags":108},"I1",[],[],[29],[110,111],"尼日尔 水稻 遥感 产量预测","Landsat NDVI 水稻 机器学习","尼日尔水稻遥感产量预测-4310",0,"10.5281\u002Fzenodo.23149579",{"doi":114,"openalex_id":116,"authors":117,"venue":10,"cited_by_count":113,"oa_url":6,"card":120,"direction":124,"ingested_from":126},"W7220391503",[118],{"name":119,"orcid":9},"Battula Vijaya Saradhi Halarou Saidou Souley",{"tldr":121,"method":122,"finding":123,"direction":124,"opportunity":125},"结合遥感植被指数与机器学习，预测尼日尔萨赫勒四地区2010–2025年水稻产量。","Landsat NDVI\u002FEVI 加气象土壤变量，GEE与Python处理，比较","NDVI\u002FEVI与产量仅弱相关，模型精度区域差异大，植被指数呈明显季节与年际波动。","农业遥感与作物表型","可引入时序深度学习与迁移学习，解决跨区域泛化差及植被指数解释力弱的问题。","openalex","2026-10-06T23:30:20.077977Z",{"total":77,"page":22,"page_size":77,"items":129},[130,210,277,383,446,534],{"id":131,"title":132,"url":133,"summary":134,"summary_zh":9,"content":9,"source_name":135,"source_url":133,"published_at":136,"category":12,"cover_url":9,"hotness":137,"is_selected":14,"score":138,"score_detail":139,"sources":144,"tags":146,"primary_topic":148,"secondary_topics":149,"classification":152,"search_phrases":172,"slug":175,"view_count":22,"doi":176,"paper":177,"created_at":209},4500,"Integrating UAV-Based Remote Sensing and Deep Learning for Early Detection of Bacterial Leaf Blight in Rice","https:\u002F\u002Fdoi.org\u002F10.21203\u002Frs.3.rs-11163942\u002Fv1","Integrating UAV-Based Remote Sensing and Deep Learning for Early Detection of Bacterial Leaf Blight in Rice。Research Square","Research Square","2026-10-08T00:00:00Z",10,74,{"impact":140,"substance":141,"depth":140,"authority":137,"freshness":142,"relevant":22,"comment":143},18,20,8,"将无人机遥感与深度学习结合用于水稻白叶枯病早期检测，方法有创新、结论具应用价值，但属预印本且为细分技术进展，适合进入主题聚合而非头条精选。",[145],{"name":135,"url":133},[29,30,31,33,147],"病害检测",{"code":35,"slug":36,"name":31,"path":37,"parent_code":38},[150,151],{"code":41,"slug":42,"name":43,"path":44,"parent_code":45},{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},{"status":52,"locked":14,"version":53,"method":54,"evidence":153},{"candidates":154,"agricultural_evidence":59},[155,159,164,168],{"code":35,"score":17,"supported":59,"title":156,"abstract":157,"tags":158},[36],[36],[31],{"code":41,"score":17,"supported":59,"title":160,"abstract":162,"tags":163},[161],"deep learning",[161],[30],{"code":47,"score":17,"supported":59,"title":165,"abstract":166,"tags":167},[61],[61],[33],{"code":105,"score":22,"supported":14,"title":169,"abstract":170,"tags":171},[],[],[29],[173,174],"无人机遥感 水稻 白叶枯病","深度学习 水稻病害 早期检测","无人机遥感水稻白叶枯病-4500","10.21203\u002Frs.3.rs-11163942\u002Fv1",{"doi":176,"openalex_id":178,"authors":179,"venue":135,"cited_by_count":113,"oa_url":133,"card":9,"direction":124,"ingested_from":126},"W7221055917",[180,183,186,188,190,193,195,197,200,202,204,206],{"name":181,"orcid":182},"Carlito B. Balingbing","https:\u002F\u002Forcid.org\u002F0000-0002-3672-9253",{"name":184,"orcid":185},"Dmytro Chebotarov","https:\u002F\u002Forcid.org\u002F0000-0003-1351-9453",{"name":187,"orcid":9},"Ian  Carlo Perilla",{"name":189,"orcid":9},"Stephen Klassen",{"name":191,"orcid":192},"Nancy Castilla","https:\u002F\u002Forcid.org\u002F0000-0002-9143-4933",{"name":194,"orcid":9},"Raphael  Gabriel Carvajal",{"name":196,"orcid":9},"Kendrix Ortega",{"name":198,"orcid":199},"Joseph M. Sandro","https:\u002F\u002Forcid.org\u002F0000-0002-8311-2299",{"name":201,"orcid":9},"Nurmi Pangesti",{"name":203,"orcid":9},"Caesar Arloo R. Centeno",{"name":205,"orcid":9},"Arnel Rala",{"name":207,"orcid":208},"Li-Yu  Daisy Liu","https:\u002F\u002Forcid.org\u002F0000-0001-6997-8101","2026-10-09T23:30:18.390549Z",{"id":211,"title":212,"url":213,"summary":214,"summary_zh":215,"content":9,"source_name":216,"source_url":213,"published_at":217,"category":12,"cover_url":9,"hotness":137,"is_selected":14,"score":218,"score_detail":219,"sources":222,"tags":224,"primary_topic":226,"secondary_topics":227,"classification":230,"search_phrases":255,"slug":258,"view_count":22,"doi":259,"paper":260,"created_at":276},3164,"Spatiotemporal Deep Learning for Rice Plant Height Estimation from Multi-Temporal UAV RGB Imagery","https:\u002F\u002Fdoi.org\u002F10.3390\u002Fagriculture16182034","Accurate plant height estimation is important for monitoring crop growth and supporting precision agricultural management. Manual measurements are labor-intensive, while LiDAR-based methods are expensive and require complex processing. UAV photogrammetry provides a lower-cost alternative but remains challenging in flooded rice paddies because of canopy deformation and difficulties in terrain extraction. This study proposes Rice-STNet, a spatiotemporal deep learning framework for end-to-end rice plant height estimation using multi-temporal UAV RGB imagery. Rice-STNet integrates a convolutional neural network for spatial feature extraction, Time2Vec for temporal encoding, and a gated recurrent unit network for modeling temporal dependencies across observation dates. The framework was evaluated using field data collected from rice paddies over two growing seasons. Rice-STNet achieved an R2 of 0.97, a root mean squared error of 1.97 cm, and a mean absolute error of 1.14 cm. It outperformed random forest, support vector regression, a CNN-only baseline, and a UAV photogrammetry-based point-cloud approach. In addition, the framework generated high-resolution plant height maps for field-scale analysis of spatial growth variability. These results underscore the importance of jointly modeling spatial and temporal characteristics for continuously evolving crop traits. The proposed framework offers an accurate, scalable, and non-destructive solution for large-scale crop phenotyping and precision agriculture.","准确的株高估算对于监测作物生长和支持精准农业管理具有重要意义。人工测量劳动强度大，而基于激光雷达（LiDAR）的方法成本高昂且需要复杂的处理。无人机摄影测量提供了一种成本较低的替代方案，但在淹水稻田中仍面临挑战，原因在于冠层变形和地形提取困难。本研究提出了Rice-STNet，一种时空深度学习框架，用于利用多时相无人机RGB影像进行端到端水稻株高估算。Rice-STNet集成了用于空间特征提取的卷积神经网络、用于时间编码的Time2Vec，以及用于建模观测日期之间时间依赖关系的门控循环单元网络。该框架利用两个生长季从稻田采集的田间数据进行了评估。Rice-STNet取得了R²为0.97、均方根误差为1.97 cm、平均绝对误差为1.14 cm的结果。其性能优于随机森林、支持向量回归、仅使用CNN的基线方法以及基于无人机摄影测量的点云方法。此外，该框架生成了高分辨率株高图，用于田块尺度空间生长变异性分析。这些结果凸显了联合建模空间与时间特征对于持续变化的作物性状的重要性。所提出的框架为大规模作物表型分析和精准农业提供了一种准确、可扩展且非破坏性的解决方案。","Agriculture","2026-09-21T00:00:00Z",80,{"impact":140,"substance":220,"depth":140,"authority":20,"freshness":21,"relevant":22,"comment":221},22,"提出时空深度学习框架Rice-STNet，用多时相无人机RGB影像实现水稻株高高精度估算，方法新颖、数据跨两个生长季，对作物表型与精准农业有实用价值。",[223],{"name":216,"url":213},[29,30,31,33,225],"作物表型",{"code":35,"slug":36,"name":31,"path":37,"parent_code":38},[228,229],{"code":41,"slug":42,"name":43,"path":44,"parent_code":45},{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},{"status":52,"locked":14,"version":53,"method":54,"evidence":231},{"candidates":232,"agricultural_evidence":59},[233,238,243,248],{"code":35,"score":140,"supported":59,"title":234,"abstract":235,"tags":237},[36],[31,236,36],"稻田",[31],{"code":41,"score":65,"supported":59,"title":239,"abstract":240,"tags":242},[161],[241,161],"深度学习",[30],{"code":47,"score":142,"supported":59,"title":244,"abstract":245,"tags":247},[],[225,246],"crop phenotyping",[225,33],{"code":105,"score":249,"supported":59,"title":250,"abstract":251,"tags":254},7,[],[252,253],"精准农业","precision agriculture",[29],[256,257],"无人机 RGB 水稻株高","Rice-STNet 水稻表型","无人机RGB水稻株高-3164","10.3390\u002Fagriculture16182034",{"doi":259,"openalex_id":261,"authors":262,"venue":216,"cited_by_count":113,"oa_url":213,"card":271,"direction":124,"ingested_from":126},"W7213887432",[263,266,268],{"name":264,"orcid":265},"Weiguo Wang","https:\u002F\u002Forcid.org\u002F0009-0003-4028-9363",{"name":267,"orcid":9},"Noboru Noguchi",{"name":269,"orcid":270},"Liangliang Yang","https:\u002F\u002Forcid.org\u002F0000-0002-5055-3987",{"tldr":272,"method":273,"finding":274,"direction":124,"opportunity":275},"提出Rice-STNet时空深度学习框架，用多时相无人机RGB影像估算水稻株高。","CNN提取空间特征，Time2Vec编码时间，GRU建模时序依赖，两季稻田数据验","R²达0.97、RMSE 1.97cm，优于随机森林、SVR、纯CNN及点云方法。","可迁移至其他作物与多源遥感融合，探索轻量化模型及实时田间部署。","2026-09-22T23:30:18.545958Z",{"id":278,"title":279,"url":280,"summary":281,"summary_zh":282,"content":9,"source_name":283,"source_url":280,"published_at":284,"category":12,"cover_url":9,"hotness":137,"is_selected":14,"score":285,"score_detail":286,"sources":289,"tags":291,"primary_topic":293,"secondary_topics":294,"classification":297,"search_phrases":348,"slug":351,"view_count":352,"doi":353,"paper":354,"created_at":382},3494,"Rice Cropping Pattern Mapping Using GEE-Based Sentinel-1\u002F2 Time-Series Imagery and Machine Learning","https:\u002F\u002Fdoi.org\u002F10.3390\u002Frs18193302","Accurate mapping of rice cropping patterns is fundamental to sustainable agricultural management and regional food security assessment. In this study, we developed a high-precision mapping framework for major rice cropping patterns in the Yangtze River Delta region, China, using the Google Earth Engine (GEE) cloud platform. A multi-temporal and multi-source feature set was constructed by integrating Sentinel-1 radar backscatter (VV\u002FVH polarization), Sentinel-2 optical indices, including the normalized difference vegetation index (NDVI) and land surface water index (LSWI), and topographic factors (DEM and slope), to classify three predominant cropping systems, namely, wheat–rice rotation, double rice, and rapeseed–rice rotation. A total of 548 field-surveyed sample points collected during the 2024–2025 growing season were used for model training and validation. Three classical classifiers—Random Forest (RF), A Gradient Boosting Tree (GBTREE), and a Support Vector Machine (SVM)—were systematically compared. The ablation experiment demonstrated that the fusion of Sentinel-1 and Sentinel-2 outperformed both the Sentinel-1-only and Sentinel-2-only configurations across all three classifiers. Among them, the GBTREE achieved the highest overall accuracy (93.8%), Kappa coefficient (0.87), and macro-average F1 score (88.3%) in this specific experiment. Notably, it also performed best on the more challenging double-rice class. The SHapley Additive exPlanations (SHAP)-based feature importance analysis revealed that multi-temporal NDVI phenological features were the primary drivers of classification accuracy, while radar backscatter and water indices provided essential complementary information, and topographic factors served as spatial constraints at the regional scale. The spatial distribution derived from the GBTREE classification exhibited clear patterns: wheat–rice rotation dominated the northern plains (northern Jiangsu, northern Anhui, and the Hangjiahu Plain); double rice was concentrated in the southern Zhejiang hills and scattered valley plains; and rapeseed–rice rotation showed a scattered, mosaic distribution. Overall, this study demonstrates that integrating multi-source remote sensing data on the GEE platform with the GBTREE classifier enables effective and scalable high-precision mapping of rice cropping patterns in complex agricultural landscapes. This approach provides a reliable technical foundation for regional agricultural structure analysis, crop rotation assessment, and sustainable agricultural monitoring.","准确绘制水稻种植模式图是实现可持续农业管理和区域粮食安全评估的基础。本研究基于Google Earth Engine（GEE）云平台，构建了长江三角洲地区主要水稻种植模式的高精度制图框架。通过整合Sentinel-1雷达后向散射（VV\u002FVH极化）、Sentinel-2光学指数（包括归一化差异植被指数NDVI和地表水体指数LSWI）以及地形因子（DEM和坡度），构建了多时相、多源特征集，用于分类三种主要种植制度，即麦–稻轮作、双季稻和油–稻轮作。利用2024—2025年生长季采集的548个实地调查样点进行模型训练与验证。系统比较了三种经典分类器——随机森林（RF）、梯度提升树（GBTREE）和支持向量机（SVM）。消融实验表明，Sentinel-1与Sentinel-2的融合在三种分类器中均优于仅使用Sentinel-1或仅使用Sentinel-2的配置。其中，GBTREE在本实验中取得了最高的总体精度（93.8%）、Kappa系数（0.87）和宏平均F1分数（88.3%）。值得注意的是，其在更具挑战性的双季稻类别上同样表现最佳。基于SHapley加法解释（SHAP）的特征重要性分析表明，多时相NDVI物候特征是分类精度的主要驱动因素，雷达后向散射和水体指数提供了必要的补充信息，而地形因子则在区域尺度上起到空间约束作用。基于GBTREE分类得到的空间分布呈现出清晰的格局：麦–稻轮作主导北部平原（苏北、皖北和杭嘉湖平原）；双季稻集中于浙南丘陵和零散的河谷平原；油–稻轮作则呈零散镶嵌状分布。总体而言，本研究表明，在GEE平台上整合多源遥感数据与GBTREE分类器，能够对复杂农业景观中的水稻种植模式进行有效且可扩展的高精度制图。该方法为区域农业结构分析和作物","Remote Sensing","2026-09-24T00:00:00Z",79,{"impact":58,"substance":220,"depth":140,"authority":287,"freshness":21,"relevant":22,"comment":288},14,"基于GEE与Sentinel-1\u002F2时序影像结合机器学习实现长三角水稻种植模式高精度制图，方法扎实、结论可靠，对农业遥感监测有参考价值。",[290],{"name":283,"url":280},[29,31,73,33,292],"作物分类",{"code":35,"slug":36,"name":31,"path":37,"parent_code":38},[295,296],{"code":41,"slug":42,"name":43,"path":44,"parent_code":45},{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},{"status":52,"locked":14,"version":53,"method":54,"evidence":298},{"candidates":299,"agricultural_evidence":59},[300,304,308,312,319,326,332,338,344],{"code":35,"score":65,"supported":59,"title":301,"abstract":302,"tags":303},[36],[31,36],[31],{"code":41,"score":21,"supported":59,"title":305,"abstract":306,"tags":307},[71],[],[73],{"code":47,"score":142,"supported":59,"title":309,"abstract":310,"tags":311},[],[33,61],[292,33],{"code":313,"score":77,"supported":59,"title":314,"abstract":315,"tags":318},"A7",[],[316,317],"轮作","crop rotation",[],{"code":320,"score":77,"supported":59,"title":321,"abstract":322,"tags":325},"A8",[],[323,324],"粮食安全","food security",[],{"code":327,"score":99,"supported":59,"title":328,"abstract":329,"tags":331},"A2",[],[330],"wheat",[],{"code":333,"score":99,"supported":59,"title":334,"abstract":335,"tags":337},"A4",[],[336],"rapeseed",[],{"code":339,"score":99,"supported":59,"title":340,"abstract":341,"tags":343},"H8",[],[342],"可持续农业",[],{"code":105,"score":22,"supported":14,"title":345,"abstract":346,"tags":347},[],[],[29],[349,350],"长三角 水稻 种植模式 遥感","Sentinel-1 Sentinel-2 水稻制图","长三角水稻种植模式遥感-3494",5,"10.3390\u002Frs18193302",{"doi":353,"openalex_id":355,"authors":356,"venue":283,"cited_by_count":113,"oa_url":280,"card":377,"direction":124,"ingested_from":126},"W7214147197",[357,360,363,366,368,371,374],{"name":358,"orcid":359},"Xuan Li","https:\u002F\u002Forcid.org\u002F0000-0001-5509-2385",{"name":361,"orcid":362},"Lintao Chen","https:\u002F\u002Forcid.org\u002F0009-0000-6558-1289",{"name":364,"orcid":365},"Lin Chen","https:\u002F\u002Forcid.org\u002F0000-0002-9270-1626",{"name":367,"orcid":9},"Chao Su",{"name":369,"orcid":370},"Hoi Leong Lee","https:\u002F\u002Forcid.org\u002F0000-0002-4984-2183",{"name":372,"orcid":373},"Ruci Wang","https:\u002F\u002Forcid.org\u002F0000-0001-7049-7006",{"name":375,"orcid":376},"Xuguang Tang","https:\u002F\u002Forcid.org\u002F0009-0008-3494-8867",{"tldr":378,"method":379,"finding":380,"direction":124,"opportunity":381},"基于GEE融合Sentinel-1\u002F2时序与地形特征，用机器学习高精度制图长三角水稻种植模式。","GEE平台、Sentinel-1\u002F2时序特征、DEM、548个实地样本、RF\u002FG","GBTREE精度最高（总体93.8%、Kappa 0.87），双季稻识别最好；NDVI物候特征贡献最","可探索样本稀缺区迁移学习与多作物轮作模式泛化制图，并耦合产量与碳核算。","2026-09-25T23:30:30.511522Z",{"id":384,"title":385,"url":386,"summary":387,"summary_zh":388,"content":9,"source_name":389,"source_url":386,"published_at":390,"category":12,"cover_url":9,"hotness":137,"is_selected":14,"score":391,"score_detail":392,"sources":394,"tags":396,"primary_topic":397,"secondary_topics":398,"classification":400,"search_phrases":427,"slug":430,"view_count":113,"doi":431,"paper":432,"created_at":445},5394,"Rice Yield Prediction Using Multi-Modal Regression Learning with Optimized Ensemble Models","https:\u002F\u002Fdoi.org\u002F10.3390\u002Feng7100572","Accurate rice yield estimation is important for agricultural planning, resource allocation, and food security assessment, but yield depends on interacting climatic, vegetation, remote sensing, seasonal, and crop growth factors. This study presents a Multi-Modal Regression Learning (MMRL) framework for continuous rice yield prediction. The framework integrates rainfall, temperature, humidity, normalized difference vegetation index (NDVI), VH synthetic aperture radar (SAR) backscatter, season, rice cultivation area, and leaf wetness information. Predictor relevance is assessed before model development, and multiple regression learners are trained using a common feature set. Their validation predictions are combined through non-negative ensemble weights constrained to sum to one, thereby producing a single optimized prediction. Experiments were performed on a modeled spatio-temporal agricultural dataset representing Karnataka conditions, with 10,000 observations used for the regression comparison. The proposed MMRL ensemble achieved an R2 of 0.9515, an RMSE of 0.6334 tons\u002Fha, an MAE of 0.5075 tons\u002Fha, and an MAPE of 9.81%, outperforming the evaluated individual regression models. Diagnostic plots further indicated close agreement between predicted and reference yields across most of the evaluated range. The MMRL workflow was also evaluated on a separately reconstructed synthetic dataset generated with fully specified distributions, sampling rules, noise terms, a yield generation equation, and fixed random seeds.","准确的水稻产量估算对农业规划、资源配置和粮食安全评估具有重要意义，但产量取决于气候、植被、遥感、季节和作物生长等多种因素的相互作用。本研究提出了一种用于连续水稻产量预测的多模态回归学习（Multi-Modal Regression Learning，MMRL）框架。该框架整合了降雨量、温度、湿度、归一化植被指数（NDVI）、VH合成孔径雷达（SAR）后向散射、季节、水稻种植面积和叶片湿润信息。在模型开发之前评估预测变量的相关性，并使用共同特征集训练多个回归学习器。其验证预测结果通过约束为和等于1的非负集成权重进行组合，从而生成单一优化预测。实验在代表卡纳塔克邦条件的建模时空农业数据集上进行，使用10,000个观测值进行回归比较。所提出的MMRL集成模型实现了R²为0.9515、RMSE为0.6334吨\u002F公顷、MAE为0.5075吨\u002F公顷、MAPE为9.81%，优于所评估的各个回归模型。诊断图进一步表明，在大多数评估范围内，预测产量与参考产量高度一致。MMRL工作流程还在一个单独重建的合成数据集上进行了评估，该数据集使用完全指定的分布、采样规则、噪声项、产量生成方程和固定随机种子生成。","Eng—Advances in Engineering","2026-10-18T00:00:00Z",78,{"impact":140,"substance":220,"depth":140,"authority":17,"freshness":142,"relevant":22,"comment":393},"多模态回归集成方法在水稻估产上取得较高精度，方法新颖、数据规模明确，对农业信息化有参考价值，但属学术论文且数据集为模拟数据，产业影响有限。",[395],{"name":389,"url":386},[29,30,31,32,33],{"code":35,"slug":36,"name":31,"path":37,"parent_code":38},[399],{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},{"status":52,"locked":14,"version":53,"method":54,"evidence":401},{"candidates":402,"agricultural_evidence":59},[403,407,411,415,419,423],{"code":35,"score":65,"supported":59,"title":404,"abstract":405,"tags":406},[36],[31,36],[31],{"code":47,"score":142,"supported":59,"title":408,"abstract":409,"tags":410},[],[33,61],[32,33],{"code":320,"score":77,"supported":59,"title":412,"abstract":413,"tags":414},[],[323,324],[],{"code":98,"score":99,"supported":59,"title":416,"abstract":417,"tags":418},[],[102],[],{"code":105,"score":22,"supported":14,"title":420,"abstract":421,"tags":422},[],[],[29],{"code":41,"score":22,"supported":14,"title":424,"abstract":425,"tags":426},[],[],[30],[428,429],"水稻 产量预测 多模态","NDVI SAR 水稻估产","水稻产量预测多模态-5394","10.3390\u002Feng7100572",{"doi":431,"openalex_id":433,"authors":434,"venue":389,"cited_by_count":113,"oa_url":386,"card":440,"direction":124,"ingested_from":126},"W7222942064",[435,437],{"name":436,"orcid":9},"Nayana Venkatesh",{"name":438,"orcid":439},"Evangelin Geetha Devaraj","https:\u002F\u002Forcid.org\u002F0000-0002-7253-4314",{"tldr":441,"method":442,"finding":443,"direction":124,"opportunity":444},"构建多模态回归学习框架，融合气候、遥感与作物因子，实现水稻产量连续预测。","融合降雨、温度、NDVI、SAR后向散射等多源特征，用非负权重集成多个回归器。","集成模型R²达0.9515，RMSE为0.6334吨\u002F公顷，优于各单一回归模型。","可引入真实田间多时相遥感与深度时序模型，验证合成数据结论在真实产区的泛化性。","2026-10-20T23:30:19.292634Z",{"id":447,"title":448,"url":449,"summary":450,"summary_zh":451,"content":9,"source_name":452,"source_url":449,"published_at":453,"category":12,"cover_url":9,"hotness":137,"is_selected":14,"score":454,"score_detail":455,"sources":457,"tags":459,"primary_topic":462,"secondary_topics":463,"classification":466,"search_phrases":487,"slug":490,"view_count":142,"doi":491,"paper":492,"created_at":533},3278,"Research on the optimal modeling path for inversion of Pb content in rice leaves based on hyperspectral data of ground objects and machine learning and cross-scale remote sensing monitoring","https:\u002F\u002Fdoi.org\u002F10.1007\u002Fs10661-026-15959-x","Research on the optimal modeling path for inversion of Pb content in rice leaves based on hyperspectral data of ground objects and machine learning and cross-scale remote sensing monitoring。Environmental Monitoring and Assessment","基于地物高光谱数据与机器学习的稻叶铅含量反演最优建模路径及跨尺度遥感监测研究。环境监测与评估","Environmental Monitoring and Assessment","2026-09-22T00:00:00Z",64,{"impact":142,"substance":140,"depth":58,"authority":20,"freshness":21,"relevant":22,"comment":456},"基于地物高光谱与机器学习的水稻叶片铅含量反演建模研究，方法有创新但属细分领域学术进展，公共影响有限。",[458],{"name":452,"url":449},[29,460,31,73,461],"农业遥感","高光谱遥感",{"code":35,"slug":36,"name":31,"path":37,"parent_code":38},[464,465],{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},{"code":41,"slug":42,"name":43,"path":44,"parent_code":45},{"status":52,"locked":14,"version":53,"method":54,"evidence":467},{"candidates":468,"agricultural_evidence":59},[469,475,479,483],{"code":47,"score":470,"supported":59,"title":471,"abstract":473,"tags":474},27,[61,472],"hyperspectral",[33,61,472],[460,461],{"code":41,"score":65,"supported":59,"title":476,"abstract":477,"tags":478},[71],[73,71],[73],{"code":35,"score":17,"supported":59,"title":480,"abstract":481,"tags":482},[36],[36],[31],{"code":105,"score":22,"supported":14,"title":484,"abstract":485,"tags":486},[],[],[29],[488,489],"水稻叶片 铅含量 高光谱 反演","稻米 重金属 遥感 监测","水稻叶片铅含量高光谱反演-3278","10.1007\u002Fs10661-026-15959-x",{"doi":491,"openalex_id":493,"authors":494,"venue":452,"cited_by_count":113,"oa_url":9,"card":528,"direction":124,"ingested_from":126},"W7214027889",[495,498,501,504,507,510,512,514,517,520,522,524,526],{"name":496,"orcid":497},"Zhenlong Zhang","https:\u002F\u002Forcid.org\u002F0009-0008-2354-9123",{"name":499,"orcid":500},"Zhe Wang","https:\u002F\u002Forcid.org\u002F0000-0003-1266-7251",{"name":502,"orcid":503},"Chengxia Wang","https:\u002F\u002Forcid.org\u002F0009-0001-0820-2462",{"name":505,"orcid":506},"Wenxue Lin","https:\u002F\u002Forcid.org\u002F0000-0002-8245-9063",{"name":508,"orcid":509},"Jingyan Zhang","https:\u002F\u002Forcid.org\u002F0009-0004-4567-5316",{"name":511,"orcid":9},"Ying Luo",{"name":513,"orcid":9},"Jiaqian Zhang",{"name":515,"orcid":516},"Kai Ye","https:\u002F\u002Forcid.org\u002F0000-0002-2851-6741",{"name":518,"orcid":519},"Yiming Chen","https:\u002F\u002Forcid.org\u002F0000-0002-8121-3109",{"name":521,"orcid":9},"Chaoliang Peng",{"name":523,"orcid":9},"Duan Tian",{"name":525,"orcid":9},"Weihao Wang",{"name":527,"orcid":9},"Jiaxin Liu",{"tldr":529,"method":530,"finding":531,"direction":124,"opportunity":532},"研究基于地面高光谱与机器学习反演水稻叶片铅含量，并探索跨尺度遥感监测的最优建模路径。","地面高光谱数据结合机器学习建模，开展跨尺度遥感监测。","明确了水稻叶片铅含量反演的最优建模路径，实现跨尺度遥感监测。","可探索多尺度遥感数据融合与迁移学习，提升重金属胁迫反演的普适性与精度。","2026-09-23T23:30:19.291361Z",{"id":535,"title":536,"url":537,"summary":538,"summary_zh":539,"content":9,"source_name":10,"source_url":537,"published_at":540,"category":12,"cover_url":9,"hotness":137,"is_selected":14,"score":541,"score_detail":542,"sources":544,"tags":546,"primary_topic":548,"secondary_topics":549,"classification":551,"search_phrases":568,"slug":571,"view_count":113,"doi":572,"paper":573,"created_at":583},5570,"Evaluation of Counterfactual Explanation Robustness for Computer Vision Agriculture Yield-Forecast Models Under Satellite Cloud-Mask Gaps: An Interpretability Reliability Bound for Cooperative Storage Decisions","https:\u002F\u002Fdoi.org\u002F10.5281\u002Fzenodo.23545079","Counterfactual explanations are increasingly proposed as the interface through which cooperative storage managers interrogate computer-vision yield-forecast models, yet their reliability under the satellite cloud-mask gaps that routinely afflict agricultural remote sensing has not been bounded. The bound is derived from a Lipschitz continuity assumption on the forecast model and a masking-operator perturbation analysis, and it is expressed as a function of the cloud-mask gap fraction, the model's local Lipschitz constant, and the counterfactual search tolerance. A replication-based evaluation of the before-after-control-impact estimator was conducted to characterise the operating characteristics of the design under a declared variance structure (between-cluster SD = 6.0, residual SD = 4.5, intraclass correlation = 0.64), with power estimated across 2000 design cells. The reliability bound degrades non-linearly as the gap fraction rises, and that the intraclass correlation of 0.64 implies that cooperative-level aggregation of counterfactual recourse is necessary to preserve explanation stability. The contribution is a decision-relevant reliability bound that storage cooperatives can use to set a maximum tolerable cloud-mask gap before counterfactual recourse is suspended.","反事实解释日益被提出作为合作式仓储管理者质询计算机视觉产量预测模型的接口，然而在农业遥感中经常出现的卫星云掩膜缺口条件下，其可靠性尚未得到界定。该界基于预测模型上的Lipschitz连续性假设和掩膜算子扰动分析推导得出，并表示为云掩膜缺口比例、模型局部Lipschitz常数和反事实搜索容差的函数。对前后对照影响估计量进行了基于重复的评估，以表征该设计在给定方差结构（组间标准差=6.0，残差标准差=4.5，组内相关系数=0.64）下的运行特征，并在2000个设计单元中估计了检验效能。可靠性界随缺口比例上升呈非线性退化，且组内相关系数0.64意味着需要对反事实救济进行合作社层面的聚合，以保持解释的稳定性。本文的贡献在于提供了一个与决策相关的可靠性界，仓储合作社可据此设定在暂停反事实救济之前可容忍的最大云掩膜缺口。","2026-10-21T00:00:00Z",67,{"impact":142,"substance":141,"depth":19,"authority":17,"freshness":137,"relevant":22,"comment":543},"该论文提出反事实解释在卫星云掩膜缺口下的可靠性边界，方法新颖且结论可用于合作社决策，但属细分方法学研究，产业影响有限。",[545],{"name":10,"url":537},[29,30,32,33,547],"可解释性",{"code":41,"slug":42,"name":43,"path":44,"parent_code":45},[550],{"code":47,"slug":48,"name":49,"path":50,"parent_code":45},{"status":52,"locked":14,"version":53,"method":54,"evidence":552},{"candidates":553,"agricultural_evidence":59},[554,560,564],{"code":41,"score":17,"supported":59,"title":555,"abstract":557,"tags":559},[556],"computer vision",[558],"计算机视觉",[30],{"code":47,"score":142,"supported":59,"title":561,"abstract":562,"tags":563},[],[33,61],[32,33],{"code":105,"score":22,"supported":14,"title":565,"abstract":566,"tags":567},[],[],[29],[569,570],"农业人工智能 产量预测 可解释性 智慧农业","农业人工智能 产量预测","农业人工智能产量预测可解释性智慧农业-5570","10.5281\u002Fzenodo.23545079",{"doi":572,"openalex_id":574,"authors":575,"venue":10,"cited_by_count":113,"oa_url":537,"card":578,"direction":124,"ingested_from":126},"W7223114002",[576],{"name":577,"orcid":9},"Kadiatou Barry",{"tldr":579,"method":580,"finding":581,"direction":124,"opportunity":582},"推导卫星云掩膜缺口下反事实解释可靠性的理论界，并评估其对合作社储粮决策的影响。","基于Lipschitz连续性假设与掩膜扰动分析推导可靠性界，并用2000个设计单","缺口比例上升使可靠性非线性下降；ICC=0.64表明需合作社层级聚合以保持解释稳定。","可研究不同作物区云掩膜统计特性下的自适应解释暂停阈值与聚合策略。","2026-10-22T11:20:39.240791Z"]