White Papers
White papers were solicited from the scientific community to focus on development and application of AI methods in areas relevant to EESSD research with an emphasis on quantifying and improving Earth system predictability, particularly related to the integrative water cycle and associated water cycle extremes. The white papers describe innovative approaches to improving the predictability of the Earth system. We expect that a novel framework, derived from white paper concepts and a series of workshops, will improve capabilities for knowledge capture and distillation that provide future computational constructs across the EESSD research enterprise. We anticipate that exascale computing, edge computing, 5G/6G, and use of quantum computing and quantum sensors will be further developed during this period. View the call for white papers (PDF)
Number | Title | Author | DOI |
---|---|---|---|
AI4ESP1001 | A Spatiotemporal Sequence Forecasting Platform to Advance the Predictionof Changing Spatiotemporal Patterns of CO2 Concentrationby Incorporating Human Activity and Hydrological Extremes | Melissa R. Allen-Dumas | 10.2172/1769653 |
AI4ESP1002 | Robust data-driven uncertainty quantification in water cycle extreme predictions | Gemma J. Anderson | 10.2172/1769775 |
AI4ESP1003 | A Multi-Scale Inference, Estimation, and Prediction Engine for Earth System Modeling | Marian Anghel | 10.2172/1769648 |
AI4ESP1004 | Open-source AI-ready data for prediction of coastal water and carbon budgets under a changing climate | Bhavna Arora | 10.2172/1769758 |
AI4ESP1005 | Event-scale predictions of water and nitrogen exports in coastal watersheds | Bhavna Arora | 10.2172/1769706 |
AI4ESP1006 | Predictive Understanding of Compound and Cascading Extremes and Their Impacts | Moetasim Ashfaq | 10.2172/1769764 |
AI4ESP1007 | Leveraging machine learning to improve understanding and predictability of weather/climate extremesand the resilience of human systems | Karhik Balaguru | 10.2172/1769737 |
AI4ESP1008 | AI-enabled MODEX and edge-computing over 5G for improving the predictability of water cycle extremes | Prasanna Balaprakash | 10.2172/1769672 |
AI4ESP1009 | AUTOMATION IS ALL YOU NEED: FASTER EARTH SYSTEMS MODELS WITH AI/ML | Kenneth Ball | 10.2172/1769679 |
AI4ESP1010 | Interpretable Deep Learning for the Earth System with Fractal Nets | Carolyn Begeman | 10.2172/1769730 |
AI4ESP1011 | Characterization of Extreme Hydroclimate Events in Earth System Models using ML/AI | Katrina E. Bennett | 10.2172/1769685 |
AI4ESP1012 | Past and Future Trends of Severe Storms | Emily Bercos-Hickey | 10.2172/1769759 |
AI4ESP1014 | Enhanced prediction of terrestrial feedbacks to the coastal carbon cycle:using machine learning to improve sub-grid biogeochemical processes | Nick Bouskill | 10.2172/1769704 |
AI4ESP1015 | EAM-HLR: Enhancing the low-resolution E3SM Atmosphere Modelwith an ML model of high-low-resolution residual in convective processes | Andrew M. Bradley | 10.2172/1769697 |
AI4ESP1016 | AI-Improved Resolution Projections of Population Characteristics and Imperviousness Can Improve Resolution and Accuracy of Urban Flood Predictions | Christa Brelsford | 10.2172/1769673 |
AI4ESP1017 | Transforming ESM Physical Parameterization Development Using Machine Learning Trained on Global Cloud-Resolving Models and Process Observations | Christopher S. Bretherton | 10.2172/1769790 |
AI4ESP1018 | Elucidating and predicting the dynamic evolution of water and land systems due to natural and energy-related forcings | Grant Bromhal | 10.2172/1769701 |
AI4ESP1019 | Learning from learning machines machinesimproving the predictive power of energy-water-land nexus modelswith insights from complex measured and simulated data | James Bentley Brown | 10.2172/1769736 |
AI4ESP1020 | Climate Intervention Assessment andAttributionFebruary | Diana Bull | 10.2172/1769687 |
AI4ESP1021 | AI-Assisted Parameter Tuning Will Speed Development and Clarify Uncertainty in E3SM | Peter M. Caldwell | 10.2172/1769663 |
AI4ESP1022 | Building Intelligent Cyberinfrastructure to Learn Iteratively from both Observations and Models for Understanding Watershed Dynamics | Xingyuan Chen | 10.2172/1769684 |
AI4ESP1023 | Upscaling cross-scale flow and respiration interactions at river sediment interface leveraging observation, numerical models, and machine learning | Yunxiang Chen | 10.2172/1769792 |
AI4ESP1024 | Enhancing Resilience of Urban Systems Against Climate-Induced Floods Using Advanced Data-Driven and Computing Techniques: A Driver-Pressure-State-Impact-Response (DPSIR) Framework | Gyan Chhipi-Shrestha | 10.2172/1769705 |
AI4ESP1025 | Integrating Models with Real-time Field Data for Extreme Events: From Field Sensors to Models and Back with AI in the Loop | Shreyas Cholia | 10.2172/1769727 |
AI4ESP1026 | Model Hierarchy for Mountainous Hydrological Observatories (MH2O) | William D. Collins | 10.2172/1769748 |
AI4ESP1027 | Tracking Extremes in Exascale Simulations Utilizing Exascale Platforms | William D. Collins | 10.2172/1769788 |
AI4ESP1028 | Framework for an adaptive integrated observation system using a hierarchy of machine learning approaches | Jennifer Comstock | 10.2172/1769712 |
AI4ESP1029 | An AI-Assisted Approach to Represent Human Influence on Surface and Subsurface Hydrology | Ethan Coon | 10.2172/1769674 |
AI4ESP1129 | Machine-Learning-Assisted Hybrid Earth System Modelling | Istvan Szunyogh | 10.2172/1769745 |
AI4ESP1030 | A library of AI-assisted FAIR water cycle and related disturbancedatasets to enable model training, parameterization and validation | Robert Crystal-Ornelas | 10.2172/1769646 |
AI4ESP1031 | Revolutionizing observations and predictability of Arctic system dynamics through next-generation dense, heterogeneous and intelligent wireless sensor networks with embedded AI | Baptiste Dafflon | 10.2172/1769774 |
AI4ESP1032 | Machine learning to extend and understand the sources and limits of water cycle predictability on subseasonal-to-decadal timescales in the Earth system | Katherine Dagon | 10.2172/1769744 |
AI4ESP1033 | AI-Driven Data Discovery to Improve Earth System Predictability | Ranjeet Devarakonda | 10.2172/1769671 |
AI4ESP1034 | Semi-automated Design of Artificial Intelligence Earth Systems Models | Philipe Dias | 10.2172/1769777 |
AI4ESP1035 | Using AI to build a hydrobiogeochemical soil model | Beth A. Drewniak | 10.2172/1769793 |
AI4ESP1036 | AI for Extreme Volcanic Climate Forcing and Feedback Forecasting in the 21st century | Manvendra Dubey | 10.2172/1769659 |
AI4ESP1037 | Knowledge-Guided Machine Learning (KGML) Platform to Predict Integrated Water Cycle and Associated extremes | Dipankar Dwivedi | 10.2172/1769733 |
AI4ESP1038 | A Modular System for ​Increasing Predictiveness for Extreme Climate Predictions | Christopher Rakauckas | 10.2172/1769647 |
AI4ESP1039 | Jaynesian Analysis of Environmental Chemistry: Systems Model Component Integration via the Arctic Aquatic Carbon Cycle | Scott Elliott | 10.2172/1769731 |
AI4ESP1040 | Rapid assimilation and analysis of a suit of remote sensing data for predicting extreme events and their impact on ecological-human systems | Nicola Falco | 10.2172/1769770 |
AI4ESP1041 | Develop a weather-aware climate model to understand and predict extremes and associated power outages and renewable energy shortageswith uncertainty-aware and physics-informed machine learning | Jiwen Fan | 10.2172/1769695 |
AI4ESP1042 | On AI Prediction of Hydrological Processes Based on Integration of Retrospective and Forecasting ML Techniques | Boris Faybishenko | 10.2172/1769756 |
AI4ESP1043 | Reliable modeling and prediction of precipitation & radiation for mountainous hydrology | Daniel Feldman | 10.2172/1769771 |
AI4ESP1044 | Characterization of Extremes and Compound Impacts: Applications of Machine Learning and Interpretable Neural Networks | Yan Feng | 10.2172/1769686 |
AI4ESP1045 | Land Surface Modeling 2.0 for agricultural climate change impact assessments | James A. Franke | 10.2172/1769734 |
AI4ESP1046 | A Grand Challenge "Uncertainty Project" to Accelerate Advances in Earth System Predictability: AI-Enabled Concepts and Applications | Ann Fridlind | 10.2172/1769643 |
AI4ESP1047 | Science-integrated Artificial-intelligence for Flooding and precipitation Extremes (SAFE) | Auroop R. Ganguly | 10.2172/1769776 |
AI4ESP1048 | Deep Learning for Ensemble Forecasting | Andrew Geiss | 10.2172/1769692 |
AI4ESP1049 | Toward Hybrid Physics -Machine Learning to improve Land Surface Model predictions | Mangistu (Stu) Geza | 10.2172/1769785 |
AI4ESP1050 | Geophysical Retrievals in an Artificial Intelligence (AI) Framework for Illuminating Processes Controlling Water Cycle | Virendra P. Ghate | 10.2172/1769714 |
AI4ESP1051 | AI Automated Discovery of New Climate Water System Knowledge from Models and Observations | André Goncalves | 10.2172/1769658 |
AI4ESP1052 | Autonomousreinforcement learning agentsfor improvingpredictions and observations of extreme climate events | André Goncalves | 10.2172/1769680 |
AI4ESP1053 | Data-Driven Exploration of Climate Attractor Manifolds For Long-Term Predictability | Carlo Graziani | 10.2172/1769691 |
AI4ESP1054 | Feature Detection | Yawen Guan | 10.2172/1769711 |
AI4ESP1055 | Modeling Noise: Paths toward AI-Enabled Stochastic Earth System Models and Parameterizations | Samson Hagos | 10.2172/1769749 |
AI4ESP1056 | Making Atmospheric Convective Parameterizations Obsolete with Machine Learning Emulation | Walter Michael Hannah | 10.2172/1769746 |
AI4ESP1057 | The Usage of Observing System Simulation Experiments and Reinforcement Learning to Optimize Experimental Design and Operation | Joseph C. Hardin | 10.2172/1769782 |
AI4ESP1058 | Machine Learned Radiative Transport for Enhanced Resolution Earth System Modeling | Benjamin Hillman | 10.2172/1769738 |
AI4ESP1059 | Integrating AI with physics-based hydrological models and observations for insightinto changing climate and anthropogenic impacts | Ben R. Hodges | 10.2172/1769725 |
AI4ESP1060 | AI-Constrained Bottom-Up Ecohydrology and Improved Prediction of Seasonal, Interannual, and Decadal Flood and Drought Risks | Forrest M. Hoffman | 10.2172/1769668 |
AI4ESP1061 | Deep learning techniques to disentangle water use efficiency, climate change, and carbon sequestration across ecosystem scales1 | Jennifer A. Holm | 10.2172/1769694 |
AI4ESP1062 | Multi-scale Multi-physics Scientific Machine Learning for Water Cycle Extreme Events Identification, Labelling, Representation, and Characterization | Zhangshuan (Jason) Hou | 10.2172/1769751 |
AI4ESP1063 | Subseasonal-to-seasonal Prediction of Atmospheric Rivers in the Western United States | Huanping Huang | 10.2172/1769780 |
AI4ESP1064 | The use of soil moisture and Standardized Evaporative Stress Ratio (SESR) anomalies for increased lead time of the development flash drought and heat waves | Eric Hunt | 10.2172/1769783 |
AI4ESP1065 | Towards Trustworthy and Interpretable Deep Learning-assisted Ecohydrological Models | Peishi Jiang | 10.2172/1769787 |
AI4ESP1066 | Combining artificial intelligence, Earth observations, and climate models to improve predictability of ice-biogeochemistry interactions | Grace E. Kim | 10.2172/1769689 |
AI4ESP1067 | A QUANTUM-AI FRAMEWORK FOR EXTREME WEATHER PREDICTION | Grace E. Kim | 10.2172/1769650 |
AI4ESP1068 | Improving Short Term Predictability of Hydrologic Models with Deep Learning | Ryan King | 10.2172/1769722 |
AI4ESP1069 | Advancing the Predictability of Water Cycle Phenomena via the Application of AI to Model Ensemble Simulations and Observations | Stephen A. Klein | 10.2172/1769656 |
AI4ESP1070 | Multisensor Agile Adaptive Sampling of Convective Storms Driven by Real-time Analytics | Pavlos Kollias | 10.2172/1769753 |
AI4ESP1071 | Modular hybrid modeling to increase efficiency, explore structural uncertainty, andallow multidimensional complexity scaling in land surface models. | Charles Koven | 10.2172/1769750 |
AI4ESP1072 | End-to-End Differentiable Modeling and Management of the Environment | Christopher Krapu | 10.2172/1769703 |
AI4ESP1073 | Representing the Unrepresented Impact of River Ice on Hydrology, Biogeochemistry, Vegetation, and Geomorphology: A Hybrid Physics-Machine Learning Approach | Jitendra Kumar | 10.2172/1769772 |
AI4ESP1074 | In Situ Inference for Earth System Predictability | Earl Lawrence | 10.2172/1769723 |
AI4ESP1075 | Toward the Development of New Parameterizations for Surface Fluxes | Temple R. Lee | 10.2172/1769786 |
AI4ESP1076 | Physics-Informed Learning for Predictive Multi-Scale Modeling of Water Cycle and Extreme Events | Lai-Yung (Ruby) Leung | 10.2172/1769761 |
AI4ESP1077 | Deep Learning for Hydro-Biogeochemistry ProcessesFebruary | Li Li | 10.2172/1769693 |
AI4ESP1078 | A Self-Evolution Data Fusion Platform for Large-Scale Water Models | Xinya Li | 10.2172/1769652 |
AI4ESP1079 | Structurally flexible cloud microphysics, observationally constrained at all scales via ML-accelerated Bayesian inference | Marcus Van Lier-Walqui | 10.2172/1769779 |
AI4ESP1080 | Building an AI-enhanced modeling framework to address multiscale predictability challenges | Yangang Liu | 10.2172/1769683 |
AI4ESP1081 | A Bayesian Neural Network Ensemble Approach for Improving Large-Scale Streamflow Predictability | Dan Lu | 10.2172/1769641 |
AI4ESP1082 | An AI-Enabled MODEX Framework for Improving Predictability of Subsurface Water Storage across Local and Continental Scales | Dan Lu | 10.2172/1769675 |
AI4ESP1083 | Advancing Regional Climate Predictability through ML-enabled Dynamical System Approach | Jian Lu | 10.2172/1769654 |
AI4ESP1084 | Machine Learning for Surrogate Modeling of the Upper Ocean and HeatExchange Between the Ocean and Atmosphere | Nicholas Lutsko | 10.2172/1769742 |
AI4ESP1085 | Facilitating better and faster simulations of aerosol-cloud interactions in Earth system models | Po-Lun Ma | 10.2172/1769709 |
AI4ESP1086 | Assessing Teleconnections-Induced Predictability of Regional Water Cycle on Seasonal to Decadal Timescales Using Machine Learning Approaches | Salil Mahajan | 10.2172/1769676 |
AI4ESP1087 | Identifying precursors of daily to seasonal hydrological extremes over the USA using deep learning techniques and climate model ensembles | Nicola Maher | 10.2172/1769719 |
AI4ESP1088 | Separating Climate Signals with Machine Learning | Ankur Mahesh | 10.2172/1769778 |
AI4ESP1089 | AI-Based Integrated Modeling and Observational Framework for Improving Seasonal to Decadal Prediction of Terrestrial Ecohydrological Extremes | Jiafu Mao | 10.2172/1769666 |
AI4ESP1090 | Surrogate multi-fidelity data and model fusion forscientific discovery and uncertainty quantification inEarth System Models | Romit Maulik | 10.2172/1769781 |
AI4ESP1091 | Trustworthy AI for Extreme Event Prediction and Understanding | Amy McGovern | 10.2172/1769791 |
AI4ESP1092 | Computationally Tractable High-Fidelity Representation of Global Hydrol-ogy in ESMs via Machine Learning Approaches to Scale-Bridging | Richard Tran Mills | 10.2172/1769690 |
AI4ESP1093 | Rethink hydrologic modeling framework with AI integrating multi-processes across scales | Eugene Yan | 10.2172/1769773 |
AI4ESP1094 | New Understanding of Cloud Processes via Unsupervised Cloud Classification in Satellite Images | Elisabeth J. Moyer | 10.2172/1769754 |
AI4ESP1095 | EdgeAI: How to Use AI to Collect Reliable and Relevant Watershed Data | Maruti Kumar Mudunuru | 10.2172/1769700 |
AI4ESP1096 | Machine Learning for Adaptive Model Refinement to Bridge Scales | Juliane Mueller | 10.2172/1769741 |
AI4ESP1097 | Machine Learning to Enable Efficient Uncertainty Quantification, Data Assimilation, and Informed Data AcquisitionAuthorsJuliane | Juliane Mueller | 10.2172/1769743 |
AI4ESP1098 | Co-Evolving Climate Models under Uncertainty to Improve Predictive Skill | Balu T. Nadiga | 10.2172/1769688 |
AI4ESP1099 | A Fire Community Observatory: Interdisciplinary, AI-informed Post-Fire Rapid Response for Improved Water Cycle Science at Watershed Scale | Michelle E. Newcomer | 10.2172/1769642 |
AI4ESP1100 | Physics-Informed Deep Learning for Multiscale Water Cycle Prediction | Brenda Ng | 10.2172/1769760 |
AI4ESP1101 | AI-Directed Adaptive Multifidelity Modeling of Water Availability and Quality at River Basin Scales | Scott L. Painter | 10.2172/1769669 |
AI4ESP1102 | Integration of AI/ML with Data Assimilation for Earth System Prediction2 | Stephen G. Penny | 10.2172/1769728 |
AI4ESP1103 | Hybrid (PDE+ML) models in the context of land icemodeling | Mauro Perego | 10.2172/1769717 |
AI4ESP1104 | Advancing Sea Ice Predictability in E3SM with Machine Learning | Kara Peterson | 10.2172/1769655 |
AI4ESP1105 | FAIR data infrastructure and tools for AI-assisted streamflow prediction | Line Pouchard | 10.2172/1769710 |
AI4ESP1106 | Water Cycle-Driven Infectious Diseases as Multiscale, Reliable, Continuously Updating Water Cycle Sensors | Amy Powell | 10.2172/1769797 |
AI4ESP1107 | AI-Based Upgrades to Observatories Enabling Data Interoperability | Giri Prakash | 10.2172/1769667 |
AI4ESP1108 | Early detection and uncertainty quantification of rapid sea-level rise from Antarctica | Stephen Price | 10.2172/1769698 |
AI4ESP1109 | Machine learning and artificial intelligence for wildfire prediction | James Tremper Randerson | 10.2172/1769739 |
AI4ESP1110 | Probabilistic Machine Learning and Data Assimilation | Vishwas Rao | 10.2172/1769766 |
AI4ESP1111 | AI-Based Approach for Advancing the Understanding of Spatiotemporal Drought Characteristics | Deeksha Rastogi | 10.2172/1769665 |
AI4ESP1112 | Predictabilityand feedbacks of the ocean-soil-plant-atmosphere water cycle: deep learning water conductance in Earth System Model | Alexandre A. Renchon | 10.2172/1769763 |
AI4ESP1113 | Title:Machine learning to generate gridded extreme precipitation data sets for global land areas with limited in situ measurements | Mark Risser | 10.2172/1769784 |
AI4ESP1114 | Integrating Applied Energy and BER Smart Data Capabilities to Develop a DOE Data Fabric for Energy-Water R&DÂ | Kelly Rose | 10.2172/1769726 |
AI4ESP1115 | GANpiler | Barry Rountree | 10.2172/1769713 |
AI4ESP1116 | Transfer Operator Framework for Earth System Predictability and Water Cycle Extremes | Adam Rupe | 10.2172/1769789 |
AI4ESP1117 | Earth System Model Improvement Pipeline via Uncertainty Attribution and Active Learning | Khachik Sargsyan | 10.2172/1769699 |
AI4ESP1118 | A new era of observationally-infused E3SM: GANs for unifying imagery archives | Jon Schwenk | 10.2172/1769649 |
AI4ESP1119 | AI to Automate ModEx for Optimal Predictive Improvement and Scientific Discovery | Shawn P. Serbin | 10.2172/1769662 |
AI4ESP1120 | Integrative data-driven approaches for characterization & prediction of aerosol-cloud processes | Lyndsay Shand | 10.2172/1769729 |
AI4ESP1121 | Integrated parameter and process learning for hydrologic and biogeochemical modules in Earth System Models | Chaopeng Shen | 10.2172/1769724 |
AI4ESP1122 | Improved Understanding of Coupled Water and Carbon Cycle Processes through Machine Learning Approaches | Debjani Sihi | 10.2172/1769721 |
AI4ESP1123 | AI predicted shifts in watershed hydrodynamics driven by extreme weather and fire | Erica Siirila-Woodburn | 10.2172/1769660 |
AI4ESP1124 | Automated Discovery of DOminaNt physics Informed Surrogates (ADDONIS) Framework for Improving Water Cycling Predictability | Kenneth (Chad) Sockwell | 10.2172/1769678 |
AI4ESP1125 | Preferential flow in subsurface hydrology: From a century of denial to a decade of addressing it via ML? | Matthias Sprenger | 10.2172/1769765 |
AI4ESP1126 | On Demand Machine Learning for Multi-Fidelity Biogeochemistry in River Basins Impacted by Climate Extremes | Carl I Steefel | 10.2172/1769757 |
AI4ESP1127 | Emergent Concepts from a Community Ideation on AI4ESP | James Stegen | 10.2172/1769702 |
AI4ESP1128 | Bridging Multiscale Processes in Earth System Models with Physics-Guided Hierarchical Machine Learning | Alexander Y. Sun | 10.2172/1769682 |
AI4ESP1130 | Using machine learning and artificial intelligence to improve model-data integrated earth system model predictions of water and carbon cycle extremes | Jinyun Tang | 10.2172/1769794 |
AI4ESP1131 | Machine Learning for a-posteriori model-observed data fusion to enhance predictive value of ESM output | Claudia Tebaldi | 10.2172/1769740 |
AI4ESP1132 | Learned implicit representations of aerosol chemistry and physics for enhancing the predictability of water cycle extreme events | Christopher W. Tessum | 10.2172/1769735 |
AI4ESP1133 | Physics-Informed Machine Learning from Observations for Clouds, Convection, and Precipitation Parameterizations and Analysis | Paul Ullrich | 10.2172/1769762 |
AI4ESP1134 | Black-Box Neural System Identificationand Differentiable Programmingto Improve Earth System Model PredictionsFebruary | Nathan Urban | 10.2172/1769681 |
AI4ESP1135 | Using Machine Learning to Develop a Predictive Understanding of the Impacts of Extreme Water Cycle Perturbations on River Water Quality | Charuleka Varadharajan | 10.2172/1769795 |
AI4ESP1136 | Observational Capabilities to Capture Water Cycle Event Dynamics and Impacts in the Age of AI | Charuleka Varadharajan | 10.2172/1769755 |
AI4ESP1137 | Using machine learning to improve land use/cover characterization and projection for scenario-based global modeling | Alan Di Vittorio | 10.2172/1769796 |
AI4ESP1138 | A science paradigm shift is needed for Earth and Environmental Systems Sciences (EESS) to integrate Knowledge-Guided Artificial Intelligence (KGAI) and lead new EESS-KGAI theories | Nathalie Voisin | 10.2172/1769651 |
AI4ESP1139 | AI-Driven Cross-Domain Knowledge Discoveryand Hypotheses Generation for Enhanced Earth System Predictability | Svitlana Volkova | 10.2172/1769670 |
AI4ESP1140 | Automated Custom Calibration for E3SM | Benjamin M. Wagman | 10.2172/1769677 |
AI4ESP1141 | Development of Explainable, Knowledge-Guided AI Models to Enhance the E3SM Land Model Development and Uncertainty Quantification | Dali Wang | 10.2172/1769696 |
AI4ESP1142 | A Hybrid Climate Modeling System Using AI-assisted Process Emulators | Jiali Wang | 10.2172/1769645 |
AI4ESP1143 | Exploring variability in seasonal average and extreme precipitation using unsupervised machine learning. | Michael Wehner | 10.2172/1769708 |
AI4ESP1144 | High-Accuracy Module Emulators from Physically-Constrained AI Algorithms | Anthony S. Wexler | 10.2172/1769715 |
AI4ESP1145 | Quality Data Essential for Modeling Water Cycles Effectively | John Wu | 10.2172/1769769 |
AI4ESP1146 | How AI Predicts the Untrained and Unseen | Yuxin Wu | 10.2172/1769716 |
AI4ESP1147 | Process-based Neural Network to Forecast Vegetation Dynamics | Chonggang Xu | 10.2172/1769768 |
AI4ESP1148 | A HPC Theory-Guided Machine Learning Cyberinfrastructure for Communicating Hydrometeorological Data Across Scales | Haowen Xu | 10.2172/1769644 |
AI4ESP1149 | Mapping hydrologic and biogeochemical information flows to improve predictive modelsand understand climate influence | Zexuan Xu | 10.2172/1769747 |
AI4ESP1150 | Multiscale Reduced Order Modeling and Parameter Estimation for Climate Sciences | Arvind Mohan | 10.2172/1769752 |
AI4ESP1151 | AI Scaling Laws for Extremes (AISLE) | Da Yang | 10.2172/1769661 |
AI4ESP1152 | Process Discovery through Assimilation of Complex Biogeochemical Datasets | Mavrik Zavarin | 10.2172/1769767 |
AI4ESP1153 | AI as a Bridge between ARM Observationsand E3SM for improving Clouds and Precipitation | Yunyan Zhang | 10.2172/1769657 |
AI4ESP1154 | Improve wildfire predictability driven by extreme water cycle with interpretable physically-guided ML/AI | Qing Zhu | 10.2172/1769720 |
AI4ESP1155 | Hybridizing Machine Learning and Physically-based Earth System Models to Improve Prediction of Multivariate Extreme Events (AI Exploration of Wildland Fire Prediction)Â | Yufei Zou | 10.2172/1769718 |
AI4ESP1013 | AI-Automated Detection of Subgrid-scale Processes for Adaptivity Guidance | Julie Bessac | 10.2172/1769664 |
AI4ESP1156 | Represent precipitation-induced geological hazards in Earth system models using artificial intelligence | Zeli Tan | 10.2172/1784543 |