Timezone: »
Recent years have seen increased interest in modeling future climate trends, especially from the point of view of accurately predicting, understanding and mitigating downstream impacts. For instance, current state-of-the-art process-based agriculture models rely on high-resolution climate data during the growing season for accurate estimation of crop yields. However, high-resolution climate data for future climates is unavailable and needs to be simulated, and that too for multiple possible climate scenarios, which becomes prohibitively expensive via traditional methods. Meanwhile, deep generative models leveraging the expressivity of neural networks have shown immense promise in modeling distributions in high dimensions. Here, we cast the problem of simulation of climate scenarios in a generative modeling framework. Specifically, we leverage the GAN (Generative Adversarial Network) framework for simulating synthetic climate scenarios. We condition the model by quantifying the degree of ``extremeness" of the observed sample, which allows us to sample from different parts of the distribution. We demonstrate the efficacy of the proposed method on the CHIRPS precipitation dataset.
Author Information
Moulik Choraria (University of Illinois at Urbana-Champaign)
Daniela Szwarcman (IBM-Research Brazil)
Bianca Zadrozny (IBM Research)
Campbell Watson (IBM Research)
I'm an atmospheric scientist at IBM Research where my research spans climate, weather and water. I was a postdoc at Yale University with Prof. Ron Smith, and completed a PhD at the University of Melbourne with Prof. Todd Lane. Currently leading AI for Climate initiatives with the Future of Climate at IBM Research.
Lav Varshney (Salesforce Research)
More from the Same Authors
-
2020 : Investigating two super-resolution methods for downscaling precipitation: ESRGAN and CAR »
Campbell Watson -
2021 : Addressing Deep Learning Model Uncertainty in Long-Range Climate Forecasting with Late Fusion »
Ken C. L. Wong · Hongzhi Wang · Etienne Vos · Bianca Zadrozny · Campbell Watson · Tanveer Syeda-Mahmood -
2021 : Advanced Methods for Connectome-Based Predictive Modeling of Human Intelligence: A Novel Approach Based on Individual Differences in Cortical Topography »
Evan Anderson · Anuj Nayak · Pablo Robles-Granda · Lav Varshney · Been Kim · Aron K Barbey -
2022 : Physics-Constrained Deep Learning for Climate Downscaling »
Paula Harder · Qidong Yang · Venkatesh Ramesh · Prasanna Sattigeri · Alex Hernandez-Garcia · Campbell Watson · Daniela Szwarcman · David Rolnick -
2022 : Generating physically-consistent high-resolution climate data with hard-constrained neural networks »
Paula Harder · Qidong Yang · Venkatesh Ramesh · Prasanna Sattigeri · Alex Hernandez-Garcia · Campbell Watson · Daniela Szwarcman · David Rolnick -
2022 : FIRO: A Deep-neural Network for Wildfire Forecast with Interpretable Hidden States »
Eduardo Rodrigues · Campbell Watson · Bianca Zadrozny · Gabrielle Nyirjesy -
2022 : Aboveground carbon biomass estimate with Physics-informed deep network »
Juan Nathaniel · · Campbell Watson · Gabrielle Nyirjesy · Conrad Albrecht -
2022 : Direct Sampling for extreme weather generation »
Jorge Luis Guevara Diaz · Bianca Zadrozny · Campbell Watson · Daniela Szwarcman · Debora Lima · Dilermando Queiroz · Leonardo Tizzei · Maria Garcia · Maysa Macedo · Priscilla Avegliano -
2022 : FIRO: A Deep-neural Network for Wildfire Forecast with Interpretable Hidden States »
Eduardo Rodrigues · Campbell Watson · Bianca Zadrozny · Gabrielle Nyirjesy -
2022 : Invited talk (Dr Bianca Zadrozny) - "Machine Learning for Climate Risk" »
Bianca Zadrozny -
2021 : Balancing Robustness and Fairness via Partial Invariance »
Moulik Choraria · Ibtihal Ferwana · Ankur Mani · Lav Varshney -
2021 Poster: Evaluating State-of-the-Art Classification Models Against Bayes Optimality »
Ryan Theisen · Huan Wang · Lav Varshney · Caiming Xiong · Richard Socher -
2017 Poster: Probabilistic Rule Realization and Selection »
Haizi Yu · Tianxi Li · Lav Varshney