Welcome to our Lab's website!

We are a group of climate scientists, hydrologists, environmental engineers and data scientists who work on better understanding hydroclimate and its variability across scales, better quantifying and attributing predictability of the Earth system, and exploring adaptation strategies in the face of climate change. In doing so, we use, develop and assess state-of-the-art data science techniques, such deep learning models and expainable artificial intelligence (AI).

Past and current areas of research include improving predictive skill of hydroclimate and extreme events, understanding climate teleconnections and predictability, advancing climate attribution and causal discovery, climate downscaling, among others.

Some representative papers from our Lab have garnered international attention and have been highlighted by publishers. Examples include "A new interhemispheric teleconnection increases predictability of winter precipitation in southwestern US," published in Nature Communications; "Zonally contrasting shifts of the tropical rain belt in response to climate change," published in Nature Climate Change; "Underestimated MJO variability in CMIP6 models," published in Geophysical Research Letters; and "Climate-driven changes in the predictability of seasonal precipitation" published in Nature Communications.

Jan 2025 LAB PHOTO

Read more about our research here.

 

 

Highlighted Research

 

Attribution Benchmarks to introduce objectivity in the XAI assessment

Steps to create attribution benchmarks.

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--> published dataset

 

Zonally contrasting shifts of the tropical rain belt in response to climate change

Difference in the probability density function (ΔPDF) of the location of the ITCZ between the periods 2075–2100 and 1983–2005.

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--> interview

--> UCI news release

 

Climate-driven changes in the predictability of seasonal precipitation

Multi-model ensemble mean changes in seasonal precipitation predictability between historical (1964–2014) and future (2049–2099) periods.  

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--> editors' highlight

 

Simultaneous Bias Correction and spatial Downscaling of climate model Rainfall

Rainfall intensity estimates (mm/d) at return period level T = 5 years. Observations and different products are shown.