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Harnessing AI for climate resilience: University of Chicago’s AICE initiative

Harnessing AI for climate resilience: University of Chicago’s AICE initiative
Harnessing AI for climate resilience: University of Chicago’s AICE initiative | Photo: Philipp Katzenberger


In an era where climate change poses unprecedented challenges to global ecosystems and societies, the University of Chicago’s AI for Climate Initiative (AICE) emerges as a beacon of innovation. By leveraging artificial intelligence (AI) and machine learning (ML), AICE addresses critical aspects of the United Nations’ Sustainable Development Goals (SDGs), particularly SDG 13 (Climate Action) and SDG 11 (Sustainable Cities and Communities).


The initiative integrates advanced computational techniques with climate science to enhance disaster preparedness, improve climate modeling, and inform policy responses. With extreme weather events increasing, 772 such events were recorded globally in 2016, triple the number in 1980, the urgency to develop precise, data-driven solutions is undeniable. AICE’s mission to tackle climate extremes, optimise carbon capture, and refine weather prediction offers a pathway to a more resilient global society.


AI-driven solutions for a sustainable future


AICE, a programme under the University of Chicago’s Data Science Institute and the Institute for Climate and Sustainable Growth, exemplifies interdisciplinary collaboration. It unites experts in climate science, computer science, and public policy to address pressing environmental challenges. The initiative focuses on three core areas: improving climate prediction capabilities, quantifying socioeconomic impacts of climate change, and developing adaptation strategies. For instance, AICE researchers are enhancing hurricane trajectory models using AI, enabling more accurate predictions of storm paths and intensities. These advancements, as demonstrated by models like Google DeepMind’s Weather Lab, can reduce errors in cyclone track forecasts, potentially saving thousands of lives through timely evacuations.


Beyond hurricanes, AICE employs satellite data to enable early wildfire detection. By analysing vast datasets, AI algorithms identify patterns that signal fire risks, allowing for proactive mitigation. In 2023, wildfires globally caused $25 billion in damages, underscoring the need for such tools. Similarly, AICE’s work on urban heat island prediction supports SDG 11 by helping cities anticipate and mitigate heatwaves, which affected over 1.5 billion people in 2022. These efforts align with global goals to build resilient infrastructure and protect vulnerable populations, ensuring sustainable urban development.


The initiative also explores carbon capture optimisation, a critical component of SDG 13. AI-driven models can enhance the efficiency of direct air capture systems, potentially reducing global greenhouse gas emissions by 5–10% by 2030, according to recent estimates. By integrating real-time data from sensors and satellites, AICE’s models provide actionable insights for policymakers, fostering evidence-based climate strategies. This synergy of technology and policy underscores AICE’s commitment to open science, making datasets and models accessible to global researchers.


Balancing innovation with responsibility


While AICE’s technical advancements are promising, their success hinges on ethical implementation. AI models must be transparent and free of biases to ensure equitable outcomes, particularly for vulnerable communities disproportionately affected by climate change.


For example, disaster forecasting tools must prioritise regions with limited resources, where 80% of climate-related deaths occur. AICE’s collaboration with economists and policy experts, such as those at the Development Innovation Lab, ensures that its innovations translate into societal impact, aligning with SDG 17 (Partnerships for the Goals).


The initiative’s focus on subseasonal-to-seasonal (S2S) forecasting addresses a critical gap in climate prediction. Traditional models struggle with long-term forecasts due to limited data, but AICE’s hybrid AI-numerical models show promise in predicting events like droughts and heatwaves weeks in advance. Such advancements could reduce agricultural losses, which reached $140 billion globally in 2022 due to extreme weather. By combining physics-informed AI with domain expertise, AICE enhances the reliability of climate models, offering hope for more effective adaptation strategies.

 

AICE’s work is a testament to the power of AI in addressing climate challenges, but its impact depends on global cooperation. Policymakers, scientists, and communities must work together to scale these innovations.


The initiative’s open science approach invites researchers worldwide to build on its findings, fostering a collective effort toward sustainability. To learn more about global efforts in AI-driven climate solutions, explore resources from the Climate Change AI initiative (www.climatechange.ai) or the UN Environment Programme (www.unep.org). By supporting such initiatives, society can move closer to achieving the SDGs and securing a sustainable future.


Sources:

  • University of Chicago Data Science Institute

  • Nature Communications, 2025

  • ResearchGate, 2025

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