Bridging urban theory and artificial intelligence: a multi-agent recommendation system for sustainable city development

As cities increasingly rely on AI for sustainability challenges, a critical gap emerges: AI applications in urban planning and safety predominantly proceed without explicit guidance from established urban theories that have guided sustainable development for decades. Our analysis reveals that technology-driven research dominates the field, while problem-driven approaches addressing genuine urban needs remain minimal. To bridge this theory-practice disconnect, we develop a Large Language Model (LLM)-based multi-agent recommendation system [publicly available online] that realigns AI development with sustainable city principles. The system employs specialized agents to recommend appropriate theoretical frameworks, AI methods, and data sources for urban challenges, drawing from classical urban theories. Through diverse case studies, we demonstrate how our approach transforms technology-focused solutions into theory-grounded interventions that address sustainability’s interconnected dimensions. Our framework fundamentally shifts the question from “what can algorithms do?” to “what does this urban challenge require for sustainable outcomes?”—ensuring AI amplifies rather than replaces the theoretical wisdom essential for creating resilient, equitable, and livable cities that contribute to global sustainability targets.

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Publication Details

Journal
npj Urban Sustainability
Published
2026-03-23
DOI
https://doi.org/10.1038/s42949-026-00377-2
Primary Topic
Smart Cities and Technologies
Type
article
Field-Weighted Citation Impact
0.00
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article

Bridging urban theory and artificial intelligence: a multi-agent recommendation system for sustainable city development

Shuihua Wang, Yan Wang, Guangyu Wang, Jiawei Tong et al.
npj Urban Sustainability
Smart Cities and Technologies
article

Bridging urban theory and artificial intelligence: a multi-agent recommendation system for sustainable city development

Shuihua Wang, Yan Wang, Guangyu Wang, Jiawei Tong, John Moraros
article en

Abstract

As cities increasingly rely on AI for sustainability challenges, a critical gap emerges: AI applications in urban planning and safety predominantly proceed without explicit guidance from established urban theories that have guided sustainable development for decades. Our analysis reveals that technology-driven research dominates the field, while problem-driven approaches addressing genuine urban needs remain minimal. To bridge this theory-practice disconnect, we develop a Large Language Model (LLM)-based multi-agent recommendation system [publicly available online] that realigns AI development with sustainable city principles. The system employs specialized agents to recommend appropriate theoretical frameworks, AI methods, and data sources for urban challenges, drawing from classical urban theories. Through diverse case studies, we demonstrate how our approach transforms technology-focused solutions into theory-grounded interventions that address sustainability’s interconnected dimensions. Our framework fundamentally shifts the question from “what can algorithms do?” to “what does this urban challenge require for sustainable outcomes?”—ensuring AI amplifies rather than replaces the theoretical wisdom essential for creating resilient, equitable, and livable cities that contribute to global sustainability targets.

npj Urban Sustainability
University of Liverpool (GB), New York University Shanghai (CN), Xi’an Jiaotong-Liverpool University (CN)
Sustainable cities and communities
Openalex Percentile: Top 14%
Smart Cities and Technologies
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