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Main Authors: Wang, Yiquan, Huang, Tin-Yeh, Gao, Qingyun, Chang, Yuhan, Zhang, Jialin
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2509.25112
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author Wang, Yiquan
Huang, Tin-Yeh
Gao, Qingyun
Chang, Yuhan
Zhang, Jialin
author_facet Wang, Yiquan
Huang, Tin-Yeh
Gao, Qingyun
Chang, Yuhan
Zhang, Jialin
contents Compound heatwaves increasingly trigger complex cascading failures that propagate through interconnected physical and human systems, yet the fragmentation of disciplinary knowledge hinders the comprehensive mapping of these systemic risk topologies. This study introduces the Heatwave Discovery Agent HeDA as an autonomous scientific synthesis framework designed to bridge cognitive gaps by constructing a high fidelity knowledge graph from 8,111 academic publications. By structuring 70,297 evidence nodes, the system exhibits enhanced inferential fidelity in capturing long tail risk mechanisms and achieves a significant accuracy margin compared to standard foundation models including GPT 5.2 and Claude Sonnet 4.5 in complex reasoning tasks. The resulting topological analysis reveals a critical bio ecological mediation effect where biological systems function as the primary non linear amplifiers of thermal stress that transform physical meteorological hazards into systemic socioeconomic losses. We further identify latent functional couplings between theoretically distinct sectors such as the heat induced synchronization of power grid failures and emergency medical capacity saturation. These findings elucidate the dynamics of compound climate risks and provide an empirical basis for shifting adaptation strategies from static sectoral defense to dynamic cross system resilience.
format Preprint
id arxiv_https___arxiv_org_abs_2509_25112
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle AI Driven Discovery of Bio Ecological Mediation in Cascading Heatwave Risks
Wang, Yiquan
Huang, Tin-Yeh
Gao, Qingyun
Chang, Yuhan
Zhang, Jialin
Artificial Intelligence
Multiagent Systems
Compound heatwaves increasingly trigger complex cascading failures that propagate through interconnected physical and human systems, yet the fragmentation of disciplinary knowledge hinders the comprehensive mapping of these systemic risk topologies. This study introduces the Heatwave Discovery Agent HeDA as an autonomous scientific synthesis framework designed to bridge cognitive gaps by constructing a high fidelity knowledge graph from 8,111 academic publications. By structuring 70,297 evidence nodes, the system exhibits enhanced inferential fidelity in capturing long tail risk mechanisms and achieves a significant accuracy margin compared to standard foundation models including GPT 5.2 and Claude Sonnet 4.5 in complex reasoning tasks. The resulting topological analysis reveals a critical bio ecological mediation effect where biological systems function as the primary non linear amplifiers of thermal stress that transform physical meteorological hazards into systemic socioeconomic losses. We further identify latent functional couplings between theoretically distinct sectors such as the heat induced synchronization of power grid failures and emergency medical capacity saturation. These findings elucidate the dynamics of compound climate risks and provide an empirical basis for shifting adaptation strategies from static sectoral defense to dynamic cross system resilience.
title AI Driven Discovery of Bio Ecological Mediation in Cascading Heatwave Risks
topic Artificial Intelligence
Multiagent Systems
url https://arxiv.org/abs/2509.25112