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A novel scientific framework enables the anticipation of climate risks in ports before critical thresholds are reached

by | 7 Aug, 2025 | cambio climático, Climate Risks, Adaptation and Resilience, General News | 0 comments

The pilot case was implemented at the Port of Llanes (Asturias, Spain), where the system demonstrated its ability to identify critical vulnerabilities in key infrastructure elements—such as breakwaters, quays, and cranes—as well as in strategic services like fishing berth operations

The tool, developed by researchers from IHCantabria and the University of Oxford, integrates compound risk analysis with decision-making processes, enabling its incorporation into port master plans and aligning adaptation, investment, and resilience strategies

In a world where climate change is generating increasingly uncertain scenarios, coastal ports—key logistical nodes for global trade and drivers of regional development—are facing escalating threats arising from the simultaneous interaction of multiple extreme events: high-energy waves, wind, currents, and sea level rise. In response to these challenges, researchers from the Environmental Hydraulics Institute of the Universidad de Cantabria (IHCantabria) and the University of Oxford propose an innovative and actionable scientific solution.

Published in the journal Coastal Engineering, the study —led by Alberto Fernández Pérez, in collaboration with Javier L. Lara and Íñigo J. Losada— introduces a flexible and dynamic adaptation framework for port infrastructures. This framework enables adaptive decision-making before climate risks reach intolerable levels. The proposed approach represents a significant advance over current strategies, which are predominantly static and focused on individual hazards.

From climate signals to Port Planning: Transforming forecasts into strategic decisions 

The methodology introduces an unprecedented integration of quantitative analyses of compound climate risks with an operational monitoring system that combines stress testing and the optimization of decision “triggers.” This enables port authorities not only to assess expected risks but also to act proactively—before structural damage or logistical disruptions occur.

The pilot application at the Port of Llanes (Asturias, Spain) demonstrated the system’s capability to detect critical vulnerabilities in key infrastructure components—such as breakwaters, quays, and cranes—as well as in strategic services like fishing berths. According to the authors, many of these risks are already present and are expected to intensify in the coming decades under a range of climate scenarios.

Strategic impact: A tool aligned with climate transition and the Blue Economy 

Beyond its technical robustness, the research addresses a fundamental challenge on the international climate agenda: how to translate scientific knowledge into public policy and effective investment in adaptation. By establishing concrete and quantifiable thresholds for triggering action, the approach allows for more efficient resource prioritization, avoids maladaptation, and—most importantly—ensures timely intervention.

“Ports are not merely physical infrastructures; they are strategic assets that sustain production systems, connect markets, and generate employment. Protecting them from the impacts of climate change is an investment in both social and economic resilience,” explains Alberto Fernández, lead author of the study.

Thanks to its scalability, the methodology can be extended to other critical coastal assets—such as commercial ports, industrial zones, or coastal defenses—making it a valuable tool for regional and national climate adaptation planning. In this regard, it aligns with the recommendations of the Intergovernmental Panel on Climate Change (IPCC) and with key European regulatory frameworks, including the EU Taxonomy for Sustainable Finance and the Corporate Sustainability Reporting Directive (CSRD).

Science supporting adaptive decision-making 

A key contribution of the study lies in its ability to translate complex climate risk analyses into operational management tools. This “anticipatory action capability” is grounded in rigorous modeling procedures that include stress testing, early warning signal detection, and simulation of thousands of port life-cycle trajectories under future climate conditions.

“The system allows us to define precisely when and how to act, ensuring that adaptation measures are neither delayed nor prematurely implemented,” adds Javier López Lara, co-author of the study.

Toward evidence-based climate governance  

In a context of limited resources and heightened climate uncertainty, this research offers a pragmatic and data-driven approach to guide decision-making. Its modular and replicable design facilitates integration into public policies, procurement processes for port infrastructure, climate impact assessments, and spatial planning strategies.

As the authors emphasize, future developments could include the incorporation of social and environmental indicators as additional “early warning signals,” broadening the scope of the framework toward a more integrated, participatory, and sustainable approach to climate adaptation.

The full content of the article can be accessed through the following link: Flexible adaptation strategies for managing compound Climate Change risks in port infrastructures.

The study proposes a paradigm shift in the adaptation of critical infrastructure: in contrast to traditional adaptation approaches, the new framework is designed to generate flexible and adaptive plans that enable targeted actions at the right time and in the right place