Forschung

Projektleitung

Klimawandelanpassung

Jahr

Jahr

2026

2026

Annex 97 / Task 5 Sustainable Cooling in Cities

Annex 97 / Task 5 Sustainable Cooling in Cities

Abstract background featuring a soft gradient in shades of yellow.

Förderstelle

The logo of the Österreichische Forschungsförderungsgesellschaft (FFG).

Österreichische Forschungsförderungsgesellschaft - Energiewende, IEA Ausschreibung 2025

Förderbetrag

288.000€

Konsortium

  • Arizona State University

  • BPIE - Building Performance Institute Europe

  • British University in Dubai, Department of Sustainable Design of Indoor Environment

  • Brunel University

  • CEPT University

  • CEREMA

  • Concordia University, Montreal

  • Department for Energy Security and Net Zero

  • Department of Architecture Graduate School of Engineering, Kobe University

  • ENEA Italian National Agency for New Technologies, Energy and Sustainable Economic Development

  • Fraunhofer Institute for Building Physics IBP

  • Gebze Technical University

  • Högskolan i Gävle

  • Institute of Building Research & Innovation

  • KU Leuven, Faculty of Engineering Technology, Building Physics and Sustainable Design

  • La Rochelle Université

  • Lawrence Berkeley National Lab

  • National Institute for Applied Sciences

  • National Research Council Canada

  • Oxford Brookes University

  • Politecnico di Torino

  • Polytechnic University of Catalunya

  • RMIT University

  • Technical University of Denmark

  • Technical University of Vienna

  • Università degli Studi di Perugia

  • Université de Sherbrooke, Quebec

  • University New South Wales

  • University of Liège

  • University of Southern California

  • VELUX

Kurze Zusammenfassung

Annex 97 Task 5“Sustainable Cooling in Cities” provides an interdisciplinary framework for developing and implementing sustainable cooling strategies in urban environments. By integrating technological innovations, urban design adaptations, and policy measures, it aims to create climate-resilient and liveable cities for the future.

Methodik

The project examines cooling strategies at three scales:

  1. Large Scale (city-wide): e.g., Urban morphology adjustments, wind corridors, and green/blue infrastructures

  2. Medium Scale (neighbourhoods): e.g., shading, vegetation, and cooling materials

  3. Small Scale (immediate surrounding of a building): e.g., efficient cooling technologies such as district cooling, solar cooling, and natural ventilation

The cooling solutions explored include:

  • Nature-based solutions (e.g., vegetation, water features, evaporative cooling)

  • Grey solutions (e.g., reflective materials, structural shading)

  • Mechanical solutions (e.g., district cooling, adsorption chillers, seawater cooling)

  • Soft Solutions (behavioural and operational strategies) (e.g., adaptive usage patterns, public awareness raising)

Ziele

The project aims to advance knowledge on effective heat mitigation and sustainable cooling strategies in cities placing a strong emphasis on the interaction between outdoor heat mitigation and building cooling.

The project has four key objectives:

  1. Fundamentals: Establish environmental criteria and key performance indicators (KPIs) for sustainable cooling.

  2. Methods: Develop simulation and experimental methods for assessing cooling technologies.

  3. Solutions: Identify and evaluate urban cooling and building-specific solutions.

  4. Policy: Promote best practices and evidence-based policymaking.

Group picture of experts from the first preparation workshop in Vienna 2025

A large group of people poses for a photo on stone steps in front of an old church.

©IBRI

Ergebnisse

The project aims to translate scientific research into actionable strategies that benefit policymakers, planners, and engineers. Its key deliverables include:

  • State-of-the-Art Report on urban cooling strategies

  • Development of Key Performance Indicators (KPIs)

  • Guidelines for experiments & simulations

  • Technology profiles

  • Policy recommendations