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Climate science for 2050

  • Guy Brasseur
  • , Detlef Stammer
  • , Pierre Friedlingstein
  • , Gabriele Hegerl
  • , Tiffany Shaw
  • , Kevin Trenberth
  • , Jadwiga Richter
  • , Carolina Vera
  • , André Berger
  • , Helen Cleugh
  • , Steve Easterbrook
  • , Paul Edwards
  • , Daniela Jacob
  • , Michael Mann
  • , Valérie Masson-Delmotte
  • , Gavin Schmidt
  • , Mary Scholes
  • , Thomas Stocker
  • , Martin Visbeck
  • , Guoxiong Wu
  • Max Planck Institute for Meteorology
  • National Center for Atmospheric Research
  • Universität Hamburg
  • University of Exeter
  • University of Edinburgh
  • Department of the Geophysical Sciences, The University of Chicago
  • University of Auckland
  • Conicet - Universidad de Buenos Aires
  • University of Louvain
  • Australian National University
  • University of Toronto
  • Stanford University
  • Helmholtz-Zentrum Hereon GmbH
  • University of Pennsylvania School of Arts and Sciences
  • Université Versailles-Saint Quentin
  • NASA Goddard Institute for Space Studies
  • University of the Witwatersrand, Johannesburg
  • University of Bern, Institute of Applied Physics
  • Christian-Albrechts-University Kiel
  • Institute of Atmospheric Physics Chinese Academy of Sciences

Research output: Contribution to journalArticlepeer-review

Abstract

Knowledge of the functioning of the climate system, including the physical, dynamical and biogeochemical feedback processes expected to occur in response to anthropogenic climate forcing, has increased substantially over recent decades. Today, climate science is at a crossroads, with new and urgent demands arising from the needs of society to deal with future climate change, and the need for the climate science community to refine its strategic goals to meet these demands rapidly. All possible—but currently unknown—worlds in 2050, with a larger global population, unprecedented climate conditions with higher temperatures, more frequent extreme weather events, sea level rise, disrupted ecosystems, changes in habitability and increased climate-induced displacement and migration, and the emergence of new geopolitical tensions, will require limiting society’s vulnerability both through mitigation measures to minimize further warming and through the implementation of innovative adaptation initiatives. The development of a skillful climate information system, based on the most advanced Earth system science, will be required to inform decision-makers and the public around the world about the local and remote impacts of climate change, and guide them in optimizing their adaptation and mitigation agendas. This information will also help manage renewable resources in a warmer world and strengthen resilience to the expected interconnected impacts of climate change. In this paper, we summarize the major advances needed to understand the multiscale dynamics of the Earth system. We highlight the need to develop an integrated information system accessible to decision-makers and citizens in all parts of the world, and present some of the key scientific questions that need to be addressed to inform decisions on mitigation and adaptation. Finally, we speculate about the values and ethics of climate science and the nature of climate research in a world that will be increasingly affected by global warming in a geopolitical context very different from that of recent decades.

Original languageEnglish
Article number1554685
JournalFrontiers in Climate
Volume7
DOIs
Publication statusPublished - 1 Jan 2025

UN SDGs

This output contributes to the following UN Sustainable Development Goals (SDGs)

  1. SDG 7 - Affordable and Clean Energy
    SDG 7 Affordable and Clean Energy
  2. SDG 13 - Climate Action
    SDG 13 Climate Action

Keywords

  • climate
  • climate change
  • climate impacts
  • forcing and feedbacks
  • information
  • resilience

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