Jean-Francois Mercure

Dr. Jean-Francois Mercure


Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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8 July 2020 in Nature
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DBDavid J. Beerling
David J. Beerling
EKEuripides P. Kantzas
Euripides P. Kantzas
MLMark R. Lomas
Mark R. Lomas
PWPeter Wade
Peter Wade
RERafael M. Eufrasio
Rafael M. Eufrasio
SBSteven Banwart
Steven Banwart

17 October 2023 in Nature Communications
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Journal Article
Open access
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FNFemke Nijsse
Femke Nijsse
JMJean-Francois Mercure
Jean-Francois Mercure
NANadia Ameli
Nadia Ameli
Francesca LarosaFrancesca Larosa
Francesca Larosa
SKSumit Kothari
Sumit Kothari
HPHector Pollitt
Hector Pollitt
Decarbonisation plans across the globe require zero-carbon energy sources to be widely deployed by 2050 or 2060. Solar energy is the most widely available energy resource on Earth, and its economic attractiveness is improving fast in a cycle of increasing investments. Here we use data-driven conditional technology and economic forecasting modelling to establish which zero carbon power sources could become dominant worldwide. We find that, due to technological trajectories set in motion by past policy, a global irreversible solar tipping point may have passed where solar energy gradually comes to dominate global electricity markets, without any further climate policies. Uncertainties arise, however, over grid stability in a renewables-dominated power system, the availability of sufficient finance in underdeveloped economies, the capacity of supply chains and political resistance from regions that lose employment. Policies resolving these barriers may be more effective than price instruments to accelerate the transition to clean energy.

23 March 2020 in Nature Sustainability
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Journal Article
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FKFlorian Knobloch
Florian Knobloch
SHSteef V. Hanssen
Steef V. Hanssen
ALAileen Lam
Aileen Lam
HPHector Pollitt
Hector Pollitt
PSPablo Salas
Pablo Salas
JMJean-Francois Mercure
Jean-Francois Mercure

1 October 2020 in Wires Climate Change
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Journal Article
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GSGregor Semieniuk
Gregor Semieniuk
ECEmanuele Campiglio
Emanuele Campiglio
JMJean-Francois Mercure
Jean-Francois Mercure
UVUlrich Volz
Ulrich Volz
NENeil R. Edwards
Neil R. Edwards
The transition to a low‐carbon economy will entail a large‐scale structural change. Some industries will have to expand their relative economic weight, while other industries, especially those directly linked to fossil fuel production and consumption, will have to decline. Such a systemic shift may have major repercussions on the stability of financial systems, via abrupt asset revaluations, defaults on debt, and the creation of bubbles in rising industries. Studies on previous industrial transitions have shed light on the financial transition risks originating from rapidly rising “sunrise” industries. In contrast, a similar conceptual understanding of risks from declining “sunset” industries is currently lacking. We substantiate this claim with a critical review of the conceptual and historical literature, which also shows that most literature either examines structural change in the real economy, or risks to financial stability, but rarely both together. We contribute to filling this research gap by developing a consistent theoretical framework of the drivers, transmission channels, and impacts of the phase‐out of carbon‐intensive industries on the financial system and on the feedback from the financial system into the rest of the economy. We also review the state of play of policy aiming to protect the financial system from transition risks and spell out research implications.This article is categorized under: Climate Economics > Economics and Climate Change

4 June 2018 in Nature Climate Change
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JMJean-Francois Mercure
Jean-Francois Mercure
HPH. Pollitt
H. Pollitt
JVJ. E. Viñuales
J. E. Viñuales
NEN. R. Edwards
N. R. Edwards
PHP. B. Holden
P. B. Holden
FKF. Knobloch
F. Knobloch

26 May 2022 in Nature Climate Change
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Journal Article
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GSGregor Semieniuk
Gregor Semieniuk
PHPhilip B. Holden
Philip B. Holden
JMJean-Francois Mercure
Jean-Francois Mercure
PSPablo Salas
Pablo Salas
HPHector Pollitt
Hector Pollitt
JVJorge E. Viñuales
Jorge E. Viñuales
The distribution of ownership of transition risk associated with stranded fossil-fuel assets remains poorly understood. We calculate that global stranded assets as present value of future lost profits in the upstream oil and gas sector exceed US$1 trillion under plausible changes in expectations about the effects of climate policy. We trace the equity risk ownership from 43,439 oil and gas production assets through a global equity network of 1.8 million companies to their ultimate owners. Most of the market risk falls on private investors, overwhelmingly in OECD countries, including substantial exposure through pension funds and financial markets. The ownership distribution reveals an international net transfer of more than 15% of global stranded asset risk to OECD-based investors. Rich country stakeholders therefore have a major stake in how the transition in oil and gas production is managed, as ongoing supporters of the fossil-fuel economy and potentially exposed owners of stranded assets.