France produces low-carbon electricity in ever-increasing quantities, and its inhabitants consume less and less of it. The decree on the pluriannual energy programming plan (PPE 3), published in February 2026, raises nuclear production targets to 380-420 TWh per year for 2030-2035, compared to 360-400 TWh in the previous version. Meanwhile, gross 2025 consumption amounts to approximately 6,500 kWh per capita according to the metropolitan France scope. The challenge combines the increase in decarbonized supply and the acceleration of electrification, particularly industrial.
The Essentials
- France raises its nuclear targets to 380-420 TWh/year for 2030-2035, confirming nuclear as a pillar of the electricity mix (PPE 3, February 2026).
- Per capita consumption today is lower than its level in the mid-2000s, after a rise through the end of the 2000s then a non-linear downward trend, reflecting in particular deindustrialization, energy efficiency, and successive crises.
- The gap between available capacity and actual domestic demand reveals an institutional weakness: political grammar and market prices only partially direct low-carbon surplus toward reindustrialization.
- Two opposing interpretations clash: the techno-physical approach that sees low-carbon electricity as a sufficient tool, and the institutionalist approach that additionally demands industrial policy, incentive pricing, and skills development.
- The long-term question is whether French low-carbon electricity will finance a reindustrialization that creates jobs or remain captive to export rents.
The Decline in Consumption Masks Deindustrialization, Not Austerity
Nine thousand three hundred eighty-four kilowatt-hours in 2004. Eight thousand four hundred thirty today. The decline is real, but its interpretation divides. An optimistic reading would see the effect of energy efficiency gains: building insulation, less power-hungry appliances, generalized LEDs. A darker reading sees the trace of an industry that has contracted.
Both readings are true, but not equally. According to data from RTE in its 2025 Electricity Report, the industrial share of French electricity consumption has declined significantly since the early 2000s. Energy-intensive sectors, chemistry, metallurgy, paper and cardboard, have reduced their footprint on the grid; reductions in industrial consumption result from both declines in activity or restructurings and efficiency gains. Household sobriety is real; it masks the void left by industrial chains that have faded away.
A decline in consumption in a heavily industrialized country can signal an improvement in productive efficiency. In France, it accompanies a deindustrialization movement begun two decades ago. This distinction is important for interpreting future trends.
Raised Nuclear Targets Point Toward Demand That Doesn’t Yet Exist
The PPE 3 decree leaves no room for doubt about the direction chosen. France is betting on nuclear as the backbone of its electricity mix while also programming the development of renewables, a decision that contrasts with German or Spanish choices and fuels debate even within pro-decarbonation circles. According to Industrial Info, the new production targets of 380-420 TWh per year for 2030-2035 represent a deliberate raising of ambitions, at the precise moment when domestic demand is stagnating.
This temporal gap deserves attention. Producing more low-carbon electricity without domestic demand to absorb it creates two possible outlets: export to neighboring countries, or stimulation of new demand through electrification of industry and transport. The first option is profitable in the short term and politically comfortable. The second is structurally more useful but requires coordinated industrial policy.
France has historically chosen the first. It has been a net electricity exporter for decades, particularly to Germany, Italy, and the United Kingdom. This model has an economic logic, but it does not solve the problem of domestic industrial decarbonation. Exporting low-carbon electrons helps neighbors decarbonize their mix; it does not decarbonize French steel mills or cement factories.
The Techno-Physical Framework Hits Its Own Limits
Jean-Marc Jancovici has constructed one of the most rigorous analytical frameworks for thinking about energy transition in France. His approach starts from an inescapable physical constraint: all economic activity consumes energy, and decarbonizing the economy means substituting flows of low-carbon electricity for flows of fossil fuels. Within this framework, electron availability is the necessary condition for transition. France, with its nuclear fleet and raised targets, meets this condition better than most of its neighbors.
This is precisely where the French case becomes instructive, and uncomfortable for the techno-physical framework. The electron is available. French industrial electricity prices remain among the most competitive in continental Europe. Yet conversion into effective industrial decarbonation has not occurred at scale. Electricity-intensive industries that should have established themselves or developed in France—hydrogen production, aluminum electrolysis, electric furnaces in steelmaking—remain below the potential that the resource would allow.
The physical tool is there. What is missing is what Jancovici’s framework does not address: a policy of stable and predictable prices over the long term for large industrial consumers, a training policy for electricity-intensive industry trades, and a regulatory framework that reduces plant establishment timelines. These elements pertain less to physics than to political science and institutional economics.
Daron Acemoglu and Simon Johnson, in their work on institutions and technology, show that the availability of a technical tool does not automatically determine its uptake by the largest number. Institutions, contracts, rules, and incentives decide who benefits from technical progress and at what speed. France illustrates this point perfectly: it has the technology and the resource, but its energy market institutions and industrial policy only partially direct this resource toward low-carbon reindustrialization. The case of renewables shows this too: where the institutional framework is clear and stable, deployment accelerates.
Energy Prices and Their Effects on Reindustrialization
The mechanism for electricity price formation in Europe remains one of the most technical and political debates in the transition. In France, the return to competitiveness of industrial prices after the 2021-2022 crisis has been laborious. Long-term fixed-price contracts (PPAs, power purchase agreements) are developing, but their diffusion remains limited to companies with the capacity to negotiate complex contracts with ten to twenty-year horizons. Industrial SMEs, which represent a significant share of reindustrialization potential, have difficulty accessing them.
Spot electricity prices are volatile and complicate visibility for investments in electricity-intensive industries. A steel mill operating electric furnaces needs to know what it will pay for electricity fifteen years from now to decide on its investment today. Current price signals offer insufficient visibility. PPE 3 raises production targets but does not solve this price signal problem.
International comparison is instructive. Sweden and Norway have attracted electricity-intensive industries, including green steel producers and aluminum foundries, by combining abundant energy and stable long-term contracts. Sweden has developed a contractual framework that secures prices over industrial horizons. France is striving to develop comparable mechanisms.
Can French Low-Carbon Electricity Finance Reindustrialization by 2050
In twenty to twenty-five years, French low-carbon electricity will have served either to decarbonize national industry or to finance primarily exports to neighboring countries.
Two trajectories are emerging, and current data allow us to characterize them without definitively deciding between them.
In the first, France builds an active industrial policy around its electrical resource. It develops industrial zones with subsidized energy prices, on the model of Scandinavian abundant-energy zones—it accelerates the training of technicians specialized in electricity-intensive processes, and it simplifies authorization procedures for large-scale factories. Green hydrogen, electric furnaces in steelmaking, green chemistry become export sectors. Low-carbon electricity ceases to be an exported rent to become an internalized competitive advantage. This trajectory requires coordinated industrial policy effort among the State, regions, and operators.
It is plausible, but nothing in PPE 3 explicitly programs it.
In the second, France produces more low-carbon electricity, continues to export it at competitive prices, and the promised industrial jobs remain promises. The gap between installed capacity and domestic demand widens. Export revenues benefit EDF and public finances without creating the industrial employment pools that reindustrialization discourse calls for. This scenario is comfortable in the short term and politically easy to manage; it does not solve the problem posed by the decline in per capita consumption since 2004.
The signals to watch in the coming years are precise. The level of industrial investments in electricity-intensive sectors, announcements of new factories, decisions on electric furnaces in steelmaking, will indicate whether domestic demand is rising. The development of long-term PPA contracts accessible to SMEs will indicate whether the price signal is correcting itself. And the progression of EDF’s export balance will indicate whether the trajectory remains one of rent or whether it bifurcates toward domestic demand.
The question of who captures transition gains is not unique to energy: robotization shows the same mechanism, where a productive advantage concentrates without diffusing due to lack of policy for redistributing gains.
PPE 3: What It Provides and What It Leaves Open
PPE 3 is an energy policy document. It sets production targets, organizes the mix between nuclear and renewables, and commits EDF’s investment trajectories for the next fifteen years. It is a major political act, and it has the merit of clarity on the technological option retained.
What it does not say is at least as important. It contains a detailed demand policy, including sobriety, energy efficiency, electrification, and consumption monitoring, but programs for long-term contracts for electricity-intensive industrialists and mapping of competitive-energy zones would benefit from being strengthened. It links the increase in production to industrial ambition without detailing exhaustive coordination with the Finance Ministry.
France has developed a capacity to produce low-carbon electricity, but the realization of new uses and industrial projects is insufficiently rapid, without demonstrating a total absence of value chains. Inadequate articulation between supply policy and demand policy constitutes an institutional weakness that the decline in per capita consumption reveals. These two projects fall under different ministries, different timelines, and different administrative cultures. Bringing them closer represents a challenge that is more organizational than physical for the years to come.
The resource is there. The question is one of institutions that allow its conversion. This is a question that engineering alone cannot solve.
Sources
- Industrial Info / Clean Energy Wire, France Prioritizes Nuclear Over Renewables in New Energy Law (2026), industrialinfo.com
- RTE, 2025 Electricity Report, rte-france.com (annual report, direct link not guaranteed)
- Daron Acemoglu & Simon Johnson, Power and Progress (2023), PublicAffairs, on the captation of technical progress gains by institutions
