EU phase-out of combustion-engine vehicles: Germany and France want to loosen the ban on combustion-engine cars

The EU’s planned phase-out would largely end sales of new petrol and diesel cars from 2035. Germany and France want more flexibility instead of a rule that effectively limits new cars to zero-emission models. This matters because the change could affect buyers, factories, suppliers, and Europe’s climate targets. The supplied source consists only of headlines, so it does not specify the final proposal.

In practical terms, a softened rule could allow selected vehicles with combustion engines after 2035. Possibilities discussed in public policy include plug-in hybrids, range-extender vehicles, or cars using synthetic fuels. Such options would depend on technical definitions and enforcement. The headlines mention an intended loosening, but provide no detailed mechanism or exemptions.

The current reality is therefore political rather than final. Headlines describe Berlin and Paris as seeking a relaxation, while another reports an agreement between Friedrich Merz and Emmanuel Macron. The outcome would require EU-level decisions. Any change could preserve more engine production, but might also slow the shift toward electric vehicles and reduce expected emissions cuts.

The EU phase-out is commonly understood as a 100% reduction in permitted average CO2 emissions from newly registered cars and vans from 2035. In practice, that means manufacturers would no longer be able to sell ordinary new petrol or diesel cars under the standard system. It is not a requirement to scrap vehicles already on the road. The supplied headlines mention the phase-out but do not state these details.

For example, someone buying a new car in 2036 would generally need a vehicle classified as zero-emission under the EU rules. Someone who already owns a petrol car could normally continue using it. The key mechanism is a fleet-wide emissions target for new vehicles, rather than an immediate ban on every combustion-engine car.

The 2035 date remains the central point in the political dispute. Germany and France are seeking flexibility around how the target is applied. The exact exemptions, technologies, and enforcement arrangements are not provided in the supplied headlines. Any alteration would need EU-level approval and could change the market’s transition path.

New EU cars still use combustion engines in several forms. Conventional petrol and diesel cars account for roughly half of new registrations in recent market data, while many hybrids also combine an engine with an electric motor. The exact figure depends on whether hybrids are included. The supplied headlines provide no sales percentage, so this estimate comes from established market data rather than the article text.

The industry importance is larger than the sales count alone suggests. Engines support factories, component makers, repair networks, engineering teams, and export businesses. A petrol or diesel model may therefore represent many jobs and suppliers across several countries. Electric vehicles use different technologies, so the transition can disrupt established production chains.

That dependence helps explain the political pressure for a softer phase-out. Germany and France are major European automotive countries, and their governments are concerned about industrial competitiveness. However, retaining combustion technology does not guarantee long-term strength. Automakers must also invest in electric vehicles and meet changing global standards while managing the cost of two technology systems.

Germany and France want looser rules because they are protecting a strategically important industry during a difficult transition. Moving from combustion engines to electric vehicles requires new factories, batteries, software, skills, and supply chains. The supplied headlines explicitly describe the auto industry as being in an existential struggle. They do not identify particular companies, losses, or market figures.

The pressure is concrete. Carmakers must finance electric models while combustion vehicles still generate substantial sales and support existing plants. They also face competition from manufacturers that may have lower costs or stronger positions in batteries and software. A rigid 2035 rule could force faster restructuring, potentially leaving factories and suppliers with less work before replacement capacity is ready.

Berlin and Paris therefore seek room for technologies beyond battery-only cars. That could protect investment and employment in the short term, but it carries a trade-off. Delaying change might weaken European firms in electric-vehicle markets. The political question is whether flexibility helps companies manage the transition or allows them to postpone necessary investment.

Loosening the phase-out could have mixed effects. Keeping more combustion or hybrid models available might reduce the immediate cost of complying with the rules and give factories more time to adapt. It could also preserve jobs in engine manufacturing. Yet prices would not automatically fall, because fuel costs, batteries, materials, software, and production scale also influence what buyers pay. The supplied headlines provide no price or employment forecasts.

The main climate mechanism is straightforward. More combustion-engine sales usually mean continued tailpipe CO2 emissions, especially when cars are driven for many years. Hybrids can reduce fuel use in some conditions, but they still burn fuel. Synthetic fuels may also avoid some fossil-carbon emissions only when produced with low-carbon energy and counted under suitable rules.

For European automakers, flexibility could protect competitiveness during a costly transition. But it could also delay investment in electric vehicles and batteries, while rivals move ahead. The final result depends on the design of the rules, consumer demand, energy sources, and how quickly manufacturers build competitive zero-emission models.

A softened phase-out could recognize technologies between conventional combustion cars and battery-only vehicles. Plug-in hybrids combine a battery with a petrol or diesel engine. Range-extender vehicles use electricity for driving while an engine provides additional power. Synthetic-fuel cars retain combustion technology but burn fuel manufactured rather than extracted directly from crude oil. The supplied headlines do not list these alternatives; they are established policy options.

The mechanism differs for each. A plug-in hybrid can drive electrically for shorter trips but uses fuel when its battery is depleted. A range extender can reduce engine use if the battery supplies most movement. Synthetic fuels could fit existing engines, but producing them requires energy and can be inefficient. Their climate benefit depends heavily on how that energy is generated and whether production is genuinely low-carbon.

These alternatives could help manufacturers and consumers adjust more gradually. They may also protect some existing factories and skills. However, complicated exemptions can make rules harder to enforce and emissions harder to predict. EU policymakers must decide whether flexibility supports the transition or weakens the incentive to adopt genuinely zero-emission vehicles.

A combustion engine converts chemical energy into motion by burning petrol or diesel inside cylinders. The expanding gases push pistons, the pistons turn a crankshaft, and gears transfer that rotation to the wheels. The process also produces carbon dioxide because the fuel’s carbon combines with oxygen. It releases other pollutants and loses much energy as heat.

An electric vehicle works differently. Electricity creates magnetic forces in the motor, turning the rotor and wheels directly. There is no fuel combustion at the vehicle’s tailpipe. If the electricity comes largely from low-carbon sources such as wind, solar, hydro, or nuclear power, total operating climate pollution can be much lower than for a fossil-fuel engine.

The comparison depends on the whole energy system and vehicle life cycle. Battery production creates emissions, and electricity may still come partly from fossil fuels. Even so, efficient electric motors and cleaner power generally improve the climate result. The supplied headlines do not discuss engine mechanics or emissions; this explanation uses established scientific knowledge.