A new P3 analysis published this week finds today’s EVs need ~95,000 km to ~120,000 km on the average EU grid to offset their higher production footprint. Innovations in battery manufacturing, renewable energy, and recycling could cut the break-even distance to ~50,000 km or even below 30,000 km with 100% renewable charging.

Compared to other studies, from ICCT, IEA, or Carbon Brief, the German research is pretty conservative about the present, but optimistic about the potential to cut battery footprints down to ~20 kg/kWh, which aligns with the best forward-looking scenarios.

P3 Group GmbH is a German-based management consulting and engineering firm, headquartered in Stuttgart. They’re heavily involved in automotive and mobility consulting, advising OEMs (VW, BMW, Daimler, Tesla, etc.), suppliers, and policymakers on EV strategy.

Upcoming BMW iX3 at 21.5k km

However, BMW, for instance, says its upcoming Neue Klasse iX3 50 xDrive reaches carbon parity with a comparable ICE vehicle in approximately 21,500 km when charged using average European grid electricity, ~17,500 km when charged exclusively with renewable electricity. That will be achievable in 2026.

How do they do that? Through renewable energy use and a high share of recycled materials, BMW reduced CO₂e emissions in the supply chain by roughly 35% compared to previous generation models.

Next-generation batteries (Gen6) feature approximately 50% secondary (recycled) cobalt, lithium, and nickel, and achieve 42% lower emissions per watt-hour compared to the Gen5 cells.

The Debrecen (Hungary) plant is the first BMW facility to operate fully on fossil-free electricity, slashing production emissions to just 0.1 tonnes CO₂e per car—two-thirds lower than older plants. And last but not least, according to BMW, the iX3 is exemplary in circularity by design, including one-third secondary materials overall.

Banning ICE counterproductive?

It’s an often-heard argument to defend ICE technology versus electric cars. “EVs aren’t really greener once you count battery production and electricity emissions — so banning ICE too soon could be counterproductive.”

Critics claim EVs have such a large production footprint (especially from batteries made in China with coal electricity) that it takes too long to “pay back” compared to efficient ICEs. That’s precisely what this latest P3 study and others are focusing on.

And the conservative approach of the P3 study might play right into the ICE defender’s hands. In figures, P3’s baseline is that  EV battery production currently causes about ~55 kg CO₂e/kWh. For a mid-size 80 kWh EV, that’s ~4.4 t CO₂e from the battery alone.

Future improvements

This means EVs reach carbon parity vs. ICEs after ~95,000 km on today’s EU grid, or 40–70,000 km with 100% renewable charging. Still, with improvements like 100% renewable energy production, greener production processes, and more recycling, battery production emissions could drop to ~20 kg CO₂e/kWh (a ~60% cut).

This reduces EV break-even to ~50,000 km on the EU mix, or under 30,000 km with renewable charging, P3 says. This looks conservative compared with ICCT/Carbon Brief (~18–21k km) and BNEF’s France case (~25k km).

It’s closer to older or coal-heavier grid assumptions. On 100% renewables, multiple sources indeed find well below 30,000 km—often in the teens of thousands.

Bottom line is that across reputable sources (ICCT, IEA, BNEF, UCS), EVs beat ICE on life-cycle emissions in virtually all regions, with break-even typically ~15–35k km on clean (like France with lots of nuclear) or average European grids and longer where electricity production is still coal-heavy.

Tesla Model Y versus VW Tiguan 1.5 TSI

As battery supply chains decarbonize (and as the EU’s battery-carbon rules are kicking in), both the break-even distance and total life-cycle gap will continue to improve in favor of BEVs.

We put AI to work crawling major recent reports. We asked it to visualize it with a plausible comparison for today, using a Tesla Model Y (75 kWh pack) as the BEV example and a VW Tiguan 1.5 TSI as a representative gasoline SUV.

On today’s average EU grid, a Model-Y-class BEV SUV typically pays back in ~14–17k km (often within the first year or so of driving in Europe). With renewable charging, it’s ~10–13k km. Even with pessimistic battery assumptions, you’re still looking at well under 40k km to break even.

Doing the same exercise with figures of the Belgian grid, a Model-Y-class BEV SUV pays back its higher manufacturing emissions in roughly 15,000 km under reasonable assumptions—and even with very conservative battery assumptions, still ≤ 30,000 km. That’s well within typical first-year mileage for many (company car) drivers in Belgium, those who most use EVs.

Missing several critical environmental dimensions

However, by focusing only on carbon dioxide emissions during the lifecycle of a car, the CO₂ break-even misses several critical environmental dimensions in the EV vs. ICE debate.

EVs, for instance, don’t have toxic or harmful emissions, but ICE cars still do, despite all efforts to filter them out. There are no tailpipe NOₓ, PM₂.₅, or CO emissions. These are major contributors to urban air pollution and have severe health impacts.

EVs also have some non-exhaust particulates caused by tire and brake wear, but regenerative braking reduces brake dust versus ICE. And EVs are three to four times more efficient tank-to-wheel, studies show. Approximately 70 to 80% of the electricity used becomes motion, while with ICE cars, roughly 20 to 25% of the gasoline energy becomes motion.

Circular pathway vs constant footprint

EVs have a circularity pathway; ICEs do not. EVs have a higher up-front mineral demand, which impacts the environment but are more recyclable in the end. Batteries are recyclable, though recycling rates are still low, but are improving as the EU and China impose regulations.

ICE cars are more mature in recycling for metals, but oil is combusted, and is never recoverable. The ICE fuel chain is inherently wasteful, with an enormous oil extraction and refining footprint, fueling a constant demand each year.

Bottom line seems to be that EVs are better overall across nearly every environmental dimension once they’re on the road — but their front-loaded mining impacts (lithium, cobalt, nickel) need careful management via clean supply chains, recycling, and alternative chemistries (like LFP or sodium-ion). ICE vehicles, by contrast, have chronic, continuous impacts from fuel production, combustion, and air pollution.