Caught in the Headlights: Can European policy makers reverse their industrial decline in an era of chaos?

A view on Europe's decarbonisation, from Noam Gressel, PhD, CEO of ECO-OS.

TL;DR

In 2000 the European Commission warned that EU energy import dependence would hit 70% by 2030, with Russia supplying 40% of gas. The warning was ignored: dependence on Russian gas rose to 45% by 2021, and the 2022 cut-off left EU industry paying 2-3 times US electricity prices and 4-5 times US gas prices. Energy-intensive output fell ~10% (German chemicals ~20%; over half of aluminium capacity offline). The Commission's 2026 answer - an Electrification Action Plan to double electrification from 23% to 46% by 2040, backed by a €100 billion Industrial Decarbonisation Bank - could save €260 billion a year in fossil imports, but must contend with heavy dependence on Chinese clean-tech (98% of rare-earth magnets, 88% of EV battery imports), a fertiliser-driven food-cost squeeze, and a continent warming twice as fast as the global average that has already booked €822 billion in climate damages. The diagnosis is again correct; the risk is again the implementation gap.

Introduction

Back in the late 1990's European policy makers began promoting decarbonization and renewable energy as a primary strategy to mitigate Europe's growing dependence of foreign, fossil-fuel based energy. The fact that this also served to mitigate global warming was an added benefit. However, the consequences of how poorly this strategy was actually implemented began to come to light with the Russian invasion of Ukraine and was then fully exposed when the United States administration began practicing aggressive trade tactics, starting a worldwide tariff war, signaling an end to an era of unrestricted global trade. The extent of the vulnerability created by Europe's loss of industrial capacity came to bear, and for a good number of years caught European policy makers frozen in the headlights. The failure to act effectively on an existential risk identified well in advance created a serious loss of confidence, by policy makers and the public alike. Now that the same European Commission is in the process of promoting another wave of policies, some intended to fix the flaws of previous decades, it is worthwhile to review the consequences of the policy formulated three decades ago and project what might be the outcomes of current suggestions.

1. The agenda hidden in plain sight: renewable energy and carbon trading as levers for strategic change

1.1 Three green papers, one strategy

The strategic architecture was laid out openly in three Commission documents. The 1996 Green Paper Energy for the Future proposed doubling renewables to 12% of energy consumption by 2010, arguing this would cut CO2, build industry, and improve security of supply. The March 2000 Green Paper on greenhouse gas emissions trading designed the instrument: an EU carbon market, launched early (2005) so Europe could lead implementation of its Kyoto commitment to cut emissions 8% below 1990 levels. The keystone was the November 2000 Green Paper on security of energy supply, which projected that on current trends EU import dependence would rise from 50% to roughly 70% by 2030 - up to 90% for oil and 70% for gas - and flagged that 40% of gas imports already came from Russia and 45% of oil from the Middle East.

1.2 Climate policy as energy-security policy

The 2000 paper fused the two agendas: since Europe could not expand domestic supply, it should manage demand - efficiency, renewables and carbon pricing would simultaneously decarbonise and reduce exposure to Russian and Middle Eastern suppliers. Decarbonisation was never only about climate; it was, from the outset, an industrial and geopolitical strategy hiding in plain sight.

2. Gutting Europe's industrial capacity: the consequences of lazy implementation

2.1 The dependency that grew instead of shrinking

The policy toolkit was built - the ETS launched in 2005 and renewables reached roughly a quarter of energy and nearly half of electricity - but the central warning was ignored. Via Nord Stream 1 (2011) and the planned Nord Stream 2, Russian gas was treated as the cheap bridge fuel, and by 2021 Russia supplied about 45% of EU gas imports - worse than the 40% flagged as a risk in 2000.

2.2 The 2022 shock and the price regime it left behind

Russia's invasion forced in two years what the Green Paper had proposed over thirty: REPowerEU cut Russian gas dependence from 45% (2021) to 15% (2023), with volumes falling from 152 bcm to 36 bcm by 2025 and a full LNG ban due by end-2026. But pipeline gas was replaced by globally priced LNG, and gas - though supplying under a quarter of electricity demand - still sets the marginal price for most market hours. EU firms now face electricity prices 2-3 times and gas prices 4-5 times US levels.

2.3 The industrial bill

Energy-intensive EU output fell about 10% between January 2021 and September 2023; German chemicals fell roughly 20%; over half of EU primary aluminium capacity remained offline in 2024, with output at affected smelters projected to fall a further ~44% in 2026. The IMF estimates the energy shocks will shave about one percentage point off euro-area potential output by 2027. Uncomfortably, recent falls in EU energy use and emissions owe more to shrinking industrial production than to efficiency - some of the climate 'success' is offshored industry. The 2024 Draghi report closed the loop: the 2000 diagnosis was right, but Europe traded Russian molecules for structurally uncompetitive energy costs.

3. Caught in the headlights: can Europe course correct and leap to action?

3.1 The Electrification Action Plan and ETS review

In July 2026 the Commission unveiled its response: make Europe the first 'electro-continent' by doubling electricity's share of final energy from 23% - flat for a decade - to an indicative 46% by 2040, cutting gas imports by over 70%, oil imports by 40%, and the fossil import bill by ~€260 billion per year. Supporting numbers: 200 GW of storage by 2030; a new ETS cap trajectory (linear reduction factor of 3.7% in 2031-35, 1.7% in 2036-40); a €100 billion Industrial Decarbonisation Bank with a €30 billion ETS Investment Booster; lower network charges and energy taxes for energy-intensive users; a dedicated grids package. Analysts note, however, that the 46% target is still bracketed pending impact assessment and many measures remain at 'explore' and 'assess' stage.

3.2 What it means for energy prices and industry

The consensus projection is two-phase: prices stay structurally high to ~2030 (LNG import pricing, €580+ billion of grid investment recovered via tariffs, ETS2 carbon costs on heating and transport from 2027), with the cheap-electron advantage arriving only in the 2030s if renewables, nuclear and storage push gas off the margin. Industrial recovery will be selective: molecule-based capacity (crackers, ammonia, smelters) is largely gone for good, while electricity-intensive manufacturing - green steel, heat-pump-served process heat, storage, grid equipment - can grow if industrial power lands at €50-70/MWh. Expect a smaller but more electrified industrial base: recovery in value added by the mid-2030s is plausible; recovery in heavy tonnage is not.

3.3 The food-security pressure point

Fertiliser sits at the gas-industry-agriculture junction: gas is 70-80% of nitrogen fertiliser production cost; EU mineral fertiliser output remains 10-15% below pre-2022 levels; by April 2026 nitrogen prices stood 71% above the 2024 average; and the EU imports 25-30% of its nitrogen and ~70% of its phosphates. The May 2026 Fertiliser Action Plan bets on green ammonia but commits no specific funding, and farm groups called the short-term response inadequate. EU food availability is not at risk - food costs and farm incomes are, absorbing the transition's pressure alongside €540 million in emergency support.

4. The inevitable uncertainties: can Europe rebuild its industrial capacity and navigate geopolitical tensions and a rapidly warming continent?

4.1 China: enabler and rival at once

The electro-continent runs on Chinese hardware: 98% of EU rare-earth magnets, 88% of EV lithium-ion battery imports (up from 75% in 2019), and over 80% of global solar manufacturing are Chinese. Beijing has weaponised this - two waves of rare-earth export controls in 2025, with ECB economists estimating over 80% of large European firms sit within three intermediaries of a Chinese rare-earth producer. Cheap Chinese kit accelerates the 46% target; the same flow hollows European manufacturing (104,000 EV-sector jobs lost in 2024-25; the solar base collapsed). The emerging strategy is triage: onshore dual-use magnets and batteries, friendshore raw materials, trade freely in low-risk hardware - managed interdependence rather than independence.

4.2 The fastest-warming continent pays twice

Europe is warming twice as fast as the global average. Weather- and climate-related extremes cost the EU €822 billion between 1980 and 2024 - a quarter of it in the last four years - while only ~25% of losses are insured, leaving states as insurer of last resort., The Commission puts needed adaptation spending near €70 billion per year through 2050; Allianz projects heat-related losses through 2030 of ~$130 billion for Germany and ~$240 billion for France. Europe therefore faces three bills at once - mitigation (~2% of GDP in annual investment), adaptation, and rising uninsured damages - competing for the same fiscal space as defence and industrial policy. And since the EU emits only ~6% of global CO2, the adaptation bill arrives regardless of how well its own decarbonisation performs.

4.3 Outlook: the implementation gap is the risk

A sober projection: electrification reaches perhaps 30-35% by 2035 rather than the straight line to 46%; electricity prices converge downward relative to fossil fuels but stay above US levels through 2030; heavy industry stabilises at a permanently smaller footprint while grid-economy sectors grow; food security holds at higher cost. The decisive variables are grid build-out speed and de-risking Chinese inputs. The lesson of 1996-2026 looms over all of it: Europe's diagnosis was right last time too. It was the twenty-year gap between diagnosis and implementation that gutted its industry - and that gap, not the strategy, is what policy makers must now prove they can close.

References

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