Report Highlights

Market Overview

Germany's relationship with nuclear power is defined by one of the most consequential energy policy decisions of the 21st century — the Atomausstieg (nuclear phase-out), completed in April 2023 with the shutdown of the last three operating nuclear plants. Yet the global SMR renaissance is forcing a policy and market reassessment, as Germany's industrial base confronts the dual challenge of decarbonising hard-to-abate processes and maintaining competitive energy costs in a Europe that is rapidly rebuilding nuclear capacity.

The German SMR market is currently in a pre-commercial phase — research engagement, policy debate, and industrial demand assessment rather than active deployment. Germany has no licensed SMR designs, no domestic SMR developer, and no committed SMR project pipeline as of 2025. However, a growing coalition of energy-intensive manufacturers (BASF, ThyssenKrupp, Covestro) and data centre operators are actively lobbying for a regulatory pathway for advanced nuclear.

The strategic tension is acute. Germany's industrial electricity prices average EUR 150–180/MWh for large consumers — among the highest in OECD nations and substantially above US, Chinese, and Middle Eastern competitors. This cost gap is driving capacity relocations to North America and the Middle East, with BASF and several specialty chemical producers announcing German plant shutdowns. SMRs, with projected long-run marginal costs of EUR 60–90/MWh, offer the prospect of stable, carbon-free baseload power that could restore industrial competitiveness.

Market sizing is forward-looking: the addressable opportunity for SMR deployment in Germany — contingent on policy reversal and regulatory development — is estimated at 3–8 GWe of capacity by 2040, representing a potential market value of USD 15–35 billion in reactor procurement alone, with multiples in fuel, O&M, and decommissioning services over asset lifetimes.

Key Growth Drivers

German industrial electricity prices of EUR 150–180/MWh for large consumers are 3–4x above US, Chinese, and Middle Eastern benchmarks — a structural competitiveness gap driving deindustrialisation. BASF's announced EUR 10 billion reduction in German capital spending and capacity relocations to Louisiana and China are directly attributable to energy cost differentials. Chemical, steel, and specialty materials companies with global operations are evaluating SMRs as the only long-term solution to decarbonised baseload power at competitive cost. The economic pressure is creating an unusual political coalition: industrial unions (concerned about deindustrialisation) and energy-intensive manufacturers both supporting nuclear re-engagement — a combination that has historically been sufficient to shift German energy policy.

Germany's Atomausstieg is increasingly isolated within the EU, where France, Finland, Sweden, Czech Republic, Poland, Slovakia, and the Netherlands are all pursuing nuclear capacity expansion. The EU taxonomy's inclusion of nuclear as a sustainable finance category, the Nuclear Alliance of 12 EU member states, and the European Commission's positioning of nuclear as complementary to renewables creates a policy environment where German nuclear resistance is an outlier. Domestic political dynamics — CDU/CSU, FDP, and parts of SPD open to nuclear re-engagement — suggest the Atomausstieg could be partially revisited in the 2025–2030 parliamentary cycle, particularly under a CDU-led coalition.

Germany is Europe's largest data centre market by capacity, and the AI-driven surge in compute infrastructure demand is creating concentrated power requirements that renewable sources cannot reliably serve at the scale and reliability that hyperscalers require. Microsoft, Google, and AWS have announced substantial German data centre expansions; each has also signed or is evaluating nuclear power agreements in other markets. The intersection of hyperscaler demand and clean firm power requirements creates a commercially viable SMR offtake scenario independent of broader industrial energy policy debates — and hyperscaler PPAs provide creditworthy offtake that makes SMR project finance bankable without government guarantees.

Market Challenges

Germany's nuclear regulatory framework — the Atomgesetz — was designed to facilitate phase-out, not new construction. Licensing a new nuclear design would require legislative amendment, establishment of new regulatory competencies within federal agencies currently without nuclear licensing staff, and a political consensus that does not yet exist. Even with political will emerging from 2025 elections, the regulatory development timeline for a first SMR licence in Germany is estimated at 7–10 years — pushing any deployment into the mid-2030s at the earliest. This timeline uncertainty is the single largest barrier to commercial engagement by SMR developers investing in regulatory interactions.

Germany's anti-nuclear movement has deep historical roots drawing on Cold War peace activism, post-Chernobyl environmental mobilisation, and Fukushima-era safety concerns. Public opinion polls show majority opposition to nuclear power among German adults, though younger generations show higher receptiveness — particularly when SMRs are framed as a climate solution rather than conventional reactor technology. Overcoming this opposition requires sustained public information campaigns, community engagement mechanisms, and political leadership willing to absorb electoral risk — conditions not currently present in mainstream German political parties most likely to lead future governments, even among CDU/CSU which is cautiously open to nuclear re-engagement but unlikely to make it a campaigning priority.

Emerging Opportunities

High-temperature SMR designs — HTGRs and molten salt reactors — offer process heat at 700–950°C suitable for direct industrial applications including steel production, cement manufacturing, chemical cracking, and hydrogen electrolysis. For Germany's chemical and steel sectors, process heat represents 30–40% of total energy consumption and is the hardest segment to decarbonise via electrification alone. SMR-based process heat and co-located hydrogen production addresses this gap directly, and industrial co-location models (reactor sited within or adjacent to industrial complexes in Ludwigshafen, Leuna, or Duisburg) may be more politically viable than utility-scale grid SMRs.

German industrial consumers can contract for long-term, fixed-price nuclear power from SMR projects sited in Poland, Czech Republic, or Netherlands — transmitted via the European interconnection grid — without requiring any change to German nuclear law. Several SMR developers are marketing this model to German industrial groups, and EU energy market regulations support cross-border PPA structures. Polish SMRs (KHNP project, NuScale evaluation), Czech SMRs (CEZ Dukovany site), and Dutch SMRs (EPZ Borssele site) are all within effective transmission distance from German industrial clusters. This pathway delivers SMR power economics to German industry within a more politically tractable 8–12 year timeline.

Market at a Glance

Leading Market Participants

• NuScale Power
• Rolls-Royce SMR
• GE Hitachi
• Framatome
• Holtec International

Regulatory and Policy Environment

Germany's nuclear regulatory framework — the Atomgesetz — requires legislative amendment before any new nuclear licensing activity can commence. The Strahlenschutzgesetz (Radiation Protection Act) and associated ordinances governing nuclear facility operation are designed for decommissioning management, not new construction licensing. Federal authority over nuclear safety rests with the Federal Ministry for the Environment (BMUV) and the Federal Office for the Safety of Nuclear Waste Management (BASE) — neither of which has active nuclear construction regulatory competency as of 2025. Regulatory rebuilding would require dedicated legislation, international technical assistance, and a new generation of nuclear safety regulators trained from a near-zero domestic base.

Germany participates in IAEA safety standards development and maintains formal EURATOM treaty obligations that preserve its legal capacity to engage in nuclear energy activities. International regulatory cooperation — particularly with France (ASN) and the UK (ONR, conducting Generic Design Assessment on multiple SMR designs) — provides the regulatory reference framework that German policymakers would use to accelerate a domestic licensing pathway. Cross-border PPA procurement from EU-neighbour SMR projects operates under existing EU electricity market regulations (REMIT, CACM) without requiring nuclear regulatory engagement by German authorities — making this the most near-term legally tractable route for German companies to access SMR power.

Long-Term Outlook

By 2034, Germany will have made a policy decision on nuclear re-engagement — either formally initiating regulatory framework development for a domestic SMR pathway or explicitly opting for the cross-border PPA strategy as the permanent approach to accessing clean firm nuclear power. The decision will be driven by industrial competitiveness pressure (the rate of German manufacturing capacity relocation to lower-energy-cost jurisdictions) and energy security calculation (European gas supply vulnerability post-Ukraine conflict).

The cross-border PPA strategy is likely to dominate the 2034 landscape: one to three German industrial majors will have signed long-term PPAs from Polish or Czech SMR projects, providing reference transactions that demonstrate the commercial viability of the cross-border nuclear power access model. Domestic SMR deployment remains possible under a CDU-led government but will not reach commissioning by 2034 given the regulatory development timeline — making Germany a 2038–2042 domestic SMR market under the most optimistic political scenarios.