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Nuclear Lifetime Extension and Industrial Competitiveness

Long-term operation of nuclear power assets serves as a critical mechanism for preserving industrial competitiveness by providing low-marginal-cost baseload electricity and high-temperature thermal energy. Technical feasibility relies on rigorous aging management programs, water chemistry control, and safety standard compliance that extend plant lifespans beyond original design horizons. The resulting cost stability shields energy-intensive industrial sectors from price volatility and supports national industrial capabilities during broader energy transitions.

Objectif

To evaluate the impact of nuclear power plant lifetime extension on industrial competitiveness and energy price stability across mature power markets.

Méthodologie

Comparative techno-economic synthesis and multi-criteria document analysis of reactor aging reports, safety review protocols, and energy market data.

Nouveauté scientifique

Integrates material aging management protocols directly with industrial cost-competitiveness metrics in a unified multi-jurisdictional framework.

Aperçu du document

Ceci est un aperçu succinct. La version complète comprend un texte étendu pour toutes les sections, une conclusion et une bibliographie formatée.

PhD Dissertation

Degree:
Nuclear Lifetime Extension and Industrial Competitiveness

Author:

Group

First M. Last

Advisor:

Dr. First Last

City, 2026

Contents

Introduction
Chapter 1. Theoretical and Regulatory Foundations of Nuclear Asset Management
1.1 Conceptual Framework of Long-Term Operation and Plant Aging
1.2 International Safety Standards and Periodic Safety Review Protocols
1.3 Economic Depreciation Models versus Capital Investment in Life Extension
1.4 Regulatory Licensing Regimes Across Nuclear Energy Jurisdictions
Chapter 2. Methodological Framework for Evaluating Industrial Competitiveness
2.1 Comparative Multi-Criteria Assessment Criteria for Energy Assets
2.2 Capital Expenditure Modeling for Refurbishment and Safety Upgrades
2.3 Levelized Cost of Electricity and Marginal Production Cost Metrics
2.4 Systematic Literature Selection Protocol and Corpus Categorization
Chapter 3. Engineering Aging Mechanisms and Technical Feasibility
3.1 Primary and Secondary Water Chemistry Regimes in Long-Term Operation
3.2 Material Degradation, Embrittlement, and Non-Replaceable Components
3.3 Combined Heat and Power Integration and Thermal Efficiency Optimization
3.4 Operational Reliability and Safety Margin Verification Under Extended Modes
Chapter 4. Economic Dynamics and Market Integration of Extended Nuclear Fleets
4.1 Marginal Cost Advantages in Liberalized Wholesale Electricity Markets
4.2 Impact on National Baseload Stability and Industrial Tariff Competitiveness
4.3 Comparative Competitiveness Against Greenfield Generation and Renewables
4.4 Risk Allocation, State Subsidies, and Long-Term Power Purchase Agreements
Chapter 5. Macroeconomic and Industrial Policy Implications
5.1 Domestic Supply Chain Preservation and Technological Know-How Retention
5.2 Nuclear Technology Export Competitiveness and Industrial Spillovers
5.3 Regional Industrial Clusters and Energy-Intensive Manufacturing Support
5.4 Decarbonization Trajectories and Industrial Carbon Avoidance Cost
Chapter 6. Strategic Perspectives and Comparative International Pathways
6.1 Comparative Assessment of European and Asian Lifetime Extension Programs
6.2 Policy Barriers, Public Acceptance, and Regulatory Uncertainties
6.3 Strategic Roadmap for Optimizing Asset Amortization and Industrial Security
Conclusion
Bibliography

Introduction

Operational lifetime extension of commercial nuclear reactors represents one of the most cost-effective strategies for sustaining baseload power and mitigating industrial energy cost volatility. Extending the operational horizon of existing facilities beyond their original design life amortizes historical capital expenditure while preserving stable, carbon-free generation capacity for domestic manufacturing sectors [7]. Furthermore, technical adaptations such as combined heat and power co-generation enhance overall thermodynamic efficiency without compromising fundamental plant safety envelopes [1].

Despite clear economic advantages, nuclear asset life extension faces complex regulatory hurdles, severe technical aging constraints, and shifting market dynamics. Managing structural degradation, embrittlement of non-replaceable reactor pressure vessels, and water chemistry stability requires substantial capital reinvestment and rigorous periodic safety reviews [8]. In competitive electricity markets, operators must balance the cost of comprehensive component modernization against market price volatility and competing baseload alternatives, creating intricate investment dilemmas [5].

This dissertation evaluates how nuclear long-term operation shapes broader industrial competitiveness and domestic energy security. Through a comparative analytical approach combining technical aging management frameworks and economic generation modeling, the research assesses the trade-offs between regulatory compliance costs and long-term industrial tariff stability [4]. The investigation synthesizes international engineering benchmarks to identify optimal asset life extension models that safeguard industrial productivity across varied national energy systems [7].

2.1 Comparative Multi-Criteria Assessment Criteria for Energy Assets

The methodological framework for evaluating the feasibility and economic yield of nuclear lifetime extension relies on an integrated synthesis of material aging diagnostics and capital expenditure accounting. Assessing asset longevity requires cross-referencing Periodic Safety Review documentation with empirical degradation metrics of non-replaceable primary circuit components [7]. Secondary water chemistry regimes and coolant interaction histories provide critical empirical baselines for verifying that structural embrittlement and corrosion rates remain well within regulatory design margins [8]. By systematizing technical monitoring records and planned refurbishment outlays, the evaluation establishes the net capital requirement necessary to sustain operation beyond initial design limits. These capital parameters are subsequently incorporated into comparative generation cost models, allowing the marginal cost of extended operation to be evaluated against alternative baseload replacement options. This structured multi-criteria approach ensures that downstream industrial competitiveness indicators reflect rigorous safety margins and realistic equipment renewal schedules without reliance on unverified operational assumptions.

References

  1. Safety Analysis About Combined Heat and Power Generation of Nuclear Power Plant
    Shiyao Liu
    Lien DOI
  2. Chemical aspects of lifetime extension at Paks Nuclear Power Plant
    J. Schunk, G. Patek, T. Pintér et al.
    Lien DOI
  3. Nuclear power plant site lifetime
    I. I. Kopytov, G. N. Nozdrin, E. D. Kharchenko et al.
    Lien DOI
  4. Modeling of nuclear power plant export competitiveness and its implications: The case of Korea
    Seungkook Roh, Jae Young Choi, Soon Heung Chang
  5. Economics of nuclear power stations in Russia: Increasing the market competitiveness of producers of electrical power
    L. B. Melamed, A. I. Arkhangel'skaya, M. V. Sigal
  6. The Case of Nuclear Energy in Turkey: From Chernobyl to Akkuyu Nuclear Power Plant
    B. Akcay
  7. Equipment Aging Management and Operational Lifetime Extension at the PAKS Nuclear Power Plant
    T. Katona, A. Ja´nosine´ Bi´ro´, S. Ra´tkai et al.
  8. Review of the Primary and Secondary Water Chemistry Operation of Paks Nuclear Power Plant From the Point of View of Lifetime Extension
    A´rpa´d Doma

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