Trust, Equity, Transparency and Inclusion in Nuclear Energy Governance: Empirical Synthesis of the Q-NPT Framework
Abstract
1. Introduction
2. Materials and Methods
2.1. Information Sources
2.2. Search Strategy
2.3. Inclusion and Exclusion Criteria
- Empirical evidence: Presented survey, experimental, participatory, or case study data on nuclear governance or analogous large-scale energy projects.
- Q-NPT relevance: Addressed at least one of the four Q-NPT principles (trust, equity, stakeholder inclusion, transparency).
- Contextual policy value: Provided authoritative policy guidance, institutional data, or conceptual framing essential for interpreting empirical results.
- Focused exclusively on technical/engineering analyses (e.g., reactor physics, design optimization) without governance or socio-political data.
- Were conceptual only without empirical or policy relevance to Q-NPT.
- Were duplicates, inaccessible full-texts, or non-English language.
2.4. Study Selection
2.5. Data Extraction
2.6. Synthesis Approach
- Transparent and independent regulation predicts public trust.
- Equitable distribution of risks and benefits correlates with community acceptance.
- Structured stakeholder inclusion improves governance outcomes.
3. Results
3.1. Proposition 1: Transparency and Independent Regulation as Predictors of Trust
3.2. Proposition 2: Equity and Fair Benefit Distribution as Drivers of Acceptance
3.3. Proposition 3: Stakeholder Inclusion and Governance Outcomes
3.4. Cross-Proposition Synthesis
4. Discussion
4.1. Global Policy Context
4.1.1. OECD-NEA High-Level Group on Stakeholder Engagement (HLG-SET)
4.1.2. Data Collection, Best Practices, and Cross-Country Learning
4.1.3. International Reports and Comparative Evidence
4.1.4. Risk Communication and Regulatory Transparency
4.1.5. Implications for Q-NPT
4.2. Extending Q-NPT to Emerging Technologies
- The three propositions (P1–P3) are validated across empirical cases and policy initiatives, but their effects are moderated by cultural and institutional factors.
- Q-NPT principles extend to emerging nuclear technologies, guiding transparent, equitable, and participatory governance.
- The framework provides normative direction and design constraints rather than universal rules, maintaining flexibility and practical relevance.
4.3. Operationalization and Theoretical Advancement of Q-NPT
5. Conclusions
Funding
Data Availability Statement
Conflicts of Interest
Appendix A. Addressing Potential Criticisms of Q-NPT
Potential Criticism | Q-NPT Response |
---|---|
Undermines established norms: Promotes greater nuclear access for developing nations, potentially clashing with NPT objectives. | Q-NPT complements NPT safeguards by embedding trust, transparency, and verification. It promotes responsible, peaceful nuclear programs without bypassing global norms. |
Creates “double standards”: Could be seen as preferential treatment for some nations. | Q-NPT is context-sensitive, not preferential. It provides capacity-building and equitable technology sharing to level the playing field and ensure fairness. |
Potential for misuse: Looser access could increase military diversion risks. | Q-NPT incorporates multi-layered oversight, reporting, and stakeholder engagement. Empirical evidence shows trust and transparency reduce misuse incentives. |
Challenges NPT authority: Offering an alternative governance model could weaken NPT legitimacy. | Q-NPT is complementary, not a replacement. It addresses governance gaps while reinforcing NPT principles through practical, transparent mechanisms. |
Ambiguity in implementation: Questions about balancing energy needs with safety and IAEA oversight. | Q-NPT provides adaptable, evidence-informed pathways, supported by case studies, that balance energy expansion with global safety and oversight standards. |
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Proposition | Study | Context | Sample | Key Quantitative Findings | Key Qualitative Insights |
---|---|---|---|---|---|
Trust | [20,21] | Global review (15+ countries) | – | Transparency and engagement are strongest predictors of legitimacy | Inclusion consistently viewed as essential |
[22,23] | Saudi Arabia, nuclear acceptance | 612 | Willingness to pay increases with institutional reliability | Trust in oversight strengthens legitimacy | |
[9,24] | UAE, nuclear perception | 318 | Engagement improved trust (β = 0.65, p < 0.001) | Safeguards and clear risk communication build confidence | |
Equity | [22] | Saudi Arabia, nuclear acceptance | 612 | Fairness predicts willingness to pay | Perceived distributive justice enhances acceptance |
[3,10] | EU nuclear research installations | 405 | Moral norms predict inclusion (β = 0.47, R2 = 0.48) | Fair inclusion of community values drives engagement | |
[4,5] | Finland, Japan, UK, US | 1200 | Participatory areas: 75–80% positive safety vs. 55–60% without | Local economic benefits and fair inclusion increase acceptance | |
Inclusion | [20,21] | Global review | – | Engagement consistently improves legitimacy | Cross-national convergence on inclusion |
[9,24] | UAE, nuclear perception | 318 | Engagement improved perceived safety (β = 0.61, p < 0.001) | Local employment and voice in decisions increase trust | |
[3,10] | EU nuclear research installations | 405 | Attitudes toward inclusion predict engagement (β = 0.53, p < 0.001) | Community inclusion valued intrinsically | |
[4,5] | Finland, Japan, UK, US | 1200 | Structured inclusion yields stronger acceptance | Dialogue and shared decision-making increase legitimacy |
Technology | Proposition Supported | Key Evidence | Governance Implications |
---|---|---|---|
Microreactors | P2 (Equity), P3 (Inclusion) | Participatory design workshops in Southeast Michigan show that standardized designs may conflict with community expectations regarding safety and local benefits [25] | Localized engagement and fair benefit-sharing are essential for social acceptance. |
Blockchain-based governance | P1 (Transparency/Trust) | Applications in spent fuel management and supply chains increase traceability, accountability, and stakeholder confidence [25,26] | Improves trust in oversight but requires regulatory harmonization and institutional capacity. |
Advanced modeling approaches (e.g., quantum probability frameworks) | P1 (Trust), P2 (Equity), P3 (Inclusion) | Quantum probability models illustrate uncertainty and multidimensional trade-offs in nuclear energy decisions [8,27] | Decision legitimacy depends on combining technical rigor with fairness, stakeholder input, and transparency. |
Proposition | Dimension | Example Indicators |
---|---|---|
P1: Trust through transparency | Public confidence; regulatory openness |
|
P2: Equity through fair distribution | Risk–benefit distribution; justice |
|
P3: Inclusion through stakeholder inclusion | Engagement breadth and depth |
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Qudrat-Ullah, H. Trust, Equity, Transparency and Inclusion in Nuclear Energy Governance: Empirical Synthesis of the Q-NPT Framework. Energies 2025, 18, 5423. https://doi.org/10.3390/en18205423
Qudrat-Ullah H. Trust, Equity, Transparency and Inclusion in Nuclear Energy Governance: Empirical Synthesis of the Q-NPT Framework. Energies. 2025; 18(20):5423. https://doi.org/10.3390/en18205423
Chicago/Turabian StyleQudrat-Ullah, Hassan. 2025. "Trust, Equity, Transparency and Inclusion in Nuclear Energy Governance: Empirical Synthesis of the Q-NPT Framework" Energies 18, no. 20: 5423. https://doi.org/10.3390/en18205423
APA StyleQudrat-Ullah, H. (2025). Trust, Equity, Transparency and Inclusion in Nuclear Energy Governance: Empirical Synthesis of the Q-NPT Framework. Energies, 18(20), 5423. https://doi.org/10.3390/en18205423