Figure 1. Six Load-Bearing Functions of a Load-Bearing Nuclear State
Description
This dataset supports the figure “Six Load-Bearing Functions of a Load-Bearing Nuclear State” developed under the Nuclear Systems Externality Doctrine (2026). The framework applies a systems-analysis methodology consistent with strategic studies approaches commonly used in defense policy research, scenario modeling, and critical infrastructure assessment. The dataset operationalizes a “load-bearing nuclear state” as a nuclear-armed actor whose structural importance is derived not solely from military capability, but from its embeddedness across multiple global systems. These systems include monetary and reserve currency architecture, global food and agricultural supply chains, energy production and distribution networks, defense-industrial sustainment structures, alliance-based security guarantees, and transnational technology and data infrastructures. The six-function model is designed to decompose systemic dependency into analytically distinct but interdependent categories. Each function represents a discrete vector of global stability transmission. The dataset maps (1) the functional role of the United States within each category, (2) the corresponding global system supported by that function, and (3) the potential second-order externalities associated with abrupt removal or catastrophic disruption of that function. From a RAND-style analytical perspective, the framework is intended to support comparative systems evaluation rather than prediction or scenario advocacy. It enables structured reasoning about how systemic interdependence may concentrate risk in specific state actors whose roles extend beyond conventional measures of national power. The model is compatible with existing literature on complex interdependence, systemic risk theory, deterrence stability, and critical infrastructure vulnerability. The dataset also includes a cross-national comparative matrix of major nuclear-armed states, identifying the degree to which each state exhibits partial or full alignment with the six load-bearing functions. This comparative structure is intended to highlight asymmetries in systemic responsibility and exposure within the contemporary nuclear order. Importantly, the framework does not assign normative judgment, strategic intent, or policy prescription. It does not evaluate the desirability of state collapse, conflict outcomes, or military action. Instead, it provides a structured analytical lens for examining how the removal of a systemically central nuclear state could propagate externalities through financial, agricultural, energy, security, and technological domains. The dataset is intended for researchers in international security studies, defense economics, systems engineering, political economy, and strategic risk analysis. It is designed to support further modeling, scenario simulation, and resilience assessment of global systems under conditions of extreme disruption. Structural interdependence and systemic continuity.
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Steps to reproduce
Reproduction of Figure 1, Six Load-Bearing Functions of a Load-Bearing Nuclear State, follows a structured systems-analytical protocol designed for transparency and independent verification using open-source data. The analytical universe is defined as all publicly recognized nuclear-armed states. Each state is treated as a node in a system-of-systems structure, where the unit of analysis is systemic interdependence rather than national capability or intent. Six fixed functional domains are operationalized: (1) monetary and reserve currency influence, (2) food and agricultural production capacity, (3) energy production and export influence, (4) defense-industrial sustainment capability, (5) alliance and security guarantee structures, and (6) technological and data infrastructure centrality. All inputs are drawn from public, verifiable sources. Monetary data derive from IMF-aligned reserves and central bank disclosures. Agricultural data derive from FAO and USDA statistics. Energy data derive from EIA and IEA reporting. Defense-industrial data derive from SIPRI datasets. Alliance structures are mapped from formal treaty records. Technology infrastructure is assessed using OECD, World Bank, and global digital systems indicators. Variables are normalized using a bounded comparative scaling method to ensure cross-domain comparability. Normalization prevents scale dominance by any single domain. Only externally consequential effects are retained; purely domestic outputs are excluded unless they produce measurable international system impact. Each state receives a domain score reflecting relative systemic influence within each function. Scores reflect structural position in global dependency networks, not absolute production levels. A domain is classified as load-bearing only where disruption produces non-substitutable cross-border systemic effects. A composite systemic centrality index is then constructed by aggregating all six domain scores. Load-bearing classification requires sustained multi-domain convergence above defined thresholds. No single domain determines classification independently. Reproducibility is ensured through an independence condition: any analyst using identical datasets, normalization rules, and thresholds must reproduce equivalent outputs within acceptable variance bounds. This ensures structural derivation rather than author dependency. Finally, outputs are mapped onto the six-function framework to generate Figure 1, representing systemic interdependence across monetary, food, energy, defense, alliance, and technological domains.