PEM Research Programme - A Modular Validation Architecture for Planetary Maintenance and Carrying-Cost Analysis

PEM Research Programme Planetary Maintenance and Carrying-Cost Analysis This OSF project documents the PEM Research Programme: a modular, falsifiable research architecture for analyzing the maintenance costs of large-scale order, technological complexity, infrastructure, and biophysical carrying capacity. The programme does not present a final empirical theory. It provides a structured research framework for testing whether large-scale systems of order generate more long-term stability than they consume in energy, material throughput, administrative effort, security effort, repair effort, technological maintenance, and ecological feedback costs. The guiding distinction is: Historical enforceability is not identical with long-term carrying capacity. A system may be historically successful, institutionally effective, economically productive, technologically advanced, or militarily enforceable while still depending on maintenance costs that may exceed the regenerative capacity of its underlying biophysical and organizational support base. 1. Project Purpose The purpose of this project is to develop a professional research programme for the systematic analysis of: maintenance costs of statehood, administration, military security, economy, and infrastructure; technological gross benefits versus system-maintenance effort; biophysical carrier levels and support-base constraints; feedback damages from complex socio-technical systems; possible low-overhead, polycentric, commons-based, or culturally embedded coordination modes; pilot applications for institutional risk, insurance, infrastructure, and long-term systemic-risk modeling. The project is designed as a research architecture, not as a political manifesto. 2. What This Project Does Not Claim This project does not claim that states, markets, administration, military systems, technology, or artificial intelligence are inherently illegitimate. It does not argue for the abolition of states, economic coordination, public administration, or military institutions. It does not claim that modern civilization is empirically proven to be non-viable. It does not use internal working papers as empirical proof. Instead, the project asks a restricted systems-theoretical question: Under which conditions do the maintenance, control, infrastructure, security, technological, and feedback costs of large-scale order remain within the regenerative capacity of the support systems on which that order depends? 3. Core Research Logic The PEM Research Programme is built around the idea that every durable order must be maintained. Order is not treated as a static state. It is treated as a continuously reproduced condition that requires energy, material, information, labor, control, coordination, repair, security, and feedback management. The central accounting logic is: Long-term viability depends on whether cumulative maintenance costs and feedback damages remain below the regenerative support capacity of the system. In simplified form: Civilizational reserve = biophysical support base − cumulative order costs − feedback damages This model is not interpreted as an immediate collapse predictor. It is a structured way to ask whether a system maintains order through regeneration, efficiency, and repair — or through depletion, externalization, debt, deferred maintenance, or loss of resilience. 4. Core Modules The project is organized around several model modules. Each module has a limited role and does not prove the whole programme by itself. Module 1 — The Maintenance Costs of Order This is the first public anchor paper of the research programme. It examines statehood, military security, administration, and high-throughput economic organization as stabilizing systems that require continuous maintenance. Its central question is: What order performance is produced by states, military systems, administration, and economic organization — and what maintenance, security, energy, material, repair, and feedback costs are required to sustain it? Module 2 — Biophysical Carrier Architecture This module is based on the Biophysical Existence Pyramid. It models higher biological, human, and socio-technical systems as dependent on lower carrier levels: microbes, soils, material cycles, plants, ecological interactions, human biological dependencies, and socio-technical infrastructures. Its role in PEM is to define the support-base logic. Module 3 — Technologically Induced System-Maintenance Effort This module is based on the Solow System Maintenance model. It distinguishes between technological gross benefit and technologically induced maintenance effort, including control, energy, infrastructure, integration, documentation, cybersecurity, coordination, and secondary effort. Its role in PEM is to prevent the assumption that technological complexity automatically produces net systemic efficiency. Module 4 — PEM Framework Architecture This module integrates the above papers into a research programme. It does not claim that the modules prove a closed cascade. It claims that they provide a structured hypothesis architecture that can be operationalized, tested, challenged, revised, or falsified. Module 5 — Claim-Status Matrix This is the epistemic control layer of the project. Each relevant claim is assigned a status, such as: definitional; logically plausible; literature-supported; model-hypothetical; operationalizable; empirically open; falsifiable; insufficiently supported; not admissible without empirical testing. This prevents conceptual overreach and makes open validation gaps visible. 5. Core Variables The programme uses the following core variables: Symbol Meaning B_bio biophysical support base C_order aggregated maintenance cost of order C_state state-related maintenance cost C_admin administrative overhead C_military military and security cost C_economy economic-throughput cost D_feedback feedback damages S_order order performance R_civ civilizational carrying-capacity reserve Omega_civ civilizational overshoot index eta_order order-efficiency ratio These variables are not presented as final validated measurements. They define an operational architecture for later empirical testing. 6. Core Formulas The main formulas used in the programme are: Aggregated order cost C_order(t) = C_state(t) + C_military(t) + C_economy(t) + C_admin(t) Civilizational carrying-capacity reserve R_civ(t) = B_bio(t) − [C_order(t) + D_feedback(t)] Civilizational overshoot index Omega_civ(t) = [C_order(t) + D_feedback(t)] / [B_bio(t) + epsilon] Order-efficiency ratio eta_order(t) = S_order(t) / [C_order(t) + D_feedback(t) + epsilon] Biophysical support-base dynamics dB_bio/dt = G_reg(t) + I_repair(t) − D_use(t) − D_feedback(t) These formulas are preliminary accounting tools. They require operationalization, proxy selection, sensitivity testing, and empirical calibration before they can support quantitative claims. 7. Work Packages The research programme is organized into seven work packages. WP0 — Claim-Status Matrix Purpose: prevent overclaiming and document the epistemic status of each claim. Output: PEM_Claim_Status_Matrix_v0.1.xlsx PEM_Claim_Status_Matrix_v0.1.docx WP1 — Core Paper Purpose: publish the first independent paper. Output: Maintenance_Costs_of_Order_v1.0.pdf Maintenance_Costs_of_Order_v1.0.docx WP2 — OSF Preregistration Purpose: preregister research questions, hypotheses, variables, indices, data strategy, transformations, statistical models, inference criteria, inclusion/exclusion rules, and missing-data handling. Output: OSF_Preregistration_Texts.md WP3 — Variable and Index Dictionary Purpose: define variables, proxies, units, sources, normalization rules, uncertainty, and falsification relevance. Output: PEM_Variable_and_Index_Dictionary_v0.1.docx WP4 — PEM Framework Architecture Purpose: define PEM as a modular validation architecture. Output: PEM_Dacharchitektur_WP4_v0.1.docx WP5 — First Pilot Case Purpose: define the first pilot application. Selected pilot: AI / Data Centers as a Maintenance-Cost Stress Test This pilot is selected because it is current, measurable, institutionally relevant, and connects technological complexity, infrastructure, energy, water, maintenance cost, and risk modeling. WP6 — Data and Pilot Model Purpose: build a table-based pilot dataset before any larger statistical model is attempted. Output: WP6_Data_and_Pilot_Model_v0.1.docx WP6_AI_Data_Centers_Data_Template_v0.1.xlsx WP7 — Publication Path Purpose: define the release sequence through OSF and Zenodo. Output: WP7_Publication_Path_v0.1.docx 8. OSF Repository Structure Recommended OSF folder structure: 01_Core_Paper Maintenance_Costs_of_Order_v1.0.pdf Maintenance_Costs_of_Order_v1.0.docx 02_Preregistration OSF_Preregistration_Texts.md Research_Questions_and_Hypotheses.md Variables_Indices_Models.md 03_PEM_Framework PEM_Research_Programme_v0.1.pdf PEM_Research_Programme_v0.1.docx PEM_Dacharchitektur_WP4_v0.1.docx 04_Model_Modules Biophysical_Existence_Pyramid.pdf Solow_System_Maintenance.pdf Maintenance_Costs_of_Order.pdf 05_Claim_Status_Matrix PEM_Claim_Status_Matrix_v0.1.xlsx PEM_Claim_Status_Matrix_v0.1.docx PEM_Validation_Status_Glossary.md 06_Variables_and_Formulas Variable_Dictionary.md Formula_Appendix.md Index_Construction.md 07_Pilot_Studies Pilot_01_AI_Data_Centers Pilot_02_Administrative_Overhead Pilot_03_Security_Maintenance 08_Data raw processed metadata 09_Outputs figures tables summaries 9. First Pilot: AI / Data Centers The first pilot case is: AI / Data Centers as a Maintenance-Cost Stress Test The pilot does not attempt to