Beyond Agrivoltaics: A Governance-Embedded Socio-Technical Systems Architecture for Decentralized Agro-Industrial Ecosystems and Competence-Driven Rural Industrialization

Abstract

Agrivoltaic systems have emerged as a promising strategy for addressing the water
energy-food nexus through the co-location of photovoltaic energy generation and 
agricultural production. However, existing agrivoltaic models are predominantly designed 
to optimize land-use efficiency, energy generation, and crop productivity, with limited 
attention to the institutional, technical, governance, and socio-economic conditions 
necessary for sustainable rural industrialization. This study proposes a governance
embedded socio-technical systems architecture that reconceptualizes agrivoltaics as the 
foundational energy infrastructure for decentralized agro-industrial ecosystems. 
Drawing upon systems engineering, biomimetic design principles, competence 
infrastructure, and community co-development, the study develops an integrated, 
layered framework that systematically links renewable energy generation, agricultural 
production, 
agro-processing, 
governance, 
engineering 
capability, 
institutional 
coordination, and adaptive resilience within a unified systems architecture. The 
methodology integrates conceptual synthesis, socio-technical systems architecture 
development, mathematical representation of subsystem interactions, and an illustrative 
pilot application based on a representative rural community in Nigeria. The proposed 
framework models the dynamic interactions among energy, material, information, 
governance, knowledge, and feedback flows to demonstrate how coordinated subsystem 
integration improves overall system performance, resilience, and sustainability. The 
illustrative application demonstrates the technical feasibility of a decentralized 
agrivoltaic energy node capable of supporting solar-powered irrigation, agro-processing, 
cold storage, and essential community services, while indicating significant potential to 
reduce post-harvest losses, increase local value addition, strengthen engineering 
competence, improve institutional capacity, and enhance community participation. By 
explicitly embedding governance, engineering competence, and community co
development as endogenous system variables, the proposed architecture advances 
agrivoltaics beyond conventional dual land-use optimization toward a scalable, adaptive, 
and competence-driven socio-technical framework for decentralized rural 
industrialization and sustainable development across the Global South.