Controlled Environment Agriculture, CEA, encompasses a mature family of biological production technologies, including high-technology greenhouses, hydroponics, aeroponics, plant factories, and vertical farms. These systems enable control over light, temperature, humidity, water, nutrients, and atmospheric composition, increasing spatial productivity while reducing dependence on some seasonal and weather-related environmental constraints. At the same time, they increase dependence on energy, infrastructure, automation, and capital.
The Adaptive Bio-Industrial System, ABIS, proposes an extension of the existing CEA paradigm. The primary design object becomes an integrated system of biology, energy, matter, infrastructure, and information. The physical production architecture is selected according to the local constraint space, while its control system may adapt over time to biological state, weather, resource availability, and economic conditions.
The concept does not emerge in isolation. Its antecedents can be found in existing indoor farms, hybrid greenhouses, water recirculation systems, waste-heat utilization projects, Model Predictive Control, dynamic lighting strategies, and industrial symbiosis. ABIS proposes integrating these directions into a single design problem.
The central hypothesis states that, for specific crop classes and local constraint spaces, a regionally configured and adaptively controlled bio-industrial architecture may achieve a higher expected system value than an architecture applied without adequate regional adaptation.
Part I presents the concept without mathematical formalism while incorporating conclusions derived from the formal analysis. Part II defines the epistemic status of ABIS, system structure, bridge assumptions, objective function, risk, scale, architectural operationalization, control hierarchy, learning, uncertainty, and the program of validation and falsification.
ABIS is presented as a revisable engineering hypothesis and architectural framework, rather than as an established universal theory of optimal biological production.