Smart Agriculture Engineering for Sustainable Food Systems: Comparative TechnologicalGovernance Analysis of the Netherlands’ Controlled-Environment Horticulture and Japan’sRobot-Enabled Precision Farming Model

Abstract

This article examines how smart agriculture technologies transform food production, resource efficiency,
technological innovation, and sustainable socio-economic development. Using a comparative technological
governance analysis of the Netherlands and Japan, the study argues that smart agriculture should not be
treated as a narrow application of sensors, robotics, or artificial intelligence, but as a socio-technical
engineering system shaped by biological processes, digital infrastructures, institutional coordination, energywater-material flows, and innovation policy. The Netherlands represents a controlled-environment
horticulture model characterized by high-tech greenhouses, climate control, hydroponics, circular water
systems, LED lighting, biological pest management, energy integration, and strong university-industry
collaboration. Japan represents a robot-enabled precision farming model characterized by agricultural
robotics, autonomous machinery, AI-based farm management, sensing systems, labor-saving automation, and
state-supported smart agriculture policy. The findings indicate that Dutch smart agriculture achieves high
productivity through environmental control and resource optimization but faces energy transition and spatial
concentration constraints. Japanese smart agriculture addresses demographic decline and farm labor
shortages through robotics and digital tools but faces diffusion barriers related to farm fragmentation cost, interoperability, and skills. The article contributes to science and engineering scholarship by developing a
conceptual model linking agro-engineering systems, technological integration, institutional coordination,
sustainability performance, and resilient food-system development.
 fragmentation, cost interoperability, and skills. The article contributes to science and engineering scholarship by developing a
conceptual model linking agro-engineering systems, technological integration, institutional coordination,
sustainability performance, and resilient food-system development.