Abstract

Microgeneration technologies, including solar photovoltaics, small-scale wind turbines, and combined heat and power (CHP) systems, offer a transformative approach to sustainable housing design by enabling decentralized energy production. Integrating microgeneration into residential buildings reduces reliance on centralized grids, lowers greenhouse gas emissions, and enhances energy resilience. This paper explores the design strategies, technological solutions, and policy frameworks that support microgeneration in sustainable housing. Key considerations include building orientation, energy demand assessment, storage solutions, and system integration with smart home technologies for optimal energy efficiency. The adoption of microgeneration is further influenced by economic incentives, regulatory compliance, and occupant behavior. Case studies demonstrate the feasibility and benefits of microgeneration in diverse climatic and socio-economic contexts, highlighting reductions in energy costs, environmental impact, and carbon footprint. Challenges such as initial capital costs, maintenance requirements, and grid compatibility are addressed through innovative design approaches and supportive policies. Additionally, integrating microgeneration with energy management systems and the Internet of Things (IoT) allows real-time monitoring, predictive maintenance, and optimization of energy flows. The findings emphasize that microgeneration not only contributes to sustainable building performance but also promotes broader environmental and social benefits, including energy independence, resilience against energy price fluctuations, and increased public awareness of sustainable practices. Future research directions focus on technological advancements, cost reduction, standardization, and large-scale adoption strategies for sustainable urban housing.