We theoretically analyze the phenomena of heat, mass transfer, and airflow that occur in urban and architectural environments, and elucidate the complex physical phenomena in these settings. Based on building physics, our research focuses on a “residential environment” that excels in energy efficiency, durability, and well-being (comfort and health), as well as on “advanced building functional design” that incorporates renewable energy and high-performance facility systems. Simply put, we scientifically design buildings that are comfortable to live in and environmentally friendly, employing strategies such as energy conservation, ecological and biophilic design, natural energy application, and zero energy buildings, all utilizing advanced techniques in computer science.
Urban and architectural environments consist of human, building, and facility systems. Therefore, the design of these environments requires a deep understanding of the physiological and psychological needs of the human system, passive design of environmental elements such as heat, light, and air within the building system, and active control of the environment through the facility system.
Our laboratory aims to develop a spatial system-ology that integrates environmental elements and equipment both inside and outside buildings, responsive to the local climate and residents’ living styles. This system-ology strives to enhance the quality of life for residents with minimal mechanical control and to establish guidelines for environmental and functional design.
Member
The Main Research Topics
Dynamic simulation of hygrothermal environment of buildings
Proposition of high performance buildings integrated renewable energy use with mechanical system
Advanced facade designed for Zero Energy Buildings
Future prospects on energy demand of city and buildings and measures to prevent global warming