Architecture Engineers Award

  Residential buildings designed to comply with winter-oriented efficiency standards increasingly struggle to maintain safe indoor conditions during summer heat stress and under long-term climate change. Conventional regulatory frameworks treat building performance as a static compliance outcome rather than a dynamic trajectory shaped by irreversible structural design decisions. This study reconceptualizes residential performance as a time-dependent process influenced by envelope mass, ground coupling, and evolving climatic conditions. Experimental Design and Monitoring Framework The research is based on full-scale experimental monitoring of two identical residential test buildings differentiated by envelope thermal mass and floor-ground interaction. Continuous performance measurements were conducted to capture seasonal energy behavior and indoor thermal responses, particularly under extreme summer conditions. This empirical foundation enables robust comparison of structural des...

Thermotropic (TT) glazing has demonstrated strong energy-saving potential in air-conditioned office buildings located in hot climates. However, its applicability and performance in mixed-ventilated residential buildings—particularly when assessed using the adaptive thermal comfort model—remain insufficiently explored. This study addresses this gap by evaluating TT glazing performance across multiple building performance indicators in residential contexts. Simulation Model Development and Validation A comprehensive building performance simulation model was developed and validated using experimental data to ensure reliability. The validated model enabled accurate assessment of TT glazing behavior under varying climatic and operational conditions, forming a robust foundation for comparative performance analysis against conventional double-clear glazing. Evaluation Framework for Mixed-Ventilated Buildings The study employed a multi-dimensional evaluation framework incorporating availa...