Architecture Engineers Award

  Improving the thermal performance of building envelopes is a fundamental strategy for reducing energy consumption and enhancing sustainability in the built environment. Conventional insulation materials such as polymer-based boards and mineral panels often experience performance losses due to fire risk, moisture exposure, or long-term durability issues. This study introduces a newly developed Thermal Insulation Plaster (TIP) designed for application on both interior and exterior building façades. The proposed material aims to provide a lightweight, mineral-based insulation solution with improved thermal performance, mechanical strength, and fire resistance. Material Composition and Development of Thermal Insulation Plaster The proposed TIP material was produced by combining coated perlite with Portland cement, anhydrite, and several functional additives. This composition was selected to enhance thermal insulation properties while maintaining adequate structural integrity. The ...

Improving building envelope performance is a critical strategy for reducing heating energy demand and enhancing indoor thermal comfort in cold climates. This study evaluates the thermal effectiveness of four advanced insulation materials—phase change materials (PCM), aerogel, vacuum insulated panels (VIP), and autoclaved aerated concrete (AAC)—through dynamic energy simulations. Using 24 years of hourly climate data, five wall configurations were analyzed, including an uninsulated reference case. The research focuses on annual heating demand, surface temperature stability, thermal time lag, and comfort hours to determine how different material properties contribute to energy efficiency and occupant comfort. Methodological Framework and Simulation Approach The investigation employed dynamic building energy modeling using EnergyPlus, incorporating long-term hourly climate data to ensure robust performance assessment. PCM behavior was simulated through an enthalpy–temperature phase ch...