Application of material thermal conductivity based on sensing wearable VR technology in virtual architecture landscape environment design

This study explores the application of material thermal conductivity in virtual architectural landscape environment design, with a focus on analyzing the importance of thermal characteristics in architectural design. To achieve this goal, the study reviewed relevant work and summarized the theoretical basis of material thermal conductivity, especially the application of molecular dynamics and energy minimization methods in thermal conductivity analysis. Through systematic analysis of the thermal conductivity of different building materials, such as cement and metal materials, we found significant differences in thermal conductivity among various materials, which directly affects the thermal comfort and energy efficiency of buildings. Based on this, a sensing wearable module was designed and constructed, which uses signal acquisition technology to monitor the thermal behavior of materials in the virtual architectural landscape environment in real time, thus verifying the practicality of thermal conductivity in environmental design. The research results indicate that the thermal characteristics in virtual architectural landscape environments can be effectively simulated through wearable VR devices, enhancing users’ perception and interactive experience of the building environment. The virtual perception effect demonstrated in this study not only provides architects with more design inspiration and basis but also provides scientific reference for future building material selection.