This paper presents the experimental design, testing procedure and a summary of the analysis conducted to identify mold related VOCs and their transport from the cavity to the indoor space, and the evaluation of the influence of experimental factors on this transport.
Indoor surfaces, including building materials, wall cavities, ducts, skin, clothing, dust, and airborne particles are very diverse and are a determining factor of indoor surface chemistry.
Indoor surfaces are diverse, including building materials, wall cavities, ducts, skin, clothing, dust, and airborne particles.
Based on the dynamic simulation of the indoor environment, this paper puts the blinds inside the intermediate cavity, simulates the effect of different locations and inclinations, analysis their influence on ventilation effect, intermediate cavity temperature and indoor temperature.
The air flow and turbulence field inside the cavity is analyzed in the present paper by means of indoor measurements with the testing device.
The window is characterized by two air cavities with one being a ventilation channel for exhausting indoor air to the ambient.
Moreover, the results of a parametric analysis obtained using the validated numerical solution suggest that there is a significant reduction potential in heat transfer through cavity walls while providing acceptable supply air temperature capable of maintaining indoor thermal comfort.
The combined effect of ventilated brick cavity wall with brick projections, designed static sunshade and hollow roof helped to lower indoor air temperature for hotter part of the day in the study period.
