Impact of Dynamic Slab Insulation on Energy Performance of Residential Buildings

Abstract

In this paper, the energy efficiency potential of applying novel dynamic insulation systems to slab foundations is investigated for residential buildings. Specifically, dynamic insulation allows the foundation to change its thermal resistance to reduce both heating and cooling thermal loads compared to static insulation systems. The energy benefits for the dynamic insulation are evaluated using a validated numerical model integrated in state-of-art whole-building simulation tool. Specifically, optimal settings for slab-integrated the dynamic insulation are determined monthly to reduce heating and cooling thermal loads while maintaining thermal comfort for a prototypical house located in representative US climates. The analysis results indicate that the deployment of slab integrated dynamic insulation can reduce heating and cooling energy end-uses by up to 12% (1267 kWh) especially for homes located in cold climates.

Laboratory preparation of LSM and LSF sputtering targets using PTFE rings for deposition of SOFC thin film electrodes

“…Among these devices, solid oxide fuel cells (SOFCs) emerge as standout performers [11,12]. SOFCs excel in transforming the stored chemical energy in fuels like hydrogen and methane into electricity through electrochemical reactions on oxide materials [13][14][15][16][17]. Despite their operational resemblance to batteries, these conversion devices have the capability to continuously generate the required energy as long as a steady supply of fuel is provided [18][19][20].…”