Viskadourakis Zacharias, Grammatikakis Konstantinos, Katsara Klytaimnistra, Drymiskianaki Argyri, Kenanakis George
Institute of Electronic Structure and Laser (IESL), Foundation for Research and Technology-Hellas (FORTH), N. Plastira 100, Vassilika Vouton, 70013 Heraklion, Greece.
Materials Science and Technology Department, University of Crete, Vassilika Vouton, 70013 Heraklion, Greece.
Materials (Basel). 2022 Oct 19;15(20):7315. doi: 10.3390/ma15207315.
Energy self-sufficiency, as well as optimal management of power in buildings is gaining importance, while obtaining power from traditional fossil energy sources is becoming more and more expensive. In this context, millimeter-scale metasurfaces can be employed to harvest energy from microwave sources. They can also be used as sensors in the microwave regime for efficient power management solutions. In the current study, a simple spray printing method is proposed to develop metasurfaces in construction materials, i.e., plasterboard and wood. Such materials are used in the interior design of buildings; therefore, the implementation of metasurfaces in large areas, such as walls, doors and floors, is realized. The fabricated metasurfaces were characterized regarding their electromagnetic performance. It is hereby shown that the investigated metasurfaces exhibit an efficient electromagnetic response in the frequency range (4-7 GHz), depending on the MS. Thus, spray-printed metasurfaces integrated on construction materials can potentially be used for electromagnetic applications, for buildings' power self-efficiency and management.
能源自给自足以及建筑物内电力的优化管理正变得越来越重要,而从传统化石能源获取电力的成本却越来越高。在此背景下,毫米级超表面可用于从微波源收集能量。它们还可在微波频段用作传感器,以实现高效的电力管理解决方案。在当前的研究中,提出了一种简单的喷涂印刷方法,用于在建筑材料(即石膏板和木材)中开发超表面。这些材料用于建筑物的室内设计;因此,可在大面积(如墙壁、门和地板)实现超表面的应用。对制造的超表面的电磁性能进行了表征。结果表明,根据超表面结构的不同,所研究的超表面在频率范围(4 - 7 GHz)内表现出高效的电磁响应。因此,集成在建筑材料上的喷涂印刷超表面有可能用于电磁应用、建筑物的电力自给自足和管理。