Dokhanchi Najmeh Sadat, Arnold Joerg, Vogel Albert, Voelker Conrad
Bauhaus-University Weimar, Department of Building Physics, Coudraystrasse 11A, Weimar 99423, Germany.
Data Brief. 2024 May 17;54:110523. doi: 10.1016/j.dib.2024.110523. eCollection 2024 Jun.
This dataset presents the indoor air temperature collections using the novel technique of Acoustic travel time TOMography (ATOM) in the ultrasonic frequency range. The presented measuring system employs early reflections as sound propagation paths in addition to the travel time of the direct path, effectively combining room acoustics with tomography techniques. The data was collected across various measurement scenarios within the climate chamber laboratory at the Building Physics Department at the Bauhaus-University Weimar. Additionally, the measurements data regarding the phase shift compensating of the utilized preamplifier in the setup are provided. These measurements served to assess the effectiveness of the new ultrasonic measurement system which was presented in the co-published article (Dokhanchi et al., 2024). The developed algorithms provided in this Dataset offers a valuable reference for researchers in the field of acoustic tomography especially those focusing on indoor applications, and the researchers involved in indoor climate monitoring where non-contact indoor air temperature measurements are required.
该数据集展示了在超声频率范围内使用声学传播时间层析成像(ATOM)新技术进行的室内空气温度采集。所展示的测量系统除了利用直达路径的传播时间外,还将早期反射用作声音传播路径,有效地将室内声学与层析成像技术相结合。数据是在魏玛包豪斯大学建筑物理系的气候室实验室的各种测量场景下收集的。此外,还提供了关于设置中所使用前置放大器的相移补偿的测量数据。这些测量用于评估在共同发表的文章(Dokhanchi等人,2024年)中所展示的新型超声测量系统的有效性。本数据集中提供的已开发算法为声学层析成像领域的研究人员,尤其是专注于室内应用的研究人员,以及参与需要非接触式室内空气温度测量的室内气候监测的研究人员提供了有价值的参考。