TightEN - ZEB-Laboratory - Temperature behind cladding

<strong>TightEN - ZEB-Laboratory - Temperature behind cladding</strong><br> <em>SINTEF Community - ABK</em> <strong>Description</strong><br> To design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap. See the attached article from IBPC2021 for more information about the project. <strong>Location</strong><br> ZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),<br> <br> <strong>Methodology</strong><br> The instrumentation took place during the construction phase of the building in the period November<br> 2019 to February 2020, and the data logging began in August 2020. The air gap of the walls was<br> instrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy<br> ±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured at<br> three different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surface<br> of the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solar<br> panel. <strong>Acknowledgement</strong><br> The authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894. <strong>Description of data</strong><br> Each file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).<br> The naming of each column is "TXY-Z" where<br> X is facade (<strong>N</strong>orth, <strong>E</strong>ast, <strong>S</strong>outh, <strong>W</strong>est or <strong>R</strong>oof)<br> Y is the position on the facade (1, 2, 3, 4 or 5)*<br> Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding) *only on the North facade is there 5 positions. <em>Update 2022-09-02:</em><br> Added data from 2022-03 - 2022-08<br> Corrected files 2021-02 and 2021-03 <em>Update 2023-01-27:</em><br> Added data from 2022-09 - 2023-01<strong>TightEN项目 - ZEB实验室（ZEB-Laboratory）- 覆层后方温度</strong><br> <em>SINTEF社区 - ABK</em> <strong>项目描述</strong><br> 为设计测试方法以保障建筑通风空气间隙中所用胶带及其他产品的性能，需获取更多关于气候条件，尤其是温度条件的相关知识。近期竣工的ZEB实验室已安装热电偶，用于监测空气间隙内的温度状况。更多项目详情可参阅附件中发表于IBPC2021的学术文章。 <strong>测试地点</strong><br> 特隆赫姆的ZEB实验室建筑（北纬63°24'51''，东经10°24'27''）<br> <br> <strong>测量方法</strong><br> 数据安装工作于2019年11月至2020年2月的建筑施工阶段完成，数据记录始于2020年8月。墙体空气间隙布设了T型热电偶，并通过Campbell Scientific CR1000数据采集器进行测量（精度±0.5 °C，测量范围-40 °C至85 °C）。在每个测点位置（详见附件论文中的图1），空气腔的三个不同位置均会被监测：外立面透气层或沥青屋面防水层表面、空气间隙中部，以及覆层或太阳能电池板的背面。 <strong>致谢</strong><br> 作者衷心感谢ZEB实验室的支持（挪威研究理事会项目编号245663，官网www.zeblab.no）。本研究由挪威研究理事会资助的“TightEN——面向节能建筑围护结构的耐用胶粘密封解决方案”项目支持，项目编号294894。 <strong>数据说明</strong><br> 每个文件代表一个月的测量数据。所有传感器每15分钟采集一次数据。测量系统采用干体校准器进行校准。时间戳采用中欧时间（CET，UTC+1）。<br> 各列命名格式为"TXY-Z"，其中<br> X代表立面方向（北（N）、东（E）、南（S）、西（W）或屋面（R））<br> Y代表立面的测点编号（1, 2, 3, 4或5）*仅北立面设有5个测点<br> Z代表墙体深度（1 - 内部透气层表面，2 - 空气间隙中部，3 - 外部覆层表面） <em>2022年9月2日更新:</em><br> 补充了2022年3月至2022年8月的数据集，并修正了2021年2月及2021年3月的文件。 <em>2023年1月27日更新:</em><br> 补充了2022年9月至2023年1月的数据集。