Routhier Michael R, Curran Benjamin R, Carlson Cynthia H, Goddard Taylor A
Institute for the Study of Earth, Oceans and Space, University of New Hampshire, Durham, NH 03824, USA.
Forensis Building Conservators, Baltimore, MD 21208, USA.
Sensors (Basel). 2024 Oct 13;24(20):6591. doi: 10.3390/s24206591.
The effects of climate change in the forms of rising sea levels and increased frequency of storms and storm surges are being noticed across many coastal communities around the United States. These increases are impacting the timing and frequency of tidal and rainfall influenced compound groundwater flooding events. These types of events can be exemplified by the recent and ongoing occurrence of groundwater flooding within building basements at the historic Strawbery Banke Museum (SBM) living history campus in Portsmouth, New Hampshire. Fresh water and saline groundwater intrusion within basements of historic structures can be destructive to foundations, mortar, joists, fasteners, and the overlaying wood structure. Although this is the case, there appears to be a dearth of research that examines the use of wireless streaming sensor networks to monitor and assess groundwater inundation within historic buildings in near-real time. Within the current study, we designed and deployed a three-sensor latitudinal network at the SBM. This network includes the deployment and remote monitoring of water level sensors in the basements of two historic structures 120 and 240 m from the river, as well as one sensor within the river itself. Groundwater salinity levels were also monitored within the basements of the two historic buildings. Assessments and model results from the recorded sensor data provided evidence of both terrestrial rainfall and tidal influences on the flooding at SBM. Understanding the sources of compound flooding within historic buildings can allow site managers to mitigate better and adapt to the effects of current and future flooding events. Data and results of this work are available via the project's interactive webpage and through a public touchscreen kiosk interface developed for and deployed within the SBM Rowland Gallery's "Water Has a Memory" exhibit.
海平面上升、风暴及风暴潮频率增加等气候变化影响,在美国许多沿海社区都已显现。这些变化正在影响受潮汐和降雨影响的复合型地下水洪水事件的发生时间和频率。此类事件的一个例子是,新罕布什尔州朴茨茅斯市具有历史意义的草莓岸博物馆(SBM)生活历史园区内,建筑物地下室近期及持续出现的地下水洪水。历史建筑地下室中的淡水和咸水地下水入侵会对地基、灰浆、托梁、紧固件及上层木结构造成破坏。尽管如此,似乎缺乏研究来探讨利用无线传感网络实时监测和评估历史建筑内地下水淹没情况。在本研究中,我们在SBM设计并部署了一个三传感器横向网络。该网络包括在距离河流120米和240米的两座历史建筑地下室中部署水位传感器并进行远程监测,以及在河流中部署一个传感器。还对两座历史建筑地下室中的地下水盐度水平进行了监测。记录的传感器数据的评估和模型结果提供了陆地降雨和潮汐对SBM洪水影响的证据。了解历史建筑内复合型洪水的来源可以让场地管理者更好地减轻影响,并适应当前和未来洪水事件的影响。这项工作的数据和结果可通过该项目的交互式网页以及为SBM罗兰画廊的“水有记忆”展览开发并部署的公共触摸屏信息亭界面获取。