Requirements for setting up surface crack monitoring stations: they should be arranged according to the direction of the cracks to ensure that the monitoring data is true and representative. [Model recommendation: TH-LFZ1, IoT integrated device, customized service supported by Yunjing Tianhe]In geological hazard prevention and engineering safety monitoring, the dynamic changes of surface cracks are the core basis for evaluating structural stability, and the authenticity and representativeness of monitoring data directly affect the accuracy of risk warning. The establishment of surface crack monitoring stations must strictly follow the principles of scientific layout, with the primary requirement being to accurately locate monitoring points along the direction of the cracks. Through geological exploration and analysis of crack morphology, sensors should be deployed at key locations such as the beginning, turning points, active expansion areas, and ends of the cracks to ensure that the monitoring range covers the entire life cycle evolution process of the cracks. At the same time, it is necessary to optimize the installation angle and fixing method of sensors based on the geological conditions, terrain fluctuations, and environmental interference factors around the cracks, in order to avoid data distortion caused by vegetation obstruction, surface subsidence, or human activities. In addition, the monitoring station should adopt a multi-sensor collaborative monitoring mode, integrating parameters such as displacement, strain, and inclination to form a three-dimensional perception of the three-dimensional changes in cracks, further enhancing the representativeness of the data. Through scientific deployment and multi parameter fusion, surface crack monitoring stations can accurately capture crack dynamics, providing reliable basis for disaster warning and engineering reinforcement.

1、 Product Introduction

This product is widely used in multiple monitoring fields such as geological disasters, geotechnical engineering, construction engineering, transportation, water conservancy, and municipal engineering. It is particularly suitable for precise monitoring of relative displacement of surface cracks, unloading cracks, and cracks in buildings or structures.

In geological hazard monitoring, it is possible to capture small changes in surface cracks in real time, providing key data for early warning of disasters such as landslides and collapses; In geotechnical engineering, the development trend of unloading cracks can be effectively monitored to ensure engineering safety;

In the field of construction engineering, it is possible to accurately detect the displacement of cracks in buildings or structures, providing scientific basis for the health diagnosis and maintenance of buildings;

In transportation, water conservancy, and municipal engineering, it can also play an important role in ensuring the long-term stable operation of infrastructure.

By using high-precision monitoring data, users can take timely response measures, reduce risks, and ensure the safety of engineering and personnel.

2、 Technical parameters

3、 Product dimension diagram