This device is a smart sensor powered by artificial intelligence image algorithms, and capable of ultra-high-precision displacement measurement. It performs non-contact, long-distance, large viewing-angle, high-frequency, high-precision , and long-termdeformation monitoring on feature sections (installed targets) or natural feature points of objects. By conducting multi-modal modeling analysis on the collected monitoring data, it identifies critical risk areas, providing robust decision-making support for timely risk mitigation and emergency response. The system enables real-time monitoring of deformation, inclination, and deflection, and is widely applied in disaster risk monitoring and early warning for scenarios such as reservoirs, slopes, bridges, tunnels, power grids, railways.

This device is a monitoring system designed for surface displacement monitoring. It supports BeiDou-3 navigation and features high precision, low power consumption (≤1.5W), integrated design, multi-frequency compatibility, cost-effectiveness, and portable installation. Equipped with a compact solar power system, it enables long-term monitoring in diverse scenarios, including geological hazards, road slopes, tailings ponds, open-pit mines, and other deformation monitoring applications.

This device features versatile application scenarios, flexible configuration of monitoring parameters and communication modes, ultra-low power consumption, moderate monitoring accuracy, remote intelligent management and control, integrated alarm triggering, and rapid deployment across multiple scenarios.

This device utilizes high-precision MEMS sensors, offering high reliability, rapid stabilization, and simple deployment (minimal installation accessories, easy assembly). It provides RS485 digital output that directly displays engineering values (displacement or angle) and simultaneously measures temperature at the installation point.度。

This device calculates rainfall by measuring the weight of individual raindrops based on the impact measurement principle. It features versatile application scenarios, flexibly configurable communication modes, ultra-low power consumption, remote intelligent management and control, integrated alarm triggering, and rapid deployment across multiple scenarios. Designed for remote measurement of rainfall parameters (e.g., precipitation amount, rainfall intensity), it ensures reliable monitoring in diverse environments.

This device utilizes the FDR (Frequency Domain Reflectometry) principle to measure soil moisture content across different layers by analyzing frequency variations of electromagnetic waves emitted by the sensor in materials with varying dielectric coefficients. It simultaneously employs a high-precision digital temperature sensor to monitor soil temperature at each layer.

This device is a radar-based water level measurement series developed for hydrological and water conservancy applications, featuring easy installation. The antenna type and mounting configuration are adaptable to specific market scenarios, with optimized microprocessor algorithms ensuring high stability and accuracy. It utilizes standardized communication protocols compliant with international norms, offering simple data transmission and high compatibility with various data terminals or host systems, enabling unified, universal, modular, and scalable multi-device networking.

This device is designed for long-term embedment in hydraulic structures, concrete structures, or soil masses to measure permeability (pore) water pressure within the structure or soil, while synchronously measuring temperature at the installation point. Equipped with compatible accessories, it can be deployed in piezometric pipes or foundation boreholes. The piezometer features an all-stainless-steel construction with compact size, enabling easy placement in confined spaces requiring precise pressure monitoring.