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Close-up of a stability and vibration sensor on the concrete surface of a bridge walkway. The sensor has a small antenna for real-time alerts, capturing data on bridge movement and environmental conditions. The background shows a distant view of the bridge’s guardrails.

Bridge Stability Sensor Monitoring

Real-time detection of oscillations and vibrations
Early warning systems for structural health management (SHM)
Cloud-based data analysis for continuous assessment
Predictive analytics for improved infrastructure safety

A bridge with a small vibration sensor attached to its side, installed above a flowing river. The sensor monitors structural integrity, with surrounding trees and a concrete bridge support visible in the background.
Diagram illustrating the axis orientations of a tilt sensor, showing the X, Y, and Z axes for longitudinal, transverse, and vertical monitoring on a bridge. Arrows indicate the directions of each axis for sensor placement and measurement.
bridge stability sensor mounted on a metal support beam of a bridge, with a LoRaWAN antenna for remote monitoring. The bridge is surrounded by lush green forested hills, highlighting the sensor's placement for optimal coverage and connectivity.

IoT sensors provide real-time data on structural changes, allowing engineers to detect issues such as oscillations, tilt, or strain before they become critical, ensuring proactive maintenance.

Early Detection of Structural Issues

By monitoring key stability metrics, IoT sensors help prevent accidents, reducing risks to both the public and the structural integrity of the bridge.

Enhanced Safety for Public and Infrastructure

Continuous monitoring helps identify maintenance needs based on actual structural conditions, allowing for efficient, targeted repairs and reducing unnecessary maintenance costs.

Cost-Effective Maintenance Scheduling

With automated data collection, IoT sensors minimize the frequency of on-site inspections, saving time and resources while keeping workers safe from hazardous locations.

Reduced Need for Manual Inspections

Automated alerts are triggered when sensor thresholds are exceeded, enabling a rapid response to potential hazards, such as increased vibration or deformation due to external events.

Real-Time Alerts for Immediate Response

IoT sensors gather extensive data over time, providing valuable insights into a bridge's structural health trends and enabling predictive analysis for future stability management.

Long-Term Structural Health Insight

How your can Monitor Bridge Stability Monitoring 24/7

Close-up view of a vibration sensor mounted underneath a bridge in New Zealand. The sensor is positioned just above the water, with lush green hills in the blurred background, allowing for real-time monitoring of bridge stability.

Simple User Interface

dvanced predictive analytics models use sensor data to forecast structural stress points based on vibration, strain, and environmental factors.

Real-Time Alerts

IoT sensors are configured to send instant alerts when they detect significant movement or strain, enabling fast responses to prevent accidents.

Remote Monitoring

Utilizing LoRaWAN and other long-range IoT networks, our sensors operate in remote or hard-to-access locations, transmitting continuous data to a central platform

IoT Sensor Dashboard.webp

User-Friendly Interface

Our monitoring solution offers a centralized dashboard to view all bridge stability metrics in real-time.

Scalable, and Secure

Easily expand your monitoring network across various bridge sites, maintaining data security and visibility.

Touch  base to set up a no-obligation introduction discussion

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Bridge stability monitoring is crucial for maintaining safe and resilient infrastructure. Our IoT Bridge Stability Sensors integrate state-of-the-art technology with predictive analytics, enabling real-time insights and proactive management for critical assets. Below, we delve deeper into the key components of our system and explain how each technology strengthens bridge stability. 1. Oscillation and Vibration Monitoring Oscillation sensors track the peaks in frequency and amplitude, essential for evaluating a bridge’s dynamic stability. These sensors detect shifts caused by external pressures like high traffic or environmental factors. By capturing detailed vibrational data, they contribute to a comprehensive picture of the bridge’s health. 2. Deformation and Strain Sensors Deformation sensors measure static deflection and dynamic displacement, crucial for understanding the bridge’s flexibility and response to load. Real-time monitoring of these shifts aids in identifying stress points that require attention, supporting maintenance schedules that extend the structure's lifespan. 3. Accelerometers for Modal Analysis Accelerometers provide vital information on the deck's operational modal shapes and frequencies, helping engineers assess bridge stability under different conditions. By synchronizing devices across spans, we obtain accurate measurements of structural vibrations, leading to informed, data-driven maintenance decisions. 4. Joint Monitoring for Structural Flexibility Bridge joints are designed to flex with temperature and load variations, but exceeding these limits can lead to stress fractures. Our joint monitoring sensors track vertical and horizontal movements to ensure joints remain within safe operational boundaries, safeguarding structural health. 5. Tiltmeters for Pier Stability Piers play a foundational role in bridge stability. Tilt sensors monitor lateral and vertical displacements, enabling early detection of any instability. Continuous tilt analysis is vital for long-term bridge health, offering critical data to prevent structural failures. 6. LoRaWAN for Remote Connectivity Our sensors utilize LoRaWAN technology, facilitating data transmission even in isolated areas. This low-power, long-range solution supports extended monitoring periods with minimal maintenance, making it ideal for remote or inaccessible bridges.

Learn More

Two civil engineers wearing orange safety vests and helmets stand by a river in a mountainous area in New Zealand. One engineer is holding a device, while the other operates a laptop mounted on a tripod, monitoring data from a bridge stability inspection using IoT sensors. Snow-capped mountains are visible in the background.
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