STRUCTURAL HEALTH MONITORING

NHAZCA at the forefront of structural health monitoring

STRUCTURAL HEALTH MONITORING

NHAZCA at the forefront of structural health monitoring

Structural Health Monitoring (SHM) is NHAZCA’s response to the challenges facing the world’s infrastructure today. The average age of infrastructure, climate change, and increasing capacity demands, require continuous monitoring to ensure safety – and we can do this through cutting-edge technologies that allow us to accurately monitor the static and dynamic behavior of infrastructure over time.

What is Structural Health Monitoring (SHM)?

NHAZCA’s Structural Health Monitoring (SHM) is an approach that allows us to assess and manage the health of infrastructure over time. We do this by using a variety of damage detection techniques to monitor and analyze the conditions of bridges, buildings, dams, and other relevant structures.

Our vision of structural monitoring helps us detect early signs of deterioration or damage, while providing data to organize predictive maintenance and make more strategic decisions.

Our goal is to ensure the safety of infrastructure through real-time monitoring to identify potential threats to structural stability and prevent major damage or even disaster.

Cos'è lo Structural Health Monitoring (SHM)?

Lo Structural Health Monitoring (SHM) di NHAZCA è un approccio che ci permette di valutare e gestire la salute delle infrastrutture nel tempo. Per farlo, utilizziamo una serie di tecniche di rilevamento spostamenti o cambiamenti per monitorare e analizzare le condizioni di ponti, edifici, dighe e altre strutture rilevanti

La nostra visione del monitoraggio strutturale ci aiuta a rilevare i segnali precoci di degrado o danneggiamento, dandoci allo stesso tempo dei dati per organizzare la manutenzione predittiva e prendere decisioni più strategiche.

Il nostro obiettivo è salvaguardare la sicurezza delle infrastrutture con il monitoraggio per identificare ogni potenziale minaccia alla stabilità strutturale, per prevenire danni maggiori o addirittura disastri.

NHAZCA's innovative approach

NHAZCA combines SHM technologies with advanced data-driven predictive models to provide a complete and true picture of structural stability. We integrate innovations in SHM with SHM and artificial intelligence to analyze massive amounts of data in real time and create patterns that would elude traditional approaches. We do this by relying on machine learning and deep learning algorithms that help us detect anomalies and potential warning signs in the infrastructure being monitored, while making accurate predictions about its future behavior.

With this approach, we can guarantee you predictive maintenance, moving from a reactive to a proactive model of securing assets by anticipating problems before they occur.

NHAZCA's technologies for SHM

NHAZCA’s Structural Health Monitoring is intelligent monitoring: it relies on the use of innovative, consistently advanced and proven technologies for the historical characterization of large-scale infrastructure networks, performing non-invasive and cost-effective analyses.

Interferometria SAR e RAR

SAR interferometry is one of the most advanced technologies for structural monitoring. With this technique, we can analyze structural variations based on both terrestrial (TInSAR) and satellite (A-DInSAR) configurations.

Terrestrial and satellite SAR interferometry uses advanced sensors to analyze minimal ground variations to provide a complete view of surface deformations on a large scale. This type of monitoring, made possible by data collected from satellite or ground-based platforms, is critical for land use planning, slope stability assessment, subsidence monitoring, and large structures such as dams, buildings, and various infrastructure.

Terrestrial RAR Interferometry (TInRAR), using SAR configuration and special algorithms, allows the acquisition of three-dimensional maps of displacements, implementing advanced geotechnical monitoring. This technology, combined with the ability to dynamically and statically monitor structures, is a valuable ally in gaining a complete picture of the structural health of infrastructures.

PhotoMonitoring™ e Scansione Laser

PhotoMonitoring™ PhotoMonitoring™ is NHAZCA’s innovation that revolutionizes the traditional approach to monitoring by relying on the vast and easily accessible photographic heritage through the advancement of imaging technology. With PhotoMonitoring™, we use advanced digital image correlation algorithms to analyze displacements and changes with unprecedented accuracy.
PhotoMonitoring™ and laser scanning are advanced structural diagnostic tools that are essential for ensuring the safety and integrity of infrastructure at every stage of its operational life. In fact, terrestrial laser scanning maximizes the effect of photoMonitoring™ by allowing us to quickly acquire detailed data on the three-dimensional geometry of structures and terrain.
This technology is very useful for vibration analysis and structural condition assessment of buildings and infrastructure, working on a very large database to improve the quality of your decisions.

GNSS Systems and UAV Sensors

The Global Navigation Satellite System (GNSS) is a navigation system based on the reception of radio signals emitted by constellations of artificial satellites orbiting the Earth.
This system provides a global positioning service that allows a small receiver to determine the geographic coordinates and thus the position of any point on the Earth’s surface.

Satellite navigation receivers are used for a variety of applications including positioning, navigation and surveillance.

Monitoring with GNSS systems makes it possible to determine the exact position of the receiver with an accuracy of the order of a few millimeters, thus providing information on the deformation of local movements based on the variation of the plano-altimetric position of the monitoring point, i.e. along the north-south, east-west and vertical directions with respect to an absolute reference system.

In the field of natural hazards and large infrastructure projects, UAV systems can be extremely useful for various applications

NHAZCA uses drones in its activities for:
  • Optical inspections to monitor remote or hazardous areas and infrastructure;
  • 3D UAV photogrammetry to reconstruct high-resolution 3D models, DEM (Digital Elevation Model), contour maps, and to detect volume changes by comparing 3D models taken at different times;
  • IR thermography, useful for a variety of purposes such as characterizing fracture zones in rock faces or infrastructure.

NHAZCA's technologies for SHM

NHAZCA’s Structural Health Monitoring is intelligent monitoring: it relies on the use of innovative, consistently advanced and proven technologies for the historical characterization of large-scale infrastructure networks, performing non-invasive and cost-effective analyses.

SAR and RAR Interferometry

SAR interferometry is one of the most advanced technologies for structural monitoring. With this technique, we can analyze structural variations based on both terrestrial (TInSAR) and satellite (A-DInSAR) configurations.

Terrestrial and satellite SAR interferometry uses advanced sensors to analyze minimal ground variations to provide a complete view of surface deformations on a large scale. This type of monitoring, made possible by data collected from satellite or ground-based platforms, is critical for land use planning, slope stability assessment, subsidence monitoring, and large structures such as dams, buildings, and various infrastructure.


Terrestrial RAR Interferometry (TInRAR), using SAR configuration and special algorithms, allows the acquisition of three-dimensional maps of displacements, implementing advanced geotechnical monitoring. This technology, combined with the ability to dynamically and statically monitor structures, is a valuable ally in gaining a complete picture of the structural health of infrastructures

PhotoMonitoring™ and Laser Scanning

PhotoMonitoring™ is NHAZCA’s innovation that revolutionizes the traditional approach to monitoring by relying on the vast and easily accessible photographic heritage through the advancement of imaging technology. With PhotoMonitoring™, we use advanced digital image correlation algorithms to analyze displacements and changes with unprecedented accuracy.

PhotoMonitoring™ and laser scanning are advanced structural diagnostic tools that are essential for ensuring the safety and integrity of infrastructure at every stage of its operational life. In fact, terrestrial laser scanning maximizes the effect of photoMonitoring™ by allowing us to quickly acquire detailed data on the three-dimensional geometry of structures and terrain.

This technology is very useful for vibration analysis and structural condition assessment of buildings and infrastructure, working on a very large database to improve the quality of your decisions.

GNSS Systems and UAV Sensors

The Global Navigation Satellite System (GNSS) is a navigation system based on the reception of radio signals emitted by constellations of artificial satellites orbiting the Earth.

This system provides a global positioning service that allows a small receiver to determine the geographic coordinates and thus the position of any point on the Earth’s surface.

Satellite navigation receivers are used for a variety of applications including positioning, navigation and surveillance.

Monitoring with GNSS systems makes it possible to determine the exact position of the receiver with an accuracy of the order of a few millimeters, thus providing information on the deformation of local movements based on the variation of the plano-altimetric position of the monitoring point, i.e. along the north-south, east-west and vertical directions with respect to an absolute reference system.

In the field of natural hazards and large infrastructure projects, UAV systems can be extremely useful for various applications.

NHAZCA uses drones in its activities for:

  • Optical inspections to monitor remote or hazardous areas and infrastructure;
  • 3D UAV photogrammetry to reconstruct high-resolution 3D models, DEM (Digital Elevation Model), contour maps, and to detect volume changes by comparing 3D models taken at different times;
  • IR thermography, useful for a variety of purposes such as characterizing fracture zones in rock faces or infrastructure.

Advantages and applications of NHAZCA's SHM

Advantages and applications of NHAZCA's SHM

The greatest benefit of NHAZCA’s SHM is its versatility. You can rely on us for everything from detailed stability analyses of bridges, dams, buildings, and other critical infrastructure to advanced monitoring of landslides, sinkholes, and other geologic phenomena that can affect public and private safety.

NHAZCA’s Structural Health Monitoring uses a combination of data-driven approaches and models to assess the static and dynamic behavior of structures.

What can you gain from our assistance?

Increased safety

With continuous monitoring and the ability to detect structural changes, potential damage or deformations , you can take early action to prevent accidents or structural failures.

Improved efficiency

Our analysis is based on an infrastructure management dataset, so you can optimize maintenance plans and focus resources and interventions where and when they are really needed. The result is lower long-term maintenance costs and greater operational efficiency.

Greater stability over time

By continuously monitoring the health of your infrastructure, we can help you identify all the factors that contribute to its degradation over time. Using predictive analytics, we can extend the useful life of your infrastructure so that it maintains its performance and functionality for longer periods of time.

Successful case studies

Monitoraggio delle deformazioni di edifici

Monitoraggio satellitare

Collaudo di un ponte di ferro

Find out more Structural Health Monitoring by downloading our brochure