Providing real-time insights to detect risks early and ensure long-term structural safety.
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Reliable, innovative, and continuous monitoring solutions for buildings, bridges, hospitals, schools, historical monuments, and tall structures.
Enhance safety and minimize risks through real-time structural health monitoring, ensuring early detection of critical issues.
The advanced damage estimation algorithm accurately identifies structural damage within the first minute following an earthquake.
Advanced monitoring software provides continuous visualization of the structure’s 3D movements in near real time.
Our expert academic staff continuously monitors the data and prepares regular engineering reports. The software also generates real-time alerts and notifies occupants to ensure safe evacuation.
The Yapı Checkup software can quickly and accurately detect post-earthquake structural damage thanks to its advanced damage prediction algorithm.
Structural Health Monitoring (SHM) is the process of continuously measuring and analyzing the performance of a structure such as buildings, bridges, or towers to detect potential damage, ensure safety, and extend service life.
SHM helps identify hidden issues before they become serious problems. It enhances safety, reduces maintenance costs, and provides real-time insights during and after events like earthquakes, strong winds, or heavy usage.
High-rise buildings, bridges, historical monuments, stadiums, tunnels, dams, and other critical infrastructure benefit the most from SHM, especially in earthquake-prone or high-wind regions.
The system uses sensors (such as accelerometers, strain gauges, or displacement sensors) to collect data about the structure’s vibrations, stresses, and movements. Advanced software then analyzes this data to detect anomalies or potential damage.
While SHM cannot physically stop damage, it can provide early warnings and valuable data that allow engineers and owners to take preventive actions before failures occur.
Typical data includes vibrations, acceleration, displacement, strain, tilt, and temperature. These parameters give a detailed picture of how the structure is behaving in real time.
No. SHM operates continuously. It monitors daily performance as well as extreme events like earthquakes, storms, or heavy loads, providing both short-term and long-term safety insights.
Modern SHM systems generate real-time alerts. If unusual or dangerous movements are detected, the system can automatically notify engineers, building owners, and even occupants for safe evacuation.
The initial cost depends on the structure’s size and complexity, but SHM often reduces long-term costs by minimizing unexpected repairs, downtime, and safety risks.
Engineers, architects, building owners, insurance companies, and public authorities use SHM data to make informed decisions about safety, maintenance, and future planning.
Structural Health Monitoring systems are highly reliable when designed and installed properly. They use industrial-grade sensors, secure data transmission, and advanced algorithms to ensure accurate and consistent results. While no system can completely eliminate all risks, SHM significantly improves safety by providing real-time information, early warnings, and data-driven insights that traditional inspections alone cannot achieve.
A typical SHM system consists of several integrated modules:
Sensor Network – Includes accelerometers, strain gauges, displacement sensors, and other devices that continuously measure structural behavior.
Data Acquisition Unit – Collects raw signals from the sensors and converts them into digital data.
Communication System – Transfers the collected data securely to the central server or cloud.
Data Processing & Analysis Software – Uses advanced algorithms to detect anomalies, estimate damage, and evaluate structural performance.
Visualization & Reporting Tools – Provides engineers and owners with dashboards, 3D animations, and automated engineering reports.
Alert & Notification Module – Sends real-time warnings to responsible parties or occupants in case of abnormal structural behavior.
Together, these modules ensure continuous, accurate, and actionable monitoring of the structure’s health.
You can get involved in our company in several ways:
Partnerships: Collaborate with us on projects related to structural health monitoring and smart infrastructure solutions.
Clients & Users: Implement our monitoring systems in your buildings and benefit from safer, smarter structures.
Research & Innovation: Work with our expert team on joint research, academic studies, and technological development.
Careers: Explore career opportunities and join our growing team of engineers, researchers, and software developers.
We welcome anyone who shares our vision for safer and more sustainable structures.
After learning about our Structural Health Monitoring solutions, here’s what you can do next:
Request a Consultation: Contact our team to discuss your building or infrastructure needs and get expert advice.
Explore Our Services: Browse our website to learn more about our monitoring systems, software, and maintenance options.
Request a Demo: See our monitoring platform in action with a live demonstration tailored to your structure.
Get a Quote: Receive a detailed, no-obligation proposal for implementing a monitoring system in your facility.
Taking any of these steps will help ensure your structures are safer, smarter, and continuously monitored.
We constantly monitor and regularly report on the health of Hagia Sophia, which is on the World Cultural Heritage List, and the Vakıfbank building, one of the most popular buildings in Istanbul.
Read our case study
Yapı Checkup does not adhere to a “one-size-fits-all” approach when it comes to Structural Health Monitoring (SHM). Instead, we provide tailored systems that are designed to align with your unique priorities and needs. By focusing on what truly matters to you, we eliminate unnecessary costs tied to redundant components and algorithms, ensuring that every part of the system serves a specific, valuable purpose.
Bu çalışmada binalarda yapay öğrenme destekli yapı sağlığı izleme uygulamaları Dünya Kültür Mirası Listesinde yer alan Ayasofya Camisi titreşim verileri dikkate alınarak gösterilmiştir. Ayasofya’da ilk olarak 1991 yılında kurulan bu ivme sensörleri bugüne kadar birçok büyük ve küçük depremi kayıt altına almıştır. Bu depremler ve uzun dönemli ivme kayıtlarından elde ettiğimiz regresyon analizi modelleri yapının muhtemel hasarının tahmininde kullanılmaktadır
The knowledge of frequencies of vibration of the first modes of minarets is essential to anticipate their behaviour under seismic loads. Masonry minarets are very slender structures with an extensive history of many centuries of construction and damages inflicted by earthquakes. Their construction techniques did not change much throughout the historical epochs, and only very recently, new minarets of the same type were built with Reinforced Concrete. Minarets lately have been the object of several studies because both the monitoring technologies for in-situ vibration observations and the existence of non-linear large-displacement software have become available. Many teams dedicated their attention to analysing frequencies of these structures and a few to study their behaviour.
The Buyukcekmece district of Istanbul, situated in a region near North Anatolian Fault, faces significant earthquake risk. This study aims to enhance our understanding of seismic hazards in B & uuml;y & uuml;k & ccedil;ekmece by investigating site-specific parameters. We conducted a comprehensive field study involving seismic ambient vibration measurements at 56 selected locations. The horizontal-to-vertical spectral ratio (HVSR) method was employed to analyze the recorded data, and to obtain fundamental frequencies and approximate bedrock depths. These parameters offer insights into the local soil conditions and site amplification characteristics. The findings of this study reveal that the region exhibits intermediate to strong site amplification due to the contrast between alluvial deposits and Paleozoic bedrock.
This study aims to investigate long-term modal parameter changes in Hagia Sophia in Istanbul as a function of atmospheric parameters. The structure dates back to the 6th century and is on the UNESCO World Heritage list. The primary structural materials of the monument are fired clay bricks, lithic components (limestone, granite), and a characteristic mortar. We determined variations in modal frequencies, modal damping ratios, and mode shapes over four years, between 2013 and 2017. Transfer functions were used for the estimation of modal frequencies, the half-power bandwidth method for the modal damping ratio, and frequency domain decomposition for mode shapes. The long-term variation of the mode shapes was investigated using the MAC, COMAC, and ECOMAC methods.
You can get detailed information about building health monitoring systems and receive free consulting services about your building.