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Home » Étude de cas » Bolshoi Moskvoretskiy Bridge

Bolshoi Moskvoretskiy Bridge

Publié le 3 mars 2017
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The bridge consists of three parallel 100m long reinforced concrete arch hidden behind stonewalls

Image Bolshoi Moskvoretskiy Bridge

The cross-section of each arch contains three merged boxes. The superstructure of the bridge is supported by columns. Four traffic lanes crosses the bridge in each direction. Two types of the degradation are noticed on the bridge. Settlement in the centre of the arch which provoked the cracking of the stone walls near abutments on both sides of the bridge, and chloride diffusion that practically transverses the upper wall of the arch boxes in some sections, and penetrates inside the boxes. The condition of the bridge after nearly 70 years of service and its functional and historical importance have led the authorities to decide to continuously monitor structural behaviour of the bridge.

Aim of monitoring:

The aim of monitoring is increase the knowledge concerning the structural behaviour of this very old structure, to increase safety and reduce maintenance costs. Total of 16 standard SOFO sensors are installed in order to continuously monitor average strain along the arch, curvature in both, horizontal and vertical direction and the deformed shape using the SPADS software. In order to distinguish thermal influenced 6 thermocouples are also installed. In a later stage the prewarning and warning system will be set using the SOFO VIEW software. The data is sent remotely to the control room using a telephone line.

Main results:

The installation of all the SOFO equipment was completed in June 2003. The long-term monitoring started.

INSTALLATION PERIODTYPE OF SENSORSNUMBER OF SENSORS
2003SOFO16
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View to Bolshoi Moskvoretskiy Bridge with Kremlin in background

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Cracking of the stone walls confirms the settlement in the middle of the arch; pentration of clorides is visible in interior of the arch boxes

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Techincal drawing of the bridge and position of sensors

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SOFO sensor before and after the protection is installed, and a view to the intermediate connection box

Related Papers:

European Perspective on Monitoring-Based Maintenance, A. Del Grosso, D. Inaudi, IABMAS ’04, International Association for Bridge Maintenance and Safety, October 19-22, Kyoto, Japan – 2004
Growing Market Acceptance for Fiber-Optic Solutions in Civil Structures, T. Graver, D. Inaudi, J. Doornink, Optics East Philadelphia, USA, October 27 – 2004
Growing Market Acceptance for Fiber-Optic Solutions in Civil Structures, T. Graver, D. Inaudi, J. Doornink, Optics East Philadelphia, USA, October 27 – 2004
Health monitoring with optical fiber sensors: from human body to civil structures, Éric Pinet, Caroline Hamel, Branko Glišic, Daniele Inaudi, Nicolae Miron , 14th SPIE Annual Symposium on Smart Structures and Materials & Nondestructive Evaluation and Health Monitoring, San Diego (CA), USA – (6532-19) – 2007
Monitoring of Heritage Structures and Historical Monuments Using Long-Gage Fiber Optic Interferometric Sensors – An Overview, Branko Glisic, Daniele Inaudi, Daniele Posenato, Angelo Figini, Nicoletta Casanova , The 3rd International Conference on Structural Health Monitoring of Intelligent Infrastructure – SHMII-3, November 13-16 – (on conference CD) – 2007
Fibre Optic Methods for Structural Health Monitoring, Branko Glisic and Daniele Inaudi, John Wiley & Sons, Ltd – 2007
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Logo Roctest

Concepteur et manufacturier d’instrumentation géotechnique, structurale et d’équipements de test pour le sol et la roche

Logo Smartec

Concepteur et manufacturier d’instrumentation géotechnique, structurale et d’équipements de test pour le sol et la roche

Logo Telemac

Founisseur de solutions géotechniques et structurales depuis 1947

Logo Enomfra

Reconnaissance géologique, hydrogéologique
et géotechnique pour les projets les plus variés

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