This document discusses structural health monitoring systems for unique buildings. It outlines Russian legislation and standards related to building safety monitoring. It then provides details on the design, implementation, and operation of structural health monitoring systems. This includes sensor selection, data collection and analysis software, mathematical modeling, and case studies of monitoring high-rise buildings and venues for the 2014 Sochi Olympics. The purpose of these systems is to monitor structures for safety and provide maintenance information.
2. • Federal law Technical
regula-ons
for
building
and
construc-on
safety (2010)
RUSSIAN LEGISLATION, NORMS • National standard Buildings and constructions.
Regulations of health survey and monitoring.
AND METHODS FOR THE (2011)
SUPPORT OF STRUCTURES OF
• Specific demands for safety for SOCHI
UNIQUE BUILDINGS. Olympic 2014 venues (2009)
• National standard System of infrastructural
monitoring. (2005)
• Specific demands for antiterrorist safety of
buildings and constructions (2011)
• Regional construction norms for building and
construction safety and monitoring
5. Mathema-cal
model
Data
collec-on/retrieval
control
system
Structural monitoring system
6. System development stages
Design Construction Maintenance
• Threat modeling • Installation of monitoring • Correction to the program (if
• Monitored parameters equipment needed)
determination • Monitored parameters • Monitoring and response to
• Mathematical and computer registration and control the monitoring signals
modeling of a structure • Mathematical model according to the regulations
• Monitoring hardware and verification
software selection
Structural monitoring system
7. PRINCIPLES OF SYSTEM OPERATION
Software
Mathematical
model
Criterial basis
Monitored element Monitored parameters Under measurement Current parameter Valid values
Building Vibration frequency (X) Vibrations acceleration 0.1 0.09-0.11 Гц
Building Vibration frequency (Y) Vibrations acceleration 0.12 0.09-0.11 Гц
….............. ….............. ….............. ….............. …..............
Foundation plate Inclination (X) Vibrations acceleration 0.01 0-0.1
Equipment (sensors and
recorders)
Structural monitoring system
12. SOFTWARE
SODIS Building M
Determination of valid and critical values.
Setup of rules for a functioning system.
Compiling reports concerning the building’s
health for maintenance services.
Structural monitoring system
13. MATH MODELING
Mathematical modeling
determination of rated
values of parameters
controlled by the system
Structural monitoring system
14. STRUCTURAL
MONITORING
SYSTEM FOR A
HIGH-RISE
BUILDING IN
MOSCOW
Structural monitoring system
15. TECHNIQUE OF A HIGH-RISE BUILDING MONITORING
Monitored parameter Monitored element Under measure
Self-resonant frequency High-rise section Vibrations acceleration
Maximum vibration High-rise section Vibrations acceleration
amplitude
Vibration epure High-rise section Vibrations acceleration
Mutual vibrations Section from -2 up to 10 Vibrations acceleration
frequency floors
Mutual vibrations Section from 10 up to 20 Vibrations acceleration
frequency floors
Mutual vibrations Section from 20 up to 30 Vibrations acceleration
frequency floors
Mutual vibrations Section from 30 up to 40 Vibrations acceleration
frequency floors
Inclination Foundation plate Angle of inclination
Structural monitoring system
16. TEST ON A BUILDING Accelerometer
October, 25, 2010 on the 40th floor
Accelerometer
on the 30th floor
Accelerometer
on the 20th floor
Accelerometer
on the 10th floor
Structural monitoring system
17. MATHEMATICAL MODELLING AND DETERMINATION OF VALID
VALUES OF PARAMETERS CONTROLLED BY THE SYSTEM
Model verification
2nd floor vibration noise on record
Expected building response on the
10th, 20th, 30th, 40th floors
Structural monitoring system
18. RECORDS COMPARISON
40th floor
EXPERIMENTAL RECORDS
MODEL RECORDS
30th floor
20th floor
10th floor
Structural monitoring system
19. SPECTRA COMPARISON
40th floor
EXPERIMENTAL SPECTRA
MODEL SPECTRA
30th floor
20th floor
10th floor
Structural monitoring system
20. MODAL ANALYSIS
Frequency 0.52 Hz Frequency 0.57 Hz
Structural monitoring system
21. ADEQUACY OF MATHEMATICAL
MODEL ALLOWS IDENTIFICATION
OF DEFORMATION CHANGES AND
PLACEMENTS DEFECTS
WITH
CORRELATION BETWEEN
MEASUREMENTS AND MULTI-
FUNCTIONAL ANALYSIS
TRANSFER FUNCTIONS
CONSTRUCTION
Structural monitoring system
22. INSPECTION OF AN ACTUAL ACCIDENT IN A MOSCOW ICE
STADIUM
The inspection was made by
the
request
of
the
Federal
Agency
for
ecological,
technologic
and
nuclear
regula-on
of
the
Russian
Federa-on
Structural monitoring system
23. GUY CHAIN AXIS MODEL
Geometrical model of the guy chain axis with the Geometrical model of the guy chain axis with the
split in its initial size (split diameter is 0,3 from the split in its final size (split diameter is 0,7 from the
axis diameter; on the fig. it marked with red) axis diameter; on the fig. it marked with red)
!
Structural monitoring system
24. VELOCITY OF SPLIT ENLARGEMENT-DEPENDENCE FROM ITS LENGTH
Structural monitoring system
26. STRUCTURAL MONITORING SYSTEMS FOR
SPORTING AND UNIQUE BUILDINGS
Installation of
sensors on truss
of a Large Ice
Rink in Sochi
Structural monitoring system
27. SYSTEMS OF MONITORING OF UNIQUE SPORTS BUILDINGS
SOCHI sports buildings
modeling
Modeling of a tunnel in Saint- High-rise buildings (Moscow)
Petersburg modeling
Each monitoring design is accompanied with an
independent math model of the building
Structural monitoring system
28. ENGINEERING SEISMOMETRIC STATIONS
SOCHI 2014 structures are situated in the
earthquake zone. Monitoring systems of these
buildings are equipped with an additional
engineering seismometric station.
Structural monitoring system
30. IMS CONCEPT
IMS – IS A DATA RECORDER INSTALLED IN A BUILDING FOR
INFRASTRUCTURAL AND SAFETY SYSTEMS MONITORING. THIS
EQUIPMENT TRANSFERS INFORMATION ABOUT EMERGENCY AND
PRE-EMERGENCY SITUATIONS TO THE ERC (EMERGENCY RESPONSE
CENTER) OF THE CITY
ERC
IMS
Infrastructural monitoring system
34. DESIGN OF ANTI-TERRORIST SAFETY SYSTEM
Threats modeling
Natural, industrial, terrorist threats
Design of possible crisis scenario
Interrelated post settlement for explosions, fire, evacuation etc.
Recommendations for safety control
Setting up of data base for emergency response and maintenance services
Anti-terrorist safety system
35. MATHEMATICAL MODELING OF TERRORIST ACTS
Explosion effect on carcass column
Monolithic carcass Safety methods for carcass column
Precast concrete
Dynamics of column top section whipping
Anti-terrorist safety system
36. MATHEMATICAL MODELING OF TERRORIST ACTS
Fragments speed – 5-10m/sec. Fragments speed - 1-1,5 m/sec.
Radius of destruction – 5-8 m. Radius of destruction – 1-1,5 m.
Anti-terrorist safety system
40. MODERN SAFETY AND MONITORING SYSTEMS
FOR SOCHI 2014 VENUES
Structural monitoring system Engineering monitoring system (EMS) Antiterrorist safety system
Ice Arena “Bolshoy” Ice Palace Central Olympic stadium
Ski jumping center “Maliy” Ice Palace Roofed skating center
Building maintenance system
41. PROJECTS
ü SOCHI-2014 venues
(Bolshoy Ice Palace (12 000 seats), Olympic Skating Center (12 000 seats), Central
Olympic Stadium (40 000 seats), Maliy Ice Hockey Palace (7 000 seats), Roofed skating
Center (8 000 seats), Ski jumping Center
ü World Football Championship – 2018 stadiums (Sochi, Kazan,
Moscow)
ü High-rise buildings in Moscow, including Moscow International
Business Center Moscow-City
ü High-rise buildings in Sochi, Ekaterinbourg, Saint-Petersburg,
Krasnoyarsk.
ü etc.
TOTALLING over 100 projects
42. Andrey M. Shakhramanyan, PhD
NPO SODIS, General Director
Moscow Building Research Institute, Head of Department
andranic@nposodis.ru
+7 (985) 226-40-70
Saving future.