BC Smart Infrastructure Monitoring System (BCSIMS)

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BC Smart Infrastructure Monitoring System (BCSIMS) 2013 UBC-Tongji-CSRN Symposium Sharlie Huffman, P.Eng. Sr. Seismic & Structural Health Engineer Bridge Engineering

BCSIMS BC Seismicity Monitoring networks BCSIMS Early Warning System

BC Seismicity Two of the three largest tectonic plates colliding on our doorstep 2009 Slip 2008 1946 Crustal 1909 1918 Subduction

Monitoring Networks Weak Motion Network Strong Motion Network Structural Monitoring Early Warning Systems 4

Weak Motion Network Sensitive (high gain) but is overwhelmed by near large events Used to locate (in 3D) source of earthquake and determine magnitude Provide firm ground readings Need geotechnical estimate of ground effects to estimate surface values on other soils Needs staff to review and interpret data

Strong Motion Network Not overwhelmed by strong, local events Not able to detect far events - higher internal noise Can function without the existence of a seismological data center (very handy attribute) Internal instrument calculation of Intensity, A, V, D Ground motion is measured (as opposed to being estimated) in situ. The source, propagation and local site effects are already incorporated, no corrections are required Instruments inexpensive enough for dense deployment

Haida Gwaii 2012-10-28 V N-S E-W

Powell River Strong Motion Sites

Structural Monitoring Provides response of structure to the ground shaking Damage detection Damage location this is complex Bonus ongoing structural health monitoring Response of structure to ambient vibration Confirmation of design hypotheses Rehabilitation planning Detection of impact, dislocation and deterioration

Early Warning Systems Japan is the leader in these systems - has an advanced system worked very well during last earthquake Turkey also has a small but excellent system Mexico, California have limited systems BC has a very limited system GMT The next step for many of us to expand and improve our systems BC EWS in development

Concept of BCSIMS Autonomous and remotely operated Parameters relevant to engineers and responders Structural sensors respond to EQ, wind, traffic, impacts... Results displayed online at the website www.bcsims.ca either through the public or authorized access, and emails reports (alerts) to subscribers Shake maps enable emergency managers, responders and inspectors to estimate damage, location and need Engineers use shake maps/values to compare with what structures designed for decide potential for damage For instrumented structure, estimate potential damage and location Facilitate attention to structural & utility problems to avoid escalation

The Team 1. BC Ministry of Transportation and Infrastructure 2. UBC Earthquake Engineering Research Facility (EERF), Department of Civil Engineering 3. Pacific Geoscience Centre of Geological Survey of Canada 4. Institut National de Recherche en Informatique et en Automatique (INRIA) of France 5. Structural Vibration Solutions A/S (SVS) of Denmark

BCSIMS - Why MoTI? MoTI Responsibility Aged bridges and rehabilitation challenges Post earthquake inspections Keeping the routes open Being prepared (planned retrofits, awareness) Field intelligence damage, severity? Prioritization Changing plans Risks/decisions Post Disaster Response & Recovery

2005 and Prior SM notice

2006 - SM notice

BCSIMS Home Page

Using BCSIMS - Earthquake Response Zoomable Shake Maps with Intensity Acceleration Velocity Displacement Structural status Historical event data

JMA Intensity map for 6.3 on Nootka Fault

Instrument Intensity map for 6.3 on Nootka Fault

Using BCSIMS - Earthquake Response Real-time field intelligence Compare measured seismic Demand with predetermined Capacity Rapid plan adjustment Effective deployment of response resources Damage estimations global & local Earlier start to recovery efforts Ongoing monitoring aftershocks

Simulation zoomed shake map

System Alerts Notice that the shake maps do not show station dots (just the instrumented bridges) We can overlay the shake maps with relevant layers bridge inventory layer for us Disaster routes, other major routes - for inet Hospitals, first aid stations -? Water/sewer lines -?

Using BCSIMS To Come layers Bridge Engineering

2011 April 14 Rockslide Sea-to-Sky

Using BCSIMS: Structure Information Reports: Summary and comprehensive set of information in HTML format (can be received by email or accessed through website) Information on monitoring system, photos, drawings, bridge information Public data and authorized data access Results: statistics for each measured channel, drift, modal analysis, damage detection 3D model with results

Instrumented Provincial Bridges Currently instrumented Queensborough - Port Mann French Creek - Fraser Heights Portage Creek - Kensington George Massey Tunnel - Gaglardi William R Bennett Bridge - 176 th St Pitt River Bridge - Second Narrows Bridge Engineering

Instrumented Provincial Bridges To Come New Hwy 17 overpass/sfpr Sunbury BNSF Tannery To Come Existing Powell R bridge 5 more being identified Bridge Engineering

Additional SHM to come City of Vancouver Cambie Burrard

Additional SHM to come Ministry of Education Undecided number of retrofitted schools Catholic Archdiocese of Vancouver 20 schools identified potential 60 total

In-process & Coming System Updates Major graphical interface overhaul Improved shake map algorithms Mapping for mobile devices Capability for messaging on the homepage Multiple user-selected data layers Simplified structure information pages

BC Early Warning System Network system MoTI/UBC developing/testing new instruments Small Low power usage Combined with SMN for economy Must detect and measure P-wave & PGA Inexpensive Ocean Networks developing system software

THANK YOU Bridge Engineering