Trimble SG SeismoGeodetic For Earthquake Early Warning

Similar documents
Earthquake Early Warning Research and Development in California, USA

Athanassios Ganas, Research Director, NOA

Earthquake Monitoring System Using Ranger Seismometer Sensor

GNSS (GPS) buoy array in the Pacific for natural disaster mitigation. Teruyuki KATO Earthquake Research Institute the University of Tokyo, Japan

Evaluating the Integrability of the Quake-Catcher

Structure Health Monitoring System Using MEMS-Applied Vibration Sensor

Observing co-seismic displacements using 1-Hz data from a network of reference stations: a comparison of different data processing methods

Global Correction Services for GNSS

1.Earthquake Early Warning System. Japan Meteorological Agency

Fast convergence of Trimble CenterPoint RTX by regional augmentation

MINIMUS MINIMUS+ SMART SEISMIC DIGITISER WITH ADVANCED DATA-PROCESSING CAPABILITY AND SOFTWARE COMMUNICATIONS

Real-time testing of the on-site warning algorithm in southern California and its performance during the July M w 5.4 Chino Hills earthquake

Accuracy assessment of free web-based online GPS Processing services and relative GPS solution software

DELIVERING THE INDUSTRY S FIRST DISASTER AND SAFETY AUTOMATIONS

The Promise and Challenges of Accurate Low Latency GNSS for Environmental Monitoring and Response

GNSS buoy array in the ocean for natural hazard mitigation. Teruyuki KATO Earthquake Research Institute the University of Tokyo, Japan

One Source for Positioning Success

1: ShakeAlert Earthquake Early Warning For the West Coast

Strong Motion Data: Structures

Trimble Business Center:

KEYWORDS Earthquakes; MEMS seismic stations; trigger data; warning time delays. Page 144

ION GNSS 2011 FILLING IN THE GAPS OF RTK WITH REGIONAL PPP

28th Seismic Research Review: Ground-Based Nuclear Explosion Monitoring Technologies SEL0: A FAST PROTOTYPE BULLETIN PRODUCTION PIPELINE AT THE CTBTO

STRUCTURAL BRIDGE HEALTH MONITORING WITH GLONASS AND GPS THE YEONG-JONG BRIDGE IN SOUTH KOREA

A hybrid method of simulating broadband ground motion: A case study of the 2006 Pingtung earthquake, Taiwan

EARTHQUAKE EARLY WARNING and RAPID LOSS INFORMATION GENERATION IN ISTANBUL. Mustafa Erdik Boğaziçi University, Istanbul

Supplemental Material for the paper. The Earthquake Early Warning System in Southern Italy : Methodologies and Performance Evaluation

al T TD ) ime D Faamily Products The RTD Family of products offers a full suite of highprecision GPS sensor positioning and navigation solutions for:

(Gibbons and Ringdal 2006, Anstey 1964), but the method has yet to be explored in the context of acoustic damage detection of civil structures.

RAPID MAGITUDE DETERMINATION FOR TSUNAMI WARNING USING LOCAL DATA IN AND AROUND NICARAGUA

TitleApplication of MEMS accelerometer t. AIZAWA, Takao; KIMURA, Toshinori; M Toshifumi; TAKEDA, Tetsuya; ASANO,

Wednesday AM: (Doug) 2. PS and Long Period Signals

The Reasons to Succeed or to Fail a GNSS Network RTK Project

GNSS Low-Cost High-Accuracy Receiver (L-CHAR)

REMOTE CONTROL. Business of Scanning An outsider s look. True American Surveyor Texas-Oklahoma state line. Murr v. Wisconsin Parcel merger = taking?

Precise Instantaneous Network Positioning

HIGH ACCURACY RECEIVERS AND SUBSCRIPTION SERVICES Sales Meeting

CATALOGUE. HBRP Publication

Precise Positioning with NovAtel CORRECT Including Performance Analysis

Global Products for GPS Point Positioning Approaching Real-Time

Introduction to GNSS Base-Station

A Rayleigh wave back-projection method applied to the 2011 Tohoku earthquake

Who s heard of the GDA2020?

Precise Positioning GNSS Applications

Increasing Broadcast Reliability for Vehicular Ad Hoc Networks. Nathan Balon and Jinhua Guo University of Michigan - Dearborn

GPS and Recent Alternatives for Localisation. Dr. Thierry Peynot Australian Centre for Field Robotics The University of Sydney

Identification of High Frequency pulse from Earthquake asperities along Chilean subduction zone using strong motion

Quantitative Identification of Near-Fault Ground Motion using Baker s Method; an Application for March 2011 Japan M9.0 Earthquake

The International Scene: How Precise Positioning Will Underpin Critical GNSS Applications

Innovation and Experience in GNSS Bridge Real Time 3D- Monitoring System

The Idea of the Early Warning

NTRIP Background History, Development & BKG. Networked Transport of RTCM via Internet Protocol

EXPERIMENTAL RESULTS OF LEX CORRECTIONS USING FARMING MACHINE

ISTANBUL EARTHQUAKE RAPID RESPONSE AND THE EARLY WARNING SYSTEM. M. Erdik Department of Earthquake Engineering aziçi University,, Istanbul

Rapid Source Parameter Estimations of Southern California Earthquakes Using PreSEIS

The READI Working Group

Cost-effective precise positioning for geospatial applications

CONCEPT OF INTEGRATED CONTROL SYSTEM FOR MONITORING GEOMETRIC CHANGES OF THE TEMPORARY BRIDGE CROSSINGS

STRUCTURAL HEALTH MONITORING USING STRONG AND WEAK EARTHQUAKE MOTIONS

GAVIN DOCHERTY & CRAIG ROBERTS School of Surveying & Spatial Information Systems. University of NSW

Improving the Performance of a Geophone through Capacitive Position Sensing and Feedback. Aaron Barzilai. Stanford University

Reliability Estimation for RTK-GNSS/IMU/Vehicle Speed Sensors in Urban Environment

INFLUENCE OF STATIC DISPLACEMENT ON PEAK GROUND VELOCITY AT SITES THAT EXPERIENCED FORWARD-RUPTURE DIRECTIVITY

ANALYSIS ON RESPONSE OF DYNAMIC SYSTEMS TO PULSE SEQUENCES EXCITATION

Precise Point Positioning Developments at GSD: Products, Services

The U.S. West Coast and Alaska Tsunami Warning Center

Applications, Products and Services of GPS Technology

Earthquake Early Warning System (EEWS) *Saba S D 1,Manasa S N,Shruthi B T 3, Sneha vardhi 4

GEONET -CORS Network of japan-

7 Northern California Earthquake Monitoring

EDDIE: Spectral Seismology

Engineering Project Proposals

Inertial Sensors. Ellipse Series MINIATURE HIGH PERFORMANCE. Navigation, Motion & Heave Sensing IMU AHRS MRU INS VG

Platform Independent Launch Vehicle Avionics

GPS Geodetic Reference System WGS 84

CDS 101: Lecture 1 Introduction to Feedback and Control. Richard M. Murray 30 September 2002

UNAVCO's Community Planning for real-time GPS in Earthscope's Plate Boundary Observatory

SEISMIC DATA FROM SMARTPHONES

New Metrics Developed for a Complex Cepstrum Depth Program

Originally published as:

SUPPORT OF NETWORK FORMATS BY TRIMBLE GPSNET NETWORK RTK SOLUTION

Establishment of New Low-Cost and High-Resolution Real-Time Continuous Strong Motion Observation Network by CEORKA

Computers Watching Tsunamis DEEP- O C E A N A S S E S S M E N T A N D R E P O R T I N G ( D A R T I I )

National Report of Greece to EUREF 2014

DATABASE: SUMMARY, STATUS AND GROUND MOTION PRODUCTS

Future GNSS Precision Applications. Stuart Riley

Optimizing GNSS CORS networks at remote locations

The International Monitoring System: Overview, Measurement Systems and Calibration

A Study on Earthquake Detection Using Machine Learning

P E R F O R M A N C E D E P E N D A B I L I T Y A V A I L A B I L I T Y

t =1 Transmitter #2 Figure 1-1 One Way Ranging Schematic

Field Testing of Wireless Interactive Sensor Nodes

RADIAN POSTHOLE AND BOREHOLE MINIMUM SIZE. MAXIMUM RANGE. UNRIVALLED VERSATILITY.

Plan of Action. Juanjo Dañobeitia UTM-CSIC. OBS Meeting, Barcelona, 20 Sep 2010

Hector Mine, California, earthquake

GPS-Based Navigation & Positioning Challenges in Communications- Enabled Driver Assistance Systems

IEEE IoT Vertical and Topical Summit - Anchorage September 18th-20th, 2017 Anchorage, Alaska. Call for Participation and Proposals

Emergency Information Broadcasting Distribution System

Detecting Ionospheric TEC Perturbations Generated by Natural Hazards Using a Real-Time Network of GPS Receivers

Inertial Sensors. Ellipse Series MINIATURE HIGH PERFORMANCE. Navigation, Motion & Heave Sensing IMU AHRS MRU INS VG

Transcription:

Trimble SG160-09 SeismoGeodetic For Earthquake Early Warning GeoSmart KL, Malaysia 1 ST October, 2015 TAN SIEW SIONG

source: INTERNET

Source: www.shakeout.govt.nz source: INTERNET

CASE Studies Migration Source: USGS

What is EEW? Earthquake early warning systems use earthquake science and the technology of monitoring systems to alert devices and people when shaking waves generated by an earthquake are expected to arrive at their location. The seconds to minutes of advance warning can allow people and systems to take actions to protect life and property from destructive shaking [source: USGS]

Source: Hudnut - USGS CASE Studies Migration Source: USGS

GLOBAL EEW Source: University of California Berkeley

EEW - Benefits Public: Taking cover; stop vehicle; turn off appliances Businesses: Move folks to safe location; shut down elevator, production line, etc. Medical services: Stop dedicate surgery procedure; Emergency responders: Civil & firefighting preparedness for emergency response Power Infrastructure: Protect Power and Grid facility from shaking (eg. Nuclear Power Plant) [source: USGS]

Epicenter & Magnitude Earthquake induced site displacement is key information for locating the epicenter and estimating the magnitude of earthquakes. For earthquake early warning (EEW) systems, the estimation of accurate co-seismic displacements and waveforms is needed in real time to inform decisions about public safety and infrastructure shutdown.

Moment Magnitude (Mw; also called Magnitude or M, as in, an M8.0 earthquake ) Focus or hypocenter (point of initiation of the rupture) Epicenter (location on Earth s surface above the hypocenter) * Moment = Mo = µ A D (dyne-cm) µ = shear modulus ~ 32 GPa in crust (~3.2 x 10 11 dynes/cm 2 ), ~75 GPa in mantle A = LW = area (cm 2 ) D = average displacement during rupture (cm) http://neic.usgs.gov/neis/general/measure.html http://earthquake.usgs.gov/image_glossary/seismic_moment.html

Seismic Displacements Seismic displacements are obtained by double integration of observed accelerometer signals and or single integration of velocities observed with broadband seismometers Seismic instruments that are subject to drifts (accelerometer) or signal clipping in case of large earthquakes (broadband seismometer)

GNSS Displacements GNSS receiver displacements are precise and don t suffer from drift or scale issues of seismic systems. GNSS displacements processed by relative methods (postprocessed or RTK based) are provide a relative displacement with respect to (at least) one reference station, which might itself be subject to shaking. Trimble CenterPoint RTX using Trimble orbit and clock products can be used to determine an provide absolute co- seismic displacements with respect to a global reference frame.

EEW - MOVITATION A filtered combination of GNSS and accelerometers provides optimum, accurate, and high rate estimate of displacement needed for Earthquake Early Warning

Design Concept - Trimble SeismoGeodetic System An Integrated System, combining high resolution GNSS and seismic measurements to estimate accurate displacements and acceleration needed in real time for Earthquake Early Warning. Simplify field installation and reduce the system maintenance. Fast and Reliable Error Corr. Comm. Protocol

SG160-09 Data Flow Schematic Trimble 4D

Rapid Event Notification (REN) algorithm Field Station Real-time Communication Cloud Processing Facility Real-time Ack. Packet 1 Close packets every 0.2 sec. Additional 0.05 sec to process Mutiplex Recording Format (MRF). Total time from start of packet to send <0.25 sec. Error checked. Packet1 Sliding window with positive acknowledgement of received data by event number and sequence number Data Archive with backfill capability Interface to Real-time data processing software: Earthworm SeisComp3

Rapid Event Notification (REN) algorithm Field Station Backfill Real-time Communication Cloud Processing Facility Backfill Real-time Backfill queue Not ack-ed Packet 2 Close packets every 0.2 sec. Additional 0.05 sec to process Mutiplex Recording Format (MRF). Total time from start of packet to send 0.25 sec. Error checked Sliding window with positive acknowledgement of received data by event number and sequence number Data Archive with backfill capability Real-time data output to processing interface Earthworm SeisComp3

Simplified Field Installation: Easy installation; occupies less space on site; consumes less power, utilizes an existing communications media. Integrated seismic and geodetic acquisition can replace the myriad of seismic acquisition hardware currently in use. Minimal interconnection cables thus providing less possible points of failure, which reduces the routine maintenance cost.

Applications: Seismic and Earthquake Early Warning System For Earthquake Early Warning (EEW) systems, the SG160-09 calculates accurate co-seismic displacements and seismic information in real time to alert decision makers about public safety and infrastructure shutdown. GPS only solution converges within ~ 75 s Courtesy of Y. Bock

Summary: SG160-09 EEW Combined true acceleration (200 sps) and displacement (10 sps) observations: on board GNSS displacements processing (Trimble RTX PPP) Instantaneous Displacements processed, recorded and transmitted from receiver Unified recording format of both seismic and geodetic data (MRF) Low power, Low Maintenance Fast data delivery algorithm (REN) Error-correction communication protocol with Backfill algorithm for data integrity Real Time data display in Trimble 4D for high resolution acceleration and displacement data to real-time processing s/w to Earthworm and SeisComp3 for a complete EEW To Protect Life & Property from Shaking

QUESTION?