Geophysical Institute Magnetometer Array Debi-Lee Wilkinson, Matt Heavner Geophysical Institute, University of Alaska,

Slides:



Advertisements
Similar presentations
What is the United Way 1 Network of more than 1,300 locally run organizations Work to empower individuals and communities across the country.
Advertisements

The Geophysical Institute Magnetometer Array: Making Real-Time Geophysical Measurements Available for Operational Space Weather Needs J Galbraith, M Heavner,
John A. Orcutt Deputy Director, SIO Ocean Observations Initiative NSF MREFC Chair, NSF/CORE DEOS Comm.
U.S. Department of the Interior U.S. Geological Survey Agency Report, WGISS #22 September 15, 2006 Lyndon R. Oleson U.S. Geological Survey Center for Earth.
Fall HSGQE Retest District Test Coordinator Training September 18-19, 2008.
Web-Based Planning Tools for Missouri Show-Me Ag Classic February 1, 2006 Columbia, MO Chris Barnett Center for Agricultural, Resource and Environmental.
The IRIS-Bus Concept for Seismic Instrumentation John D. West Arizona State University.
ZXM10 EISU Training.
WELCOME TO WORLD RADIATION DATA CENTER (WRDC) 2008: - 44 Years of Activity. WMO GAWROSHYDROMETMGO.
March 25, 2002EarthScope CSIT Workshop Data Archiving and IT Issues for PBO Douglas Neuhauser UC Berkeley Seismological Lab Northern California Earthquake.
Space weather effects on Yamal – Europe transit gas pipeline: recent developments and prospects for coming decade A.Arabskii, Z.Salikhov, A.Zaitsev, V.Petrov.
Paul T.M. Loto’aniu 1,2 and H.J. Singer 1 NOAA Space Environment Center 1 CIRES, University of Colorado 2 Paul T.M. Loto’aniu 1,2 and H.J. Singer 1 NOAA.
UA Museum of the North Education Programming and Outreach Roger Topp: Education Science & Technology Projects Developer Cabled Seafloor Observatories Workshop.
 Salient characteristics / Approvals  Cast Aluminum Enclosures  Plastic Enclosures  Cast Aluminum Control Station as per customer requirement Control.
1 Building National Cyberinfrastructure Alan Blatecky Office of Cyberinfrastructure EPSCoR Meeting May 21,
PLANS FOR THE INTERNATIONAL HELIOPHYSICAL YEAR (IHY) Sept 2005 An international program of scientific research Joseph Davila, Barbara Thompson, Nat Gopalswamy.
ABSTRACT Real-time systems applied to seismic data acquisition, asynchronous processing, and data archiving tasks have clearly demonstrated their utility.
Japanese Activities for eGY * T. Iyemori and Japanese eGY committee * Graduate School of Science, Kyoto University CODATA-20, Beijing Contents:
A Verification of Magnetometer’s Time Accuracy by using a GPS Pulse Generator Some magnetic observatories are exchanging one-minute geomagnetic field data.
June 19, 2009 R. J. Strangeway – 1RBSP SWG, Redondo Beach, CA Importance of Ground Magnetometers to NASA Heliophysics Missions Several U.S. projects have.
An introduction to PDCC the Portable Data Collection Center.
THEMIS/GBO CDR Peer Review 1 Univ.of Calgary, Apr , 2004 Ground Based Observatories (GBO) CDR Peer Review S. B. Mende University of California -
Awareness Understanding Guided Practice Implementation.
STOQS: The Spatial Temporal Oceanographic Query System Mike McCann Abstract Monterey Bay Aquarium Research Institute Architecture Postgres.
The Tiksi Hydrometeorological Observatory Program International Collaboration for Climate Studies U.S. Science Contact:
Overview of EarthScope 2010 May, 2010 Slides that may be used and modified for presentations involving instrumentation, data, science results, and education.
Page 1 Informatics Pilot Project EDRN Knowledge System Working Group San Antonio, Texas January 21, 2001 Steve Hughes Thuy Tran Dan Crichton Jet Propulsion.
Infrasound Consortium for Applied Research 2002 Infrasound Technology Workshop, Netherlands Milton Garces Infrasound Laboratory, University of Hawaii,
OOI Annual Review Year 2 May 16 – 20, 2011 Ocean Observatories Initiative Surface and Subsurface Mooring Telemetry Inductive and acoustic technology and.
Integrated Grid workflow for mesoscale weather modeling and visualization Zhizhin, M., A. Polyakov, D. Medvedev, A. Poyda, S. Berezin Space Research Institute.
Network of geophysical observations in Russian Arctica Oleg Troshichev and Alexander Janzhura Arctic and Antarctic Research Institute 2007.
Web-based Optimal Interpolation of the Hydrographic data sets from Various Sources for the East Sea Kaplunenko Dmitry*, Ro Young Jae** and Kim Eung** *V.I.
Researcher requires geographical subset due to disk space restriction. Goes directly to NSIDC site hoping for “one stop shopping” at
PERFORMANCE MONITORING OF A NEW INSTALLATION AT APIA OBSERVATORY A.Jackson, A.Beraducci, T.Tafua.
Florida Institute of Technology - Evans Library “Women in Science” Display March – July 2006 © Florida Institute of Technology - All rights reserved PHOTO.
SOFTWARE TOOLS FOR DATA QUALITY ANALYSIS The Science Data Analysis Tool (SDAT) is the primary tool used by the DQA team. SDAT can access all raw and processed.
Online Glacier Photograph Database Please cite the data set as follows: NSIDC/WDC for Glaciology, Boulder, compiler.
Distributed Radar Networks Ray Greenwald JHU/APL.
Data Service at the World Data Center for Geomagnetism, Kyoto T. Iyemori, M. Takeda, M. Nose and Y. Odagi World Data Center for Geomagnetism, Kyoto Graduate.
The Need for Technological and Scientific Collaboration: Arctic Upper Atmospheric Research John D Kelly SRI International.
The Upgraded and Expanded CARISMA Magnetometer Array: Operations and New Science Ian R. Mann (PI), David K. Milling (PM), Andy Kale, I.J. Rae, Z.C. Kale,
The eGY Legacy: A framework for e-Discovery and e-Access (eDeA) to Scientific Data Vladimir Papitashvili, AOSS, University of Michigan The eGY General.
NOAAServer: Unified access to distributed NOAA data Ernest Daddio, NOAA/ESDIM Steve Hankin, NOAA/PMEL Donald Denbo, NOAA/PMEL/JISAO Nancy Soreide, NOAA/PMEL.
August 2003 At A Glance The IRC is a platform independent, extensible, and adaptive framework that provides robust, interactive, and distributed control.
Ionospheric Science, Models and Databases at Haystack Observatory
The Virtual Heliospheric Observatory and Distributed Data Processing T.W. Narock 1,2, A. Szabo 2, A. Davis 3 1. L3 Communications,
CALIFORNIA DEPARTMENT OF EDUCATION Tom Torlakson, State Superintendent of Public Instruction California Department of Education 21st Century Community.
SPDF Science Advisory Group - September 29-30, 2005 Page 12/24/2016 9:09:48 PM Services of the Space Physics Data Facility (SPDF) / Sun-Earth Connection.
From Missions to Measurements: an Ocean Discipline Experience.
Intermagnet (1 min data since 1991). Observations – 1 sec data Station Count: Total: 250 CPMN: 54 UCLA-built : 65 UM mags Ground Magnetometers THEMIS.
February 12, 2002Tom McGlynn ADEC Interoperability Technical Working Group Report.
Tutorial 1 Description of a Weather Station using SensorML Alexandre Robin
Canadian Magnetometry for THEMIS: CANOPUS Magnetometer Array Update Ian R. Mann, D.K. Milling, A. Kale, I.J. Rae, T.M. Loto’aniu Dept. of Physics, University.
U.S. Department of the Interior U.S. Geological Survey USGS Menlo Park GPS data processing and archiving J.L. Svarc, J.R. Murray, Fred Pollitz, Scott Haefner,
SOUTHERN REGIONAL SPACE RESEARCH CENTER – CRS/INPE-MCT SPACE SCIENCE LABORATORY OF SANTA MARIA – LACESM/CT-UFSM LOW COST FLUXGATE MAGNETOMETER DEVELOPMENT.
Younis H. Karim, AbidYahya School of Computer University Malaysia Perlis 1.
Global Rangelands Data Entry Guidelines March 23, 2015.
Data Acquisition, Diagnostics & Controls (DAQ)
Station Metadata: What do I Need?
RAOTM Exhibiting Partner Information
Recent progress of WDC for Geophysics, Beijing
The New USGS PC Based Data Collection Platform A. M. Berarducci, L. W
How to Use: Go to dafonts.com and download the font KG Blank Space Solid to have the same font. Select 4 areas of your room to use for centers. Take a.
Magnetometer Market
Intro – RAF software OUTLINE: Real-time data - on aircraft or ground
Principles of Web Design 5th Edition
Augmentation of the USArray sites with temperature profilers
SuperMAG In The RBSP Era
Please copy your homework into your assignment book
Please delete text and or boxes to clearly describe what you want engraved in designated area. Base price.
Presentation transcript:

Geophysical Institute Magnetometer Array Debi-Lee Wilkinson, Matt Heavner Geophysical Institute, University of Alaska, ACKNOWLEDGEMENTS The GIMA array has been supported by John Olson, Roger Smith, and Hans Nielsen of the Geophysical Institute. GIMA operations have been supported by Ruth Freeburg, Kay Lawson, and Brian Lawson. Financial support has been provided by the National Science Foundation, the Geophysical Institute, and the University of Alaska Southeast. The PURAES magnetometer are operated by Arctic and Antarctic Research Institute (AARI), St. Petersburg, Russia, and data from these stations have been made available through a team effort with participants from the following organizations: World Data Center for Geomagnetism, Kyoto University (WDC Kyoto); National Institute of Information and Communications Technology (NICT), Japan; Institute for Dynamics of Geospheres (IDG), Russian Academy of Science; AARI, Russia; Geophysical Institute (GI), University of Alaska; Johns Hopkins University Applied Physics Laboratory (JHU/APL), USA. ABSTRACT The Geophysical Institute Magnetometer Array (GIMA) consists of twelve magnetometer stations distributed across Alaska cutting the auroral oval. Each station is equipped with a ring-core, fluxgate magnetometer, GPS clock and data logger. Data are returned from each station to the Geophysical Institute, University of Alaska where it is verified, archived, and made available to the space science community. The GIMA web page, at provides the data from eight stations online in real-time. The GIMA web page also provides limited data access from five Russian magnetometer stations. The GIMA data set available online spans the time period 1995 to the present. This presentation describes the current operation of the array, its capabilities (data collection parameters), the web site, and methods for accessing the data set. Current efforts to improve data access and integrate the data set with online virtual observatories is described. Fall AGU 2006 SA41B-1417 INSTRUMENTS The Narod ring-core magnetometer used by the Geophysical Institute is manufactured by Narod Geophysics Ltd. of Canada. The magnetometer is a fluxgate design using a triaxial set of cores. The sensor cores are shown here in the GI enclosure. A carefully machined ceramic block (the white block in the center) holds each of the three cores in mutually orthogonal directions. The cores are wrapped in copper wire. Two can be seen in this photo. The ceramic block is mounted to the base of an aluminum enclosure designed and manufactured at the Geophysical Institute. The blue-anodized aluminum cover encloses and seals the sensor block from the elements. The gold-anodized aluminum housing is mounted on a platform which can be leveled and oriented to any azimuth. The red cable attaches the sensors to the preamplifier (the black box on the table). ARRAY STATION INFORMATION The Geophysical Institute Magnetometer Array (GIMA) consists of eleven magnetometer stations distributed across Alaska cutting the auroral oval. The geographic and geomagnetic locations of the GIMA and PURAES stations are described in the table below. Additionally, the existence of real-time (within 10 seconds) and the span of the station data set are described in the table. ACCESSING THE DATA The numeric data for a site from a single date can be downloaded as either ASCII or netCDF data files from the access data script page. Experimental support for requesting multiple sites and multiple days from within idl, matlab, perl, and python have been developed. Please contact if you are interested in this method of data access. SAMPLE DATA The recent CAWSES Campaign focused on May 15 and August 24, Representative GIMA data from three stations are shown for both dates below. The characteristics of the Narod system are: Temperature stability: <0.1nT/degree (sensor) Long term drift: $< 10$ pT/day Noise: 7 1Hz Orthogonality error: <0.1 degree Digitization: 16 bits You may access our data by multiple methods. The main portal is at From there you can: 1.Use our access data form. Use this when you know the exact date for which you wish to find data. This method involves a series of drop- down menus where you select the site, year, month, and day that you wish to view. You then get previous and next buttons to further navigate the data if you wish. 2.View tables of all our data. The tables are organized in 2 ways: Data for all years for one station Data for all stations for one year Use this method to see if data exists for a block of dates or multiple stations for the same date. 3. Use data lists for each station to browse the data for quiet or active periods. These lists are first broken down by site then by year. Once you click a site below you'll see a single year's listing. You can then choose a different year if you wish or pick a day to view. This interface is most like our original listings. * Arctic Village, Alaska, USA * Bettles, Alaska, USA * CIGO, College Internl Geophysical Observatory, Alaska, USA * Eagle, Alaska, USA * Fort Yukon, Alaska, USA * Gakona, Alaska, USA * HLMS - Anchorage, Alaska, USA * Homer, Alaska, USA * Kaktovik Alaska, USA * Poker Flat, Alaska, USA * Trapper Creek, Alaska, USA * Compiled H component from All sites 4. You can also use our form to download a block of one minute data. The data cannot span more than one year or one site. For a block of one second data or other special request, send specifying the station, dates, and requested format and protocol (ftp, tar, zip, etc.). 5. View near real-time data in an auto-updating web page (updates every 8 seconds). GIMA consists of 12 magnetometers currently operating (9 of which are archived daily) forming a north-south chain across Alaska. In addition, the Project for Upgrading Russian AE Stations (PURAES) dataset is processed, archived, and available with the GIMA data set. The magnetometer electronics are controlled by an S-100 computer that uses internal calibrations to produce digital output in units of nano Tesla. The nominal data rate is 8 samples per second. The unit also has the capability of digitizing other signals and including them in the output data stream. We use this function to include an IRIG D slow-code time signal that is generated by a GPS clock in one data channel for absolute timing. StationGeogr LatGeogr LonGeomag LatGeomag LonReal Time?Dates (year/DOY) GIMA/Arctic Yes2000/245 - present GIMA/Bettles No1997/ /240 GIMA/CIGO Yes1999/032-present GIMA/Eagle No1995/258-present GIMA/FtYukon Yes1996/337-present GIMA/Gakona Yes1998/295-present GIMA/HLMS Yes2004/324-present GIMA/Homer Yes2004/325-present GIMA/Kaktovik Yes1999/013-present GIMA/Kodiak YesBeing installed GIMA/Koror No1994/ /365 GIMA/Kotzebue No1994/ /119 GIMA/Poker Yes2000/012-present GIMA/Talkeetna No1997/ /019 GIMA/Trapper Yes2004/323-present PURAES/Amderma Yes2006/143-present PURAES/Chelynskin No2002/091-present PURAES/Dixon No2005/ /094 PURAES/Norilsk Yes2002/091-present PURAES/Pebek No2002/ /252 PURAES/Tixie Bay Yes2002/170-present IGRF-10, 2005