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          <full_title>Journal of Geophysical Research: Space Physics</full_title>
          <abbrev_title>JGR Space Physics</abbrev_title>
          <issn media_type="print">2169-9380</issn>
          <issn media_type="electronic">2169-9402</issn>
        </journal_metadata>
        <journal_issue>
          <publication_date media_type="print">
            <month>05</month>
            <year>2014</year>
          </publication_date>
          <journal_volume>
            <volume>119</volume>
          </journal_volume>
          <issue>5</issue>
          <doi_data>
            <doi>10.1002/jgra.v119.5</doi>
            <resource>https://agupubs.onlinelibrary.wiley.com/toc/21699402/119/5</resource>
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          <titles>
            <title>Geomagnetic main field modeling with DMSP</title>
          </titles>
          <contributors>
            <person_name contributor_role="author" sequence="first">
              <given_name>P.</given_name>
              <surname>Alken</surname>
              <affiliation>National Geophysical Data Center NOAA  Boulder Colorado USA</affiliation>
            </person_name>
            <person_name contributor_role="author" sequence="additional">
              <given_name>S.</given_name>
              <surname>Maus</surname>
              <affiliation>National Geophysical Data Center NOAA  Boulder Colorado USA</affiliation>
            </person_name>
            <person_name contributor_role="author" sequence="additional">
              <given_name>H.</given_name>
              <surname>Lühr</surname>
              <affiliation>Helmholtz Centre Potsdam, GFZ German Research Centre for Geosciences  Potsdam Germany</affiliation>
            </person_name>
            <person_name contributor_role="author" sequence="additional">
              <given_name>R. J.</given_name>
              <surname>Redmon</surname>
              <affiliation>National Geophysical Data Center NOAA  Boulder Colorado USA</affiliation>
            </person_name>
            <person_name contributor_role="author" sequence="additional">
              <given_name>F.</given_name>
              <surname>Rich</surname>
              <affiliation>Lincoln Laboratory Massachusetts Institute of Technology  Lexington Massachusetts USA</affiliation>
            </person_name>
            <person_name contributor_role="author" sequence="additional">
              <given_name>B.</given_name>
              <surname>Bowman</surname>
              <affiliation>Space Environment Technologies  Pacific Palisades California USA</affiliation>
            </person_name>
            <person_name contributor_role="author" sequence="additional">
              <given_name>S. M.</given_name>
              <surname>O'Malley</surname>
              <affiliation>Atmospheric and Environmental Research, Inc.  Lexington Massachusetts USA</affiliation>
            </person_name>
          </contributors>
          <abstract abstract-type="main">
            <title>Abstract</title>
            <p>
              The Defense Meteorological Satellite Program (DMSP) launches and maintains a network of satellites to monitor the meteorological, oceanographic, and solar‐terrestrial physics environments. In the past decade, geomagnetic field modelers have focused much attention on magnetic measurements from missions such as CHAMP, Ørsted, and SAC‐C. With the completion of the CHAMP mission in 2010, there has been a multiyear gap in satellite‐based vector magnetic field measurements available for main field modeling. In this study, we calibrate the special sensor magnetometer instrument on board DMSP to create a data set suitable for main field modeling. These vector field measurements are calibrated to compute instrument timing shifts, scale factors, offsets, and nonorthogonality angles of the fluxgate magnetometer cores. Euler angles are then computed to determine the orientation of the vector magnetometer with respect to a local coordinate system. We fit a degree 15 main field model to the data set and compare with the World Magnetic Model and Ørsted scalar measurements. We call this model DMSP‐MAG‐1, and its coefficients and software are available for download at
              <ext-link href="http://geomag.org/models/dmsp.html">http://geomag.org/models/dmsp.html</ext-link>
              . Our results indicate that the DMSP data set will be a valuable source for main field modeling for the years between CHAMP and the recently launched Swarm mission.
            </p>
          </abstract>
          <abstract abstract-type="short">
            <title>Key Points</title>
            <p>
              <list list-type="bullet">
                <list-item>
                  <p>We calibrated the magnetometers on DMSP F‐15 through F‐18</p>
                </list-item>
                <list-item>
                  <p>We fit a main field model to the DMSP data</p>
                </list-item>
                <list-item>
                  <p>Our DMSP‐based model is validated against Ørsted and ground measurements</p>
                </list-item>
              </list>
            </p>
          </abstract>
          <publication_date media_type="online">
            <month>05</month>
            <day>27</day>
            <year>2014</year>
          </publication_date>
          <publication_date media_type="print">
            <month>05</month>
            <year>2014</year>
          </publication_date>
          <pages>
            <first_page>4010</first_page>
            <last_page>4025</last_page>
          </pages>
          <publisher_item>
            <identifier id_type="doi">10.1002/2013JA019754</identifier>
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