<?xml version="1.0" encoding="UTF-8"?>
<Spase xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xmlns="http://www.spase-group.org/data/schema" xsi:schemaLocation="http://www.spase-group.org/data/schema http://www.spase-group.org/data/schema/spase-2_0_3.xsd">
  <Version>2.0.3</Version>
  <NumericalData>
    <ResourceID>spase://VMO/NumericalData/SCATHA/summary</ResourceID>
    <ResourceHeader>
      <ResourceName>SCATHA Science Summary Data</ResourceName>
      <ReleaseDate>2012-02-06T12:34:56.789</ReleaseDate>
      <Description>Summary science data from SCATHA instruments (SC1, SC2, SC3, SC10, and SC11). One minute resolution processed at Aerospace from full-resolution data files.</Description>
      <Contact>
        <PersonID>spase://SMWG/Person/Jonathan.Thomas.Niehof</PersonID>
        <Role>TechnicalContact</Role>
        <Role>MetadataContact</Role>
      </Contact>
      <Contact>
        <PersonID>spase://SMWG/Person/Theodore.Allan.Fritz</PersonID>
        <Role>GeneralContact</Role>
      </Contact>
      <Contact>
        <PersonID>spase://SMWG/Person/Joseph.F.Fennell</PersonID>
        <Role>DataProducer</Role>
      </Contact>
      <InformationURL>
        <Name>SCATHA web page at the Boston University</Name>
        <URL>http://spacedata.bu.edu/scatha.html</URL>
        <Description>Web page providing access to the SCATHA science summary data, spacecraft description paper, and summary plots.</Description>
        <Language>EN</Language>
      </InformationURL>
      <InformationURL>
        <Name>Data Recovery from SCATHA Satellite</Name>
        <URL>http://spacedata.bu.edu/docs/NASA_CR-97-207336.pdf</URL>
        <Description>NASA/ESA report describing preparation of the science summary CDF files.</Description>
        <Language>EN</Language>
      </InformationURL>
    </ResourceHeader>
    <AccessInformation>
      <RepositoryID>spase://SMWG/Repository/BU</RepositoryID>
      <Availability>Online</Availability>
      <AccessRights>Open</AccessRights>
      <AccessURL>
        <Name>SCATHA repository at BU</Name>
        <URL>http://spacedata.bu.edu/data/scatha/</URL>
        <Description>Boston University-hosted science summary files for SCATHA (Spacecraft Charging at High Altitude). One CDF file per day, all instruments included.</Description>
        <Language>EN</Language>
      </AccessURL>
      <Format>CDF</Format>
      <DataExtent>
        <Quantity>1.1</Quantity>
        <Units>MiB</Units>
        <Per>P1D</Per>
      </DataExtent>
    </AccessInformation>
    <ProcessingLevel>Calibrated</ProcessingLevel>
    <ProviderResourceName>SCATHA Science Summary Data</ProviderResourceName>
    <ProviderVersion>01</ProviderVersion>
    <InstrumentID>spase://SMWG/Instrument/SCATHA/SC1</InstrumentID>
    <InstrumentID>spase://SMWG/Instrument/SCATHA/SC2</InstrumentID>
    <InstrumentID>spase://SMWG/Instrument/SCATHA/SC3</InstrumentID>
    <InstrumentID>spase://SMWG/Instrument/SCATHA/SC10</InstrumentID>
    <InstrumentID>spase://SMWG/Instrument/SCATHA/SC11</InstrumentID>
    <MeasurementType>MagneticField</MeasurementType>
    <MeasurementType>Waves.Passive</MeasurementType>
    <MeasurementType>ElectricField</MeasurementType>
    <MeasurementType>ThermalPlasma</MeasurementType>
    <MeasurementType>EnergeticParticles</MeasurementType>
    <MeasurementType>Ephemeris</MeasurementType>
    <TemporalDescription>
      <TimeSpan>
        <StartDate>1979-02-06T00:15:29Z</StartDate>
        <StopDate>1986-06-16T23:59:30Z</StopDate>
        <Note>Coverage is not continuous</Note>
      </TimeSpan>
    </TemporalDescription>
    <ObservedRegion>Earth.Magnetosphere</ObservedRegion>
    <Parameter>
      <Name>NSSDC Standard Time </Name>
      <ParameterKey>Epoch</ParameterKey>
      <Description>Midpoint of the high resolution data averaged into each parameter.</Description>
      <Units>ms</Units>
      <ValidMin>01-Jan-1979 00:00:00.000</ValidMin>
      <ValidMax>21-May-1990 23:59:59.000</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Support>
        <SupportQuantity>Temporal</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Averaging time interval</Name>
      <ParameterKey>AveInt</ParameterKey>
      <Description>Except where noted, all parameters are averages of the high resolution data available from the corresponding measurement over the period of length 'AVEINT' with midpoint at time 'EPOCH'.</Description>
      <Units>ms</Units>
      <ValidMin>1.0</ValidMin>
      <ValidMax>1.0E8</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Support>
        <SupportQuantity>Temporal</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Mag. field in GSM coordinates</Name>
      <ParameterKey>B_GSM</ParameterKey>
      <Description>From 4 s/s SC11 values averaged over AveInt time interval centered at Epoch time.</Description>
      <Units>nT</Units>
      <UnitsConversion>1.0e-9&gt;T</UnitsConversion>
      <CoordinateSystem>
        <CoordinateRepresentation>Cartesian</CoordinateRepresentation>
        <CoordinateSystemName>GSM</CoordinateSystemName>
      </CoordinateSystem>
      <Structure>
        <Size>3</Size>
        <Element>
          <Name>Bx (GSM)</Name>
          <Qualifier>Component.I</Qualifier>
          <Index>1</Index>
          <Units>nT</Units>
          <UnitsConversion>1.0e-9&gt;T</UnitsConversion>
          <ValidMin>-300.0</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
        <Element>
          <Name>By (GSM)</Name>
          <Qualifier>Component.J</Qualifier>
          <Index>2</Index>
          <Units>nT</Units>
          <UnitsConversion>1.0e-9&gt;T</UnitsConversion>
          <ValidMin>-300.0</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
        <Element>
          <Name>Bz (GSM)</Name>
          <Qualifier>Component.K</Qualifier>
          <Index>3</Index>
          <Units>nT</Units>
          <UnitsConversion>1.0e-9&gt;T</UnitsConversion>
          <ValidMin>-300.0</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
      </Structure>
      <Field>
        <Qualifier>Vector</Qualifier>
        <FieldQuantity>Magnetic</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>Count rate error of averaged B-field coordinates </Name>
      <ParameterKey>BSigma_GSM</ParameterKey>
      <Description>Count Rate error of corresponding x-, y- and z- fields of B_GSM - SQRT( Sum of counts).</Description>
      <Units>unitless</Units>
      <CoordinateSystem>
        <CoordinateRepresentation>Cartesian</CoordinateRepresentation>
        <CoordinateSystemName>GSM</CoordinateSystemName>
      </CoordinateSystem>
      <Structure>
        <Size>3</Size>
        <Element>
          <Name>Bx sigma (GSM)</Name>
          <Qualifier>Component.I</Qualifier>
          <Index>1</Index>
          <Units>unitless</Units>
          <ValidMin>-300.0</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
        <Element>
          <Name>By sigma (GSM)</Name>
          <Qualifier>Component.J</Qualifier>
          <Index>2</Index>
          <Units>unitless</Units>
          <ValidMin>-300.0</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
        <Element>
          <Name>Bz sigma (GSM)</Name>
          <Qualifier>Component.K</Qualifier>
          <Index>3</Index>
          <Units>unitless</Units>
          <ValidMin>-300.0</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
      </Structure>
      <Support>
        <Qualifier>Uncertainty</Qualifier>
        <SupportQuantity>Other</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>E-field VLF wave amplitude</Name>
      <ParameterKey>EVLFAmp</ParameterKey>
      <Description>Electric field VLF wave amplitudes at 8 frequencies - From  SC1-8A data averaged over 16 second period at 1sample/sec. Converted to science units using calibration data  Values within 30 seconds of time in Epoch interpolated to Epoch using IDL function NR_SPLINE.</Description>
      <Units>dBV/m</Units>
      <Structure>
        <Size>8</Size>
        <Element>
          <Name>E-field VLF amplitude 0.4kHz</Name>
          <Index>1</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 1.3kHz</Name>
          <Index>2</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 2.3kHz</Name>
          <Index>3</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 3.0kHz</Name>
          <Index>4</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 10.5kHz</Name>
          <Index>5</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 30.0kHz</Name>
          <Index>6</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 100.0kHz</Name>
          <Index>7</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF amplitude 300.0kHz</Name>
          <Index>8</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Average</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACElectricField</WaveQuantity>
        <FrequencyRange>
          <Low>0.37</Low>
          <High>323</High>
          <Units>kHz</Units>
          <Bin>
            <Low>0.37</Low>
            <High>0.43</High>
          </Bin>
          <Bin>
            <Low>1.2</Low>
            <High>1.4</High>
          </Bin>
          <Bin>
            <Low>2.1</Low>
            <High>2.5</High>
          </Bin>
          <Bin>
            <Low>2.8</Low>
            <High>3.2</High>
          </Bin>
          <Bin>
            <Low>9.71</Low>
            <High>11.3</High>
          </Bin>
          <Bin>
            <Low>28</Low>
            <High>32.25</High>
          </Bin>
          <Bin>
            <Low>93</Low>
            <High>108</High>
          </Bin>
          <Bin>
            <Low>278</Low>
            <High>323</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>E-field VLF peak wave amplitude</Name>
      <ParameterKey>EVLFPAmp</ParameterKey>
      <Description>Electric field VLF peak wave amplitudes at each of 8 frequencies from 16 second average of 1sample/sec values. Peak of these averages chosen from 1 minute around the time in Epoch. Converted to science units using calibration values.</Description>
      <Units>dBV/m</Units>
      <Structure>
        <Size>8</Size>
        <Element>
          <Name>E-field VLF peak amplitude 0.4kHz</Name>
          <Index>1</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 1.3kHz</Name>
          <Index>2</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 2.3kHz</Name>
          <Index>3</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 3.0kHz</Name>
          <Index>4</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 10.5kHz</Name>
          <Index>5</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 30.0kHz</Name>
          <Index>6</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 100.0kHz</Name>
          <Index>7</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF peak amplitude 300.0kHz</Name>
          <Index>8</Index>
          <Units>dBV/m</Units>
          <ValidMin>-82.0</ValidMin>
          <ValidMax>-32.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Peak</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACElectricField</WaveQuantity>
        <FrequencyRange>
          <Low>0.37</Low>
          <High>323</High>
          <Units>kHz</Units>
          <Bin>
            <Low>0.37</Low>
            <High>0.43</High>
          </Bin>
          <Bin>
            <Low>1.2</Low>
            <High>1.4</High>
          </Bin>
          <Bin>
            <Low>2.1</Low>
            <High>2.5</High>
          </Bin>
          <Bin>
            <Low>2.8</Low>
            <High>3.2</High>
          </Bin>
          <Bin>
            <Low>9.71</Low>
            <High>11.3</High>
          </Bin>
          <Bin>
            <Low>28</Low>
            <High>32.25</High>
          </Bin>
          <Bin>
            <Low>93</Low>
            <High>108</High>
          </Bin>
          <Bin>
            <Low>278</Low>
            <High>323</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>E-field VLF center frequency</Name>
      <ParameterKey>EVLFFrq</ParameterKey>
      <Description>Electric field VLF frequency range center values for values stored in EVLFAmp and EVLFPAmp.</Description>
      <Units>kHz</Units>
      <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
      <Structure>
        <Size>8</Size>
        <Element>
          <Name>E-field VLF 0.4 kHz bin center</Name>
          <Index>1</Index>
          <Units>kHz</Units>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 1.3 kHz bin center</Name>
          <Index>2</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 2.3 kHz bin center</Name>
          <Index>3</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 3.0 kHz bin center</Name>
          <Index>4</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 10.5 kHz bin center</Name>
          <Index>5</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 30.0 kHz bin center</Name>
          <Index>6</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 100.0kHz bin center</Name>
          <Index>7</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 300.0kHz bin center</Name>
          <Index>8</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>E-field VLF upper frequency range value</Name>
      <ParameterKey>EVLFFHi</ParameterKey>
      <Description>Electric field VLF frequency range maximum values for values stored in EVLFAmp and EVLFPAmp.</Description>
      <Units>kHz</Units>
      <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
      <Structure>
        <Size>8</Size>
        <Element>
          <Name>E-field VLF 0.4 kHz bin max</Name>
          <Index>1</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 1.3 kHz bin max</Name>
          <Index>2</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 2.3 kHz bin max</Name>
          <Index>3</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 3.0 kHz bin max</Name>
          <Index>4</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 10.5 kHz bin max</Name>
          <Index>5</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 30.0 kHz bin max</Name>
          <Index>6</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 100.0kHz bin max</Name>
          <Index>7</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 300.0kHz bin max</Name>
          <Index>8</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>E-field VLF lower frequency range value</Name>
      <ParameterKey>EVLFFLo</ParameterKey>
      <Description>Electric field VLF frequency range minimum values for values stored in EVLFAmp and EVLFPAmp.</Description>
      <Units>kHz</Units>
      <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
      <Structure>
        <Size>8</Size>
        <Element>
          <Name>E-field VLF 0.4 kHz bin min</Name>
          <Index>1</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 1.3 kHz bin min</Name>
          <Index>2</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 2.3 kHz bin min</Name>
          <Index>3</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 3.0 kHz bin min</Name>
          <Index>4</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 10.5 kHz bin min</Name>
          <Index>5</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 30.0 kHz bin min</Name>
          <Index>6</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 100.0kHz bin min</Name>
          <Index>7</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field VLF 300.0kHz bin min</Name>
          <Index>8</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field VLF wave amplitude</Name>
      <ParameterKey>BVLFAmp</ParameterKey>
      <Description>Magnetic field VLF wave amplitudes at 4 frequencies - From  SC1-8A data averaged over 16 second period at 1sample/sec. Converted to science units using calibration data  Values within 30 seconds of time in Epoch interpolated to Epoch using IDL function NR_SPLINE.</Description>
      <Units>dBnT</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field VLF amplitude 0.4kHz</Name>
          <Index>1</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF amplitude 1.3kHz</Name>
          <Index>2</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF amplitude 2.3kHz</Name>
          <Index>3</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF amplitude 3.0kHz</Name>
          <Index>4</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Average</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACMagneticField</WaveQuantity>
        <FrequencyRange>
          <Low>0.37</Low>
          <High>3.2</High>
          <Units>kHz</Units>
          <Bin>
            <Low>0.37</Low>
            <High>0.43</High>
          </Bin>
          <Bin>
            <Low>1.2</Low>
            <High>1.4</High>
          </Bin>
          <Bin>
            <Low>2.1</Low>
            <High>2.5</High>
          </Bin>
          <Bin>
            <Low>2.8</Low>
            <High>3.2</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>Peak B-field VLF peak wave amplitude </Name>
      <ParameterKey>BVLFPAmp</ParameterKey>
      <Description>Magnetic field VLF peak wave amplitudes at each of 4 frequencies from 16 second average of 1sample/sec values. Peak of these averages chosen from 1 minute around the time in Epoch. Converted to science units using calibration values.</Description>
      <Units>dBnT</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field VLF peak amplitude 0.4kHz</Name>
          <Index>1</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF peak amplitude 1.3kHz</Name>
          <Index>2</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF peak amplitude 2.3kHz</Name>
          <Index>3</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF peak amplitude 3.0kHz</Name>
          <Index>4</Index>
          <Units>dBnT</Units>
          <ValidMin>-80.0</ValidMin>
          <ValidMax>-30.0</ValidMax>
          <FillValue>-99.999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Peak</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACMagneticField</WaveQuantity>
        <FrequencyRange>
          <Low>0.37</Low>
          <High>3.2</High>
          <Units>kHz</Units>
          <Bin>
            <Low>0.37</Low>
            <High>0.43</High>
          </Bin>
          <Bin>
            <Low>1.2</Low>
            <High>1.4</High>
          </Bin>
          <Bin>
            <Low>2.1</Low>
            <High>2.5</High>
          </Bin>
          <Bin>
            <Low>2.8</Low>
            <High>3.2</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field VLF center frequency</Name>
      <ParameterKey>BVLFFrq</ParameterKey>
      <Description>Magnetic field VLF frequency range center values for values stored in BVLFAmp and BVLFPAmp.</Description>
      <Units>kHz</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field VLF 0.4 kHz bin center</Name>
          <Index>1</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 1.3 kHz bin center</Name>
          <Index>2</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 2.3 kHz bin center</Name>
          <Index>3</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 3.0 kHz bin center</Name>
          <Index>4</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.4</ValidMin>
          <ValidMax>300.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field VLF upper frequency range value</Name>
      <ParameterKey>BVLFFHi</ParameterKey>
      <Description>Magnetic field VLF frequency range maximum values for values stored in BVLFAmp and BVLFPAmp.</Description>
      <Units>kHz</Units>
      <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field VLF 0.4 kHz bin max</Name>
          <Index>1</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.43</ValidMin>
          <ValidMax>3.2</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 1.3 kHz bin max</Name>
          <Index>2</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.43</ValidMin>
          <ValidMax>3.2</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 2.3 kHz bin max</Name>
          <Index>3</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.43</ValidMin>
          <ValidMax>3.2</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 3.0 kHz bin max</Name>
          <Index>4</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.43</ValidMin>
          <ValidMax>3.2</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field VLF lower frequency range value</Name>
      <ParameterKey>BVLFFLo</ParameterKey>
      <Description>Magnetic field VLF frequency range minimum values for values stored in BVLFAmp and BVLFPAmp.</Description>
      <Units>kHz</Units>
      <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field VLF 0.4 kHz bin min</Name>
          <Index>1</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.37</ValidMin>
          <ValidMax>2.8</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 1.3 kHz bin min</Name>
          <Index>2</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.37</ValidMin>
          <ValidMax>2.8</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 2.3 kHz bin min</Name>
          <Index>3</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.37</ValidMin>
          <ValidMax>2.8</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
        <Element>
          <Name>B-field VLF 3.0 kHz bin min</Name>
          <Index>4</Index>
          <Units>kHz</Units>
          <UnitsConversion>1.0e3&gt;Hz</UnitsConversion>
          <ValidMin>0.37</ValidMin>
          <ValidMax>2.8</ValidMax>
          <FillValue>-9.99</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>Common mode S/C potential, +/-15 volts</Name>
      <ParameterKey>CM1SCPot</ParameterKey>
      <Description>Common mode S/C potential, +/-15 volts - From SC10. Averaged over 1min from 2sample/sec data.</Description>
      <Units>V</Units>
      <ValidMin>-15.0</ValidMin>
      <ValidMax>15.0</ValidMax>
      <FillValue>-99.999</FillValue>
      <Field>
        <FieldQuantity>Potential</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>Common mode S/C potential, +/-300 volts</Name>
      <ParameterKey>CM2SCPot</ParameterKey>
      <Description>Common mode S/C potential, +/-300 volts - From SC10. Averaged over 1min from 2sample/sec data.</Description>
      <Units>V</Units>
      <ValidMin>-300.0</ValidMin>
      <ValidMax>300.0</ValidMax>
      <FillValue>-999.99</FillValue>
      <Field>
        <FieldQuantity>Potential</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>Common mode S/C potential, +/-5000 volts</Name>
      <ParameterKey>CM3SCPot</ParameterKey>
      <Description>Common mode S/C potential, +/-5000 volts - From SC10. Averaged over 1min from 2sample/sec data.</Description>
      <Units>V</Units>
      <ValidMin>-5000.0</ValidMin>
      <ValidMax>5000.0</ValidMax>
      <FillValue>-9999.9</FillValue>
      <Field>
        <FieldQuantity>Potential</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>DC E-field magnitude low gain</Name>
      <ParameterKey>EDCLo</ParameterKey>
      <Description>DC Electric field magnitude low gain range (gain = 0.025) - From SC10. Averaged from 2 samples/sec.</Description>
      <Units>mV/m</Units>
      <UnitsConversion>1.0e-3&gt;V/m</UnitsConversion>
      <ValidMin>-3000.0</ValidMin>
      <ValidMax>3000.0</ValidMax>
      <FillValue>-9999.9</FillValue>
      <Field>
        <Qualifier>Magnitude</Qualifier>
        <FieldQuantity>Electric</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>RMS E-field amplitude</Name>
      <ParameterKey>EAC</ParameterKey>
      <Description>DC Electric field RMS magnitude of AC E-field (gain = 2.5) - from SC10. 1 minute RMS of 2 samples/sec data, less average over that minute.</Description>
      <Units>V</Units>
      <ValidMin>0.0</ValidMin>
      <ValidMax>15.0</ValidMax>
      <FillValue>-99.999</FillValue>
      <Field>
        <Qualifier>Magnitude</Qualifier>
        <FieldQuantity>Electric</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>DC E-field magnitude high gain</Name>
      <ParameterKey>EDCHi</ParameterKey>
      <Description>DC Electric field magnitude high gain range (gain = 0.25) - From SC10. Averaged from 2 samples/sec.</Description>
      <Units>mV/m</Units>
      <UnitsConversion>1.0e-3&gt;V/m</UnitsConversion>
      <ValidMin>-150.0</ValidMin>
      <ValidMax>150.0</ValidMax>
      <FillValue>-999.99</FillValue>
      <Field>
        <Qualifier>Magnitude</Qualifier>
        <FieldQuantity>Electric</FieldQuantity>
      </Field>
    </Parameter>
    <Parameter>
      <Name>E-field ELF wave amplitude</Name>
      <ParameterKey>EELFAmp</ParameterKey>
      <Description>Average Electric field ELF wave amplitudes in 4 frequency ranges - From SC10. 1min average of 1sample/sec.</Description>
      <Caveats>Stored as voltage from telemetry, not calibrated to physical units.</Caveats>
      <Units>V</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>E-field ELF wave amplitude 0.1-1.kHz</Name>
          <Index>1</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF wave amplitude 1.0-2.0Hz</Name>
          <Index>2</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF wave amplitude 2.0-20.0Hz</Name>
          <Index>3</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF wave amplitude 20.0-200.0Hz</Name>
          <Index>4</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Average</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACElectricField</WaveQuantity>
        <FrequencyRange>
          <Low>0.1</Low>
          <High>200.0</High>
          <Units>Hz</Units>
          <Bin>
            <Low>0.1</Low>
            <High>1.0</High>
          </Bin>
          <Bin>
            <Low>1.0</Low>
            <High>2.0</High>
          </Bin>
          <Bin>
            <Low>2.0</Low>
            <High>20.0</High>
          </Bin>
          <Bin>
            <Low>20.0</Low>
            <High>200.0</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>Peak E-field ELF wave amplitude</Name>
      <ParameterKey>EELFPAmp</ParameterKey>
      <Description>Peak Electric field wave amplitudes in 4 ELF frequency ranges - From SC10. 1min maximum of 1sample/sec.</Description>
      <Caveats>Stored as voltage from telemetry, not calibrated to physical units.</Caveats>
      <Units>V</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>Peak E-field ELF wave amplitude 0.1-1.0Hz</Name>
          <Index>1</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>Peak E-field ELF wave amplitude 1.0-2.0Hz</Name>
          <Index>2</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>Peak E-field ELF wave amplitude 2.0-20.0Hz</Name>
          <Index>3</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>Peak E-field ELF wave amplitude 20.0-200.0Hz</Name>
          <Index>4</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Peak</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACElectricField</WaveQuantity>
        <FrequencyRange>
          <Low>0.1</Low>
          <High>200.0</High>
          <Units>Hz</Units>
          <Bin>
            <Low>0.1</Low>
            <High>1.0</High>
          </Bin>
          <Bin>
            <Low>1.0</Low>
            <High>2.0</High>
          </Bin>
          <Bin>
            <Low>2.0</Low>
            <High>20.0</High>
          </Bin>
          <Bin>
            <Low>20.0</Low>
            <High>200.0</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>E-field ELF upper frequency range value</Name>
      <ParameterKey>EELFFHi</ParameterKey>
      <Description>Maximum frequency values for Electric field ELF frequency range(s) - for values stored in EELFAmp and EELFPAmp.</Description>
      <Units>Hz</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>E-field ELF 0.1-1.0 Hz bin max</Name>
          <Index>1</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF 1.0-2.0 Hz bin max</Name>
          <Index>2</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF 2.0-20.0 Hz bin max</Name>
          <Index>3</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF 20.0-200.0 Hz bin max</Name>
          <Index>4</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>E-field ELF lower frquency range value</Name>
      <ParameterKey>EELFFLo</ParameterKey>
      <Description>Minimum frequency values for Electric field ELF frequency range(s) - for values stored in EELFAmp and EELFPAmp.</Description>
      <Units>Hz</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>E-field ELF 0.1-1.0 Hz bin min</Name>
          <Index>1</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF 1.0-2.0 Hz bin min</Name>
          <Index>2</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF 2.0-20.0 Hz bin min</Name>
          <Index>3</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>E-field ELF 20.0-200.0 Hz bin min</Name>
          <Index>4</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field ELF wave amplitude</Name>
      <ParameterKey>BELFAmp</ParameterKey>
      <Description>Average Magnetic field wave amplitudes in 4 ELF frequency ranges - From SC10. 1min average of 1sample/sec.</Description>
      <Caveats>Stored as voltage from telemetry, not calibrated to physical units.</Caveats>
      <Units>V</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field ELF wave amplitude 0.1-1.kHz</Name>
          <Index>1</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF wave amplitude 1.0-2.0Hz</Name>
          <Index>2</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF wave amplitude 2.0-20.0Hz</Name>
          <Index>3</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF wave amplitude 20.0-200.0Hz</Name>
          <Index>4</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Average</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACMagneticField</WaveQuantity>
        <FrequencyRange>
          <Low>0.1</Low>
          <High>200.0</High>
          <Units>Hz</Units>
          <Bin>
            <Low>0.1</Low>
            <High>1.0</High>
          </Bin>
          <Bin>
            <Low>1.0</Low>
            <High>2.0</High>
          </Bin>
          <Bin>
            <Low>2.0</Low>
            <High>20.0</High>
          </Bin>
          <Bin>
            <Low>20.0</Low>
            <High>200.0</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>Peak B-field ELF wave amplitude</Name>
      <ParameterKey>BELFPAmp</ParameterKey>
      <Description>Peak Magnetic field wave amplitudes in 4 ELF frequency ranges - From SC10. 1min maximum of 1sample/sec.</Description>
      <Caveats>Stored as voltage from telemetry, not calibrated to physical units.</Caveats>
      <Units>V</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>Peak B-field ELF wave amplitude 0.1-1.kHz</Name>
          <Index>1</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>Peak B-field ELF wave amplitude 1.0-2.0Hz</Name>
          <Index>2</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>Peak B-field ELF wave amplitude 2.0-20.0Hz</Name>
          <Index>3</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
        <Element>
          <Name>Peak B-field ELF wave amplitude 20.0-200.0Hz</Name>
          <Index>4</Index>
          <Units>V</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>5.0</ValidMax>
          <FillValue>-9.9999</FillValue>
        </Element>
      </Structure>
      <Wave>
        <Qualifier>Average</Qualifier>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>ACMagneticField</WaveQuantity>
        <FrequencyRange>
          <Low>0.1</Low>
          <High>200.0</High>
          <Units>Hz</Units>
          <Bin>
            <Low>0.1</Low>
            <High>1.0</High>
          </Bin>
          <Bin>
            <Low>1.0</Low>
            <High>2.0</High>
          </Bin>
          <Bin>
            <Low>2.0</Low>
            <High>20.0</High>
          </Bin>
          <Bin>
            <Low>20.0</Low>
            <High>200.0</High>
          </Bin>
        </FrequencyRange>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field ELF upper frequency range value</Name>
      <ParameterKey>BELFFHi</ParameterKey>
      <Description>Maximum frequency values for Magnetic field ELF frequency range(s) - for values stored in BELFAmp and BELFPAmp.</Description>
      <Units>Hz</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field ELF 0.1-1.0 Hz bin max</Name>
          <Index>1</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF 1.0-2.0 Hz bin max</Name>
          <Index>2</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF 2.0-20.0 Hz bin max</Name>
          <Index>3</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF 20.0-200.0 Hz bin max</Name>
          <Index>4</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>B-field ELF lower frequency range value</Name>
      <ParameterKey>BELFFLo</ParameterKey>
      <Description>Minimum frequency values for Magnetic field ELF frequency range(s) - for values stored in BELFAmp and BELFPAmp.</Description>
      <Units>Hz</Units>
      <Structure>
        <Size>4</Size>
        <Element>
          <Name>B-field ELF 0.1-1.0 Hz bin min</Name>
          <Index>1</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF 1.0-2.0 Hz bin min</Name>
          <Index>2</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF 2.0-20.0 Hz bin min</Name>
          <Index>3</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
        <Element>
          <Name>B-field ELF 20.0-200.0 Hz bin min</Name>
          <Index>4</Index>
          <Units>Hz</Units>
          <ValidMin>1.0</ValidMin>
          <ValidMax>200.0</ValidMax>
          <FillValue>-999.9</FillValue>
        </Element>
      </Structure>
      <Wave>
        <WaveType>PlasmaWaves</WaveType>
        <WaveQuantity>Frequency</WaveQuantity>
      </Wave>
    </Parameter>
    <Parameter>
      <Name>Differential electron flux perpendicular to B</Name>
      <ParameterKey>EPpDfFlx</ParameterKey>
      <Description>Differential electron number flux perpendicular to B in 10 energy ranges - Calculated pitch angles are 90 +/- 20 deg to the magnetic field - Data acquired by SC2-3  (mounted on the satellite body) using program #1 energy steps (7 steps from .20 - 20keV) and SC3 at energies 57, 98 and 140keV. Energy bins assume deltaE/E=0.07 for SC2 and 0.1 for SC3 (programmable).</Description>
      <Units>1/(cm^2 s sr keV)</Units>
      <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>Differential electron number flux perpendicular to B 187eV</Name>
          <Index>1</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 446eV</Name>
          <Index>2</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 1090eV</Name>
          <Index>3</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 2580eV</Name>
          <Index>4</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 4520eV</Name>
          <Index>5</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 10950 eV</Name>
          <Index>6</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 19.4 keV</Name>
          <Index>7</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 57keV</Name>
          <Index>8</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 98keV</Name>
          <Index>9</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux perpendicular to B 140keV</Name>
          <Index>10</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Differential</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>180.5</Low>
          <High>147000</High>
          <Units>eV</Units>
          <Bin>
            <Low>180.5</Low>
            <High>193.5</High>
          </Bin>
          <Bin>
            <Low>430.4</Low>
            <High>461.6</High>
          </Bin>
          <Bin>
            <Low>1052</Low>
            <High>1128</High>
          </Bin>
          <Bin>
            <Low>2490</Low>
            <High>2670</High>
          </Bin>
          <Bin>
            <Low>4362</Low>
            <High>4678</High>
          </Bin>
          <Bin>
            <Low>10570</Low>
            <High>11330</High>
          </Bin>
          <Bin>
            <Low>18720</Low>
            <High>20080</High>
          </Bin>
          <Bin>
            <Low>54150</Low>
            <High>59850</High>
          </Bin>
          <Bin>
            <Low>93100</Low>
            <High>102900</High>
          </Bin>
          <Bin>
            <Low>133000</Low>
            <High>147000</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>E-perp differential flux fractional error</Name>
      <ParameterKey>EEPpDfFlx</ParameterKey>
      <Description>E-perp differential flux fractional error - 10 count rate errors of values stored in EPpDfFlx = 1 / SQRT( SUM( counts ) ).</Description>
      <Units>unitless</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>E-perp differential flux fractional error 187eV</Name>
          <Index>1</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 446eV</Name>
          <Index>2</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 1090eV</Name>
          <Index>3</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 2580eV</Name>
          <Index>4</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 4520eV</Name>
          <Index>5</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 10950eV</Name>
          <Index>6</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 19.4keV</Name>
          <Index>7</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 57keV</Name>
          <Index>8</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 98keV</Name>
          <Index>9</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-perp differential flux fractional error 140keV</Name>
          <Index>10</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Uncertainty</Qualifier>
        <Qualifier>Differential</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>180.5</Low>
          <High>147000</High>
          <Units>eV</Units>
          <Bin>
            <Low>180.5</Low>
            <High>193.5</High>
          </Bin>
          <Bin>
            <Low>430.4</Low>
            <High>461.6</High>
          </Bin>
          <Bin>
            <Low>1052</Low>
            <High>1128</High>
          </Bin>
          <Bin>
            <Low>2490</Low>
            <High>2670</High>
          </Bin>
          <Bin>
            <Low>4362</Low>
            <High>4678</High>
          </Bin>
          <Bin>
            <Low>10570</Low>
            <High>11330</High>
          </Bin>
          <Bin>
            <Low>18720</Low>
            <High>20080</High>
          </Bin>
          <Bin>
            <Low>54150</Low>
            <High>59850</High>
          </Bin>
          <Bin>
            <Low>93100</Low>
            <High>102900</High>
          </Bin>
          <Bin>
            <Low>133000</Low>
            <High>147000</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Differential electron flux parallel to B</Name>
      <ParameterKey>EPlDfFlx</ParameterKey>
      <Description>Differential electron number flux parallel to B in 10 energy ranges - Calculated pitch angles are 0 +/- 30 deg or 180 +/- 30 deg to the magnetic field - Data acquired by SC2-3 using program #1 energy steps (7 steps from .20 - 20keV) and SC3 at energies 57, 98 and 140keV.</Description>
      <Units>electrons/(cm^2 sec str keV)</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>Differential electron number flux parallel to B 187eV</Name>
          <Index>1</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 446eV</Name>
          <Index>2</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 1090eV</Name>
          <Index>3</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 2580eV</Name>
          <Index>4</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 4520eV</Name>
          <Index>5</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 10950 eV</Name>
          <Index>6</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 19.4 keV</Name>
          <Index>7</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 57keV</Name>
          <Index>8</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 98keV</Name>
          <Index>9</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential electron number flux parallel to B 140keV</Name>
          <Index>10</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Differential</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>180.5</Low>
          <High>147000</High>
          <Units>eV</Units>
          <Bin>
            <Low>180.5</Low>
            <High>193.5</High>
          </Bin>
          <Bin>
            <Low>430.4</Low>
            <High>461.6</High>
          </Bin>
          <Bin>
            <Low>1052</Low>
            <High>1128</High>
          </Bin>
          <Bin>
            <Low>2490</Low>
            <High>2670</High>
          </Bin>
          <Bin>
            <Low>4362</Low>
            <High>4678</High>
          </Bin>
          <Bin>
            <Low>10570</Low>
            <High>11330</High>
          </Bin>
          <Bin>
            <Low>18720</Low>
            <High>20080</High>
          </Bin>
          <Bin>
            <Low>54150</Low>
            <High>59850</High>
          </Bin>
          <Bin>
            <Low>93100</Low>
            <High>102900</High>
          </Bin>
          <Bin>
            <Low>133000</Low>
            <High>147000</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>E-parl differential flux fractional error</Name>
      <ParameterKey>EEPlDfFlx</ParameterKey>
      <Description>E-parl differential flux fractional error - 10 count rate errors of values stored in EPlDfFlx = 1 / SQRT( SUM( counts ) ).</Description>
      <Units>unitless</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>E-parl differential flux fractional error 187eV</Name>
          <Index>1</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 446eV</Name>
          <Index>2</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 1090eV</Name>
          <Index>3</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 2580eV</Name>
          <Index>4</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 4520eV</Name>
          <Index>5</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 10950eV</Name>
          <Index>6</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 19.4keV</Name>
          <Index>7</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 57keV</Name>
          <Index>8</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 98keV</Name>
          <Index>9</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>E-parl differential flux fractional error 140keV</Name>
          <Index>10</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Uncertainty</Qualifier>
        <Qualifier>Differential</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>180.5</Low>
          <High>147000</High>
          <Units>eV</Units>
          <Bin>
            <Low>180.5</Low>
            <High>193.5</High>
          </Bin>
          <Bin>
            <Low>430.4</Low>
            <High>461.6</High>
          </Bin>
          <Bin>
            <Low>1052</Low>
            <High>1128</High>
          </Bin>
          <Bin>
            <Low>2490</Low>
            <High>2670</High>
          </Bin>
          <Bin>
            <Low>4362</Low>
            <High>4678</High>
          </Bin>
          <Bin>
            <Low>10570</Low>
            <High>11330</High>
          </Bin>
          <Bin>
            <Low>18720</Low>
            <High>20080</High>
          </Bin>
          <Bin>
            <Low>54150</Low>
            <High>59850</High>
          </Bin>
          <Bin>
            <Low>93100</Low>
            <High>102900</High>
          </Bin>
          <Bin>
            <Low>133000</Low>
            <High>147000</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Differential electron flux center energy</Name>
      <ParameterKey>EDfFlxEn</ParameterKey>
      <Description>Differential electron flux center energy - 10 reference energies associated with variables EPpDfFlx, EEPpDfFlx, EPlDfFlx and EEPlDfFlx.</Description>
      <Units>eV</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>Electron flux 187eV bin</Name>
          <Index>1</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 446eV bin</Name>
          <Index>2</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 1090eV bin</Name>
          <Index>3</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 2580eV bin</Name>
          <Index>4</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 4520eV bin</Name>
          <Index>5</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 10950eV bin</Name>
          <Index>6</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 19.4keV bin</Name>
          <Index>7</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 57keV bin</Name>
          <Index>8</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 98keV bin</Name>
          <Index>9</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Electron flux 140keV bin</Name>
          <Index>10</Index>
          <Units>eV</Units>
          <ValidMin>187.0</ValidMin>
          <ValidMax>140000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <ParticleQuantity>Energy</ParticleQuantity>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron energy flux perpendicular to B</Name>
      <ParameterKey>EPpEnFlx</ParameterKey>
      <Description>Electron energy flux perpendicular to B over .20-20keV energy range - uses 60 second average differential energy fluxes from SC2-3 step program #1 (energies defined by variable EDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>keV/(cm^2 s sr)</Units>
      <UnitsConversion>1.60217646e-12&gt;J/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>EnergyFlux</ParticleQuantity>
        <EnergyRange>
          <Low>200</Low>
          <High>20000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron number flux perpendicular to B</Name>
      <ParameterKey>EPpNmFlx</ParameterKey>
      <Description>Electron number flux perpendicular to B over .20-20keV energy range - uses 60 second average differential fluxes from SC2-3 step program #1 (energies defined by variable EDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>1/(cm^2 s sr)</Units>
      <UnitsConversion>1.0e4&gt;1/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>200</Low>
          <High>20000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron energy flux parallel to B</Name>
      <ParameterKey>EPlEnFlx</ParameterKey>
      <Description>Electron energy flux parallel to B over .20-20keV energy range - uses 60 second average differential energy fluxes from SC2-3 step program #1 (energies defined by variable EDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>keV/(cm^2 s sr)</Units>
      <UnitsConversion>1.60217646e-12&gt;J/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>EnergyFlux</ParticleQuantity>
        <EnergyRange>
          <Low>200</Low>
          <High>20000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron number flux parallel to B</Name>
      <ParameterKey>EPlNmFlx</ParameterKey>
      <Description>Electron number flux parallel to B over .20-20keV energy range - uses 60 second average differential fluxes from SC2-3 step program #1 (energies defined by variable EDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLI      .</Description>
      <Units>1/(cm^2 s sr)</Units>
      <UnitsConversion>1.0e4&gt;1/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>200</Low>
          <High>20000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Differential proton flux perpendicular to B</Name>
      <ParameterKey>PPpDfFlx</ParameterKey>
      <Description>Differential proton number flux perpendicular to B in 10 energy ranges - Calculated pitch angles are 90 +/- 20 deg (SC2-3) and 90 +/- 10 deg (SC2-6) to the Magnetic field - Data acquired by SC2-3 using program #1 energy steps (7 steps from .15 - 15keV) and SC2-6 at energies 36, 71 and 133keV. Energy bins assume deltaE/E=0.1.</Description>
      <Units>1/(cm^2 s sr keV)</Units>
      <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>Differential proton number flux perpendicular to B 154eV</Name>
          <Index>1</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 360eV</Name>
          <Index>2</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 880eV</Name>
          <Index>3</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 2060eV</Name>
          <Index>4</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 3.6keV</Name>
          <Index>5</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 8.8keV</Name>
          <Index>6</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 15.6keV</Name>
          <Index>7</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 36keV</Name>
          <Index>8</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 71keV</Name>
          <Index>9</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux perpendicular to B 133keV</Name>
          <Index>10</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Differential</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>146.3</Low>
          <High>139600</High>
          <Units>eV</Units>
          <Bin>
            <Low>146.3</Low>
            <High>161.7</High>
          </Bin>
          <Bin>
            <Low>342</Low>
            <High>378</High>
          </Bin>
          <Bin>
            <Low>836</Low>
            <High>924</High>
          </Bin>
          <Bin>
            <Low>1957</Low>
            <High>2163</High>
          </Bin>
          <Bin>
            <Low>3420</Low>
            <High>3780</High>
          </Bin>
          <Bin>
            <Low>8360</Low>
            <High>9240</High>
          </Bin>
          <Bin>
            <Low>14820</Low>
            <High>16380</High>
          </Bin>
          <Bin>
            <Low>34200</Low>
            <High>37800</High>
          </Bin>
          <Bin>
            <Low>67450</Low>
            <High>74550</High>
          </Bin>
          <Bin>
            <Low>126350</Low>
            <High>139650</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>P-perp differential flux fractional error</Name>
      <ParameterKey>EPPpDfFlx</ParameterKey>
      <Description>P-perp differential flux fractional error - 8 count rate errors of values stored in PPpDfFlx = 1 / SQRT( SUM( counts ) ).</Description>
      <Units>unitless</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>P-perp differential flux fractional error 154eV</Name>
          <Index>1</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 360eV</Name>
          <Index>2</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 880eV</Name>
          <Index>3</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 2060eV</Name>
          <Index>4</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 3.6keV</Name>
          <Index>5</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 8.8keV</Name>
          <Index>6</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 15.6keV</Name>
          <Index>7</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 36keV</Name>
          <Index>8</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 71keV</Name>
          <Index>9</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-perp differential flux fractional error 133keV</Name>
          <Index>10</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Uncertainty</Qualifier>
        <Qualifier>Differential</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>146.3</Low>
          <High>139600</High>
          <Units>eV</Units>
          <Bin>
            <Low>146.3</Low>
            <High>161.7</High>
          </Bin>
          <Bin>
            <Low>342</Low>
            <High>378</High>
          </Bin>
          <Bin>
            <Low>836</Low>
            <High>924</High>
          </Bin>
          <Bin>
            <Low>1957</Low>
            <High>2163</High>
          </Bin>
          <Bin>
            <Low>3420</Low>
            <High>3780</High>
          </Bin>
          <Bin>
            <Low>8360</Low>
            <High>9240</High>
          </Bin>
          <Bin>
            <Low>14820</Low>
            <High>16380</High>
          </Bin>
          <Bin>
            <Low>34200</Low>
            <High>37800</High>
          </Bin>
          <Bin>
            <Low>67450</Low>
            <High>74550</High>
          </Bin>
          <Bin>
            <Low>126350</Low>
            <High>139650</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Differential proton flux parallel to B</Name>
      <ParameterKey>PPlDfFlx</ParameterKey>
      <Description>Differential proton number flux parallel to B in 8 energy ranges - Calculated pitch angles are 0 +/- 30 deg or 180 +/- 30 deg to the magnetic field - Data acquired by SC2-3 using program #1 energy steps (7 steps from .15 - 15keV) and SC2-6 at energies 36, 71 and 133keV.</Description>
      <Units>1/(cm^2 s sr keV)</Units>
      <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>Differential proton number flux parallel to B 154eV</Name>
          <Index>1</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 360eV</Name>
          <Index>2</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 880eV</Name>
          <Index>3</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 2060eV</Name>
          <Index>4</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 3.6keV</Name>
          <Index>5</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 8.8keV</Name>
          <Index>6</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 15.6keV</Name>
          <Index>7</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 36keV</Name>
          <Index>8</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 71keV</Name>
          <Index>9</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>Differential proton number flux parallel to B 133keV</Name>
          <Index>10</Index>
          <Units>1/(cm^2 s sr keV)</Units>
          <UnitsConversion>6.24150974e19&gt;1/(m^2 s sr J)</UnitsConversion>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Differential</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>146.3</Low>
          <High>139600</High>
          <Units>eV</Units>
          <Bin>
            <Low>146.3</Low>
            <High>161.7</High>
          </Bin>
          <Bin>
            <Low>342</Low>
            <High>378</High>
          </Bin>
          <Bin>
            <Low>836</Low>
            <High>924</High>
          </Bin>
          <Bin>
            <Low>1957</Low>
            <High>2163</High>
          </Bin>
          <Bin>
            <Low>3420</Low>
            <High>3780</High>
          </Bin>
          <Bin>
            <Low>8360</Low>
            <High>9240</High>
          </Bin>
          <Bin>
            <Low>14820</Low>
            <High>16380</High>
          </Bin>
          <Bin>
            <Low>34200</Low>
            <High>37800</High>
          </Bin>
          <Bin>
            <Low>67450</Low>
            <High>74550</High>
          </Bin>
          <Bin>
            <Low>126350</Low>
            <High>139650</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>P-parl differential flux fractional error</Name>
      <ParameterKey>EPPlDfFlx</ParameterKey>
      <Description>P-parl differential flux fractional error - 10 count rate errors of values stored in PPlDfFlx = 1 / SQRT( SUM( counts ) ).</Description>
      <Units>unitless</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>P-parl differential flux fractional error 154eV</Name>
          <Index>1</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 360eV</Name>
          <Index>2</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 880eV</Name>
          <Index>3</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 2060eV</Name>
          <Index>4</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 3.6keV</Name>
          <Index>5</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 8.8keV</Name>
          <Index>6</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 15.6keV</Name>
          <Index>7</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 36keV</Name>
          <Index>8</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 71keV</Name>
          <Index>9</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>P-parl differential flux fractional error 133keV</Name>
          <Index>10</Index>
          <Units>unitless</Units>
          <ValidMin>0.0</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Uncertainty</Qualifier>
        <Qualifier>Differential</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>146.3</Low>
          <High>139600</High>
          <Units>eV</Units>
          <Bin>
            <Low>146.3</Low>
            <High>161.7</High>
          </Bin>
          <Bin>
            <Low>342</Low>
            <High>378</High>
          </Bin>
          <Bin>
            <Low>836</Low>
            <High>924</High>
          </Bin>
          <Bin>
            <Low>1957</Low>
            <High>2163</High>
          </Bin>
          <Bin>
            <Low>3420</Low>
            <High>3780</High>
          </Bin>
          <Bin>
            <Low>8360</Low>
            <High>9240</High>
          </Bin>
          <Bin>
            <Low>14820</Low>
            <High>16380</High>
          </Bin>
          <Bin>
            <Low>34200</Low>
            <High>37800</High>
          </Bin>
          <Bin>
            <Low>67450</Low>
            <High>74550</High>
          </Bin>
          <Bin>
            <Low>126350</Low>
            <High>139650</High>
          </Bin>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Differential proton flux center energy</Name>
      <ParameterKey>PDfFlxEn</ParameterKey>
      <Description>Differential proton flux center energy - 10 reference energies associated with variables PPpDfFlx, PEPpDfFlx, PPlDfFlx and PEPlDfFlx.</Description>
      <Units>eV</Units>
      <Structure>
        <Size>10</Size>
        <Element>
          <Name>Proton flux 154ev bin</Name>
          <Index>1</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 360ev bin</Name>
          <Index>2</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 880ev bin</Name>
          <Index>3</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 2060ev bin</Name>
          <Index>4</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 3.6kev bin</Name>
          <Index>5</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 8.8kev bin</Name>
          <Index>6</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 15.6kev bin</Name>
          <Index>7</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 36kev bin</Name>
          <Index>8</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 71kev bin</Name>
          <Index>9</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
        <Element>
          <Name>Proton flux 133kev bin</Name>
          <Index>10</Index>
          <Units>eV</Units>
          <ValidMin>154.0</ValidMin>
          <ValidMax>133000.0</ValidMax>
          <FillValue>-999999.0</FillValue>
        </Element>
      </Structure>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <ParticleQuantity>Energy</ParticleQuantity>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton energy flux perpendicular to B</Name>
      <ParameterKey>PPpEnFlx</ParameterKey>
      <Description>Proton energy flux perpendicular to B over .15-15keV energy range - uses 60 second average differential energy fluxes from SC2-3 step program #1 (energies defined by variable PDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>keV/(cm^2 s sr)</Units>
      <UnitsConversion>1.60217646e-12&gt;J/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>EnergyFlux</ParticleQuantity>
        <EnergyRange>
          <Low>150</Low>
          <High>15000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton number flux perpendicular to B</Name>
      <ParameterKey>PPpNmFlx</ParameterKey>
      <Description>Proton number flux perpendicular to B over .15-15keV energy range - uses 60 second average differential fluxes from SC2-3 step program #1 (energies defined by variable PDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>1/(cm^2 s sr)</Units>
      <UnitsConversion>1.0e4&gt;1/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>150</Low>
          <High>15000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton energy flux parallel to B </Name>
      <ParameterKey>PPlEnFlx</ParameterKey>
      <Description>Proton energy flux parallel to B over .15-15keV energy range - uses 60 second average differential energy fluxes from SC2-3 step program #1 (energies defined by variable PDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>keV/(cm^2 s sr)</Units>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>FieldAligned</Qualifier>
        <ParticleQuantity>EnergyFlux</ParticleQuantity>
        <EnergyRange>
          <Low>150</Low>
          <High>15000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>0</Low>
          <High>180</High>
          <Units>degrees</Units>
          <Bin>
            <BandName>Parallel</BandName>
            <Low>0</Low>
            <High>30</High>
          </Bin>
          <Bin>
            <BandName>Antiparallel</BandName>
            <Low>150</Low>
            <High>180</High>
          </Bin>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton number flux perpendicular to B</Name>
      <ParameterKey>PPlNmFlx</ParameterKey>
      <Description>Proton number flux paralel to B over .15-15keV energy range - uses 60 second average differential fluxes from SC2-3 step program #1 (energies defined by variable PDfFlxEn) and programs #2 and #3 if available - otherwise interpolations to those energies are done using IDL function NR_SPLINE.</Description>
      <Units>1/(cm^2 s sr)</Units>
      <UnitsConversion>1.0e4&gt;1/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Integral</Qualifier>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>NumberFlux</ParticleQuantity>
        <EnergyRange>
          <Low>150</Low>
          <High>15000</High>
          <Units>eV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron density (.1-20keV)</Name>
      <ParameterKey>EDensity</ParameterKey>
      <Description>Electron density in energy range .1-20keV - From SC2-3 using average differential number fluxes in the time interval from step program #1 (see EDfFlxEn) and step programs #2 and/or #3 to create the integration energy range 87eV to 19.4keV. Trapezoid integration, pitch angles 90°±20°.</Description>
      <Units>cm^-3</Units>
      <UnitsConversion>1e6&gt;m^-3</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>100.0</ValidMax>
      <FillValue>-999.9999</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <ParticleQuantity>NumberDensity</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>20</High>
          <Units>keV</Units>
        </EnergyRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron (.1-20keV) drift velocity perpendicular to B</Name>
      <ParameterKey>EPpDrfVel</ParameterKey>
      <Description>Electron drift velocity perpendicular to B of electrons in the energy range .1-20keV and having a pitch angle of 90 +/- 20 deg to the magnetic field - (see EDensity for description of source. Trapezoid integration.</Description>
      <Units>km/s</Units>
      <UnitsConversion>1e3&gt;m/s</UnitsConversion>
      <ValidMin>-1.0E10</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>FlowSpeed</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>20</High>
          <Units>keV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron pressure (.1-20keV)</Name>
      <ParameterKey>EPress</ParameterKey>
      <Description>Electron pressure in range .1-20keV of electrons in the energy range .04-20keV and having a pitch angle of 90 +/- 20 deg to the magnetic field - (see EDensity for description of source.) Trapezoid integration.</Description>
      <Units>ndyne/cm^2</Units>
      <UnitsConversion>1e-10&gt;Pa</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>Pressure</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>20</High>
          <Units>keV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Electron average energy (.1-20keV)</Name>
      <ParameterKey>EAveEn</ParameterKey>
      <Description>Electron average energy Calculated from differential number flux values derived from SC2-3 energy step programs #1 and from programs #2 and/or #3 - same source as for EDensity. Trapezoid integration, pitch angles 90°±20°.</Description>
      <Units>keV</Units>
      <UnitsConversion>1.60217646e-12&gt;J/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>20.0</ValidMax>
      <FillValue>-99.99999</FillValue>
      <Particle>
        <ParticleType>Electron</ParticleType>
        <Qualifier>Average</Qualifier>
        <ParticleQuantity>Energy</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>20</High>
          <Units>keV</Units>
        </EnergyRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton density (.1-133keV)</Name>
      <ParameterKey>PDensity</ParameterKey>
      <Description>Proton density in energy range .1-133keV - From SC2-3 step program #1 (see PDfFlxEn) and#2 and/or #3 (integration range SC2-3 is .1 - 15.6keV) and from SC2-6 36, 71 and 133keV channel data if available.  Integration is done over just the SC2-3 range (.1-15.6keV) if SC2-6 133keV data is not available - see character 8 in variable Status%SC_SP. Trapezoid integration, pitch angles 90°±20°.</Description>
      <Units>cm^-3</Units>
      <UnitsConversion>1e6&gt;m^-3</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>100.0</ValidMax>
      <FillValue>-999.9999</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <ParticleQuantity>NumberDensity</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>133</High>
          <Units>keV</Units>
        </EnergyRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton (.1-15keV) drift velocity perpendicular to B</Name>
      <ParameterKey>PPpDrfVel</ParameterKey>
      <Description>Proton drift velocity perpendicular to B of electrons in the energy range .1-15.6keV and having a pitch angle of 90 +/- 20 deg to the magnetic field - (see PDensity for description of source.) Trapezoid integration.</Description>
      <Units>km/s</Units>
      <UnitsConversion>1e3&gt;m/s</UnitsConversion>
      <ValidMin>-1.0E10</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>FlowSpeed</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>15.6</High>
          <Units>keV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton pressure (.1-133keV)</Name>
      <ParameterKey>PPress</ParameterKey>
      <Description>Proton pressure in energy range .1-133keV (or .1-15.6keV if SC2-6 133keV data is not available - check character 8 of variable Status%SC_SP) of protons in the time interval and having a pitch angle of 90 +/- 20 deg ( 90 +/- 10 deg for SC2-6 data) to the magnetic field - (see PDensity for description of source. Trapezoid integration.</Description>
      <Units>ndyne/cm^2</Units>
      <UnitsConversion>1e-10&gt;Pa</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1.0E10</ValidMax>
      <FillValue>-1.0E31</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Perpendicular</Qualifier>
        <ParticleQuantity>Pressure</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>133</High>
          <Units>keV</Units>
        </EnergyRange>
        <PolarAngleRange>
          <Low>70</Low>
          <High>110</High>
          <Units>degrees</Units>
        </PolarAngleRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>Proton average energy (.1-133keV)</Name>
      <ParameterKey>PAveEn</ParameterKey>
      <Description>Proton average energy in energy range .1-133keV (or .1-15.6keV if SC2-6 133keV data is not available check character 8 of variable Status%SC_SP) - same source as for PDensity. Trapezoid integration, pitch angles 90°±20°.</Description>
      <Units>keV</Units>
      <UnitsConversion>1.60217646e-12&gt;J/(m^2 s sr)</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>20.0</ValidMax>
      <FillValue>-99.99999</FillValue>
      <Particle>
        <ParticleType>Proton</ParticleType>
        <Qualifier>Average</Qualifier>
        <ParticleQuantity>Energy</ParticleQuantity>
        <EnergyRange>
          <Low>.1</Low>
          <High>133</High>
          <Units>keV</Units>
        </EnergyRange>
      </Particle>
    </Parameter>
    <Parameter>
      <Name>S/C geographic longitude</Name>
      <ParameterKey>SCGeoLon</ParameterKey>
      <Description>Spacecraft Geographic Longitude (0-360 deg E.) - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>degrees</Units>
      <CoordinateSystem>
        <CoordinateRepresentation>Spherical</CoordinateRepresentation>
        <CoordinateSystemName>GEO</CoordinateSystemName>
      </CoordinateSystem>
      <ValidMin>0.0</ValidMin>
      <ValidMax>360.0</ValidMax>
      <FillValue>-999.99</FillValue>
      <Support>
        <Qualifier>DirectionAngle.AzimuthAngle</Qualifier>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>S/C geographic latitude</Name>
      <ParameterKey>SCGeoLat</ParameterKey>
      <Description>Spacecraft Geographic Latitude (+/- 90 deg - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>degrees</Units>
      <CoordinateSystem>
        <CoordinateRepresentation>Spherical</CoordinateRepresentation>
        <CoordinateSystemName>GEO</CoordinateSystemName>
      </CoordinateSystem>
      <ValidMin>-90.0</ValidMin>
      <ValidMax>90.0</ValidMax>
      <FillValue>-99.99</FillValue>
      <Support>
        <Qualifier>DirectionAngle</Qualifier>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>S/C geocentric radius</Name>
      <ParameterKey>SCGeoRad</ParameterKey>
      <Description>Spacecraft Geocentric Radius (km) - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>km</Units>
      <UnitsConversion>1e3&gt;m</UnitsConversion>
      <CoordinateSystem>
        <CoordinateRepresentation>Spherical</CoordinateRepresentation>
        <CoordinateSystemName>GEO</CoordinateSystemName>
      </CoordinateSystem>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1000000.0</ValidMax>
      <FillValue>-99999.9</FillValue>
      <Support>
        <Qualifier>Magnitude</Qualifier>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>S/C position  (ECI coordinates)</Name>
      <ParameterKey>SCECIPos</ParameterKey>
      <Description>Spacecraft location x-, y- and z-position (km) in ECI  coordinate system - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>km</Units>
      <UnitsConversion>1e3&gt;m</UnitsConversion>
      <CoordinateSystem>
        <CoordinateRepresentation>Cartesian</CoordinateRepresentation>
        <CoordinateSystemName>GEI</CoordinateSystemName>
      </CoordinateSystem>
      <Structure>
        <Size>3</Size>
        <Element>
          <Name>x (ECI)</Name>
          <Qualifier>Component.I</Qualifier>
          <Index>1</Index>
          <Units>km</Units>
          <UnitsConversion>1e3&gt;m</UnitsConversion>
          <ValidMin>-1.0E10</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>y (ECI)</Name>
          <Qualifier>Component.J</Qualifier>
          <Index>2</Index>
          <Units>km</Units>
          <UnitsConversion>1e3&gt;m</UnitsConversion>
          <ValidMin>-1.0E10</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>z (ECI)</Name>
          <Qualifier>Component.K</Qualifier>
          <Index>3</Index>
          <Units>km</Units>
          <UnitsConversion>1e3&gt;m</UnitsConversion>
          <ValidMin>-1.0E10</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Support>
        <Qualifier>Vector</Qualifier>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>S/C velocity (ECI coordinates)</Name>
      <ParameterKey>SCECIVel</ParameterKey>
      <Description>Spacecraft x-, y- and z- velocity (km/s) in ECI coordinate system - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>km/s</Units>
      <UnitsConversion>1e3&gt;m/s</UnitsConversion>
      <CoordinateSystem>
        <CoordinateRepresentation>Cartesian</CoordinateRepresentation>
        <CoordinateSystemName>GEI</CoordinateSystemName>
      </CoordinateSystem>
      <Structure>
        <Size>3</Size>
        <Element>
          <Name>vx (ECI)</Name>
          <Qualifier>Component.I</Qualifier>
          <Index>1</Index>
          <Units>km/s</Units>
          <UnitsConversion>1e3&gt;m/s</UnitsConversion>
          <ValidMin>-1.0E10</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>vy (ECI)</Name>
          <Qualifier>Component.J</Qualifier>
          <Index>2</Index>
          <Units>km/s</Units>
          <UnitsConversion>1e3&gt;m/s</UnitsConversion>
          <ValidMin>-1.0E10</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
        <Element>
          <Name>vz (ECI)</Name>
          <Qualifier>Component.K</Qualifier>
          <Index>3</Index>
          <Units>km/s</Units>
          <UnitsConversion>1e3&gt;m/s</UnitsConversion>
          <ValidMin>-1.0E10</ValidMin>
          <ValidMax>1.0E10</ValidMax>
          <FillValue>-1.0E31</FillValue>
        </Element>
      </Structure>
      <Support>
        <Qualifier>Vector</Qualifier>
        <SupportQuantity>Velocity</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Magnetic local time at equator</Name>
      <ParameterKey>MLT</ParameterKey>
      <Description>Magnetic local time at equator (hrs) - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>hours</Units>
      <UnitsConversion>15&gt;degrees</UnitsConversion>
      <ValidMin>0.0</ValidMin>
      <ValidMax>24.0</ValidMax>
      <FillValue>-99.999</FillValue>
      <Support>
        <Qualifier>DirectionAngle.AzimuthAngle</Qualifier>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Magnetic latitude</Name>
      <ParameterKey>MagLat</ParameterKey>
      <Description>Magnetic latitude (degs) - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>degrees</Units>
      <ValidMin>-90.0</ValidMin>
      <ValidMax>90.0</ValidMax>
      <FillValue>-99.99</FillValue>
      <Support>
        <Qualifier>DirectionAngle</Qualifier>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>L - shell</Name>
      <ParameterKey>LShell</ParameterKey>
      <Description>L-shell value Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>unitless</Units>
      <ValidMin>0.0</ValidMin>
      <ValidMax>1000.0</ValidMax>
      <FillValue>-999.99</FillValue>
      <Support>
        <SupportQuantity>Positional</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>B equator model</Name>
      <ParameterKey>BEqModl</ParameterKey>
      <Description>B equator from IGRF 1965.0 / Olsen-Pfitzer model - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>nT</Units>
      <UnitsConversion>1e-9&gt;T</UnitsConversion>
      <ValidMin>-500.0</ValidMin>
      <ValidMax>500.0</ValidMax>
      <FillValue>-999.99</FillValue>
      <Support>
        <SupportQuantity>Other</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Angle between B-field and S/C spin axis</Name>
      <ParameterKey>BF2Spin</ParameterKey>
      <Description>Angle between B-field and S/C spin axis using Model B-field and S/C attitude data interpolated to the midpoint time EPOCH using Ephemeris data.</Description>
      <Units>degrees</Units>
      <ValidMin>-90.0</ValidMin>
      <ValidMax>90.0</ValidMax>
      <FillValue>-999.99</FillValue>
      <Support>
        <SupportQuantity>Other</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Model mag. field coordinates</Name>
      <ParameterKey>BModl</ParameterKey>
      <Description>Bx, By and Bz from IGRF 1965.0 / Olsen-Pfitzer model - Interpolated at interval midpoint time EPOCH using Ephemeris data.</Description>
      <Units>nT</Units>
      <UnitsConversion>1e-9&gt;T</UnitsConversion>
      <CoordinateSystem>
        <CoordinateRepresentation>Cartesian</CoordinateRepresentation>
        <CoordinateSystemName>GSM</CoordinateSystemName>
      </CoordinateSystem>
      <Structure>
        <Size>3</Size>
        <Element>
          <Name>Bx (model)</Name>
          <Qualifier>Component.I</Qualifier>
          <Index>1</Index>
          <Units>nT</Units>
          <UnitsConversion>1e-9&gt;T</UnitsConversion>
          <ValidMin>-500.0</ValidMin>
          <ValidMax>500.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
        <Element>
          <Name>By (model)</Name>
          <Qualifier>Component.J</Qualifier>
          <Index>2</Index>
          <Units>nT</Units>
          <UnitsConversion>1e-9&gt;T</UnitsConversion>
          <ValidMin>-500.0</ValidMin>
          <ValidMax>500.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
        <Element>
          <Name>Bz (model)</Name>
          <Qualifier>Component.K</Qualifier>
          <Index>3</Index>
          <Units>nT</Units>
          <UnitsConversion>1e-9&gt;T</UnitsConversion>
          <ValidMin>-500.0</ValidMin>
          <ValidMax>500.0</ValidMax>
          <FillValue>-999.99</FillValue>
        </Element>
      </Structure>
      <Support>
        <Qualifier>Vector</Qualifier>
        <SupportQuantity>Other</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Ion/Electron gun operation flag</Name>
      <ParameterKey>GunStat</ParameterKey>
      <Description>Ion/Electron gun operation flag:
      
      * bit 0 (electron gun) 0/1 =&gt; OFF/ON,
      * bit 1 (ion gun) 0/1 =&gt; OFF/ON.</Description>
      <Units>unitless</Units>
      <ValidMin>-128.0</ValidMin>
      <ValidMax>127.0</ValidMax>
      <FillValue>-128.0</FillValue>
      <Support>
        <SupportQuantity>Other</SupportQuantity>
      </Support>
    </Parameter>
    <Parameter>
      <Name>Variable quality indicator</Name>
      <ParameterKey>Status%SC_SP</ParameterKey>
      <Description>Variable quality indicator - see global attribute Status_key:
      
    * Status[0]
    - '0'=Bad data
    - '1'=Use with caution
    - '2'=OK
    - 'F'=Not Supplied
    - '4'=Attitude partly non-fitted
    - '5'=Attitude all non-fitted
    - '6'=No Attitude data available
    * Status[1]
    - 'O'=B-field - OK
    - 'C'=B-field - Use with caution
    - 'M'=B-field - Not Supplied
    - 'B'=B-field - Bad data
    - '4'=Attitude partly non-fitted
    - '5'=Attitude all non-fitted
    - '6'=No Attitude data available
    * Status[2]
    - 'O'=VLF - OK - Normal ant. switching
    - 'C'=VLF - Caution - missing E or M
    - 'M'=VLF - Not Supplied 
    - 'B'=VLF - Bad data
    - '1'=VLF - E-normal; M-abnormal
    - '2'=VLF - E-abnormal; M-normal
    - '3'=VLF - E-abnormal; M-abnormal
    * Status[3]
    - 'O'=SC Common - OK
    - 'C'=SC Common - Use with caution
    - 'M'=SC Common - Not Supplied
    - 'B'=SC Common - Bad data
    * Status[4]
    - 'O'=ELF - OK
    - 'C'=ELF - Use with caution
    - 'M'=ELF - Not Supplied
    - 'B'=ELF - Bad Data
    * Status[5]
    - 'O'=E-Flux - OK
    - 'C'=E-Flux - Use with caution
    - 'M'=E-Flux - Not Supplied
    - 'B'=E-Flux - Bad data
    * Status[6]
    - 'O'=E-Moment - OK
    - 'C'=E-Moment - Use with caution
    - 'M'=E-Moment - Not Supplied
    - 'B'=E-Moment - Bad data
    * Status[7]
    - 'O'=P-Flux - OK
    - 'C'=P-Flux - Use with caution
    - 'M'=P-Flux - Not Supplied
    - 'B'=P-Flux - Bad data
    - '4'=Attitude partly non-fitted
    - '5'=Attitude all non-fitted
    - '6'=No Attitude data available
    * Status[8]
    - 'O'=P-Moment - OK
    - 'C'=P-Moment - Use with caution
    - 'M'=P-Moment - Not Supplied
    - 'B'=P-Moment - Bad data
    - '1'=P-Moment - Uses flux LE 71.0 keV
    - '4'=Attitude partly non-fitted
    - '5'=Attitude all non-fitted
    - '6'=No Attitude data available
    * Status[9]
    - 'O'=Ephemeris - OK
    - 'C'=Ephemeris - Use with caution
    - 'M'=Ephemeris - Not Supplied
    - 'B'=Ephemeris - Bad data
    * Status[10]
    - 'O'=Gun - OK
    - 'C'=Gun - Use with caution
    - 'M'=Gun - Not Supplied
    - 'B'=Gun - Bad data</Description>
      <FillValue>FFFFFFFFFFF</FillValue>
      <Support>
        <SupportQuantity>Other</SupportQuantity>
      </Support>
    </Parameter>
  </NumericalData>
</Spase>
