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PSP Solar Wind Electrons Alphas and Protons (SWEAP) SPAN-B Full 3D Electron Spectra, Level 2 (L2), 14 s Data

(2020). PSP Solar Wind Electrons Alphas and Protons (SWEAP) SPAN-B Full 3D Electron Spectra, Level 2 (L2), 14 s Data [Data set]. NASA Space Physics Data Facility. https://doi.org/10.48322/f1vx-0f86. Accessed on .

Note: Proper references, including those in BibTex or other formats, should include the "Accessed on date" as shown above to identify the version of the resource being cited in a given publication.

ResourceID
spase://NASA/NumericalData/ParkerSolarProbe/SWEAP/SPAN-B/Level2/ProtonAlphaFull3D/PT14S

Description

SPAN-E Level 2 Electron Full 3D Spectra Data

File Naming Format: psp_swp_spb_sf0_L2_16Ax8Dx32E_YYYYMMDD_v01.cdf

The SF0 products are the Full 3D Electron spectra from each individual SPAN-E instrument, SPAN-Ae and SPAN-B. Units are in differential energy flux, degrees, and eV. One spectrum comprises decreasing steps in Energy specified by the number in the filename, alternating sweeps in Theta/Deflection, also specified by the number in the filename, and a number of Phi/Anode directions, also specified by the number in the filename. The sample filename above includes 16 Anodes, 8 Deflections, and 32 Energies.

This data set covers all periods for which the instrument was turned on and taking data in the solar wind in "Full Sweep", normal cadence survey mode. This includes maneuvers affecting the spacecraft attitude and orientation. Measurements taken by SPAN-B during cruise phase periods when the spacecraft is pointed away from the sun are taken in sunlight.

Parker Solar Probe SWEAP Solar Probe Analyzer, SPAN, Electron Data Release Notes

November 19, 2019 Initial Data Release

Overview of Measurements

The SWEAP team is pleased to release the data from Encounter 1 and Encounter 2. The files contain data from the time range October 31, 2018 - June 18, 2019.

The prime mission of Parker Solar Probe is to take data when within 0.25 AU of the Sun during its orbit. However, there has been some extended campaign measurements outside of this distance. The data are available for those days that are within 0.25 AU as well as those days when the instruments were operational outside of 0.25 AU.

Each SWEAP data file includes a set of a particular type of measurements over a single observing day. Measurements are provided in Common Data Format (CDF), a self-documenting data framework for which convenient open source tools exist across most scientific computing platforms. Users are strongly encouraged to consult the global metadata in each file, and the metadata that are linked to each variable. The metadata includes comprehensive listings of relevant information, including units, coordinate systems, qualitative descriptions, measurement uncertainties, methodologies, links to further documentation, and so forth.

SPAN-E Level 2 Version 01 Release Notes

The SPAN-Ae and SPAN-B instruments together have fields of view covering >90% of the sky; major obstructions to the FOV include the spacecraft heat shield and other intrusions by spacecraft components. Each individual SPAN-E has FOV of ±60° in Theta and 240° in Phi. The rotation matrices to convert into the spacecraft frame can be found in the individual CDF files, or in the instrument paper.

This data set covers all periods for which the instrument was turned on and taking data in the solar wind in ion mode. This includes maneuvers affecting the spacecraft attitude and orientation. Measurements taken by SPAN-B when the spacecraft is pointed away from the sun are taken in sunlight.

The data quality flags for the SPAN data can be found in the CDF files as: QUALITY_FLAG (0=good, 1=bad)

General Remarks for Version 01 Data

Users interested in field-aligned electrons should take care regarding potential blockages from the heat shield when B is near radial, especially in SPAN-Ae. Artificial reductions in strahl width can result.

Due to the relatively high electron temperature in the inner heliosphere, many secondary electrons are generated from spacecraft and instrument surfaces. As a result, electron measurements in this release below 30 eV are not advised for scientific analysis.

The fields of view in SPAN-Ae and SPAN-B have many intrusions by the spacecraft, and erroneous pixels discovered in analysis, in particular near the edges of the FOV, should be viewed with skepticism. Details on FOV intrusion are found in the instrument paper, forthcoming, or by contacting the SPAN-E instrument scientist.

The instrument mechanical attentuators are engaged during the eight days around perihelia 1 and perihelia 2, which results in a factor of about 10 reduction of the total electron flux into the instrument. During these eight days, halo electron measurements are artificially enhanced in the L2 products as a result of the reduced instrument geometric factor and subsequent ground corrections.

A general note for Encounter 1 and Encounter 2 data: a miscalculation in the deflection tables loaded to both SPAN-Ae and SPAN-B resulted in over-deflection of the outermost Theta angles during these encounters. As such, pixels at large Thetas should be ignored. This error was corrected by a table upload prior to Encounter 3.

Lastly, when viewing time gaps in the SPAN-E measurements, be advised that the first data point produced by the instrument after a power-on is the maximum value permitted by internal instrument counters. Therefore, the first data point after powerup is erroneous and should be discarded, as indicated by quality flags.

SPAN-E Encounter 1 Remarks

SPAN-E operated nominally for the majority of the first encounter. Exceptions to this include: a few instances of corrupted, higher-energy sweep tables, and an instrument commanding error for the two hours surrounding perihelion 1. These and other instrument diagnostic tests are indicated with the QUALITY_FLAG variable in the CDFs.

The mechanical attentuator was engaged for the 8 days around perihelion 1: as a result the microchannel plate, MCP, noise due to thermal effects and cosmic rays are artificially enhanced and are particularly obvious at higher energies. Exercise caution with this data release if looking for halo electrons when the mechanical attenuator is engaged.

SPAN-E Cruise Phase Remarks

The cruise mode rates of SPAN-E are greatly reduced compared to the encounter mode rates. When the PSP spacecraft is in a communications slew, the SPAN-B instrument occasionally reaches its maximum allowable operating temperature and is powered off by SWEM.

Timing for the SF1 products in cruise phase is not corrected in v01, and thus it is not advised to use the data at this time for scientific analysis. The typical return of SF0 products is one spectrum out of every 32 survey spectra is returned every 15 minutes or so. One out of every four 27.75 s SF1 spectra is produced every 111 s.

SPAN-E Encounter 2 Remarks

SPAN-E operated nominally for the majority of the second encounter. Exceptions include instrument diagnostic and health checks and a few instances of corrupted high-energy sweep tables. These tests and corrupted table loads are indicated with the QUALITY_FLAG parameter.

The mechanical attentuator was engaged for the 8 days around perihelion 2: as a result the MCP noise due to thermal effects and cosmic rays are artificially enhanced and are particularly obvious at higher energies. Exercise caution in this data release if looking for halo electrons when the mechanical attenuator is engaged.

Parker Solar Probe SWEAP Rules of the Road

As part of the development of collaboration with the broader Heliophysics community, the mission has drafted a "Rules of the Road" to govern how PSP instrument data are to be used.

    1. Users should consult with the PI to discuss the appropriate use of instrument data or model results and to ensure that the users are accessing the most recently available versions of the data and of the analysis routines. Instrument team Science Operations Centers, SOCs, and/or Virtual Observatories, VOs, should facilitate this process serving as the contact point between PI and users in most cases.
    1. Users should heed the caveats of investigators to the interpretations and limitations of data or model results. Investigators supplying data or models may insist that such caveats be published. Data and model version numbers should also be specified.
    1. Browse products, Quicklook, and Planning data are not intended for science analysis or publication and should not be used for those purposes without consent of the PI.
    1. Users should acknowledge the sources of data used in all publications, presentations, and reports: "We acknowledge the NASA Parker Solar Probe Mission and the SWEAP team led by J. Kasper for use of data.".
    1. Users are encouraged to provide the PI a copy of each manuscript that uses the PI data prior to submission of that manuscript for consideration of publication. On publication, the citation should be transmitted to the PI and any other providers of data.

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Details

Version:2.3.2

NumericalData

ResourceID
spase://NASA/NumericalData/ParkerSolarProbe/SWEAP/SPAN-B/Level2/ProtonAlphaFull3D/PT14S
ResourceHeader
ResourceName
PSP Solar Wind Electrons Alphas and Protons (SWEAP) SPAN-B Full 3D Electron Spectra, Level 2 (L2), 14 s Data
DOI
https://doi.org/10.48322/f1vx-0f86
ReleaseDate
2021-04-27 15:38:11Z
Description

SPAN-E Level 2 Electron Full 3D Spectra Data

File Naming Format: psp_swp_spb_sf0_L2_16Ax8Dx32E_YYYYMMDD_v01.cdf

The SF0 products are the Full 3D Electron spectra from each individual SPAN-E instrument, SPAN-Ae and SPAN-B. Units are in differential energy flux, degrees, and eV. One spectrum comprises decreasing steps in Energy specified by the number in the filename, alternating sweeps in Theta/Deflection, also specified by the number in the filename, and a number of Phi/Anode directions, also specified by the number in the filename. The sample filename above includes 16 Anodes, 8 Deflections, and 32 Energies.

This data set covers all periods for which the instrument was turned on and taking data in the solar wind in "Full Sweep", normal cadence survey mode. This includes maneuvers affecting the spacecraft attitude and orientation. Measurements taken by SPAN-B during cruise phase periods when the spacecraft is pointed away from the sun are taken in sunlight.

Parker Solar Probe SWEAP Solar Probe Analyzer, SPAN, Electron Data Release Notes

November 19, 2019 Initial Data Release

Overview of Measurements

The SWEAP team is pleased to release the data from Encounter 1 and Encounter 2. The files contain data from the time range October 31, 2018 - June 18, 2019.

The prime mission of Parker Solar Probe is to take data when within 0.25 AU of the Sun during its orbit. However, there has been some extended campaign measurements outside of this distance. The data are available for those days that are within 0.25 AU as well as those days when the instruments were operational outside of 0.25 AU.

Each SWEAP data file includes a set of a particular type of measurements over a single observing day. Measurements are provided in Common Data Format (CDF), a self-documenting data framework for which convenient open source tools exist across most scientific computing platforms. Users are strongly encouraged to consult the global metadata in each file, and the metadata that are linked to each variable. The metadata includes comprehensive listings of relevant information, including units, coordinate systems, qualitative descriptions, measurement uncertainties, methodologies, links to further documentation, and so forth.

SPAN-E Level 2 Version 01 Release Notes

The SPAN-Ae and SPAN-B instruments together have fields of view covering >90% of the sky; major obstructions to the FOV include the spacecraft heat shield and other intrusions by spacecraft components. Each individual SPAN-E has FOV of ±60° in Theta and 240° in Phi. The rotation matrices to convert into the spacecraft frame can be found in the individual CDF files, or in the instrument paper.

This data set covers all periods for which the instrument was turned on and taking data in the solar wind in ion mode. This includes maneuvers affecting the spacecraft attitude and orientation. Measurements taken by SPAN-B when the spacecraft is pointed away from the sun are taken in sunlight.

The data quality flags for the SPAN data can be found in the CDF files as: QUALITY_FLAG (0=good, 1=bad)

General Remarks for Version 01 Data

Users interested in field-aligned electrons should take care regarding potential blockages from the heat shield when B is near radial, especially in SPAN-Ae. Artificial reductions in strahl width can result.

Due to the relatively high electron temperature in the inner heliosphere, many secondary electrons are generated from spacecraft and instrument surfaces. As a result, electron measurements in this release below 30 eV are not advised for scientific analysis.

The fields of view in SPAN-Ae and SPAN-B have many intrusions by the spacecraft, and erroneous pixels discovered in analysis, in particular near the edges of the FOV, should be viewed with skepticism. Details on FOV intrusion are found in the instrument paper, forthcoming, or by contacting the SPAN-E instrument scientist.

The instrument mechanical attentuators are engaged during the eight days around perihelia 1 and perihelia 2, which results in a factor of about 10 reduction of the total electron flux into the instrument. During these eight days, halo electron measurements are artificially enhanced in the L2 products as a result of the reduced instrument geometric factor and subsequent ground corrections.

A general note for Encounter 1 and Encounter 2 data: a miscalculation in the deflection tables loaded to both SPAN-Ae and SPAN-B resulted in over-deflection of the outermost Theta angles during these encounters. As such, pixels at large Thetas should be ignored. This error was corrected by a table upload prior to Encounter 3.

Lastly, when viewing time gaps in the SPAN-E measurements, be advised that the first data point produced by the instrument after a power-on is the maximum value permitted by internal instrument counters. Therefore, the first data point after powerup is erroneous and should be discarded, as indicated by quality flags.

SPAN-E Encounter 1 Remarks

SPAN-E operated nominally for the majority of the first encounter. Exceptions to this include: a few instances of corrupted, higher-energy sweep tables, and an instrument commanding error for the two hours surrounding perihelion 1. These and other instrument diagnostic tests are indicated with the QUALITY_FLAG variable in the CDFs.

The mechanical attentuator was engaged for the 8 days around perihelion 1: as a result the microchannel plate, MCP, noise due to thermal effects and cosmic rays are artificially enhanced and are particularly obvious at higher energies. Exercise caution with this data release if looking for halo electrons when the mechanical attenuator is engaged.

SPAN-E Cruise Phase Remarks

The cruise mode rates of SPAN-E are greatly reduced compared to the encounter mode rates. When the PSP spacecraft is in a communications slew, the SPAN-B instrument occasionally reaches its maximum allowable operating temperature and is powered off by SWEM.

Timing for the SF1 products in cruise phase is not corrected in v01, and thus it is not advised to use the data at this time for scientific analysis. The typical return of SF0 products is one spectrum out of every 32 survey spectra is returned every 15 minutes or so. One out of every four 27.75 s SF1 spectra is produced every 111 s.

SPAN-E Encounter 2 Remarks

SPAN-E operated nominally for the majority of the second encounter. Exceptions include instrument diagnostic and health checks and a few instances of corrupted high-energy sweep tables. These tests and corrupted table loads are indicated with the QUALITY_FLAG parameter.

The mechanical attentuator was engaged for the 8 days around perihelion 2: as a result the MCP noise due to thermal effects and cosmic rays are artificially enhanced and are particularly obvious at higher energies. Exercise caution in this data release if looking for halo electrons when the mechanical attenuator is engaged.

Parker Solar Probe SWEAP Rules of the Road

As part of the development of collaboration with the broader Heliophysics community, the mission has drafted a "Rules of the Road" to govern how PSP instrument data are to be used.

    1. Users should consult with the PI to discuss the appropriate use of instrument data or model results and to ensure that the users are accessing the most recently available versions of the data and of the analysis routines. Instrument team Science Operations Centers, SOCs, and/or Virtual Observatories, VOs, should facilitate this process serving as the contact point between PI and users in most cases.
    1. Users should heed the caveats of investigators to the interpretations and limitations of data or model results. Investigators supplying data or models may insist that such caveats be published. Data and model version numbers should also be specified.
    1. Browse products, Quicklook, and Planning data are not intended for science analysis or publication and should not be used for those purposes without consent of the PI.
    1. Users should acknowledge the sources of data used in all publications, presentations, and reports: "We acknowledge the NASA Parker Solar Probe Mission and the SWEAP team led by J. Kasper for use of data.".
    1. Users are encouraged to provide the PI a copy of each manuscript that uses the PI data prior to submission of that manuscript for consideration of publication. On publication, the citation should be transmitted to the PI and any other providers of data.
Acknowledgement
Please acknowledge the Principal Investigator J.C. Kasper for use of the Data
PublicationInfo
Authors
Whittlesey, Phyllis; Larson, Davin E.; Rahmati, Ali
PublicationDate
2020-01-01 00:00:00
PublishedBy
NASA Space Physics Data Facility
Contacts
RolePersonStartDateStopDateNote
1.PrincipalInvestigatorspase://SMWG/Person/Justin.C.Kasper
2.MetadataContactspase://SMWG/Person/Robert.M.Candey
3.MetadataContactspase://SMWG/Person/Lee.Frost.Bargatze
InformationURL
Name
PSP SWEAP Instrument Suite, Space Science Review Publication
URL
Description

Parker Solar Probe, PSP, SWEAP Instrument Suite Description: Kasper, J.C., Abiad, R., Austin, G. et al., Solar Wind Electrons Alphas and Protons (SWEAP) Investigation: Design of the Solar Wind and Coronal Plasma Instrument Suite for Solar Probe Plus, Space Scii. Rev., 204, 131–186 (2016)

InformationURL
Name
PSP SWEAP home page, SAO
URL
Description

Parker Solar Probe, PSP, SWEAP home page, Smithsonian Astrophysical Observatory

InformationURL
Name
PSP SWEAP Data Access web site, SAO
URL
Description

Parker Solar Probe, PSP, SWEAP Data Access web site, Smithsonian Astrophysical Observatory

PriorIDs
spase://VSPO/NumericalData/ParkerSolarProbe/SWEAP/SPAN-B/Level2/ProtonAlphaFull3D/PT14S
AccessInformation
RepositoryID
Availability
Online
AccessRights
Open
AccessURL
Name
FTPS from SPDF (not with most browsers)
URL
Description

Access to Data in CDF Format via ftp from SPDF

AccessURL
Name
HTTPS from SPDF
URL
Description

Access to Data in CDF Format via http from SPDF

AccessURL
Name
CDAWeb
URL
ProductKey
PSP_SWP_SPB_SF0_L2_16AX8DX32E
Description

Access to ASCII, CDF, and Plots via NASA/GSFC CDAWeb

Format
CDF
Encoding
None
Acknowledgement
Please acknowledge the Principal Investigator J.C. Kasper. Please acknowledge the Data Providers and CDAWeb when using these Data.
AccessInformation
RepositoryID
Availability
Online
AccessRights
Open
AccessURL
Name
CDAWeb HAPI Server
URL
Style
HAPI
ProductKey
PSP_SWP_SPB_SF0_L2_16AX8DX32E
Description

Web Service to this product using the HAPI interface.

Format
CSV
Acknowledgement
Please acknowledge the Principal Investigator J.C. Kasper. Please acknowledge the Data Providers and CDAWeb when using these Data.
ProcessingLevel
Calibrated
InstrumentIDs
MeasurementType
InstrumentStatus
MeasurementType
ThermalPlasma
TemporalDescription
TimeSpan
StartDate
2018-10-06 00:00:00.000
RelativeStopDate
-P6M
Cadence
PT14S
ObservedRegion
Heliosphere
ObservedRegion
Heliosphere.Inner
ObservedRegion
Heliosphere.NearEarth
ObservedRegion
Sun.Corona
Parameter #1
Name
Epoch Time, TT2000, Midpoint of Integration
Set
Time Series defined by using: EPOCH
ParameterKey
Epoch
Description

Epoch Time Tags, TT2000, Nanoseconds since J2000 at Midpoint of the Integration

Caveats
Warning: the Epoch time typically has an irregular cadence owing to frequent changes in the operating mode. TT2000 is measured in nanoseconds from J2000 with leap seconds included. Please refer to CDF TT2000 documentation with regards to this convention. This time corresponds to the first measurement of the spectrum. In accordance with SPDF standards, this epoch is interpreted a CDF_TT2000 time. It is acknowledged here that this epoch is not strictly equal to "terrestrial time" as it is defined in the CDF_TT2000 documentation nor is the calendar date interpreted by CDF_T2000 operation performed on this epoch strictly equal to Coordinated Universal Time, UTC This Parameter exhibits an increasing Monotonic Progression.
Cadence
PT14S
Units
ns
UnitsConversion
1.0e-9>s
RenderingHints
AxisLabel
Epoch
ScaleType
LinearScale
ValidMin
01-Jan-1990 00:00:00.000000000
ValidMax
31-Dec-2029 23:59:58.999000000
FillValue
01-Jan-2000 11:58:55.816065535
Support
SupportQuantity
Temporal
Parameter #2
Name
Time
Set
Time Series defined by using: EPOCH
ParameterKey
TIME
Description

Time

Caveats
This Parameter exhibits an increasing Monotonic Progression
Cadence
PT14S
Units
s
RenderingHints
AxisLabel
Unix Time
ScaleType
LinearScale
ValidMin
1.2623e+09
ValidMax
1.89346e+09
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Temporal
Parameter #3
Name
Parker Solar Probe, Mission Elapsed Time
Set
Time Series defined by using: EPOCH
ParameterKey
MET
Description

Parker Solar Probe, PSP, Mission Elapsed Time, MET, in string format

Caveats
The mission elapsed time string is constructed as met_seconds+':'+met_subseconds_base50000, where: met_seconds is the CCSDS_MET value cast as an integer string with no whitespace and met_subseconds_base50000 is an "I05" format integer string formed by converting the xxx_SUBSEC value to units of 1/50000 second. For example, if the xxx_SUBSEC value is recorded in parts per 65536 o second, the correct procedure would be to round 50000*(xxx_SUBSEC/65536) to the nearest integer and cast a string by using the "I05" format. Here, CCSDS_MET is the mission elapsed time, in seconds, from the PSP Epoch, which is defined to be January 1, 2010, 12:00:00 UTC and xxx_SUBSEC is the elapsed time in fractional seconds since the last tick of MET typically in units of 2^-16 seconds.
Cadence
PT14S
RenderingHints
AxisLabel
MET
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Temporal
Parameter #4
Name
Application ID
Set
Time Series defined by using: EPOCH
ParameterKey
APID
Description

Application Identifier, APID

Cadence
PT14S
RenderingHints
AxisLabel
APID
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
InstrumentMode
Parameter #5
Name
Sequence Number
Set
Time Series defined by using: EPOCH
ParameterKey
SEQN
Description

Sequence Number

Cadence
PT14S
RenderingHints
AxisLabel
SEQN
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #6
Name
Sequence Number Delta
Set
Time Series defined by using: EPOCH
ParameterKey
SEQN_DELTA
Description

Sequence Number Delta

Cadence
PT14S
RenderingHints
AxisLabel
SEQN_DELTA
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #7
Name
Sequence Group
Set
Time Series defined by using: EPOCH
ParameterKey
SEQ_GROUP
Description

Sequence Group

Cadence
PT14S
RenderingHints
AxisLabel
SEQ_GROUP
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #8
Name
Packet Size
Set
Time Series defined by using: EPOCH
ParameterKey
PKT_SIZE
Description

Packet Size

Cadence
PT14S
RenderingHints
AxisLabel
PKT_SIZE
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #9
Name
Source
Set
Time Series defined by using: EPOCH
ParameterKey
SOURCE
Description

Source

Cadence
PT14S
RenderingHints
AxisLabel
SOURCE
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #10
Name
Source Hash Value
Set
Time Series defined by using: EPOCH
ParameterKey
SOURCE_HASH
Description

Source Hash Value

Cadence
PT14S
RenderingHints
AxisLabel
SOURCE_HASH
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #11
Name
Compression Ratio
Set
Time Series defined by using: EPOCH
ParameterKey
COMPR_RATIO
Description

Compression Ratio

Cadence
PT14S
RenderingHints
AxisLabel
COMPR_RATIO
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #12
Name
Number of Data Points
Set
Time Series defined by using: EPOCH
ParameterKey
NDAT
Description

Number of Data Points

Cadence
PT14S
RenderingHints
AxisLabel
NDAT
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #13
Name
Data Size
Set
Time Series defined by using: EPOCH
ParameterKey
DATASIZE
Description

Data Size

Cadence
PT14S
RenderingHints
AxisLabel
DATASIZE
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #14
Name
SMP Bits
Set
Time Series defined by using: EPOCH
ParameterKey
SMP_BITS
Description

SMP Bits

Cadence
PT14S
RenderingHints
AxisLabel
SMP_BITS
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #15
Name
LTCS NNNN Bits
Set
Time Series defined by using: EPOCH
ParameterKey
LTCSNNNN_BITS
Description

LTCS NNNN Bits

Cadence
PT14S
RenderingHints
AxisLabel
LTCSNNNN_BITS
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #16
Name
ARCH Bits
Set
Time Series defined by using: EPOCH
ParameterKey
ARCH_BITS
Description

ARCH Bits

Cadence
PT14S
RenderingHints
AxisLabel
ARCH_BITS
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #17
Name
Mode 1
Set
Time Series defined by using: EPOCH
ParameterKey
MODE1
Description

Mode Number 1

Cadence
PT14S
RenderingHints
AxisLabel
MODE1
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
InstrumentMode
Parameter #18
Name
ARCH SUM
Set
Time Series defined by using: EPOCH
ParameterKey
ARCH_SUM
Description

ARCH SUM

Cadence
PT14S
RenderingHints
AxisLabel
ARCH_SUM
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #19
Name
ARCH SMP Data Quality Flag
Set
Time Series defined by using: EPOCH
ParameterKey
ARCH_SMP_FLAG
Description

ARCH SMP Data Quality Flag

Cadence
PT14S
RenderingHints
AxisLabel
ARCH_SMP_FLAG
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
InstrumentMode
Parameter #20
Name
Total Accumulation Period
Set
Time Series defined by using: EPOCH
ParameterKey
TOT_ACCUM_PERIOD
Description

Total Accumulation Period

Cadence
PT14S
RenderingHints
AxisLabel
TOT_ACCUM_PERIOD
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Temporal
Parameter #21
Name
Number of Accumulations
Set
Time Series defined by using: EPOCH
ParameterKey
NUM_ACCUM
Description

Number of Accumulations

Cadence
PT14S
RenderingHints
AxisLabel
NUM_ACCUM
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #22
Name
Mode 2, ORI
Set
Time Series defined by using: EPOCH
ParameterKey
MODE2_ORI
Description

Mode Number 2, ORI

Cadence
PT14S
RenderingHints
AxisLabel
MODE2_ORI
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
InstrumentMode
Parameter #23
Name
Mode 2
Set
Time Series defined by using: EPOCH
ParameterKey
MODE2
Description

Mode Number 2

Cadence
PT14S
RenderingHints
AxisLabel
MODE2
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
InstrumentMode
Parameter #24
Name
F0
Set
Time Series defined by using: EPOCH
ParameterKey
F0
Description

F0

Cadence
PT14S
RenderingHints
AxisLabel
F0
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #25
Name
Status Bits
Set
Time Series defined by using: EPOCH
ParameterKey
STATUS_BITS
Description

Status Bits

Cadence
PT14S
RenderingHints
AxisLabel
STATUS_BITS
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #26
Name
Peak Bin
Set
Time Series defined by using: EPOCH
ParameterKey
PEAK_BIN
Description

Peak Bin

Cadence
PT14S
RenderingHints
AxisLabel
PEAK_BIN
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #27
Name
Product Bits
Set
Time Series defined by using: EPOCH
ParameterKey
PRODUCT_BITS
Description

Product Bits

Cadence
PT14S
RenderingHints
AxisLabel
PRODUCT_BITS
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #28
Name
Particle Counts
Set
Time Series defined by using: EPOCH
ParameterKey
CNTS
Description

Particle Counts

Cadence
PT14S
RenderingHints
AxisLabel
CNTS
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Particle
ParticleType
Electron
Qualifier
Scalar
ParticleQuantity
Counts
Parameter #29
Name
Data
Set
Time Series defined by using: EPOCH
ParameterKey
DATA
Description

Data

Cadence
PT14S
RenderingHints
DisplayType
TimeSeries
AxisLabel
DATA
ValueFormat
E10.2
ScaleType
LinearScale
Structure
Size
4096
FillValue
nan
Support
Qualifier
Array
SupportQuantity
Other
Parameter #30
Name
Gap
Set
Time Series defined by using: EPOCH
ParameterKey
GAP
Description

Gap

Cadence
PT14S
RenderingHints
AxisLabel
GAP
ScaleType
LinearScale
ValidMin
-1.0e+30
ValidMax
1.0e+30
FillValue
nan
Support
Qualifier
Scalar
SupportQuantity
Other
Parameter #31
Name
Differential Energy Flux
Set
Time Series defined by using: EPOCH
ParameterKey
EFLUX
Description

Differential Energy Flux

Cadence
PT14S
Units
eV/(cm^2 s sr eV)
UnitsConversion
1.0e4>J/(m^2 s sr J)
RenderingHints
DisplayType
Spectrogram
AxisLabel
Diff Energy Flux
ValueFormat
E12.2
ScaleType
LogScale
Structure
Size
4096
FillValue
nan
Particle
ParticleType
Electron
Qualifier
Array
ParticleQuantity
NumberFlux
Parameter #32
Name
Particle Energy
Set
Time Series defined by using: EPOCH
ParameterKey
ENERGY
Description

Particle Energy

Cadence
PT14S
Units
eV
UnitsConversion
1.602176565e-19>J
RenderingHints
DisplayType
TimeSeries
AxisLabel
Energy
ValueFormat
E12.2
ScaleType
LogScale
Structure
Size
4096
FillValue
nan
Particle
ParticleType
Electron
Qualifier
Array
ParticleQuantity
Energy
Parameter #33
Name
Elevation Angle, Spacecraft coordinates
Set
Time Series defined by using: EPOCH
ParameterKey
THETA
Description

Elevation Angle, Spacecraft, SC, coordinates

Cadence
PT14S
Units
°
UnitsConversion
0.0174532925>rad
RenderingHints
DisplayType
TimeSeries
AxisLabel
Elevation Angle
ValueFormat
F7.1
ScaleType
LinearScale
Structure
Size
4096
FillValue
nan
Support
Qualifier
Array
SupportQuantity
Other
Parameter #34
Name
Azimuth Angle, Spacecraft coordinates
Set
Time Series defined by using: EPOCH
ParameterKey
PHI
Description

Azimuth Angle, Spacecraft, SC, coordinates

Cadence
PT14S
Units
°
UnitsConversion
0.0174532925>rad
RenderingHints
DisplayType
TimeSeries
AxisLabel
Azimuth Angle
ValueFormat
F8.1
ScaleType
LinearScale
Structure
Size
4096
FillValue
nan
Support
Qualifier
Array
SupportQuantity
Other
Parameter #35
Name
Quality Flag
Set
Time Series defined by using: EPOCH
ParameterKey
QUALITY_FLAG
Description

Quality Flag

Cadence
PT14S
RenderingHints
DisplayType
TimeSeries
AxisLabel
QUALITY_FLAG
ValueFormat
I10
ScaleType
LinearScale
ValidMax
256
FillValue
-1
Support
Qualifier
Scalar
SupportQuantity
Velocity
Parameter #36
Name
Rotation Matrix, Spacecraft Instrument
Set
Time Series defined by using: EPOCH
ParameterKey
ROTMAT_SC_INST
Description

Rotation Matrix, Spacecraft Instrument

Cadence
PT14S
RenderingHints
DisplayType
TimeSeries
AxisLabel
ROTMAT_SC_INST
ValueFormat
E10.2
ScaleType
LinearScale
Structure
Size
3 3
FillValue
nan
Support
Qualifier
Array
SupportQuantity
Other