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This file contains numerical moments computed from measurements of the Los Alamos Magnetospheric Plasma Analyzer (MPA) [Bame et al., Rev. Sci. Inst., in press 1993]. The moments are presented in s/c coordinates: the z-axis is aligned with the spin axis, which points radially toward the center of the Earth; the x-axis is in the plane containing the spacecraft spin axis and the spin axis of the Earth, with +X generally northward; and the y-axis points generally eastward. Polar angles are measured relative to the spin axis (+Z), and azimuthal angles are measured around the z-axis, with zero along the +X direction. The moments are computed for three 'species': lop (low-ener. ions, ~1eV/e-~130eV/e); hip (hi-ener. ions, ~130eV/e-~45keV/e); alle (electrons, ~30eV - ~45keV ). The electron measurements are obtained 21.5 secs after the ion measurements. Epoch is the measurement time appropriate for the ions. The moments are computed after the fluxes are corrected for background and s/c potential. Algorithms for these corrections are relatively unsophisticated, so the moments are suspect during times of high background and/or high spacecraft potential. Because the determined spacecraft potential is not very precise, the magnitude of the low-energy ion flow velocity is probably not accurate, but the flow direction is well determined. Tperp and Tpara are obtained from diagonalization of the 3-dimensional temperature matrix, with the parallel direction assigned to the eigenvalue which is most different from the other two. The corresponding eigenvector is the symmetry axis of the distribution and should be equivalent to the magnetic field direction. The eigenvalue ratio Tperp/Tmid, which is provided for each species, is a measure of the symmetry of the distribution and should be ~1.0 for a good determination. Several of the parameters have a fairly high daily dynamic range and for survey purposes are best displayed logarithmically. These parameters are indicated by non-zero 'SCALEMIN' values in this file. A quality flag value of 1 indicates that the values are preliminary and have not been checked in detail.
Created SEP 1992 Modified JAN 1993 Electron time tags removed Mag Latitude added Local time added Post Gap flag added Ratio variables changed Modified SEP 1994 Changes noted in mail message from M.Kessel New Dict keys added sep95 Added new global attr. and variables from M.Kessel Oct 98
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
Electron, proton and helium measurements are taken every 160 ms from one of the three telescopes according to the following sequence: T1, T2, T3, T2, T1, T2 etc. Heavy ion data accumulated from each of the three telescopes again according to the timing and sequence above and summed for 10.24 seconds which is approximately one spacecraft rotation. SOPA Key Parameters are normally averaged over three telescopes for ~ 1 minute (6 - 10.24 second data accumulation cycles) giving an average over much of the sky. The time associated with each set of Key Parameters is determined by using the time (in minutes of the day) at the start of each data collection cycle as an index into an array of 1440 time slots dividing the day into 1440 one minute intervals. The time reported is the midpoint of each interval. We provide six fluxes: Low energy Protons: 50 keV to 400 keV High energy Protons: 1.2 MeV to 5 MeV Low energy Electrons: 50 keV to 225 keV High energy Electrons: 315 keV to 1.5 MeV Helium : ~0.9 MeV to ~1.3 Mev Heavy Ions : ~5 MeV to ~15 MeV (includes carbon, nitrogen, and oxygen We also compute two electron temperatures and densities and two proton temperatures and densities. These are based on approximately the same energy ranges as the fluxes given in above and are determined for relativistic Maxwellian distributions. Status of SOPA Instrument 1990-095: Loss of all ion data as of July 1992 All three thin, front, D1 detectors have failed, having become intolerably noisy. The net result of this failure is the complete loss of proton, helium, carbon, nitrogen, oxygen and other high Z Key Parameter data from the instrument. Since all three thick, back D2 detectors are still operating normally, the electron measurements remain only insignificantly affected. Data is flagged with a data quality flag as follows: +1 Data is Good 0 Data is Suspect -1 Data is Unusable References: Belian, R. D., Gisler, G. R., Cayton, T. E., Christensen, R. A., High-Z Energetic Particles at Geosynchronous Orbit During The Great Solar Proton Event Series of October 1989, J. Geophys. Res., 97, 16897, 1992
created 30-Nov-1992 added text to describe instrument 04-Feb-1993 Modified proton summation to eliminate noisy channel.
Electron temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial electron densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Electron flux is averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
This file contains numerical moments computed from measurements of the Los Alamos Magnetospheric Plasma Analyzer (MPA) [Bame et al., Rev. Sci. Inst., in press 1993]. The moments are presented in s/c coordinates: the z-axis is aligned with the spin axis, which points radially toward the center of the Earth; the x-axis is in the plane containing the spacecraft spin axis and the spin axis of the Earth, with +X generally northward; and the y-axis points generally eastward. Polar angles are measured relative to the spin axis (+Z), and azimuthal angles are measured around the z-axis, with zero along the +X direction. The moments are computed for three 'species': lop (low-ener. ions, ~1eV/e-~130eV/e); hip (hi-ener. ions, ~130eV/e-~45keV/e); alle (electrons, ~30eV - ~45keV ). The electron measurements are obtained 21.5 secs after the ion measurements. Epoch is the measurement time appropriate for the ions. The moments are computed after the fluxes are corrected for background and s/c potential. Algorithms for these corrections are relatively unsophisticated, so the moments are suspect during times of high background and/or high spacecraft potential. Because the determined spacecraft potential is not very precise, the magnitude of the low-energy ion flow velocity is probably not accurate, but the flow direction is well determined. Tperp and Tpara are obtained from diagonalization of the 3-dimensional temperature matrix, with the parallel direction assigned to the eigenvalue which is most different from the other two. The corresponding eigenvector is the symmetry axis of the distribution and should be equivalent to the magnetic field direction. The eigenvalue ratio Tperp/Tmid, which is provided for each species, is a measure of the symmetry of the distribution and should be ~1.0 for a good determination. Several of the parameters have a fairly high daily dynamic range and for survey purposes are best displayed logarithmically. These parameters are indicated by non-zero 'SCALEMIN' values in this file. A quality flag value of 1 indicates that the values are preliminary and have not been checked in detail.
Created SEP 1992 Modified JAN 1993 Electron time tags removed Mag Latitude added Local time added Post Gap flag added Ratio variables changed Modified SEP 1994 Changes noted in mail message from M.Kessel New Dict keys added sep95 Added new global attr. and variables from M.Kessel Oct 98
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
Electron, proton and helium measurements are taken every 160 ms from one of the three telescopes according to the following sequence: T1, T2, T3, T2, T1, T2 etc. Heavy ion data accumulated from each of the three telescopes again according to the timing and sequence above and summed for 10.24 seconds which is approximately one spacecraft rotation. SOPA Key Parameters are normally averaged over three telescopes for ~ 1 minute (6 - 10.24 second data accumulation cycles) giving an average over much of the sky. The time associated with each set of Key Parameters is determined by using the time (in minutes of the day) at the start of each data collection cycle as an index into an array of 1440 time slots dividing the day into 1440 one minute intervals. The time reported is the midpoint of each interval. We provide six fluxes: Low energy Protons: 50 keV to 400 keV High energy Protons: 1.2 MeV to 5 MeV Low energy Electrons: 50 keV to 225 keV High energy Electrons: 315 keV to 1.5 MeV Helium : ~0.9 MeV to ~1.3 Mev Heavy Ions : ~5 MeV to ~15 MeV (includes carbon, nitrogen, and oxygen We also compute two electron temperatures and densities and two proton temperatures and densities. These are based on approximately the same energy ranges as the fluxes given in above and are determined for relativistic Maxwellian distributions. Status of SOPA Instrument 1991-080: Operating normally as of 01-Feb-1993 with the following exception. Detector D1 on Telescope 2 is becoming noisy. This affects proton and ion data from that telescope. Bad data is disabled thru software in the ground processing and is NOT averaged into the Key parameter data. Therefore, the parameters given are good but do not cover the same percentage of the sky. Data is flagged with a data quality flag as follows: +1 Data is Good 0 Data is Suspect -1 Data is Unusable LANL personnel should be contacted before using any data tagged as suspect. References: Belian, R. D., Gisler, G. R., Cayton, T. E., Christensen, R. A., High-Z Energetic Particles at Geosynchronous Orbit During The Great Solar Proton Event Series of October 1989, J. Geophys. Res., 97, 16897, 1992
created 30-Nov-1992 added text to describe instrument 04-Feb-1993 Modified proton summation to eliminate noisy channel.
Electron temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Proton temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial electron densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial proton densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
alpha flux (Helium) averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Heavy Ion flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Electron flux is averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
proton flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
This file contains numerical moments computed from measurements of the Los Alamos Magnetospheric Plasma Analyzer (MPA) [Bame et al., Rev. Sci. Inst., in press 1993]. The moments are presented in s/c coordinates: the z-axis is aligned with the spin axis, which points radially toward the center of the Earth; the x-axis is in the plane containing the spacecraft spin axis and the spin axis of the Earth, with +X generally northward; and the y-axis points generally eastward. Polar angles are measured relative to the spin axis (+Z), and azimuthal angles are measured around the z-axis, with zero along the +X direction. The moments are computed for three 'species': lop (low-ener. ions, ~1eV/e-~130eV/e); hip (hi-ener. ions, ~130eV/e-~45keV/e); alle (electrons, ~30eV - ~45keV ). The electron measurements are obtained 21.5 secs after the ion measurements. Epoch is the measurement time appropriate for the ions. The moments are computed after the fluxes are corrected for background and s/c potential. Algorithms for these corrections are relatively unsophisticated, so the moments are suspect during times of high background and/or high spacecraft potential. Because the determined spacecraft potential is not very precise, the magnitude of the low-energy ion flow velocity is probably not accurate, but the flow direction is well determined. Tperp and Tpara are obtained from diagonalization of the 3-dimensional temperature matrix, with the parallel direction assigned to the eigenvalue which is most different from the other two. The corresponding eigenvector is the symmetry axis of the distribution and should be equivalent to the magnetic field direction. The eigenvalue ratio Tperp/Tmid, which is provided for each species, is a measure of the symmetry of the distribution and should be ~1.0 for a good determination. Several of the parameters have a fairly high daily dynamic range and for survey purposes are best displayed logarithmically. These parameters are indicated by non-zero 'SCALEMIN' values in this file. A quality flag value of 1 indicates that the values are preliminary and have not been checked in detail.
Created SEP 1992 Modified JAN 1993 Electron time tags removed Mag Latitude added Local time added Post Gap flag added Ratio variables changed Modified SEP 1994 Changes noted in mail message from M.Kessel New Dict keys added sep95 Added new global attr. and variables from M.Kessel Oct 98
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
Electron, proton and helium measurements are taken every 160 ms from one of the three telescopes according to the following sequence: T1, T2, T3, T2, T1, T2 etc. Heavy ion data accumulated from each of the three telescopes again according to the timing and sequence above and summed for 10.24 seconds which is approximately one spacecraft rotation. SOPA Key Parameters are normally averaged over three telescopes for ~ 1 minute (6 - 10.24 second data accumulation cycles) giving an average over much of the sky. The time associated with each set of Key Parameters is determined by using the time (in minutes of the day) at the start of each data collection cycle as an index into an array of 1440 time slots dividing the day into 1440 one minute intervals. The time reported is the midpoint of each interval. We provide six fluxes: Low energy Protons: 50 keV to 400 keV High energy Protons: 1.2 MeV to 5 MeV Low energy Electrons: 50 keV to 225 keV High energy Electrons: 315 keV to 1.5 MeV Helium : ~0.9 MeV to ~1.3 Mev Heavy Ions : ~5 MeV to ~15 MeV (includes carbon, nitrogen, and oxygen We also compute two electron temperatures and densities and two proton temperatures and densities. These are based on approximately the same energy ranges as the fluxes given in above and are determined for relativistic Maxwellian distributions. Status of SOPA Instrument 1994-084: Operating normally as of 01-Jan-1996 Data is flagged with a data quality flag as follows: +1 Data is Good 0 Data is Suspect -1 Data is Unusable LANL personnel should be contacted before using any data tagged as suspect. References: Belian, R. D., Gisler, G. R., Cayton, T. E., Christensen, R. A., High-Z Energetic Particles at Geosynchronous Orbit During The Great Solar Proton Event Series of October 1989, J. Geophys. Res., 97, 16897, 1992
created 30-Nov-1992 added text to describe instrument 04-Feb-1993 Modified proton summation to eliminate noisy channel.
Electron temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Proton temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial electron densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial proton densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
alpha flux (Helium) averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Heavy Ion flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Electron flux is averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
proton flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
No TEXT global attribute value.
Created OCT 1998
This file contains numerical moments computed from measurements of the Los Alamos Magnetospheric Plasma Analyzer (MPA) [Bame et al., Rev. Sci. Inst., in press 1993]. The moments are presented in s/c coordinates: the z-axis is aligned with the spin axis, which points radially toward the center of the Earth; the x-axis is in the plane containing the spacecraft spin axis and the spin axis of the Earth, with +X generally northward; and the y-axis points generally eastward. Polar angles are measured relative to the spin axis (+Z), and azimuthal angles are measured around the z-axis, with zero along the +X direction. The moments are computed for three 'species': lop (low-ener. ions, ~1eV/e-~130eV/e); hip (hi-ener. ions, ~130eV/e-~45keV/e); alle (electrons, ~30eV - ~45keV ). The electron measurements are obtained 21.5 secs after the ion measurements. Epoch is the measurement time appropriate for the ions. The moments are computed after the fluxes are corrected for background and s/c potential. Algorithms for these corrections are relatively unsophisticated, so the moments are suspect during times of high background and/or high spacecraft potential. Because the determined spacecraft potential is not very precise, the magnitude of the low-energy ion flow velocity is probably not accurate, but the flow direction is well determined. Tperp and Tpara are obtained from diagonalization of the 3-dimensional temperature matrix, with the parallel direction assigned to the eigenvalue which is most different from the other two. The corresponding eigenvector is the symmetry axis of the distribution and should be equivalent to the magnetic field direction. The eigenvalue ratio Tperp/Tmid, which is provided for each species, is a measure of the symmetry of the distribution and should be ~1.0 for a good determination. Several of the parameters have a fairly high daily dynamic range and for survey purposes are best displayed logarithmically. These parameters are indicated by non-zero 'SCALEMIN' values in this file. A quality flag value of 1 indicates that the values are preliminary and have not been checked in detail.
Created SEP 1992 Modified JAN 1993 Electron time tags removed Mag Latitude added Local time added Post Gap flag added Ratio variables changed Modified SEP 1994 Changes noted in mail message from M.Kessel New Dict keys added sep95 Added new global attr. and variables from M.Kessel Oct 98
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
Electron, proton and helium measurements are taken every 160 ms from one of the three telescopes according to the following sequence: T1, T2, T3, T2, T1, T2 etc. Heavy ion data accumulated from each of the three telescopes again according to the timing and sequence above and summed for 10.24 seconds which is approximately one spacecraft rotation. SOPA Key Parameters are normally averaged over three telescopes for ~ 1 minute (6 - 10.24 second data accumulation cycles) giving an average over much of the sky. The time associated with each set of Key Parameters is determined by using the time (in minutes of the day) at the start of each data collection cycle as an index into an array of 1440 time slots dividing the day into 1440 one minute intervals. The time reported is the midpoint of each interval. We provide six fluxes: Low energy Protons: 50 keV to 400 keV High energy Protons: 1.2 MeV to 5 MeV Low energy Electrons: 50 keV to 225 keV High energy Electrons: 315 keV to 1.5 MeV Helium : ~0.9 MeV to ~1.3 Mev Heavy Ions : ~5 MeV to ~15 MeV (includes carbon, nitrogen, and oxygen We also compute two electron temperatures and densities and two proton temperatures and densities. These are based on approximately the same energy ranges as the fluxes given in above and are determined for relativistic Maxwellian distributions. Status of SOPA Instrument LANL-97A: Operating normally as of 01-Jul-1997 Data is flagged with a data quality flag as follows: +1 Data is Good 0 Data is Suspect -1 Data is Unusable LANL personnel should be contacted before using any data tagged as suspect. References: Belian, R. D., Gisler, G. R., Cayton, T. E., Christensen, R. A., High-Z Energetic Particles at Geosynchronous Orbit During The Great Solar Proton Event Series of October 1989, J. Geophys. Res., 97, 16897, 1992
created 30-Nov-1992 added text to describe instrument 04-Feb-1993 Modified proton summation to eliminate noisy channel.
Electron temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Proton temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial electron densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial proton densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
alpha flux (Helium) averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Heavy Ion flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Electron flux is averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
proton flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
No TEXT global attribute value.
Created OCT 1998
This file contains numerical moments computed from measurements of the Los Alamos Magnetospheric Plasma Analyzer (MPA) [Bame et al., Rev. Sci. Inst., in press 1993]. The moments are presented in s/c coordinates: the z-axis is aligned with the spin axis, which points radially toward the center of the Earth; the x-axis is in the plane containing the spacecraft spin axis and the spin axis of the Earth, with +X generally northward; and the y-axis points generally eastward. Polar angles are measured relative to the spin axis (+Z), and azimuthal angles are measured around the z-axis, with zero along the +X direction. The moments are computed for three 'species': lop (low-ener. ions, ~1eV/e-~130eV/e); hip (hi-ener. ions, ~130eV/e-~45keV/e); alle (electrons, ~30eV - ~45keV ). The electron measurements are obtained 21.5 secs after the ion measurements. Epoch is the measurement time appropriate for the ions. The moments are computed after the fluxes are corrected for background and s/c potential. Algorithms for these corrections are relatively unsophisticated, so the moments are suspect during times of high background and/or high spacecraft potential. Because the determined spacecraft potential is not very precise, the magnitude of the low-energy ion flow velocity is probably not accurate, but the flow direction is well determined. Tperp and Tpara are obtained from diagonalization of the 3-dimensional temperature matrix, with the parallel direction assigned to the eigenvalue which is most different from the other two. The corresponding eigenvector is the symmetry axis of the distribution and should be equivalent to the magnetic field direction. The eigenvalue ratio Tperp/Tmid, which is provided for each species, is a measure of the symmetry of the distribution and should be ~1.0 for a good determination. Several of the parameters have a fairly high daily dynamic range and for survey purposes are best displayed logarithmically. These parameters are indicated by non-zero 'SCALEMIN' values in this file. A quality flag value of 1 indicates that the values are preliminary and have not been checked in detail.
Created SEP 1992 Modified JAN 1993 Electron time tags removed Mag Latitude added Local time added Post Gap flag added Ratio variables changed Modified SEP 1994 Changes noted in mail message from M.Kessel New Dict keys added sep95 Added new global attr. and variables from M.Kessel Oct 98
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
This is a virtual variable generated by read_myCDF w/ useof the data in the sc_pos_geo variable and a conversion routinespecified in the function attribute, namely conv_pos
Electron, proton and helium measurements are taken every 160 ms from one of the three telescopes according to the following sequence: T1, T2, T3, T2, T1, T2 etc. Heavy ion data accumulated from each of the three telescopes again according to the timing and sequence above and summed for 10.24 seconds which is approximately one spacecraft rotation. SOPA Key Parameters are normally averaged over three telescopes for ~ 1 minute (6 - 10.24 second data accumulation cycles) giving an average over much of the sky. The time associated with each set of Key Parameters is determined by using the time (in minutes of the day) at the start of each data collection cycle as an index into an array of 1440 time slots dividing the day into 1440 one minute intervals. The time reported is the midpoint of each interval. We provide six fluxes: Low energy Protons: 50 keV to 400 keV High energy Protons: 1.2 MeV to 5 MeV Low energy Electrons: 50 keV to 225 keV High energy Electrons: 315 keV to 1.5 MeV Helium : ~0.9 MeV to ~1.3 Mev Heavy Ions : ~5 MeV to ~15 MeV (includes carbon, nitrogen, and oxygen We also compute two electron temperatures and densities and two proton temperatures and densities. These are based on approximately the same energy ranges as the fluxes given in above and are determined for relativistic Maxwellian distributions. Status of SOPA Instrument 1989-046: Operating normally as of 01-Feb-1993 Data is flagged with a data quality flag as follows: +1 Data is Good 0 Data is Suspect -1 Data is Unusable LANL personnel should be contacted before using any data tagged as suspect. References: Belian, R. D., Gisler, G. R., Cayton, T. E., Christensen, R. A. High-Z Energetic Particles at Geosynchronous Orbit During The Great Solar Proton Event Series of October 1989, J. Geophys. Res., 97, 16897, 1992
created 30-Nov-1992 added text to describe instrument 04-Feb-1993 Data reduction software updated. Temperature and Density algorithms implemented 15-dec-1993 Repaired some errors in the skeleton table 21-Feb-1995 Implemented updated algorithm for calculating Electron and Proton densities and temperatures 21-Feb-1995 removed contribution of noisy detectors and updated text.
Electron temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Proton temperature determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial electron densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Partial proton densities determined from relativistic Maxwellian distributions and averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
alpha flux (Helium) averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Heavy Ion flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Electron flux is averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
proton flux averaged over 3 11deg telescopes (separated by 30deg) rotating with spacecraft
Fetched URL: https://cdaweb.gsfc.nasa.gov/misc/NotesL.html#L1_K0_MPA
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