2.7.1 https://spdx.org/licenses/ SPDX CC0-1.0 https://spdx.org/licenses/CC0-1.0.html Creative Commons Zero v1.0 Universal CC0 1.0 Universal is the Creative Commons license applicable to all publicly available SPASE metadata descriptions spase://NASA/NumericalData/Wind/EPACT/STEP/DifferentialFlux/Ion/PT1H NASA NumericalData Wind Energetic Particle Acceleration Composition Transport (EPACT) SupraThermal Energetic Particle Telescope (STEP) Differential Ion Fluxes, 1 h Data https://doi.org/10.48322/6654-mc20 2025-12-04T13:32:50Z 2021-05-31T12:34:56.789 Updated to SPASE Version 2.3.2 if needed, Applied quality control for DOI usage, LFB 2025-10-03T11:24:19Z Updated PublishedBy name to match ROR Registry. Added ResourceType and NamingAuthority. Changed http to https in top-level schemaLocation attribute. Fixed version number separator in top-level schemaLocation attribute. Matched version number in schemaLocation attribute to updated value in Version tag. ZCB 2025-12-04T13:32:50Z Added MetadataRightsList and RightsList(s). Updated to 2.7.1. ZCB The EPACT Instrument on Wind STEP - SupraThermal Energetic Particle Telescope measures Ion Fluxes of Protons (H) in 0.12.5 MeV Energy Range and He-Fe Nuclei in the ~0.032 MeV/nucleon Energy Ranges in two identical Telescopes, each with a Geometrical Factor of 0.4 cm^2 sr and a Rectangular Field Mihir Desai Mihir, Desai; Mukherjee, Joey; & Filwett, Rachael J. 2021-01-01T00:00:00 Space Physics Data Facility spase://SMWG/Person/Mihir.Desai PrincipalInvestigator spase://SMWG/Person/Robert.E.McGuire MetadataContact spase://SMWG/Person/Lee.Frost.Bargatze MetadataContact Wind Project Web Site - Comprehensive Solar Wind Laboratory for Long-Term Solar Wind Observations https://wind.nasa.gov/ Wind Project Web Site spase://VSPO/NumericalData/Wind/EPACT/STEP/DifferentialFlux/Ion/PT1H spase://SMWG/Repository/NASA/GSFC/SPDF Online Open https://spdx.org/licenses/ SPDX CC0-1.0 https://spdx.org/licenses/CC0-1.0.html Creative Commons Zero v1.0 Universal CC0 1.0 Universal is the Creative Commons license applicable to all publicly available NASA Heliophysics data products FTPS from SPDF (not with most browsers) ftps://spdf.gsfc.nasa.gov/pub/data/wind/epact/step/differential-ion-flux-1hr/ Access to Data in CDF Format via ftp from SPDF HTTPS from SPDF https://spdf.gsfc.nasa.gov/pub/data/wind/epact/step/differential-ion-flux-1hr/ Access to Data in CDF Format via http from SPDF CDAWeb https://cdaweb.gsfc.nasa.gov/index.html/ WI_EPACT_STEP-DIFFERENTIAL-ION-FLUX-1HR Access to ASCII, CDF, and Plots via NASA/GSFC CDAWeb CDF None Mihir Desai. Please acknowledge the Data Providers and CDAWeb when using these Data. spase://SMWG/Repository/NASA/GSFC/SPDF Online Open https://spdx.org/licenses/ SPDX CC0-1.0 https://spdx.org/licenses/CC0-1.0.html Creative Commons Zero v1.0 Universal CC0 1.0 Universal is the Creative Commons license applicable to all publicly available NASA Heliophysics data products CDAWeb HAPI Server https://cdaweb.gsfc.nasa.gov/hapi WI_EPACT_STEP-DIFFERENTIAL-ION-FLUX-1HR Web Service to this product using the HAPI interface. CSV Mihir Desai. Please acknowledge the Data Providers and CDAWeb when using these Data. Calibrated spase://SMWG/Instrument/Wind/EPACT EnergeticParticles Ephemeris MagneticField ThermalPlasma 1994-11-21T00:00:00.000 2017-01-01T23:59:59.999 PT1H Heliosphere Heliosphere.Inner Heliosphere.NearEarth Epoch Time Epoch Epoch Time, Beginning of Interval Average Type: standard This parameter exhibits an increasing monotonic progression. PT1H ms 1.0e-3>s Epoch E14.8 6.2951018619904e+13 6.3745034619904e+13 LinearScale 03-Nov-1994 00:00:00.000 01-Jan-2020 00:00:00.000 -9.99e+32 Temporal H Energy, Minimum Time series defined by using: EPOCH H_energy_min Hydrogen Energy, Minimum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H MeV 1.602176565e-13>J H_energy_min E12.5 10 2 -9.99e+32 Proton Minimum Energy 1 H Energy, Center Time series defined by using: EPOCH H_energy_center Hydrogen Energy, Center Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H MeV 1.602176565e-13>J H_energy_center E12.5 LinearScale 10 2 -9.99e+32 Proton Energy 1 H Energy, Maximum Time series defined by using: EPOCH H_energy_max Hydrogen Energy, Maximum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H MeV 1.602176565e-13>J H_energy_max E12.5 10 2 -9.99e+32 Proton Maximum Energy 1 H Energy Efficiency, Low Time series defined by using: EPOCH H_energy_efficiency_low Hydrogen Efficiency, Low Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H MeV 1.602176565e-13>J H_energy_efficiency_low E12.5 10 2 -9.99e+32 Proton Minimum Energy 1 H Energy Efficiency, High Time series defined by using: EPOCH H_energy_efficiency_high Hydrogen Efficiency, High Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H MeV 1.602176565e-13>J H_energy_efficiency_high E12.5 10 2 -9.99e+32 Proton Maximum Energy 1 H Energy Efficiency, Average Time series defined by using: EPOCH H_energy_efficiency_avg Hydrogen Energy Efficiency, Average Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H MeV 1.602176565e-13>J H_energy_efficiency_avg E12.5 10 2 -9.99e+32 Proton Average Energy 1 H Energy, Center, Telescope 1 Time series defined by using: EPOCH H_ENERGY_CENTER_T1 Hydrogen Energy, Center, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: H_energy_center. PT1H MeV 1.602176565e-13>J H_energy_center E12.5 LinearScale 10 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 Element 8 8 8 Element 9 9 9 Element 10 10 10 0.0 100000.0 -9.99e+32 Proton Energy 1 H Energy, Center, Telescope 2 Time series defined by using: EPOCH H_ENERGY_CENTER_T2 Hydrogen Energy, Center, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: H_energy_center. PT1H MeV 1.602176565e-13>J H_energy_center E12.5 LinearScale 10 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 Element 8 8 8 Element 9 9 9 Element 10 10 10 0.0 100000.0 -9.99e+32 Proton Energy 1 H Flux Time series defined by using: EPOCH H_flux Hydrogen Flux Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 H_flux E12.5 10 2 -9.99e+32 Proton Differential NumberFlux 1 H Flux Uncertainty, Sigma Time series defined by using: EPOCH H_flux_sigma Hydrogen Flux Uncertainty, Sigma Column 1 Labels: [1, 2, 3, 4, 5, 6, 7, 8, 9, 10] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 H_flux_sigma E12.5 10 2 -9.99e+32 Proton Differential Uncertainty NumberFlux 1 H Flux, Telescope 1 Time series defined by using: EPOCH H_FLUX_T1 Hydrogen Flux, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: H_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram H_flux E12.5 LinearScale 10 0.0 100000.0 -9.99e+32 Proton Differential NumberFlux 1 H Flux, Telescope 2 Time series defined by using: EPOCH H_FLUX_T2 Hydrogen Flux, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: H_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram H_flux E12.5 LinearScale 10 0.0 100000.0 -9.99e+32 Proton Differential NumberFlux 1 H Index Time series defined by using: EPOCH H_index Hydrogen Index PT1H I2 LinearScale 10 1 10 -9 Other He Energy, Minimum Time series defined by using: EPOCH He_energy_min Helium Energy, Minimum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n He_energy_min E12.5 7 2 -9.99e+32 AlphaParticle Minimum Energy 2 He Energy, Center Time series defined by using: EPOCH He_energy_center Helium Energy, Center PT1H MeV/n 1.602176565e-13>J/n He_energy_center E12.5 LinearScale 7 2 -9.99e+32 AlphaParticle Energy 2 He Energy, Maximum Time series defined by using: EPOCH He_energy_max Helium Energy, Maximum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n He_energy_max E12.5 7 2 -9.99e+32 AlphaParticle Maximum Energy 2 He Energy Efficiency, Low Time series defined by using: EPOCH He_energy_efficiency_low Helium Efficiency, Low Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n He_energy_efficiency_low E12.5 7 2 -9.99e+32 AlphaParticle Minimum Energy 2 He Energy Efficiency, High Time series defined by using: EPOCH He_energy_efficiency_high Helium Efficiency, High Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n He_energy_efficiency_high E12.5 7 2 -9.99e+32 AlphaParticle Maximum Energy 2 He Energy Efficiency, Average Time series defined by using: EPOCH He_energy_efficiency_avg Helium Energy Efficiency, Average Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n He_energy_efficiency_avg E12.5 7 2 -9.99e+32 AlphaParticle Average Energy 2 He Energy, Center, Telescope 1 Time series defined by using: EPOCH HE_ENERGY_CENTER_T1 Helium Energy, Center, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: He_energy_center. PT1H MeV/n 1.602176565e-13>J/n He_energy_center E12.5 LinearScale 7 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 0.0 100000.0 -9.99e+32 AlphaParticle Energy 2 He Energy, Center, Telescope 2 Time series defined by using: EPOCH HE_ENERGY_CENTER_T2 Helium Energy, Center, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: He_energy_center. PT1H MeV/n 1.602176565e-13>J/n He_energy_center E12.5 LinearScale 7 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 0.0 100000.0 -9.99e+32 AlphaParticle Energy 2 He Flux Time series defined by using: EPOCH He_flux Helium Flux Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 He_flux E12.5 7 2 -9.99e+32 AlphaParticle Differential NumberFlux 2 He Flux Uncertainty, Sigma Time series defined by using: EPOCH He_flux_sigma Helium Flux Uncertainty, Sigma Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 He_flux_sigma E12.5 7 2 -9.99e+32 AlphaParticle Differential Uncertainty NumberFlux 2 He Flux, Telescope 1 Time series defined by using: EPOCH HE_FLUX_T1 Helium Flux, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: He_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram He_flux E12.5 7 0.0 100000.0 -9.99e+32 AlphaParticle Differential NumberFlux 2 He Flux, Telescope 2 Time series defined by using: EPOCH HE_FLUX_T2 Helium Flux, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: He_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram He_flux E12.5 7 0.0 100000.0 -9.99e+32 AlphaParticle Differential NumberFlux 2 He Index Time series defined by using: EPOCH He_index Helium Index PT1H I2 LinearScale 7 1 7 -9 Other CNO Energy, Minimum Time series defined by using: EPOCH CNO_energy_min Carbon, Nitrogen, Oxygen Energy, Minimum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n CNO_energy_min E12.5 7 2 -9.99e+32 Ion Minimum Energy CNO Energy, Center Time series defined by using: EPOCH CNO_energy_center Carbon, Nitrogen, Oxygen Energy, Center Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n CNO_energy_center E12.5 7 2 -9.99e+32 Ion Energy CNO Energy, Maximum Time series defined by using: EPOCH CNO_energy_max Carbon, Nitrogen, Oxygen Energy, Maximum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n CNO_energy_max E12.5 7 2 -9.99e+32 Ion Maximum Energy CNO Energy Efficiency, Low Time series defined by using: EPOCH CNO_energy_efficiency_low Carbon, Nitrogen, Oxygen Efficiency, Low Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n CNO_energy_efficiency_low E12.5 7 2 -9.99e+32 Ion Minimum Energy CNO Energy Efficiency, High Time series defined by using: EPOCH CNO_energy_efficiency_high Carbon, Nitrogen, Oxygen Efficiency, High Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n CNO_energy_efficiency_high E12.5 7 2 -9.99e+32 Ion Maximum Energy CNO Energy Efficiency, Average Time series defined by using: EPOCH CNO_energy_efficiency_avg Carbon, Nitrogen, Oxygen Energy Efficiency, Average Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n CNO_energy_efficiency_avg E12.5 7 2 -9.99e+32 Ion Average Energy CNO Energy, Center, Telescope 1 Time series defined by using: EPOCH CNO_ENERGY_CENTER_T1 Carbon, Nitrogen, Oxygen Energy, Center, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: CNO_energy_center. PT1H MeV/n 1.602176565e-13>J/n CNO_energy_center E12.5 7 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 0.0 100000.0 -9.99e+32 Ion Energy CNO Energy, Center, Telescope 2 Time series defined by using: EPOCH CNO_ENERGY_CENTER_T2 Carbon, Nitrogen, Oxygen Energy, Center, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: CNO_energy_center. PT1H MeV/n 1.602176565e-13>J/n CNO_energy_center E12.5 7 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 0.0 100000.0 -9.99e+32 Ion Energy CNO Flux Time series defined by using: EPOCH CNO_flux Carbon, Nitrogen, Oxygen Flux Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 CNO_flux E12.5 7 2 -9.99e+32 Ion Differential NumberFlux CNO Flux Uncertainty, Sigma Time series defined by using: EPOCH CNO_flux_sigma Carbon, Nitrogen, Oxygen Flux Uncertainty, Sigma Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 CNO_flux_sigma E12.5 7 2 -9.99e+32 Ion Differential Uncertainty NumberFlux CNO Flux, Telescope 1 Time series defined by using: EPOCH CNO_FLUX_T1 Carbon, Nitrogen, Oxygen Flux, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: CNO_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram CNO_flux E12.5 7 0.0 100000.0 -9.99e+32 Ion Differential NumberFlux CNO Flux, Telescope 2 Time series defined by using: EPOCH CNO_FLUX_T2 Carbon, Nitrogen, Oxygen Flux, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: CNO_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram CNO_flux E12.5 7 0.0 100000.0 -9.99e+32 Ion Differential NumberFlux CNO Index Time series defined by using: EPOCH CNO_index Carbon, Nitrogen, Oxygen Index PT1H I2 LinearScale 7 1 7 -9 Other NeS Energy, Minimum Time series defined by using: EPOCH NeS_energy_min Neon, Sulfur Energy, Minimum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n NeS_energy_min E12.5 7 2 -9.99e+32 Ion Minimum Energy NeS Energy, Center Time series defined by using: EPOCH NeS_energy_center Neon, Sulfur Energy, Center Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n NeS_energy_center E12.5 7 2 -9.99e+32 Ion Energy NeS Energy, Maximum Time series defined by using: EPOCH NeS_energy_max Neon, Sulfur Energy, Maximum Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n NeS_energy_max E12.5 7 2 -9.99e+32 Ion Maximum Energy NeS Energy Efficiency, Low Time series defined by using: EPOCH NeS_energy_efficiency_low Neon, Sulfur Efficiency, Low Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n NeS_energy_efficiency_low E12.5 7 2 -9.99e+32 Ion Minimum Energy NeS Energy Efficiency, High Time series defined by using: EPOCH NeS_energy_efficiency_high Neon, Sulfur Efficiency, High Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n NeS_energy_efficiency_high E12.5 7 2 -9.99e+32 Ion Maximum Energy NeS Energy Efficiency, Average Time series defined by using: EPOCH NeS_energy_efficiency_avg Neon, Sulfur Energy Efficiency, Average Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n NeS_energy_efficiency_avg E12.5 7 2 -9.99e+32 Ion Average Energy NeS Energy, Center, Telescope 1 Time series defined by using: EPOCH NES_ENERGY_CENTER_T1 Neon, Sulfur Energy, Center, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: NeS_energy_center. PT1H MeV/n 1.602176565e-13>J/n NeS_energy_center E12.5 7 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 0.0 100000.0 -9.99e+32 Ion Energy NeS Energy, Center, Telescope 2 Time series defined by using: EPOCH NES_ENERGY_CENTER_T2 Neon, Sulfur Energy, Center, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: NeS_energy_center. PT1H MeV/n 1.602176565e-13>J/n NeS_energy_center E12.5 7 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 Element 7 7 7 0.0 100000.0 -9.99e+32 Ion Energy NeS Flux Time series defined by using: EPOCH NeS_flux Neon, Sulfur Flux Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 NeS_flux E12.5 7 2 -9.99e+32 Ion Differential NumberFlux NeS Flux Uncertainty, Sigma Time series defined by using: EPOCH NeS_flux_sigma Neon, Sulfur Flux Uncertainty, Sigma Column 1 Labels: [1, 2, 3, 4, 5, 6, 7] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 NeS_flux_sigma E12.5 7 2 -9.99e+32 Ion Differential Uncertainty NumberFlux NeS Flux, Telescope 1 Time series defined by using: EPOCH NES_FLUX_T1 Neon, Sulfur Flux, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: NeS_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram NeS_flux E12.5 7 0.0 100000.0 -9.99e+32 Ion Differential NumberFlux NeS Flux, Telescope 2 Time series defined by using: EPOCH NES_FLUX_T2 Neon, Sulfur Flux, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: NeS_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram NeS_flux E12.5 7 0.0 100000.0 -9.99e+32 Ion Differential NumberFlux NeS Index Time series defined by using: EPOCH NeS_index Neon, Sulfur Index PT1H I2 LinearScale 7 1 7 -9 Other Fe Energy, Minimum Time series defined by using: EPOCH Fe_energy_min Iron Energy, Minimum Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n Fe_energy_min E12.5 6 2 -9.99e+32 Ion Minimum Energy Fe Energy, Center Time series defined by using: EPOCH Fe_energy_center Iron Energy, Center Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n Fe_energy_center E12.5 6 2 -9.99e+32 Ion Energy Fe Energy, Maximum Time series defined by using: EPOCH Fe_energy_max Iron Energy, Maximum Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n Fe_energy_max E12.5 6 2 -9.99e+32 Ion Maximum Energy Fe Energy Efficiency, Low Time series defined by using: EPOCH Fe_energy_efficiency_low Iron Efficiency, Low Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n Fe_energy_efficiency_low E12.5 6 2 -9.99e+32 Ion Minimum Energy Fe Energy Efficiency, High Time series defined by using: EPOCH Fe_energy_efficiency_high Iron Efficiency, High Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n Fe_energy_efficiency_high E12.5 6 2 -9.99e+32 Ion Maximum Energy Fe Energy Efficiency, Average Time series defined by using: EPOCH Fe_energy_efficiency_avg Iron Energy Efficiency, Average Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H MeV/n 1.602176565e-13>J/n Fe_energy_efficiency_avg E12.5 6 2 -9.99e+32 Ion Average Energy Fe Energy, Center, Telescope 1 Time series defined by using: EPOCH FE_ENERGY_CENTER_T1 Iron Energy, Center, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: Fe_energy_center. PT1H MeV/n 1.602176565e-13>J/n Fe_energy_center E12.5 6 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 0.0 100000.0 -9.99e+32 Ion Energy Fe Energy, Center, Telescope 2 Time series defined by using: EPOCH FE_ENERGY_CENTER_T2 Iron Energy, Center, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: Fe_energy_center. PT1H MeV/n 1.602176565e-13>J/n Fe_energy_center E12.5 6 Element 1 1 1 Element 2 2 2 Element 3 3 3 Element 4 4 4 Element 5 5 5 Element 6 6 6 0.0 100000.0 -9.99e+32 Ion Energy Fe Flux Time series defined by using: EPOCH Fe_flux Iron Flux Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Fe_flux E12.5 6 2 -9.99e+32 Ion Differential NumberFlux Fe Flux Uncertainty, Sigma Time series defined by using: EPOCH Fe_flux_sigma Iron Flux Uncertainty, Sigma Column 1 Labels: [1, 2, 3, 4, 5, 6] Column 2 Labels: [1, 2] PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Fe_flux_sigma E12.5 6 2 -9.99e+32 Ion Differential Uncertainty NumberFlux Fe Flux, Telescope 1 Time series defined by using: EPOCH FE_FLUX_T1 Iron Flux, Telescope 1 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: Fe_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram Fe_flux E12.5 6 0.0 100000.0 -9.99e+32 Ion Differential NumberFlux Fe Flux, Telescope 2 Time series defined by using: EPOCH FE_FLUX_T2 Iron Flux, Telescope 2 This parameter is virtual. It is calculated by calling the function ARR_SLICE with the following input parameters: Fe_flux. PT1H (cm^2 s sr MeV/n)^-1 6.24161e-19>(m^2 s sr J/n)^-1 Spectrogram Fe_flux E12.5 6 0.0 100000.0 -9.99e+32 Ion Differential NumberFlux Fe Index Time series defined by using: EPOCH Fe_index Iron Index PT1H I2 LinearScale 6 1 6 -9 Other Telescope Index Time series defined by using: EPOCH TELESCOPE_index Telescope Index PT1H I2 LinearScale 2 1 2 -9 Other Magnetic Field, Magnitude Time series defined by using: EPOCH B Magnetic Field, Magnitude PT1H nT 1.0e-9>T B E12.5 2 Element 1 1 1 Element 2 2 2 -1000.0 1000.0 -9.99e+32 Magnitude Magnetic Magnetic Field, Theta Angle Time series defined by using: EPOCH Btheta Magnetic Field, Theta Angle PT1H ° 0.0174532925>rad Btheta E12.5 2 Element 1 1 1 Element 2 2 2 -90.0 90.0 -9.99e+32 DirectionAngle.PolarAngle Magnetic Magnetic Field, Phi Angle Time series defined by using: EPOCH Bphi Magnetic Field, Phi Angle PT1H ° 0.0174532925>rad Bphi E12.5 2 Element 1 1 1 Element 2 2 2 0.0 360.0 -9.99e+32 DirectionAngle.AzimuthAngle Magnetic Magnetic Field, RMS Time series defined by using: EPOCH Brms Magnetic Field, Root Mean Square (RMS) PT1H nT 1.0e-9>T Brms E12.5 2 Element 1 1 1 Element 2 2 2 0.0 1000.0 -9.99e+32 Variance Magnetic Spacecraft Radial Distance Time series defined by using: EPOCH R Spacecraft Radial Distance PT1H Re 6.3712e6>m R E12.5 2 Element 1 1 1 Element 2 2 2 0.0 300.0 -9.99e+32 Magnitude Positional Spacecraft Position, Geocentric Solar Ecliptic, GSE, Cartesian Coordinates Time series defined by using: EPOCH xyzGSE Spacecraft Position, Geocentric Solar Ecliptic, GSE, Cartesian Coordinates Column 1 Labels: [x (GSE),y (GSE),z (GSE)] PT1H Re 6.3712e6>m Cartesian GSE xyz gse E12.5 3 2 -9.99e+32 Vector Positional Solar Wind Velocity Time series defined by using: EPOCH Vsw Solar Wind Velocity, Vsw PT1H km/s 1.0e3>m/s Vsw E12.5 2 Element 1 1 1 Element 2 2 2 -3000.0 3000.0 -9.99e+32 Ion Magnitude Velocity Spacecraft Velocity, Geocentric Solar Ecliptic, GSE, Cartesian Coordinates Time series defined by using: EPOCH velocity Spacecraft Velocity, Geocentric Solar Ecliptic, GSE, Cartesian Coordinates Column 1 Labels: [Vx,Vy,Vz] Column 2 Labels: [1, 2] PT1H km/s 1.0e3>m/s Cartesian GSE velocity E12.5 3 2 -9.99e+32 Vector Positional Proton Number Density Time series defined by using: EPOCH Np Proton Number Density PT1H cm^-3 1.0e6>m^-3 Np E12.5 2 Element 1 1 1 Element 2 2 2 0.0 10000.0 -9.99e+32 Proton Scalar NumberDensity 1 Solar Wind Thermal Velocity Time series defined by using: EPOCH Vth Solar Wind Thermal Velocity, Vth PT1H km/s 1.0e3>m/s Vth E12.5 2 Element 1 1 1 Element 2 2 2 0.0 500.0 -9.99e+32 Ion Magnitude ThermalSpeed Spin Rate Time series defined by using: EPOCH spin_rate Wind Spacecraft Spin Rate PT1H °/s 0.0174532925>rad/s spin_rate E12.5 2 Element 1 1 1 Element 2 2 2 0.0 360.0 -9.99e+32 Other