In-situ mother (spinning) * Mass spectrometer (cold) (Bern) * Ion analyzers (0.03 – 30 keV): (1) Narrow mass range (Kiruna) (2) Wide mass range (Toulouse)

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Presentation transcript:

In-situ mother (spinning) * Mass spectrometer (cold) (Bern) * Ion analyzers (0.03 – 30 keV): (1) Narrow mass range (Kiruna) (2) Wide mass range (Toulouse) (3) No mass (LPP) (4) low G-factor mass (Japan) * Ion mass analyzer (> 30 keV) (UNH) * Electron (photoelectron) (London) * Magnetometer (Graz) * Waves (Ω N ≠Ω O ) (Prague) * Langmuir Probe (Brussels) * ENA monitoring substorm (Berkeley) * (Potential Control=SC subsystem) Possible methods for ion analyzers: Magnet, Magnet-TOF, reflection-TOF, MCP-MCP TOF, shutter-TOF Payload #1 * underline: core, * colored: important, * black: optional

Remote sensing & monitoring (3-axis) * Optical (emission) (LATMOS & Japan) (1) N + : 91 nm, 108 nm (2) N 2 + : 391 nm, 428 nm (3) NO + : nm, 4.3 µm (4) O + : 83 nm, 732/733 nm * Mass spectrometer (cold) (Goddard) * Ion analyzer (< 0.1 keV) (Kirina) * Electron (photoelectron) (London) * Langmuir Probe (Brussels) * Ionospheric sounder (Iowa) * Magnetometer (Graz/UCLA) * Waves (Ω N ≠Ω O ) (Prague) * Ionospheric optical emission (???) Payload #2 * underline: core, * colored: important, * black: optional Optical imager needs a scanner keep in-situ spacecraft within FOV.

Cluster statistics Note: Degradation of the sensor caused significant decay in probability from 2001 to 2006 (by > 20%)