J_SAT_514_The | J_SAT_514_The | Working Group 2 |
J_SAT_513_Led | J_SAT_513_Led | Working Group 2 |
J_SAT_512_Ana | J_SAT_512_Ana | Working Group 2 |
J_SAT_511_Car | J_SAT_511_Car | Working Group 2 |
J_SAT_510_Lys | J_SAT_510_Lys | Working Group 2 |
J_SAT_508_Pas | J_SAT_508_Pas | Working Group 2 |
J_SAT_507_Ela | J_SAT_507_Ela | Working Group 2 |
J_SAT_505_Ama | J_SAT_505_Ama | Working Group 2 |
J_SAT | jupiter satellite GENERIC | Working Group 2 |
J_RING | | Working Group 2 |
IO_TOR_DUST | Io torus dust | Working Group 2 |
IO_RS | | Working Group 2 |
IO_MONITORING | - JANUS minimum distance = 7.00e+05 km
- MAJIS minimum distance = 8.00e+05 km
- SWI minimum distance = 6.00e+05 km (able to resolve target when angular size is > 1 mrad)
| Working Group 2 |
IO_MAJ_HOTSPOTS | IO_MAJ_HOTSPOTS | Working Group 2 |
IO_MAJ_COMPOSITION | IO_MAJ_COMPOSITION | Working Group 2 |
IO_ECLIPSE | Io observation while Io is in eclipse. | Working Group 2 |
HIGHPHPROFILE | rings high phase profile (JANUS DEF) | Working Group 2 |
GANYMEDE_FB_RS | Ganymede flyby remote sensing | Working Group 2 |
GANYMEDE_DISTANT | | Working Group 2 |
G_RS_OBS | G_RS GENERIC | Working Group 2 |
G_RS_5G5 | | Working Group 2 |
G_RS_4G4 | | Working Group 2 |
G_RS_3G3 | HAA as per 3GM UM
IS considering NIM | Working Group 2 |
G_RS_35G12 | G_RS_35G12 | Working Group 2 |
G_RS_34G11 | G_RS_34G11 | Working Group 2 |
G_RS_33G10 | G_RS_33G10 | Working Group 2 |
G_RS_32G9 | G_RS_32G9 | Working Group 2 |
G_RS_30G8 | G_RS_30G8 | Working Group 2 |
G_RS_2G2 | | Working Group 2 |
G_RS_27G7 | G_RS_27G7 | Working Group 2 |
G_RS_26G6 | G_RS_26G6 | Working Group 2 |
G_RS_1G1 | | Working Group 2 |
G_distant | | Working Group 2 |
EUROPA_FB_RS | Europa Flyby remote sensing | Working Group 2 |
EUROPA_DISTANT | | Working Group 2 |
E_RS_OBS | Europa remote sensing generic segment containing obs database link | Working Group 2 |
E_RS_8E2 | E_RS_8E2 | Working Group 2 |
E_RS_7E1 | E_RS_7E1 | Working Group 2 |
E_RS | | Working Group 2 |
E_distant | | Working Group 2 |
CHARACTERIZATION_IRR2_SINOPE | Characterization irregular moon Sinope | Working Group 2 |
CHARACTERIZATION_IRR2_PASIPHAE | characterization irregular moon Pasiphae | Working Group 2 |
CHARACTERIZATION_IRR2_CARME | | Working Group 2 |
CHARACTERIZATION_IRR2_ANANKE | Characterization irregular moon ANANKE | Working Group 2 |
CHARACTERIZATION_IRR_ELARA | Characterization irregular moon Elara | Working Group 2 |
CHAR_IRR1 | Characterization irregular moons group 1 (see list below) | Working Group 2 |
CALLISTO_FB_RS | Callisto Flyby remote sensing | Working Group 2 |
CALLISTO_DISTANT | | Working Group 2 |
C_RS_OBS | Callisto Remote sensing GENERIC containing obs database link | Working Group 2 |
C_RS_9C2 | C_RS_9C2 | Working Group 2 |
C_RS_6C1 | C_RS_6C1 | Working Group 2 |
C_RS_31C21 | C_RS_31C21 | Working Group 2 |
C_RS_29C20 | C_RS_29C20 | Working Group 2 |
C_RS_28C19 | C_RS_28C19 | Working Group 2 |
C_RS_25C18 | C_RS_25C18 | Working Group 2 |
C_RS_24C17 | C_RS_24C17 | Working Group 2 |
C_RS_23C16 | C_RS_23C16 | Working Group 2 |
C_RS_22C15 | C_RS_22C15 | Working Group 2 |
C_RS_21C14 | C_RS_21C14 | Working Group 2 |
C_RS_20C13 | C_RS_20C13 | Working Group 2 |
C_RS_19C12 | C_RS_19C12 | Working Group 2 |
C_RS_18C11 | C_RS_18C11 | Working Group 2 |
C_RS_17C10 | C_RS_17C10 | Working Group 2 |
C_RS_16C9 | C_RS_16C9 | Working Group 2 |
C_RS_15C8 | C_RS_15C8 | Working Group 2 |
C_RS_14C7 | C_RS_14C7 | Working Group 2 |
C_RS_13C6 | C_RS_13C6 | Working Group 2 |
C_RS_12C5 | C_RS_12C5 | Working Group 2 |
C_RS_11C4 | C_RS_11C4 | Working Group 2 |
C_RS_10C3 | C_RS_10C3 | Working Group 2 |
C_distant | | Working Group 2 |
ASTRO_IRR2_SINOPE | | Working Group 2 |
ASTRO_IRR2_PASIPHAE | astrometry measurement with inertial pointing to moon Pasiphae | Working Group 2 |
ASTRO_IRR2_CARME | Astrometry irregular moon Carme | Working Group 2 |
ASTRO_IRR2_ANANKE | Astrometry irregular moon Ananke | Working Group 2 |
ASTRO_IRR1_THEMISTO | Astrometry irregular moon THEMISTO | Working Group 2 |
ASTRO_IRR1_TAYGETE | Astrometry irregular moon TAYGETE | Working Group 2 |
ASTRO_IRR1_MEGACLITE | ASTRO_IRR1_MEGACLITE | Working Group 2 |
ASTRO_IRR1_LYSITHEA | Astrometry irregular moon LYSITHEA | Working Group 2 |
ASTRO_IRR1_LEDA | Astrometry irregular moon LEDA | Working Group 2 |
ASTRO_IRR1_KALLICHORE | Astrometry irregular moon KALLICHORE | Working Group 2 |
ASTRO_IRR1_HIMALIA | Astrometry irregular moon HIMALIA | Working Group 2 |
ASTRO_IRR1_CHALDENE | Astrometry irregular moon CHALDENE | Working Group 2 |
ASTRO_IRR1_CARPO | Astrometry irregular moon CARPO | Working Group 2 |
ASTRO_IRR_ELARA | | Working Group 2 |
ASTRO_INNER | Astrometry inner moons | Working Group 2 |
TOR_RS | | Working Group 3 |
JUPITER_TAIL | In situ search for signatures of local magnetic reconnection in the Jovian magnetotail | Working Group 3 |
JUPITER_PDT | In situ Jupiter particle distribution transition region observation.
Maximize pitch angle coverage for PEP/JEI, JDC,JoEE, JENI (ion mode) | Working Group 3 |
JUPITER_NULL | In situ Jupiter magnetic null search | Working Group 3 |
JUPITER_GM | In situ mapping of global configuration and monitoring dynamics of the Jovian magnetospheric environment.
corotation should be in the FoV of PEP/JDC or PEP/JEI.
Conditions for coverage:
◦ Minimum angle less than about 11.25 deg (half-azimuthal sector size) of a JEI or JDC pixel from corotation
◦ Boresight angle of JDC or JEI less than ˜90 deg
Conditions for ideal coverage:
◦ Minimum angle less than about 11.25 deg (half-azimuthal sector size) of a JEI or JDC pixel from corotation
◦ Boresight angle less than ˜75 deg (JEI) or 70 deg (JDC): corotation away from the FoV edge
JDC is preferred for monitoring corotation, over JEI, when possible. | Working Group 3 |
JUPITER_ENA | Imaging of Jupiter's magnetosphere in energetic neutral atoms (ENAs).Maximize pitch angle coverage with PEP JEI,JDC,JoEE, JENI (ion mode)
a) JENI has a broad FoV and captures Jupiter and the Io/Europa torus and magnetosphere at most times. No special pointing design required for JENI besides requiring an approximate nadir pointing (considerable offsets can still be acceptable)
b) JNA disk-shaped/slit FoV has a slight offset from the XZ spacecraft plane, meaning that during nadir pointing, it images preferentially the northern or southern extension of the Europa/Io torus, whereas Jupiter may be in the edge or outside of the FoV, especially at large distances. Scans (small rotations around Sc-X) or periods with stable, small offset of the SC-xz plane from Nadir can help to better image stronger emissions from the equatorial torus | Working Group 3 |
JUPITER_CPS | In situ Jupiter current/plasma sheet observation | Working Group 3 |
JUPITER_CP | In situ Jupiter corotation breakdown region and plasma transport observation. Maximize the intervals for which co-rotation is measured to build spatial and temporal coverage of corotation profiles across the magnetosphere and also in the local moon environments.
CP stands for corotation profile | Working Group 3 |
JUPITER_CB | In situ Jupiter corotation breakdown region and plasma transport observation. Maximize the intervals for which co-rotation is measured to build spatial and temporal coverage of corotation profiles across the magnetosphere and also in the local moon environments. | Working Group 3 |
JM_PE35 | | Working Group 3 |
JM_PE33 | share prime high lat PJ between WG3 and WG4 | Working Group 3 |
JM_PE31 | share prime high lat PJ between WG3 and WG4 | Working Group 3 |
JM_PE29 | share prime high lat PJ between WG3 and WG4 | Working Group 3 |
JM_PE27 | share prime high lat PJ between WG3 and WG4 | Working Group 3 |