LIP & ESA 18121/04/NL/CH MarsREC An integrated tool for Mars Radiation Environment Characterization and Effects 5º longitude.

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LIP & ESA 18121/04/NL/CH MarsREC An integrated tool for Mars Radiation Environment Characterization and Effects 5º longitude

GEANT4 Users Workshop Lisbon. Portugal2 MarsREC: Motivation & Challenge Integrated simulation tool for Mars Radiation Environment and Radiation induced Effect in EEE Components. landing locations, time and season of the Martian year. Two Modules: Radiation Environment Characterization Radiation Effects Outputs: Environment description, Doses and SEU rate predictions.

GEANT4 Users Workshop Lisbon. Portugal3 Outline MarsREC : Environment Module Summary and results review MarsREC : Effect Module Description Principle of SEU rate calculation Results Mission scenario Comparisons / Verification GEANT4 problem Report Conclusions

MarsREC: Environment Module Atmosphere – MCDSoil - MOLA Radiation inputs - CREME96

GEANT4 Users Workshop Lisbon. Portugal5 GEANT4 and set-up 5º5º 5º 5º

GEANT4 Users Workshop Lisbon. Portugal6 Analysed Locations 6 different Locations North and South, East& West Solar Longitude 180º-210º Tyrrena Paterae G, H, I, J A,B,C,D,E,F Different times of the Martian day at Long. 0º: 02h, 12h, 22h

GEANT4 Users Workshop Lisbon. Portugal7 MarsREC Results Tyrrhena Paterae. Fluences *Considered event duration of 338 hours Doses due to GCR Radiation & Martian year Ambient Dose Equivalent Fluence Maps

MarsREC: Effect Module

GEANT4 Users Workshop Lisbon. Portugal9 ATMEL SRAM description The die is 6.1 x 11.2 mm 2 and the memory cell is 3.1 x 3.15  m; The device was tested with Ions, Protons and Neutrons; SEU cross sections R. Harboe-Sørensen, proceedings, RADECS 2005.

Framework Design

GEANT4 Users Workshop Lisbon. Portugal11 Principle of SEU Rate Calculation

GEANT4 Users Workshop Lisbon. Portugal12 Problem with Ions GRAS interface with to implement Geant480.p01 physics list and run ions. Run Carbon (6,12), energy distribution - GCR spectrum Using LHEP_BIC_HP physics list *** G4Exception : 007 issued by : G4HadronCrossSections GetParticleCode: unsupported particle *** Fatal Exception *** core dump *** *** G4Exception: Aborting execution *** In Hypernews - exactly the same Discussion with Vladimir Ivantchenko This bug likely connect with the fact, that for some of nucleus default cross section is not available Should be fixed in the further releases!

GEANT4 Users Workshop Lisbon. Portugal13 GCR : Mission Scenario Mission scenario -> foreseen for EXOMARS ( 2011)  slide from the ExoMars Mission-Phase A presentation by Alenia Spazio. SEU predictions for GCR Protons SEU rates : Mission Duration

GEANT4 Users Workshop Lisbon. Portugal14 Dependence on lading site Surface pressure = 189,4 Pa Surface pressure = 1004 Pa => 35% Differences in fluence In particular:  N =57%  P = 12%  E = 37%  = 26%

Comparison/Verification Evaluation MarsREC predictions in comparison with other predictions and experimental data. NOTE: Available/published results obtained in different conditions. SO : Evaluation of orders of magnitude instead of accurate validation.

GEANT4 Users Workshop Lisbon. Portugal16 Experimental Data MARIE Instrument in orbit (Mars Odyssey Orbiter) Measured doses in orbit of Mars : Dec to Oct MarsREC Predicted dose rates at the surface For one location in Tyrrhena Paterae at 12h MUT (0º)

GEANT4 Users Workshop Lisbon. Portugal17 Regolith: Backscattered Radiation MarsREC : Mars NASA : Moon NOTE: Compositions and densities slightly different MarsREC - atmospheric shielding NASA - no atmosphere. Protons Neutrons > 50 g/cm 2 = 50 g/cm 2

GEANT4 Users Workshop Lisbon. Portugal18 Comparing Dose Equivalent MarsREC fluences were converted to Dose Equivalents Using FLUKA fluence-to-dose equivalent conversion factors Considereations: MarsREC With/Without Ions MARIE predictions before flight

GEANT4 Users Workshop Lisbon. Portugal19 SEU rate : MarsREC vs CREME96 SEP and GCR protons and protons+neutrons Normalization considerations Perpendicular and Isotropic SEP

GEANT4 Users Workshop Lisbon. Portugal20 Conclusions MarsREC - integrated simulation tool for Mars Radiation Environment and Radiation induced Effect in EEE Components. comprehensive method to provide SEU Rate prediction for EEE components on Mars secondary particles generated in various shielding configurations, the Martian atmosphere and soil. Results show Very good agreement with other software predictions Landing site dependence -> important for SEE’s and Equivalent Dose Ion physics needed!