INCA. Ionospheric Neutron Content Analyzer. New Mexico State University University NanoSat-8. CubeSat Workshop Presentation August 2, 2014; Logan, UT

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INCA Ionospheric Neutron Content Analyzer New Mexico State University University NanoSat-8 CubeSat Workshop Presentation August 2, 2014; Logan, UT

Presentation Outline Mission Overview Mission Relevance ConOps INCA Payload Subsystem Design Thanks & Questions *

INCA A Collaboration AFRL Space Weather Center of Excellence Contacts: S. White, R. S. Selesnick Space Weather Forecasters are the Prime Customer NASA Goddard Space Flight Center Contacts: Eric Christian, Georgia de Nolfo Payload Instrument Support & Testing University of New Hampshire Contacts: James Ryan, Peter Bloser Payload Instrument Primary Provider *

Mission Overview Project Objectives Design and fabricate a small satellite that fulfills the design constraints of the University NanoSat Program and supports the requirements of the UNH Neutron instrument. Provide professional engineering quality design while maintaining educational responsibilities. Mission Objectives PRIMARY: To demonstrate the functionality of Scintillator/SiPM-based neutron spectrometer in Low Earth Orbit. SECONDARY: To gather neutron flux data and corresponding latitude metadata from at least three latitudinal zones. TERTIARY: To detect a primary solar neutron event. *

Atmospheric Neutrons Neutron Sources Air Shower Neutrons Albedo Neutrons Solar Neutrons Payload Detector Scintillators & SiPMs Solid Angle Time Stamping GPS Stamping *

Mission Relevance AFRL s Space Weather Center of Excellence Mitigate effects of space environment on systems Robustness depends on validation of physical observations. NASA Science Directorate Atmospheric Composition Modeling and Analysis Program (ACMAP) INCA will enhance the robustness of Space Weather models by adding measurements of the neutron spectrum observed in LEO. *

Key Measurement Reqs. Measurement Requirement The UNH Instrument shall measure the flux of neutrons in a certain energy range. The UNH Instrument shall measure a minimum number of neutron events. Range/Value Source of Req. 1MeV 20MeV Customer Proposal 20 MO 1/Uncertainty Calculation 300 MO 2/Uncertainty Calculation The UNH Instrument shall be pointed at the Sun +/- 10 degrees with a certain accuracy. The orientation Metadata (from ADC) shall have +/- 2 degrees a certain accuracy. Customer Q&A Customer Q&A The UNH Instrument shall be monitored with sensors to generate housekeeping data. 20 voltage monitors, 20 current monitors, 3 MO 1/Customer Q&A temperature sensors The longitudinal Metadata (from ADC) shall be gathered by GPS accurate within a certain degree of latitude. 1 Degree MO 2/MO 3/Customer Q&A *

Concept of Operations Launch Sequence. 45-Minute Sleep Period. Activation Sequence. System Check. First Transmission. Detumble & Point. Charge Batteries. Science Mission Sequence. Launch Vehicle Ascends. Eject from Launch Vehicle. Deploy Solar Panel upon launch. Deploy Antennas. Record Data, Metadata. Transmit Data, Metadata. Repeat. End of Life Sequence.

INCA Spacecraft Overview The Basics 6U (30cm x 20cm x 10cm) Structure Planetary Systems Corp. Standard Mainly COTS Parts in Preliminary Design KISS The Payload Being adapted from Solar PRobe Ion Neutron & Gamma-ray Spectrometer (SPRINGS) design Bus and Payload design happening side-by-side Pointed in same direction as Solar Array *

ADC Subsystem Design Attitude Determination ISIS CubeSense Accuracy : Nadir: 0.18 (where <0.5 over <2 over ± 45 FOV Sun: <0.3 over <1 over <1.85 over ± 90 FOV Earth is completely ± visible 35 ± ± 40 60 in Product Properties Power: 360mW max, <100mW avg Size: 96mm, 91mm, 10mm (excluding cameras) Mass: 110g (including cameras) I2C and UART interface available field-of-view) FOV FOV FOV

ADC Subsystem Design Attitude Control ISIS Magnetorquer Board Performance Actuation level Max: 0.24 Am2 (@ 20 C, 5V) Power consumption (@ 20 C) Torque rods: ~1 Watt/Am2 Air core: ~2 Watt/Am2 Properties Two torque rods and one air core torquer Mass: ~195 grams Operational temperature range: -40 to +70 C Dimensions: 95.9 x 90.1 x 15 mm3 Supply voltage Actuation: 5V

EPS Subsystem Design EPS Board Solar Panels Batteries

COM Subsystem Design

CDH Subsystem Design

Cleanroom & Lab

Thanks & Acknowledgments Monetary Support New Mexico Space Grants Consortium Harris Corporation NMSU Organizations Physical Sciences Lab Industrial Engineering Dept. Special Thanks to Dr. Steve Stochaj Mr. Bob Hull Sue, Grace, & Annette Dr. Jeanine Cook Dr. Jim Ryan Dr. Peter Bloser Dr. Georgia de Nolfo Ms. Patricia Sullivan Dr. William Godwin Mr. Brian T. Sanders *