Small Satellite Platform Imaging X-Ray Polarimetry Explorer (IXPE) Mission Concept and Implementation

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Small Satellite Platform Imaging X-Ray Polarimetry Explorer (IXPE) Mission Concept and Implementation 31 st Annual AIAA/USU Conference on Small Satellites Utah State University, Logan, UT, USA August 6-10, 2017 Paper SSC17-III-08 Presented by: William Deininger Ball Aerospace This work was authored by employees of Ball Aerospace under Contract No.NNM16581489R with the National Aeronautics and Space Administration. The United States Government retains and the publisher, by accepting the article for publication, acknowledges that the United States Government retains a non-exclusive, paid-up, irrevocable, worldwide license to reproduce, prepare derivative works, distribute copies to the public, and perform publicly and display publicly, or allow others to do so, for United States Government purposes. All other rights are reserved by the copyright owner. 1

CO-AUTHORS Rich Dissly Advanced Systems Manager, Ball Jeanette Domber Payload Lead, Ball Jeff Bladt ADCS Lead, Ball John Joniatis Project Manager, Ball Anthony Kelley Chief Systems Engineer, NASA MSFC Randy Baggett Project Manager, NASA MSFC Steve O Dell Project Scientist, NASA MSFC Martin Weisskopf Principal Investigator (PI) Paolo Soffitta Italian Principal Investigator (IPI) 2

CONTENTS Introduction Overview of science Project partners and roles Technical summary Conclusions and milestones 3

QUICK SUMMARY OF IXPE AT TIME OF CSR NASA Explorer Mission, cost capped at $175M (FY15) PI: Martin Weisskopf, MSFC Class D Mission managed by MSFC LEO observatory that measures spatial, spectral, timing, and polarization state of X-rays from 49 known astrophysical targets Ball Roles: Spacecraft, Payload mechanical, AI&T, and Mission Ops (with LASP) MSFC: Management, X-ray optics, SOC ASI (Italian Space Agency): Detectors Units, Ground station Phase B starts now; launch Nov 2020 4

IXPE SCIENTIFIC OBJECTIVES Science Objectives: Enhance our understanding of the physical processes that produce X-rays from and near compact objects such as neutron stars and black holes Explore the physics of the effects of gravity, energy, and electric and magnetic fields at their extreme limits IXPE addresses key questions in High Energy Astrophysics What is the spin of a black hole? What are the geometry and magnetic-field strength in magnetars? Was our Galactic Center an Active Galactic Nucleus in the recent past? What is the magnetic field structure in synchrotron X-ray sources? What are the geometries and origins of X-rays from pulsars? Polarimetry of X-ray sources largely unmeasured Opens a new window on the X-ray Universe 5

IXPE SCIENCE X-ray emission from energetic processes: In-fall of matter into Neutron Star or Black Hole, synchrotron or shock emission, or very hot regions Can originate both from point and extended sources; Imaging separates these sources Polarization of X-rays if there is anisotropy in emission geometry or mag field, plasma reflections, or general relativistic effects Crab Pulsar Extended X-ray emission Credit: NASA/SAO Credit:NASA/ESA and STScI Imaging separates regions with different emission mechanisms Polarization probes the source geometry and mag field strength 6

IXPE IMAGING LIMITS SOURCE CONFUSION Active galaxies are powered by supermassive Black Holes with jets Radio polarization implies the magnetic field is aligned with jet Other models also consistent with current observations IXPE can image the Cen A jet and separate from other sources in the field (e.g., Ultra Luminous X-ray source) 7

PRINCIPAL TEAM MEMBERS Principal Investigator Project Management Systems Engineering & SMA Mirror Module Design, Fabrication, & Calibration Science Operations Center (SOC) Science Data Analysis and Archiving Spacecraft SE and SMA Support Payload Structure S/C, Payload, Observatory I&T Mission Ops Management Detector System Funding Ground Station (Malindi) Mission Assurance (Italian contribution) Italian PI (IPI) Polarization-Sensitive Detector System Payload Computer Mission Operations Center 8

IXPE HAS A STRAIGHT FORWARD IXPE Observatory is a single flight element Observatory launched to a 540 km, 0 orbit Pegasus XL launch vehicle is baselined 3 critical events occur within ground or TDRSS contact Separation from launch vehicle (TDRSS) free flying S/C Solar array deployment (TDRSS) full power available Payload boom deployment (Malindi) ready for payload commissioning Observatory comm via S-band link Half of available Malindi contacts meet data download requirements for high data rate targets (e.g. The Crab) Most targets require only 2 (of 15 available) contacts per day MISSION CONCEPT 9

PAYLOAD OVERVIEW Set of three mirror module assemblies (MMA) focus X- rays onto three corresponding focal plane detector units 10

MIRROR MODULE DESIGN X-ray Mirror Concept IXPE Mirror Module Assembly Heritage Design Approach Electroformed Ni shells use a proven fab process Mounting combs provide shell attachment points A single rigid spider supports the 24 nested shells and attach module to structure Rigid Support Spider Shell Mounting Comb 11

DETECTOR A CONTRIBUTION FROM ASI VIA INFN/IAPS Detection uses photoelectric effect X-rays absorbed in detector fill gas Photoelectron emission aligned with X-ray polarization vector Electron multiplier with pixelated detector Gas Pixel Detector (GPD) TRL 6 Prototype same form/function as FM 12

IXPE SPACECRAFT BASED ON BCP SMALL PLATFORM STPSat-2 STPSat-3 STPSat-2 launched 11/2010 STPSat-3 launched 11/2013 GPIM launch now planned 4/2018 GPIM 13

IXPE OBSERVATORY STOWED Pegasus XL fairing 14

IXPE OBSERVATORY DEPLOYED 15

IXPE USES HERITAGE GROUND DATA SYSTEM 16

CONCLUSIONS IXPE Project Phase B Kicked off in February 2017 Observatory built up from heritage elements SRR planned 18,19 September 2017 PDR planned February 2018 X-ray optics build started at MSFC Gas-pixel detector fabrication started at IAPS/INFN Launch planned November 2020 17

ACKNOWLEDGEMENTS The Ball Aerospace IXPE Project Team would like to thank NASA Marshall Space Flight Center for their support of this work under contract number NNM16581489R. We are grateful for the support The work described in this presentation is a culmination of efforts from teams at NASA MSFC, Ball Aerospace, ASI, INFN, IAPS, LASP, Stanford, McGill, Roma TRE to submit the Phase A Concept Study Report to NASA 18