NASA Technical Reports Server (NTRS) 20140004816: Extensibility of Human Asteroid Mission to Mars and Other Destinations

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Extensibility of Human Asteroid Mission to Mars and Other Destinations

P. Lopez, NASA/JSC (EA4) M. McDonald, NASA/JSC (EA4)

AIAA SpaceOps 2014, May 5-9, 2014 Pasadena, CA

List of Authors Name

Title

Mark A. McDonald

Lead, Advanced Mission Development Group, Technical Integration Office, Engineering Directorate, NASA JSC/EA4

Jose M. Caram

Deputy Manager, Technical Integration Office, Engineering Directorate, NASA JSC/EA4

Pedro Lopez

Aerospace Engineer, Advanced Mission Development Group, Technical Integration Office, Engineering Directorate, NASA JSC/EA4

Heather D. Hinkel

Rendezvous Sensor Lead, Aeroscience and Flight Mechanics Division, Engineering Directorate, NASA JSC/EG6

Jonathan T. Bowie

AEMU SE&I Lead Engineer, Space Suit and Crew Survival Systems Branch, Engineering Directorate, NASA JSC/EC5

Paul A. Abell

Lead Scientist for Planetary Small Bodies, Astromaterials Research and Exploration Science Directorate, NASA JSC/KR

Bret G. Drake

Deputy Manager, Exploration Missions and Systems Office, NASA JSC/YX

Roland M. Martinez

Aerospace Engineer, Exploration Mission Systems Office, Human Exploration Development Support, NASA JSC/YX111

Paul W. Chodas

Senior Engineer, NASA NEO Program Office, 301-121, Jet Propulsion Laboratory, California Institute of Technology.

Kurt Hack

Aerospace Engineer, Mission Design and Analysis Branch, NASA GRC, Cleveland, OH 44135, Senior Member AIAA.

Daniel D. Mazanek

Senior Space Systems Engineer, Systems Analysis and Concepts Directorate, Space Mission Analysis Branch (E402)/Mail Stop 462, NASA LaRC, Senior Member AIAA.

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Agenda • • •

Asteroid Redirect Mission Overview Observation Campaign Extensibility Asteroid Redirect Robotic Mission Extensibility – – – –



Solar Electric Propulsion Asteroid Resource Utilization Robotic Boulder Capture Planetary Defense

Asteroid Redirect Crewed Mission Extensibility – – – –

Automated Rendezvous Sensors EVA Sample Collection Automated Docking

• Extensibility to Missions Post-ARCM – – – –

Extended Missions to Asteroid in DRO Mars Phobos Mission Lunar Mission Capability Driven Framework

• Conclusion 3

Asteroid Redirect Mission Overview

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Observation Campaign Extensibility • Leverages off of NASA’s Near-Earth Asteroid (NEA) discovery and characterization effort • Utilizes existing ground and space-based observation assets • New telescopes are coming online, and existing surveys are being upgraded with greater time allocations and improved cameras in support of ARM observation campaign – Will increase discovery rate of candidate asteroids for ARM

• These enhancements are also applicable to discovery of hazardous asteroids in general

Spitzer Infrared Space Telescope Catalina Sky Survey Telescope

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Asteroid Redirect Robotic Mission Extensibility Solar Electric Propulsion (SEP) • Capability of SEP system on ARRV could be used in other human exploration missions – Longer duration near-Earth missions in cislunar space – Cargo delivery for human Mars missions • Will require higher power for SEP systems; addressed via solar array systems being demonstrated under current STMD effort (extensible to 125 kW per wing via modularity and scalability)

10 t of Xe 40kW solar arrays Hall Thrusters

Aft View of ARRV

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Asteroid Redirect Robotic Mission Extensibility (Cont.) Asteroid Resource Utilization • Accessibility to asteroid material in cislunar space allows in-situ resource utilization (ISRU) demonstrations to determine if material can be converted into useful products – Benefits future human exploration of the solar system – May be critical in advancing commercial efforts to mine asteroids

Asteroid Propellant Processing Concept

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Asteroid Redirect Robotic Mission Extensibility (Cont.) Robotic Boulder Capture (RBC) • Use of robotic arms to interact with an asteroid is applicable to other NASA missions – Satellite servicing and refueling – Providing surface contact and manipulation for a future crewed mission to NEAs or Martian moons

• End-effector/grippers (i.e., microspine technology) can be used for: – Future robotic exploration (lunar, Mars, Mars moons) – Exploration of bodies like NEAs, Phobos, Deimos, and main belt asteroids like Ceres

Hybrid Capture System Concept for the ARRM RBC Option

Spaceframe Capture Arms integrated with a Habitat on Phobos Surface

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Asteroid Redirect Robotic Mission Extensibility (Cont.) Planetary Defense • Planetary Defense techniques and experience possible through the Robotic Boulder Capture (RBC) option are relevant and extensible to future missions – Demonstrations performed on large NEA • Potential demonstrations include Enhanced Gravity Tractor (EGT), Ion Beam Deflection (IBD) and kinetic impact approach

• Current RBC option mission timeline includes EGT technique demonstration – Applicable to diverting NEAs from Earth-impacting trajectories given sufficient warning time

• Kinetic impact demonstration could be conducted and effectiveness compared to EGT

Demonstration of Enhanced Gravity Tractor on a Large NEA

Kinetic Impact on Comet 9P/Tempel by the Deep Impact Mission

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Asteroid Redirect Crewed Mission Extensibility Common Automated Rendezvous and Docking/Capture Sensors • NASA needs automated rendezvous and docking/capture (AR&D) sensors for multiple missions • NASA is pursuing a common suite of AR&D sensors to apply across multiple AR&D missions starting with the asteroid missions – Visible cameras paired with selectable lenses per mission needs • Medium resolution (narrow angle) • High resolution (wide angle) – 3D LIDAR – Infrared camera





NASA created a common specification addressing environment and performance for each sensor which will fulfill each mission’s AR&D needs NASA released a BAA to pursue sensors meeting this spec 10

Asteroid Redirect Crewed Mission Extensibility (Cont.) Extravehicular Activity (EVA) • Aspects of the EVA segment within ARCM that are extensible to other missions include: – Providing contingency EVA capability to all manned Orion missions • Use of MACES (Orion LEA suit) with mobility enhancements

– Exploration Portable Life Support System (PLSS) technologies applicable to exploration missions • Rapid Cycle Amine (RCA) swing bed for carbon dioxide removal –

Vacuum missions only; addition of sweep gas required for use on Mars surface

• Suit Water Membrane Evaporator (SWME) for thermal conditioning

– Exploration PLSS combined with Z suit will be the EVA suit for all future human exploration missions – EVA tools and worksite stability techniques are extensible to any microgravity EVA including moons of Mars

Mobility Enhancements Testing of MACES in the NBL

PLSS 2.0 Test Unit on the Space Suit Assembly Simulator

Z2 Suit with PLSS

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Asteroid Redirect Crewed Mission Extensibility (Cont.) Sample Collection • Sample collection tools/techniques developed for ARCM that are extensible to future NASA missions include: – Collection of macroscopic samples from various locations on surface and/or interior – Sampling operations on small, airless body under low-gravity conditions – Methods to store and maintain samples during return journey for subsequent laboratory analyses on Earth

• Lessons learned from ARM can be applied to EVA planning for sample site assessment, documentation, sampling operations, and storage/containment activities on Phobos/Deimos

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Asteroid Redirect Crewed Mission Extensibility (Cont.) Automated Docking • Use of International Docking System Standard (IDSS)-compliant NASA Docking System (NDS) as standard docking system for all spacecraft allows delivery of different assets in separate flights that can be integrated later during the mission – Enables missions to Mars vicinity (Phobos and/or Deimos)

• Power and data transfer capabilities supports integrated stack control and power sharing

Passive Half

Active Half IDSS-Compliant NASA Docking System; passive half on ARRV, and active half on Orion

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Extensibility to Missions Post-ARCM Extended Crewed Missions to Asteroid in DRO •

Many possible opportunities for further utilization of the Asteroid – – – – – –



Testing of anchoring techniques In-situ Resource Utilization (ISRU) Demonstration Additional Asteroid Sample Collection Lunar and Mars sample return Scientific Experiments Many other possibilities

Addition of utilization elements provide: – – –

Extended crewed mission duration and additional EVA capability Enhance crew safety with more robust systems and infrastructure Testbed for crew operations and systems required to sustain life for longer deep-space missions

Notional Example of Extensibility of Asteroid Mission

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Extensibility to Missions Post-ARCM (Cont.) Phobos

Mars Orbit

Deimos Phobos Habitat

Mars Orbit Insertion

~16 Months in Mars System

(≈40 t class payloads)

Solar Electric Propulsion (100-200 kW)

Lunar Gravity Assist

Cargo via Solar Electric Propulsion

Orion: Mars ops and Earth Entry Transit Habitat Mars Insertion Stage

EUS for Earth Departure

High-Earth Assembly Orbit

Pre-Deploy Cargo

Trans-Earth Injection

Crew via Chemical Propulsion

Mars habitat and return stage will confirmed to be in place before crew departure.

7-9 Months to Earth

3 Years to Mars

Earth Return Stage and Phobos Transfer Stage

7-9 Months to Mars

High Mars Orbit

4 Years to Mars

Mars Phobos Mission • ARV-derived SEP requires “Split-Sprint” mission approach • SEP used to pre-deploy crew habitat, Phobos systems, and return propulsion stage to Mars orbit • Crew sent on “one-way” mission to Mars orbit via high-thrust chemical propulsion (critical rendezvous at Mars) • Crew utilizes pre-deployed assets for Phobos exploration and eventual return to Earth

Direct Earth Entry

Crew Mission

ARRV-Derived SEP Cargo Tug • Performance estimates indicate that ARRV-derived SEP may be sufficient for Phobos exploration • Further assessments required to confirm performance including determining how this type of strategy can feed forward to future landed missions (heavier cargo elements such as Mars landers) 15

Extensibility to Missions Post-ARCM (Cont.) Lunar Mission • ARM operational experience and systems could be leveraged to support exploration of the lunar surface – Delivery of uncrewed assets to lunar vicinity using SEP system, allowing for additional payload/mission capabilities – SEP bus could be derived from ARRV

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Extensibility to Missions Post-ARCM (Cont.) Capability Driven Framework (CDF) • ARM technologies support the CDF as they enable implementation of many possible missions – ARM SEP system could be used to support lunar missions • Power level could be evolved to preposition assets for Mars missions

– AR&D sensor suite directly support lunar, Mars, and other possible missions – Orion and SLS systems enable “extending reach beyond LEO” – Provides operational experience working on low gravity bodies (“exploring other worlds”)

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Conclusion • The Asteroid Redirect Mission has great promise for extensibility – SEP, AR&D sensors, and RBC Capture mission are all extensible to possible lunar or Mars moon missions – Docking and EVA systems generically support all human exploration missions

• Investment in ARM concept provides logical stepping stones to future exploration goals

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Acknowledgments • The authors would like to acknowledge the support of the Asteroid Redirect Mission teams from JPL, LaRC, JSC, GRC, MSFC, GSFC, and KSC for their inputs, as well as Alberto G. Bertolin and Brad W. Reynolds from AMA Studios (a division of Analytical Mechanics Associates) in JSC.

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