Mars Sample Return: Introduction - NASA

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Mars Sample Return:IntroductionApril 15, 2020Presented to (virtual) MEPAG Spring MeetingJim WatzinDirector – Mars Exploration ProgramNOTE ADDED BY JPL WEBMASTER: This content has not been approved or adopted by JPLor the California Institute of Technology. This document is being made available forinformation purposes only, and any views and opinions expressed herein do notnecessarily state or reflect those of NASA, JPL, or the California Institute of Technology.11

NASA Recognizes the Importance ofMars Sample ReturnReturn of scientifically selected samples from Mars to address key objectivesacross the field on Planetary Science has been and remains the highestscientifically endorsed priority by the last two Decadal Surveys “Because of its potential to address essential questions regarding planetary habitability and life,Mars sample return has been a primary goal for Mars exploration for many years. It directlyaddresses all three of the crosscutting themes , and it is central to the committee's PlanetaryHabitability theme “ (Chapter 9) “The highest priority Flagship mission for the decade 2013-2022 is MAX-C [now, Mars 2020],which will begin the Mars Sample Return campaign . "(Chapter 9) “MAX-C [now, Mars 2020] is the critical first element of Mars sample return and should beviewed primarily in the context of sample return,”. (Chapter 6) “The [Decadal Survey] committee has therefore taken the unusual step of recommending a planfor the coming decade that also has significant budget implications for one or even two decadesbeyond. The committee does this intentionally and explicitly, with the realization that importantmulti-decade efforts like Mars Sample Return can only come about if such recommendations aremade and followed”. (Chapter 9)2

Ready for MSR # Mars orbits flown by U.S. 193,560 orbits Mariner 9: 700 orbits (deactivated in parking orbit), Viking 1 orbiter: 1485 orbits (deactivated inparking orbit), Viking 2 orbiter: 700 orbits (deactivated in parking orbit), MGS: 35,885 orbits (lost),Odyssey: 80,500 orbits (and counting), MRO: 63,418 orbits (and counting), MAVEN: 10,872 orbits # Successful U.S. Mars landings 8 landings Viking 1 lander, Viking 2 lander, Pathfinder/Sojourner, Spirit, Opportunity, Phoenix, Curiosity, InSight # Km driven by U.S. Mars rovers 75 km Sojourner: 0.104 km, Spirit: 7.73 km, Opportunity: 45.16 km, Curiosity: 22.093 km (and counting) # Years exploring Mars 49 yrs MSR Campaign supported by partner agencies President’s FY21 Budget Request supports MSRESA Council of Ministers approved participation in MSR(as of 6 Feb 2020)3

Maturation of MSR Substantial amount of effort expended in FY16-19 in developing theplanning and approach for MSR Well established partnership – NASA/ESA Developed a pragmatic, executable architecture Committed to a disciplined approach to adhere to budgetary guidance Keep it simple as possible, use affordability trades to help set capability, nopiggy-back science instruments Have approached the challenge of providing robust sampleprotection very seriously Reached outside to diverse spectrum of expertise to help inform our approach Challenging old assumptions and prior studies Architecture ensures multiple layers of protection Committed that sample access be open internationally Assessment and analysis of samples will be managed via internationalgovernance: currently in early planningMars Sample Return Preformulation4

the Stage for Sample ReturnMars 2020Jezero Crater 3 Gya paleolake with wellpreserved deltaic stratigraphySearching for fossilizedevidence of planetaryevolution, climate, andorigins of life55

Critical Inflection Point for MSRTransition from study to implementationCompleted Campaign Reference Architecture Peer Review (Jan 22-23, 2020) Marked the beginning of the push to FormulationChosen late FY26 LRDs with Sample returned to Earth in 2031 Earliest technically/programmatically viable dateFirst of two opportunities prior to mid-2030sPreparing for NASA Campaign Concept Review (CCR) and KDP-A in FY20ESA prime contractor selected Mars Sample Return PreformulationNegotiations underway6

Early Investments Reduced MSR Risk NASA has invested in MSR architecture studies and key technology maturation throughoutFY16-19 MSR architecture studies ( 25M) MAV technology development: ( 20M) Containment assurance technology development ( 10M) Earth Entry Vehicle (EEV) technology development ( 15M) ESA has made significant investments in MSR mission studies and technologies (since 2017) Mission Studies ( 9M): Phase A/B1 Industrial system studies on ESA MSRcontributions MSR Technologies ( 19M):- Earth Return Orbiter ( 4M) Propulsion, Rendezvous GNC & Sensors- Sample Transfer Arm ( 2M) Robotic Arm Breadboard- Sample Fetch Rover ( 13M)Mars Sample Return Preformulation7

MSR Campaign Mission ElementsSample Retrieval Lander(July, 2026) M2020 Rover(July, 2020) Land in Jezero CraterExplore and characterizeCollect samples for futurereturn. Retain some samples fordelivery to SRL. Deposit somesamples on Martian surface forretrieval by the SFRDeliver retained samples toSRL for transfer to OS Land in the proximity of JezeroCraterDeploy ESA-supplied SFR toretrieve samples cached byMars 2020 at one or moredepots, and receive samplesdelivered by M2020Transfer samples to OSonboard MAVLaunch MAV to place OS instable Low-Mars OrbitEarth Return Orbiter(October, 2026) Deliver NASA-supplied CCRSpayload to Mars orbit Satisfy Planetary Protectionrequirements for returned samples Provide UHF relay support to SRLEDL and surface mission (SFR,M2020, and MAV) Capture OS in low-Mars Orbit Contain the captured OS Return to Earth and deliver theEEV on trajectory to UTTR landingRobust Sample Retrieval StrategyMars Sample Return PreformulationSFR FetchM2020 Delivery8

Robust MSR Campaign TimelineMars Sample Return Preformulation9

MSR Campaign Elements:Agency Roles Built Upon CapabilitiesMars 2020Sample Retrieval LanderEarth Return OrbiterCapture/Containment andReturn SystemReturnable ngSampleMarsAscentVehicleAgency roles chosen to be strategically alignedwith capabilities and experience, and tominimize and balance campaign technical andprogrammatic risks within anticipated resourcesMars Sample Return rnModuleLegend:NASAESA10

MSR - NASA Center Responsibilities:Key Strategy for Executing AffordablyJPL led projectMars 2020JPL led projectEarth Return OrbiterSample Retrieval LanderGSFC led projectReturnable ngSampleLegend:Capture/Containmentand Return SC launchTransferModuleLaRCEarthReturnModuleMSFCJSC curationNASA roles aligned with core competencies and experienceMars Sample Return Preformulation11

Pre-Phase A Schedule Plan26/26/31 With 4 years of pre-phase A investments, plan to formulate and implement the missionswith 1 year Phase A, 1 year Phase B and 4 years of Phase C/D Agency development cycles utilize different timelines Requires continual coordination to keep cross-deliverables sync’d Managed this well so farMars Sample Return Preformulation12

Video(WEBMASTER note: link will be added here if this video is posted online)13

MSR Summary NASA and ESA are well prepared to proceed with aneffective partnership Have established sound alignment of development capabilities andteaming between the NASA Centers and with ESA and its contractors Institutional approval cycles have been well coordinated Both Agencies working towards 2026 LRD Investments in architecting, trade studies, and technologymaturation have positioned NASA to achieve a successfulKDP-A in FY201414

Director – Mars Exploration Program Mars Sample Return: Introduction April 15, 2020. Presented to (virtual) MEPAG Spring Meeting. NOTE ADDED BY JPL WEBMASTER: This content has not been approved or adopted by JPL or the California Institute of Technology. This document is being made available for information purposes only, and any views and opinions expressed herein do not necessarily state .

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