Meeting the Challenge of Low Cost Lunar Exploration

Similar documents
The Global Exploration Roadmap International Space Exploration Coordination Group (ISECG)

Canadian Space Robotic Technologies for Lunar Exploration

NASA Mars Exploration Program Update to the Planetary Science Subcommittee

ESA Human Spaceflight Capability Development and Future Perspectives International Lunar Conference September Toronto, Canada

Robotics in Space. Ian Taylor MP. Co-Chair, UK Parliamentary Space Committee VIIIth European Interparliamentary Space Conference

NanoSwarm: CubeSats Enabling a Discovery Class Mission Jordi Puig-Suari Tyvak Nano-Satellite Systems

CubeSat Integration into the Space Situational Awareness Architecture

Exploration Systems Mission Directorate: New Opportunities in the President s FY2011 Budget

HYDROS Development of a CubeSat Water Electrolysis Propulsion System

Benefiting government, industry and the public through innovative science and technology

Office of Chief Technologist - Space Technology Program Dr. Prasun Desai Office of the Chief Technologist May 1, 2012

HEOMD Update NRC Aeronautics and Space Engineering Board Oct. 16, 2014

Constellation Systems Division

NASA Mission Directorates

SSL Payload Orbital Delivery System (PODS) FedEx to GTO/GEO

An Overview of Space Robotics Activities at the Canadian Space Agency

Exploration Systems Research & Technology

Future technologies for planetary exploration within the European Exploration Envelope Programme at the European Space Agency

Exploration Partnership Strategy. Marguerite Broadwell Exploration Systems Mission Directorate

The Lunar Exploration Campaign

Space Debris Mitigation

Proximity Operations Nano-Satellite Flight Demonstration (PONSFD) Overview

NASA s Changing Human Spaceflight Exploration Plans

Once Explorers, Always Explorers Europe s Space Exploration Vision

SSL Payload Orbital Delivery System (PODS) FedEx to GTO/GEO

NASA s Space Launch System: Powering the Journey to Mars. FISO Telecon Aug 3, 2016

Science Enabled by the Return to the Moon (and the Ares 5 proposal)

NASA Keynote to International Lunar Conference Mark S. Borkowski Program Executive Robotic Lunar Exploration Program

European Space Agency Aurora European Space Exploration Programme EXECUTIVE SUMMARY

NASA's Lunar Orbital Platform-Gatway

Deep Space cubesats a nanosats at JPL. Tony Freeman Jet Propulsion Laboratory, California Institute of Technology

Canadian Activities in Intelligent Robotic Systems - An Overview

A DEEP SPACE COMPANY BY A WORLD TEAM THE FED EXPRESS OF THE 21ST CENTURY TONY SPEAR OCTOBER 2007

Status and Outlook for European Exploration Envelope Programme

Space Situational Awareness 2015: GPS Applications in Space

IAC-13-A THE ISECG GLOBAL EXPLORATION ROADMAP: STRENGTHENING EXPLORATION THROUGH INCREASED HUMAN ROBOTIC PARTNERSHIP

Status and Outlook for the European Exploration Envelope Programme

Incorporating a Test Flight into the Standard Development Cycle

Analysis of European Architectures for Space Exploration

JHU/APL CubeSat Initiatives. Andy Lewin 19 April 2007

ESA UNCLASSIFIED - Releasable to the Public. ESA Workshop: Research Opportunities on the Deep Space Gateway

European Geostationary Navigation Overlay Service (EGNOS) Capability on Sirius 5 Satellite for SES

National Aeronautics and Space Administration

Where are the Agencies Human Space Flight (HFR) Programs Heading? USA (NASA) System Description Goal Remarks * Space Launch System (SLS) Program

C. R. Weisbin, R. Easter, G. Rodriguez January 2001

Lunar Exploration Science Campaign: A commercial-leveraged lunar mission program

Space Technology Mission Directorate

MSL Lessons Learned Study. Presentation to NAC Planetary Protection Subcommittee April 29, 2013 Mark Saunders, Study Lead

Jet Propulsion Laboratory

ASTRA ERA and Future Robotics (for Exploration)

Dream Chaser Frequently Asked Questions

Asteroid Redirect Mission and Human Exploration. William H. Gerstenmaier NASA Associate Administrator for Human Exploration and Operations

Human Spaceflight: The Ultimate Team Activity

Credits. National Aeronautics and Space Administration. United Space Alliance, LLC. John Frassanito and Associates Strategic Visualization

U.S. Space Exploration in the Next 20 NASA Space Sciences Policy

SmallSat Access to Space

Space Challenges Preparing the next generation of explorers. The Program

The CNES French Space Agency Planetary Program Low cost perspectives

ESA Strategic Framework for Human Exploration

NASA and Earth Science Enterprise Overview

For Winter /12/2006

RETURN TO THE LUNAR SURFACE Lunar Exploration Campaign. Next COTS Project?

ESA PREPARATION FOR HUMAN LUNAR EXPLORATION. Scott Hovland European Space Agency, HME-HFH, ESTEC,

NASA-Ames Research Center in Silicon Valley

Moog CSA Engineering CubeSat Payload Accommodations and Propulsive Adapters. 11 th Annual CubeSat Developer s Workshop 25 April 2014

estec PROSPECT Project Objectives & Requirements Document

LLCD Accomplishments No Issues with Atmospheric Effects like Fading and Turbulence. Transmitting Data at 77 Mbps < 5 above the horizon

Asteroid Redirect Mission (ARM) Update to the Small Bodies Assessment Group

The Space Portal A Framework for Exploration and Development

Technology Capabilities and Gaps Roadmap

Air Force Research Laboratory

NASA s X2000 Program - an Institutional Approach to Enabling Smaller Spacecraft

BEYOND LOW-EARTH ORBIT

Key Areas for Collaboration

Dream Chaser for European Utilization (DC 4 EU):

Space Challenges Preparing the next generation of explorers. The Program

The International Lunar Network (ILN) and the US Anchor Nodes mission

Interplanetary CubeSat Launch Opportunities and Payload Accommodations

Technology Capabilities and Gaps Roadmap

JPL Does Cubesats. Tony Freeman* Manager, Innova1on Foundry. April 2013

Mission to Earth Moon Lagrange Point by a 6U CubeSat: EQUULEUS

Planetary CubeSats, nanosatellites and sub-spacecraft: are we all talking about the same thing?

Relative Cost and Performance Comparison of GEO Space Situational Awareness Architectures

Perspectives on human and robotic spaceflight. Steve Squyres Chairman, NASA Advisory Council Cornell University

Mission Applications for Space A&R - G.Visentin 1. Automation and Robotics Section (TEC-MMA)

Enabling Technologies for robotic and human Exploration

Current and Future Missions to the Moon

A RENEWED SPIRIT OF DISCOVERY

estec REQUEST FOR INFORMATION Technologies, science payloads, and commercial services for lunar missions ESA UNCLASSIFIED - For Official Use

NASA s Joint Robotic Precursor Activity: Providing Strategic Knowledge to Inform Future Human Exploration

A CubeSat-Based Optical Communication Network for Low Earth Orbit

NASA s Exploration Plans and The Lunar Architecture

Low-Cost Innovation in the U.S. Space Program: A Brief History

Global Exploration Strategy (GES): A Framework for Coordination, Progress, and Future Opportunities

PROCEEDINGS OF SPIE. Inter-satellite omnidirectional optical communicator for remote sensing

Space Technology Mission Directorate. NASA's Role in Small Spacecraft Technologies: Today and in the Future

NASA s Human Space Exploration Capability Driven Framework

Daring Mighty Things. AFCEA Los Angeles. Larry James (Lt. Gen. USAF, Ret.), Deputy Director. a presentation to. January 14, 2015

Plans for Human Exploration Beyond Low Earth Orbit. Doug Cooke, AA ESMD March 4, 2011

The NASA-ESA. Comparative Architecture Assessment

Transcription:

Space Missions Meeting the Challenge of Low Cost Lunar Exploration Nadeem Ghafoor MDA / SSL LEAG 2013, 14-16 th October, APL, Laurel MD

Changing Times New space exploration era Positives Exciting new exploration frontiers More remote destinations & regions More autonomous operation More capable science instruments More sustainable exploration New technological capabilities Increased global coordination (e.g. ISECG) Challenges More technically ambitious Reduced political impetus Reduced budgets flat being the new up Low Cost is de rigueur in space exploration today 2

Living With Low Cost Heritage Approach Partnerships International Commercial But first some introductions 3

Intro: MDA 40 years of support to govt & commercial space Canada s largest space company & mission prime Global provider of space robotic systems Human spaceflight Shuttle & ISS robotics 100+ successful robotic missions Support to NASA, CSA, JAXA, commercial Orbital servicing Satellite servicing demonstrations for NASA, DARPA, DoD, CSA Planetary Exploration 10+ years of robotics on Mars MER, MSL, Phoenix, OSIRIS-Rex, ExoMars Affordable small / medium satellite missions EO, Surveillance & SSA Optical, Radar Radarsats, Rapideye, Sapphire, Cassiope 1000+ antennas on 125+ satellites across most commercial & military bands 4

Intro: SSL Formerly Space Systems Loral acquired by MDA in 2012 55 years of commercial & government space World s largest provider of GEO commercial communications satellites High reliability, long-life (15 yr) platform Largest heritage 20+kW bus in the industry High power (30+kW) Solar Electric Propulsion 250+ satellites for LEO, GEO & HEO operations 72 current operational GEO satellites 16 with 20+kW power 14 with Solar Electric Propulsion 16 Earth Observation missions Large satellite backlog with significant hosted payloads capacity direct to GEO Propulsion & composite structures for NASA planetary missions Viking, Voyager, Solar Dynamics Obsrv ty, LADEE 5

MDA & SSL SSL acquired by MDA in 2012 Integrated space capability End-to-end delivery from mission & system integration to enabling payloads, subsystems & data services for civil & military space 5000+ employees across US & Canada (+ international offices) Heritage systems across EO, Sat Comm, Science & Exploration Unique partnership offerings international & commercial 6

Low Cost Perspectives 1. Heritage Low Cost motivations can vary Budget availability Schedule Political profile Low Cost - Low Risk (e.g. Discovery) Low Cost - Medium Risk (e.g. Class D missions) More often than not demands leveraging heritage Technical risk trusted concept, NRE Programmatic Risk Processes, Parts, Partnerships Heritage can sometime be an explicitly required program enabler New Frontiers Discovery Flagship missions 7

Leveraging Heritage Examples Large Science Missions formerly for high reliability, now cost too Example: Alpha-Particle X-Ray Spectrometer (APXS) instrument Mars 2020 Pathfinder APXS (1997) MER APXS (2004) MSL APXS (2012) Example: Mars robotic manipulators Mars 2020 MER IDD (2004) Phoenix Arm (2008) MSL Arm (2012)

Leveraging Heritage Examples SMD Competed Missions: New Frontiers high reliability, cost (explicit evals) Example: OSIRIS-Rex OLA Mapping Lidar & Altimeter Comet / Asteroid Sample Return USAF XSS-11 RPO Lidar (2005) Osiris Asteroid Mapping Science Lidar (2016) Asteroid Redirect Mission

Leveraging Heritage Examples SMD Competed Missions: Small (Discovery, Scout) cost, reliability Example: Phoenix MET USAF XSS-11 RPO Lidar (2005) Phoenix MET Station Lidar (2008) Example: Insight Robotics & Mechanisms MPL Arm (1999) Phoenix Arm (2008) Insight Arm (2016)

Leveraging Heritage Examples Small Science Missions: cost, new concepts Example: LADEE Propulsion System COTS derived bipropellant system Same thrusters & flow management components Same construction & integration processes Module structure Tailored composite process development Lightweight à rapid vehicle assembly SSL 1300 Spacecraft Bus LADEE Structure & Propulsion System

Towards Low Cost Lunar Exploration Lunar Orbiter Missions Heritage Propulsion systems Chemical propulsion e.g. LADEE Industry-leading Solar Electric Propulsion 300+ SPTs flown since 1971 Long-life heritage in GEO Hosted Payloads Onboard imaging & other science instruments Rideshares and dispensed small lunar spacecraft (e.g. cubesats) 12

Towards Low Cost Lunar Exploration Lunar Lander Missions Surface robotics 30 yrs of orbital & planetary manipulators New Frontiers Moonrise Arm Excavation, sample acquisition & transfer Down-selected for Round #3 Ph A Completed 2011 Developments since 2013 CSA-funded Lunar Dust Mitigation risk-buy down tech development ExoMars mechanisms & avionics Landing sensors Planetary Lidar / Laser Altimeter CSA/ESA-funded landing GNC testing 13

Towards Low Cost Lunar Exploration Lunar Rover Missions Resource Prospector Mission 2013 Rover concept design study for CSA Short-duration Class D mission Lunar tele-operable rover available for 2018 Survive short shadowed-region sortie Carry RESOLVE payload & instruments DTE comms; ~ few km traverse Night survival only as an option Heritage from ExoMars rover Mobility electromechanical elements Low-temperature avionics CSA risk buy-down activities Multiple rover prototypes Lunar dust mitigation technologies 14

Low Cost Perspectives: 2. International Partnerships Increasingly crucial element of exploration, particularly for Moon Advantages Cost sharing Heritage systems, mission opportunities Political value Multiple successful examples NASA Phoenix (competed) MSL Curiosity (flagship) New Frontiers (competed) 3 finalists had international elements Winner has international element (OLA) 15

Low Cost Perspectives: 2. International Partnerships Key areas Management of timelines and commitment expectations, particularly in early phases Management of risk approaches on both sides Focus on heritage ITAR Manageable proven on many programs Just requires time, process & experience International agreements DARPA Orbital Express Rendezvous Demo (2006) MDA-SSL programmatic flexibility Heritage on both sides of border Technology available on both sides of border Tailor to suit customer needs: US (domestic interest) or international (political / cost sharing) USAF XSS-11 RPO Lidar (2005) 16

Low Cost Perspectives: 3. Commercial Partnerships Hosted Payloads - Onboard Leverage high SSL commercial spacecraft flight rate (5-6 / yr) Backlog of almost 20 spacecraft - direct delivery to GEO Range of hosting options for payloads and small spacecraft PODs: Payload Orbital Delivery system 17

Low Cost Perspectives: 3. Commercial Partnerships Long history of SSL hosted payloads (Science, comms, tech demo) e.g. NASA GSFC Laser Comm Relay demonstration Pallet Experiments ESA EGNOS LBand Solar X-Ray Imager (SXI) Hosted Payloads Cisco IRIS Router Spanish X-Band Rx Phased Array Japanese MTSAT Payload Suite Australian Milsatcom CCD Cameras ( Dish Earth, Channel 287) 18

Low Cost Perspectives: 3. Commercial Partnerships Hosted Payloads Dispensed spacecraft Long sought after capability increasingly needed Cost constraints Advances in micro/nanosat capabilities (e.g. lunar cubesats) DARPA Phoenix (2013+) addressing several technology elements with PODS Dispensing of Satlets Enabling NRE for future lunar & planetary micro / nano missions Targets 2015/16 launch MDA / SSL supporting Phoenix from multiple divisions Pasadena Toronto Paolo Alto PODs: Payload Orbital Delivery system 19

Summary Low cost is de rigeur for space science & exploration today Heritage systems have been a proven enabler for recent missions Many technologies exists with more under current development for small-class science & exploration lunar missions International partnership is an enabler when managed successfully Procurement flexibility can be valuable & options exist today New commercial partnership options are emerging for lunar micro/ nano missions via launch / rideshare / hosted payloads 20

Summary Low cost is de rigeur for space science & exploration today Heritage systems have been a proven enabler for recent missions Many technologies exists with more under current development for small-class science & exploration lunar missions International partnership is an enabler when managed successfully Procurement flexibility can be valuable & options exist today New commercial partnership options are emerging for lunar micro/ nano missions via launch / rideshare / hosted payloads Thank you and keep the faith! nadeem.ghafoor@mdacorporation.com 21

Space Missions Backup 22