Satellite Servicing and The Spirit of Innovation

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

NWO Servicing NGST. Chuck Lillie November 6, 2008

NASA Human Spaceflight Architecture Team Cis-Lunar Analysis. M. Lupisella 1, M. R. Bobskill 2

Overview. Modularity In Space Assembly Robotics

Agent Model of On-Orbit Servicing Based on Orbital Transfers

Canadian Activities in Intelligent Robotic Systems - An Overview

The PTR Group Capabilities 2014

SPACE SERVICING: PAST, PRESENT AND FUTURE. Dan King

ASSEMBLY AND SERVICING OF SPACE TELESCOPES

A Modular Architecture for an Interactive Real-Time Simulation and Training Environment for Satellite On-Orbit Servicing

NASA s Exploration Plans and The Lunar Architecture

Assembly of a Large Modular Optical Telescope (ALMOST) David W. Miller (a), Swati Mohan (a), and Jason Budinoff (b),

An Overview of Space Robotics Activities at the Canadian Space Agency

NASA Mission Directorates

Constellation Systems Division

Space Situational Awareness 2015: GPS Applications in Space

Canadian Space Robotic Technologies for Lunar Exploration

Space Technology FY 2013

Autonomous Cooperative Robots for Space Structure Assembly and Maintenance

Dream Chaser for European Utilization (DC 4 EU):

GAMMa - A modular ascender concept for sample return missions

Exploration Systems Research & Technology

Automation & Robotics (A&R) for Space Applications in the German Space Program

Christopher J. Scolese NASA Associate Administrator

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

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

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

End-to-End Simulation and Verification of Rendezvous and Docking/Berthing Systems using Robotics

NASA Space Exploration 1 st Year Report

Two Different Views of the Engineering Problem Space Station

The Lunar Exploration Campaign

Testimony to the President s Commission on Implementation of the United States Space Exploration Policy

A Call for Boldness. President Kennedy September 1962

The Lunar Split Mission: Concepts for Robotically Constructed Lunar Bases

Unmanned on-orbit servicing (OOS), ROKVISS and the TECSAS mission

Space Technology Mission Directorate

On- orbit Satellite Servicing Status and Strategy of Japan

DARPA Perspective on Space

MEANS OF ROBOTIC SUPPORT FOR ON-ORBIT SERVICING

Italian Space Agency perspective on Small Satellites

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

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

REPORT DOCUMENTATION PAGE

The NASA and LVX System Partnership for Development of Light Communication Technologies

Revolutionary Aerospace Systems Concepts - Planning for the Future of Technology Investments

In-Space Manufacturing: A Roadmap to the Future

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

UNCLASSIFIED R-1 ITEM NOMENCLATURE FY 2013 OCO

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

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

ARTES 33 ESA Telecommunication Public Private Partnership

CubeSat Integration into the Space Situational Awareness Architecture

ASTRA ERA and Future Robotics (for Exploration)

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

Space Exploration. Summary. Contents. Rob Waring. Level 3-1. Before Reading Think Ahead During Reading Comprehension... 5

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

GNC/AOCS DEVELOPMENT SYSTEM FOR RENDEZ-VOUS AND DOCKING MISSIONS AT SENER, AND ASSOCIATED TEST FACILITIES

RobOps Approaching a Holistic and Unified Interface Service Definition for Future Robotic Spacecraft

Dream Chaser Frequently Asked Questions

Kennedy Space Center. Connecting Space Grant with Spaceport and Range Technology and Science Thrust Areas

The Future of the US Space Program and Educating the Next Generation Workforce. IEEE Rock River Valley Section

ASSESSMENT OF SPHERES

Keeping the universe connected. NASA Update: GNSS Space Service Volume Providers Forum

NATIONAL AERONAUTICS AND SPACE ADMINISTRATION

REMOTE OPERATION WITH SUPERVISED AUTONOMY (ROSA)

Co-location on Ground and in Space; GGOS Core Site

Volume 2 - Telesat's Solution Ka-band Application APPENDIX 4. Corporate Profiles of COM DEV and EMS Technologies

STEM Teacher Roundtable Aerospace Engineering Sean Tully CRS/Cygnus Systems Engineering Manager

Starshade Technology Development Status

NASA MOBLAS 4. Goddard Space Flight Center Greenbelt, MD

Design of a Remote-Cockpit for small Aerospace Vehicles

UNCLASSIFIED R-1 ITEM NOMENCLATURE. FY 2014 FY 2014 OCO ## Total FY 2015 FY 2016 FY 2017 FY 2018

ROBOTIC AUGMENTATION OF EVA FOR HUBBLE SPACE TELESCOPE SERVICING

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

Design and Operation of Micro-Gravity Dynamics and Controls Laboratories

Human Exploration Systems and Mobility Capability Roadmap. Chris Culbert, NASA Chair Jeff Taylor, External Chair

Exploration Partnership Strategy. Marguerite Broadwell Exploration Systems Mission Directorate

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

Stakeholder Expectations Definition Process

Robot: Robonaut 2 The first humanoid robot to go to outer space

Relative Cost and Performance Comparison of GEO Space Situational Awareness Architectures

Rationale for Need of In-Orbit Servicing Capabilities for GEO Spacecraft. Nomenclature

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

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

Robotic Capture and De-Orbit of a Tumbling and Heavy Target from Low Earth Orbit

Dan Dvorak and Lorraine Fesq Jet Propulsion Laboratory, California Institute of Technology. Jonathan Wilmot NASA Goddard Space Flight Center

Sponsored Educational Materials Grades 6 8 TALENT FOR TOMORROW

Cornwall and Virgin Orbit are launching the UK back into Space. Spaceport Cornwall Announcement Q&A

The NASA-ESA. Comparative Architecture Assessment

Human Spaceflight: The Ultimate Team Activity

Focus Session on Commercial Crew

National Aeronautics and Space Administration

The Future of Space Exploration in the USA. Jakob Silberberg

ESA Strategic Framework for Human Exploration

Autonomous and Autonomic Systems: With Applications to NASA Intelligent Spacecraft Operations and Exploration Systems

10/29/2018. Apollo Management Lessons for Moon-Mars Initiative. I Have Learned To Use The Word Impossible With The Greatest Caution.

Presentation to the UN COPUOS STSC LTSSA Workshop. ISO Space Standards. 14 February 2013

Autonomous Satellite Servicing Using the Orbital Express Demonstration Manipulator System

Space Robotic Capabilities David Kortenkamp (NASA Johnson Space Center)

Space Challenges Preparing the next generation of explorers. The Program

Transcription:

Satellite Servicing and The Spirit of Innovation Presented to Goddard Contractors Association June 29, 2012 Frank Cepollina, Associate Director Satellite Servicing Capabilities Office Frank.J.Cepollina@nasa.gov 301.286.1266 NASA s Goddard Space Flight Center http://ssco.gsfc.nasa.gov

The Satellite Servicing Capabilities Office These are your people. Proud to be part of America s servicing tradition from Solar Max, to Hubble, to the new robotic servicing frontier. 2

The Spirit of Innovation at GSFC 1971: Concept of Satellite Servicing Modular Construction 3

The Spirit of Innovation at GSFC 1971: Concept of Satellite Servicing Who we are now and what we will be tomorrow is a direct reflection of who we were then. 4

Solar Max 1984 Westar VI 1984 The history of satellite servicing missions stretches from 1984 to the current day. RRM 2012 Syncom IV 1985 SM4 2009 GRO 1991 HRSDM 2004 Intelsat 1992 SM1 1993 SM2 1997 SM3A 1999 SM3B 2002

What is our mission? The Satellite Servicing Capabilities Office (SSCO) at NASA s Goddard Space Flight Center exists to: Advance the state of robotic servicing technology to enable the routine servicing of satellites that were not designed with servicing in mind. Position the U.S. to be the global leader in in-space repair, maintenance, and satellite disposal. Help to enable a future U.S. industry for the servicing of satellites. The United States is committed to encouraging and facilitating the growth of a U.S. commercial space sector that supports U.S. needs, is globally competitive, and advances U.S. leadership in the generation of new markets and innovation-driven entrepreneurship. U.S. Space Policy, June 28, 2010 6

Positioning the U.S. as Global Leader in Servicing The past Servicing capabilities can help enable architectures for industry, science, and exploration. builds the foundation for the Future. 7

What s Ahead for Our Great Team Satellite Servicing Capabilities Office RRM: Phase I, II, and III On-orbit robotic demonstration of satellite servicing Restore (notional) Free-flying satellite-servicing spacecraft OpTIIX Robotic assembly of large observatories in space 8

Satellite Servicing Robotic Development: Our Present Objectives RRM: Phase I, II, & III ISS & Ground Testbeds Refueling & Repair/Replacement Technology OpTIIX Modular Instrument & Spacecraft Design Servicing of systems designs Restore (notional) Support to future systems designs like a repurposed NWT 9

The Road to Technical Success in Satellite Servicing is Through ISS We are utilizing the International Space Station as a low-cost test bed for experiments. Launch Power Robotics 10

RRM: Robotic Refueling Mission RRM is an International Space Station experiment that demonstrates satellite-servicing tools, technologies and techniques for legacy spacecraft. 11

RRM On-Orbit Demonstrations RRM is a joint effort between NASA and the Canadian Space Agency (CSA), utilizing: Space Station Remote Manipulator System (SSRMS) or Canadarm2 Special Purpose Dexterous Manipulator (SPDM) or Dextre

Ground Technology Demonstrations Argon module Representative satellite mock-up Argon, the ground-based autonomous rendezvous and docking test, advances the technologies a servicer would need to autonomously rendezvous and dock with an uncooperative spacecraft. 13

Ground Technology Demonstrations 14

RRM: Phase 2 Remove Replace With - Task Board 3 (TB3) 1 Task Board 2 (TB2) 2 Task Board 4 (TB4) 1 Safety Cap Tool (SCT) 3 (VIPIR) 3 2 SCT VIPIR RRM Top Panel RRM Outboard Panel RRM Front Panel 1 2 3

RRM Configuration: Phase 2 Phase 2 will reconfigure the RRM module with two new task boards and one new tool. RRM Phase 2 Task Board 3 (TB3) RRM Phase 1 Task Board 4 (TB4) Task Board 2 (TB2) VIPIR SCT

RRM Featured Tools Multi-Function Tool (MFT) Visual Inspection Poseable Invertebrate Robot (VIPIR) Tool Coming soon with Phase 2

MFT Phase 2 Adapters Coolant Line Adapter (CLA) Vent Plug Adapter (VPA) Electrical Plug Adapter (EPA) Wire Harness Adapter (WHA) SMA Blindmate Connector Adapter (BCA)

CORD (RRM Phase 3): Cryogenic On-Orbit Refilling Demonstration An additional module delivered to ISS to demonstrate cryogenic onorbit refilling by contributing: fluid storage tanks a refrigeration system refined modular robotic tools with satellite components Top View By the completion of these demonstrations, the mission will have laid a strong foundation for robotic satellite servicing, including the transfer of gaseous fluids in orbit. Side View CORD component layout 19

RESTORE: Notional Mission To meet these national needs and objectives, SSCO has designed the Restore mission: a free-flying mission conducted with a U.S. industry partner to initiate on-orbit satellite-servicing capabilities to legacy Government and commercial GEO satellites. 20

Why service satellites at GEO? With the growing demand for satellites, on-orbit robotic servicing can save time, money, and resources. The Satellite Servicing Capabilities Office (SSCO) at NASA s Goddard Space Flight Center works to advance the state of robotic servicing technology to enable the routine servicing of satellites that were not designed to be serviced. Commercial communication satellites in geosynchronous orbit. Adapted from Boeing 21

Why service satellites at GEO? Global Consumer Internet Traffic 22

Restore Mission Description (notional) Restore mission objectives are to provide life-extension services to a range of candidate client satellites. Specific on-orbit servicing capabilities include: Remote Survey: visually inspect, record, and evaluate client satellite external conditions Refuel: transfer propellant to/from client satellite Relocate: reposition client satellite to another orbital location Repair: fix degraded, malfunctioning, or inoperative satellite components Replace: replace degraded, malfunctioning, or inoperative satellite components Restore will allow for a future orbiting resupply via hosted payloads and/or depot/tanker Baseline Requirements: The Restore Vehicle shall launch no later than calendar year 2016 The Restore Vehicle shall service GOES-12 or TDRS-9 Make the Restore spacecraft available to Commercial Partner for rent for commercial use The Restore Vehicle shall service a TBD second government client spacecraft following the completion of the commercial campaign The Restore Vehicle shall be capable of servicing both classified and unclassified clients 23

Mission Profile (notional) Commercial Partner Takes Over 5 6 8 2 GEO 3 4 U.S. Gov Satellite Refueling Servicer provides: Remote Survey Relocation Refuel Repair Replacement (ORU) 7 Resupply Vehicle Operations 1 Multi-sortie mission scenario 1. ELV launches servicer into GEO 2. Servicer check-out 3. Orbit transfer to and AR&D with US Gov Satellite 4. Refuel first customer then release 5. Perform servicing tasks on subsequent customers 6. Repeat services until propellant nearly depleted 1. Resupply vehicle operations 2. Repeat 24

OpTIIX: Optical Testbed and Integration on ISS experiment The development of cost effective techniques on ISS to accomplish the robotic assembly and alignment of very large observatories in space to make the next scientific breakthroughs possible Will include: the components of a large space telescope six mirror segments a wavefront sensing alignment system a small imaging camera Proof of concept for a number of technologies including: Robotic assembly of a scalable optical telescope from modular components Advanced wavefront sensing and control for alignment and shaping of the mirror segments Advanced in-flight laser metrology for telescope alignment Robotically installable and replaceable instruments 25

Satellite Servicing Robotic Development The Future RRM: Phase I, II, & III OpTIIX SATELLITE SERVICING ROBOTIC DEVELOPMENT Restore (notional) Support to future systems designs like a repurposed NWT 26

Our Charter We are about the people of this planet and the use of our space tools to improve their lives.

Satellite Servicing Capabilities Office NASA s Goddard Space Flight Center Greenbelt, Md. Online http://ssco.gsfc.nasa.gov Twitter www.twitter.com/nasa_satserv Facebook www.facebook.com/nasa.satellite.servicing 28