Project Icarus: Nuclear Fusion Space Propulsion

Similar documents
Inertial Confinement Fusion & Antimatter Catalyzed Fusion for Space Propulsion

5.3 The Physics of Rocket Propulsion Rockets for Space Practice Exercises References Exploring the Solar System and

Fast Rides. Uses of Fusion for Space Propulsion Systems

Lecture 41: Interstellar Travel and Colonization

Recall Argument Against Travel!

Breakthrough Propulsion Physics - The Quest for Faster Than Light (FTL) Travel

Astronomy 230 Section 1 MWF B6 Eng Hall. Outline. E=mc 2. Fuel Efficiency. Alternative fuels for space travel. Warp Drives?

Recall Argument Against Travel!

PROJECT ICARUS: SON OF DAEDALUS FLYING CLOSER TO ANOTHER STAR

Astronomy 230 Section 1 MWF B1 Eng Hall. Outline. Fuel Efficiency

Roadmap to Interstellar Flight

Astronomy 330. Final Papers. Presentation. Final

Recall Argument Against Travel!

Recall Argument Against Travel

Outline of lecture notes (Handed out Tuesday Dec.2) Star Travel + The Fermi Paradox

In Space Propulsion Overview January Outline. Les Johnson Manager, In Space Propulsion Technology Projects Office

Interstellar probes: are they feasible with present technology? Giancarlo Genta

along either, tidal forces and geothermal energy don t contribute. Perhaps a crew could tap into whatever energy source was propelling the ship.

Direct Exoplanet Investigation using Interstellar Space Probes 1

Deep Space Propulsion

Astronomy 330. Classes. Final Papers. Final

planets along the way, tidal forces and geothermal energy won t contribute. Perhaps a crew could tap into whatever energy source was propelling the

Your final semester project papers are due in ONE WEEK, Thu April 28th (last day of class). Please return your marked-up First draft.

A Program for Interstellar Exploration

Background for Lesson Discussion, page 122 Assembling a spacecraft model. Questions, page 127 Some familiarity with the Saturn

PERSPECTIVES ON PROPULSION FOR FUTURE SPACE MISSIONS

Abstract- Light Kite. things, finding resources and using them for our own use.

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

Uranus Exploration Challenges

Terraforming Mars: By Aliens? Astronomy 330

Status and Outlook for the European Exploration Envelope Programme

Near Earth Asteroid (NEA) Scout CubeSat Mission

ANTIMATTER PROPULSION

Red Dragon. Feasibility of a Dragon-derived Mars lander for scientific and human-precursor missions. May 7, 2013

Four Aerospace Issues Addressed by the Kennedy Space Center Applied Physics Lab

Epilogue. A Personal View for the Future

Astronomy 330. Final Papers. Final. Final

Tom Ligon, Member SFWA SIGMAForum.org Unofficial cheerleader for EMC2Fusion.org

Ocean Worlds Robert D. Braun

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

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

OPAG Responses to AO RFI RPS-Related Submissions

Exploration Systems Research & Technology

Once Explorers, Always Explorers Europe s Space Exploration Vision

The JPL A-Team and Mission Formulation Process

EMC2 Fusion Development Corporation. Emc2fusion.orgorg

Solar Observing Low-frequency Array for Radio Astronomy (SOLARA)

MAVEN continues Mars exploration begun 50 years ago by Mariner 4 5 November 2014, by Bob Granath

THE STATUS OF THE WARP DRIVE

European Manned Space Projects and related Technology Development. Dipl.Ing. Jürgen Herholz Mars Society Deutschland Board Member marssociety.

Introduction to MATE-CON. Presented By Hugh McManus Metis Design 3/27/03

Lecture 40: Science Fact or Science Fiction? Time Travel

Foundations for Knowledge Management Practices for the Nuclear Fusion Sector

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

SNIPE mission for Space Weather Research. CubeSat Developers Workshop 2017 Jaejin Lee (KASI)

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

1.1 The Purpose of the Book The Assumptions I Make Organization The Mathematics and Physics You Need Energy and Power 6

Feasibility Analysis for a Manned Mars Free-Return Mission in 2018

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

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

ASTRA ERA and Future Robotics (for Exploration)

Technologies for Outer Solar System Exploration

The SunCube FemtoSat Platform: A Pathway to Low-Cost Interplanetary Exploration

HYDROS Development of a CubeSat Water Electrolysis Propulsion System

Lens & Mirror Making Best lenses and mirrors are both made by grinding the surface Start with a mirror or lens blank For mirrors only surface needs

A Critical Review on the Assumptions of SETI. K. F. Long a *

NASA Mars Exploration Program Update to the Planetary Science Subcommittee

High Energy Density Physics in the NNSA

launch probability of success

A new approach to funding, accelerating, and commercializing fusion. R. Mumgaard CEO --Commonwealth Fusion Systems NAS comments, PPPL, April 12, 2018

Positron Induced Fusion Pulsed Space Propulsion through an Ultra-Intense Laser

Technology Capabilities and Gaps Roadmap

An Explore Mars BE BOLD technical project. Sanford Morton Emily Briere Cassidy Chan

Concerns. Bill Joy, Why the Future Doesn t Need Us. ( wired/archive/8.04/joy.html)

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

InnoSat and MATS An Ingenious Spacecraft Platform applied to Mesospheric Tomography and Spectroscopy

A RENEWED SPIRIT OF DISCOVERY

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

Schedule for 2nd Tennessee Valley Interstellar Workshop - "Let's Get Started!"

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

ASSEMBLY AND SERVICING OF SPACE TELESCOPES

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

AstroBus S, the high performance and competitive Small Satellites platform for Earth Observation

Airbus DS ESA Phase-0 L5 Spacecraft/Orbital Concept Overview. Emanuele Monchieri 6 th March 2017

Alabama College and Career Readiness Standards (Science 2015)

RAX: The Radio Aurora explorer

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

Chapter 2 Planning Space Campaigns and Missions

Panel Session IV - Future Space Exploration

JHU/APL CubeSat Summary. Andy Lewin 11 August 2007

Enabling Technologies for robotic and human Exploration

Earth Threatening Asteroids: Issues and Future Actions

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

Eternity in six hours: intergalactic spreading of intelligent life and sharpening the Fermi paradox

NSCI 314 LIFE IN THE COSMOS. 18 INTERSTELLAR SPACE TRAVEL (CONTINUED), UNIDENTIFIED FLYING OBJECTS (UFOs), AND THE FERMI PARADOX

A Call for Boldness. President Kennedy September 1962

Astronomy 330. Classes. Final Papers. Final

Status and Outlook for European Exploration Envelope Programme

1. 8. MIT, UCLA, and UCSD. Climbing the Rocks of Southern California with Keith Brueckner

Transcription:

Project Icarus: Nuclear Fusion Space Propulsion Kelvin F.Long Vice President (Europe) Icarus Interstellar kflong@icarusinterstellar.org www.icarusinterstellar.org

Contents Interstellar precursor missions Project Orion Propulsion Landscape Fusion Physics Fusion Propulsion for Interstellar Spacecraft Design Concepts Project Daedalus Project Icarus Concept Development Icarus Leviathan Icarus Roadmap Conclusions Acknowledgements: Project Icarus team

Deep Space Precursor Missions

Project Orion, 1950s-1960s

Propulsion Landscape

Inertial Confinement Fusion (ICF) D + T He 4 (3.52MeV) + n(14.06mev) D + D T(1.01MeV) + p(3.03mev) D + D He 3 (0.82MeV) +n(2.45mev) D + He 3 He 4 (3.67MeV) + p(14.67mev) Li 6 + n T + He 4 + 4.8MeV Li 7 + n T + He 4 + n - 2.5MeV

Fusion Reactions

Fusion Triple Product Lawson, (Proc.Phys.Soc, 1957) n T 21 10 m 3 skev For ~10keV plasma n 20 10 m 3 Confinement n Inertial ~10 23 cm -3 <1ns Magnetic 10-6 cm -3 ~few sec s

Flyby Mission: 1-4 Stage Fusion Energy for Space Missions in the 21st Century, NASA TM4298, Normal R.Schulze, August 1991.

Enzmann (Slow Boat) Colony Starship, 1960s

Bussard Interstellar Ramjet, 1960

Project Vista, 1987-2000

Project Longshot, 1988

Project Daedalus, 1973-1978

Galactic War, Andrew Reid

Andrew Farmer

Shigemi Numazawa

Adrian Mann Adrian Mann

Don Don Davis Dixon

David A Hardy/astroart

Rick Sternbach

Adrian Mann

Project Daedalus

Project Daedalus

Project Daedalus

Project Daedalus

Project Daedalus

Project Icarus, 2009 - The purpose of Project Icarus has been defined as follows: To design a credible interstellar probe that is a concept design for a potential mission in the coming centuries. To allow a direct technology comparison with Daedalus and provide an assessment of the maturity of fusion based space propulsion for future precursor missions. To generate greater interest in the real term prospects for interstellar precursor missions that are based on credible science. To motivate a new generation of scientists to be interested in designing space missions that go beyond our solar system. http://icarusinterstellar.org/

Project Icarus: Requirements To design an unmanned probe that is capable of delivering useful scientific data about the target star, associated planetary bodies, solar environment and the interstellar medium. The spacecraft must use current or near future technology and be designed to be launched as soon as is credibly determined. The spacecraft must reach its stellar destination within as fast a time as possible, not exceeding a century and ideally much sooner. The spacecraft must be designed to allow for a variety of target stars. The spacecraft propulsion must be mainly fusion based (i.e. Daedalus). The spacecraft mission must be designed so as to allow some deceleration for increased encounter time at the destination.

Project Icarus: Programme Management

Project Vicarus: Computational (online) Launch

Project Icarus: Concept Development

Staging Daedalus

Project Icarus: Concept Development

Project Icarus: Concept Development

Caveat: Personal Speculation. The following is just the opinion of one designer as one possible option for where Icarus may go. It does not represent the official view of Project Icarus and it is predown select thinking, although some ideas from the team have been incorporated.

Project Icarus: Leviathan Concept [1] 1 st STAGE BOOST ENGINE [2] 2 nd STAGE BOOST ENGINE SCIENCE PAYLOAD EXOSOLAR HIGH GAIN ANTENNA [4] 3 rd STAGE DECELERATION ENGINE [3] = CRUISE Concept Daedalus Leviathan Total Dry S/c Mass (tons) 2,670 3,000 Total Propellant Mass (tons) 50,000 20,000 Propellant D/He3 D/T,D/D,p/B,p-,D/He3 Acceleration Time (Years) 3.8 3 Cruise Time (Years) 46 74 Deceleration Time (Years) 0 23 Total Trip Time (Years) 49 100 Cruise Speed (km/s) 36,600 (12%c) 24,000 (8%c) Pulse Frequency (Hz) 250 50 Pellet Gain 30-60 200-1500 Target Encounter Time ~4 days ~1 month [6] MAGSAIL & MECHANISMS [7] = MISSION ARRIVAL INTERSTELLAR ULTRA HIGH GAIN ANTENNA [5] MEDUSA SAIL, MECHAISMS & FUEL Fast ignition, shock ignition, Antimatter Catalyzed.

STARSHIP ASSEMBLED, TUGGED TO LAUCH SITE BY NTR/ION/PLASMA DRDIVE

Project Icarus: Pathfinder & Starfinder Probe

Project Icarus: The Interstellar Roadmap

Project Icarus: The Interstellar Roadmap

The technical challenges to achieving interstellar flight are vast; power, energy, distance, speeds, assembly, fuel, cost,.. However, interstellar travel does appear to be feasible in principle, so in the future it should become reality. Fusion propulsion is one candidate (there are others). What may make us launch earlier is a compelling reason to go; habitable exoplanet, life, imminent threat. Meanwhile, the dreamers play with their calculators and prepare for that day. Creating a self-fulfilling Prophesy in space

www.icarusinterstellar.org