The Next 50 Years: Space Activities Opportunities and Challenges Ray A. Williamson Executive Director Secure World Foundation Presentation to the World.

Slides:



Advertisements
Similar presentations
Promoting Cooperative Solutions for Space Security 1 Current Space Security Initiatives and Activities Ben Baseley-Walker,
Advertisements

Promoting Cooperative Solutions for Space Sustainability swfound.org ©2011 Secure World Foundation. Used with Permission APPRAISING THE EFFECTIVENESS OF.
Overview An emerging challenge A belated response Debating the alternatives – Air-Sea Battle – A distant blockade – Maritime denial Conclusions.
Space Flight Rules Rules of the Air for an Unlimited Sky
Space Law Presentation
© The Aerospace Corporation 2011 Space Debris & Debris Mitigation Marlon Sorge The Aerospace Corporation AIAA Improving Space Operations Workshop 5 April.
Space Security  Ways forward  SETI Institute, CA, USA Will Marshall.
International Initiatives to Preserve the Outer Space Environment (Update) Amber Charlesworth Office of Space & Advanced Technology United States Department.
President Eisenhower And the Antarctic Treaty Paul Arthur Berkman Head, Arctic Ocean Geopolitics Programme Scott Polar Research Institute University of.
Promoting Cooperative Solutions for Space Sustainability Analyzing International Reactions to Soft Law Initiatives on Space Security Ben Baseley-Walker.
The impact of long-term trends on the space debris population Dr Hugh Lewis Astronautics Research Group, Faculty of Engineering & the Environment.
Aerospace Engineering By Patrick Ferrell. Aerospace Engineering is the main branch of engineering concerned with the research, design, development, construction,
Chapter 23 Space Transportation Systems. Objectives After reading the chapter and reviewing the materials presented the students will be able to: Understand.
Promoting Cooperative Solutions for Space Security 1 UNIDIR Space Security Conference, March 2010 Space Weapons from.
Historical Growth of Space Debris Global Security Program Union of Concerned Scientists.
Long-term evolution of the space debris population Dr Hugh Lewis Astronautics Research Group, Faculty of Engineering & the Environment.
REMAT Session 6 Emerging Modes of Aerospace Transportation and the Delimitation between Airspace and Outer Space: A Chinese Perspective Dr. Jinyuan.
National Council for Research and Development Ministry of Science, Technology and Space Yuval Ne’eman Workshop for Science, Technology and Security, Tel.
An Assessment of CubeSat Collision Risk H.G. Lewis 1, B.S. Schwarz 1, S.G. George 1 and H. Stokes 2 1 Astronautics Research Group, Faculty of Engineering.
Presented to: By: Date: Federal Aviation Administration Office of Commercial Space Transportation Orbital Debris 10 June, 2015 Symposium for the Small.
→ SSA PP and the Protection of European Space Infrastructures EISC Workshop Cracow, 14 May 2012.
 The regulatory process governing Aerodromes and Air Navigation Services involve State responsibility/obligation.  Aerodromes.
Space Technology for Emergency Response and Risk Reduction European Conference - GEO Welcomes FP7 Constanta, Romania 15 September 2006 United Nations platform.
ACCORD Aim: Provide a mechanism for communicating the efficacy of current debris mitigation practices & identifying opportunities for strengthening European.
Jarrent Tayag Angeles University Foundation – Integrated School.
Space-Based Force Application: A Technical View Dr. Laura Grego Union of Concerned Scientists Outer Space & International Security: Options for the Future.
PORTFOLIO COMMITTEE ON TRADE AND INDUSTRY Briefing by SunSpace Bart Cilliers & Ron Olivier 1 September
Promoting Cooperative Solutions for Space Security 1 Space Weather & International Civil Space Situational Awareness Brian.
The Effectiveness of Space Debris Mitigation Measures ISU’s 16 th Annual International Symposium 21 st February 2012 Adam E. White, Hugh G. Lewis, Hedley.
1 European Space Activities under the Research Framework Programme AMFIC Final Meeting Beijing, 23 October 2009 Hartwig Bischoff Space Research and Development.
2014 Key Issues Review: Ensuring a Robust U.S. Human Spaceflight Program Congressional Visits Day Preparatory Briefing Teleconferences February 12, 19,
1 STSC/IAEA Safety Framework for Space NPS Applications, Vienna, 2 April 2011 ESA UNCLASSIFIED – For Official Use L. Summerer / U. Bohlmann The STSC/IAEA.
RRF Spectrum, The Global Commons & Planetary Defense McGill University-World Economic Forum Session on the Economic Benefits of Space Joseph N. Pelton.
1 European Space Activities under the EU Research Programme 7th European Space Weather Week Brugge, 15 November 2010 Mats Ljungqvist Space Research and.
Collective Security in Space: Asian Perspective Chinese Society of Astronautics To Develop Space Peacefully for Benefits of Human beings Yang Junhua Vice.
Lecture 11 : Space Exploration
1. 2 SSI Introduction Purpose of the SSI Working definition of space security “The secure and sustainable access to and use of space, and freedom from.
COMSTAC Risk Management Working Group October 28, 2009 Chris Kunstadter XL Insurance
Satellites enabling the Global Earth Observation System of Systems (GEOSS) Michael Inggs, Department of Electrical Engineering, University of Cape Town,
The international community’s response to climate change Halldor Thorgeirsson Deputy Executive Secretary UNFCCC.
National Aeronautics and Space Administration Space Debris Assessment for USA-193 Presentation to the 45 th Session of the Scientific and Technical Subcommittee.
Workshop Collective Security in Space-Paris May 2006 Collective Security in Space, a key factor for a sustainable long term use of Space Gérard Brachet.
Centre for Planetary Science and Exploration Getting to Space: How hard is it really? Prepared by: Heather Henry & Tyler August.
Federal Aviation Administration AST International Outreach Update and UN COPUOS Long Term Sustainability of Outer Space – Expert Group B (Debris) John.
By Presentation by Ajey Lele IDSA, New Delhi at IIC on March 02, 2016 idsa.
Rockets and Space Exploration. Traveling into Space Rocket – a device that expels gas in one direction to move in the opposite direction. – The first.
History of Rocketry 1. The first rockets were invented by the Chinese when they invented gunpowder in 1200 A.D. to propel rockets. 2. Sir Isaac Newton.
Urgent Security Concerns in the “Proto-zone” Joseph N. Pelton, Executive Board, International Association for the Advancement of Space Safety.
Space Race.
National Incentives for International Governance of Space Applications
Global Governance of Space Security: Challenges and Prospects
Current and Future Anti-satellite Technologies
PRESENTATION ON AN ENVIRONMENTAL PROBLEM
European Space Activities under the EU Research Programme
Toward the International Regime for Space Traffic Management
Space Security: The role of law
Chinese perspectives on space sustainable development goals
Space Traffic Management
Ward Munters, doctoral researcher Prof. Dr. Jan Wouters, Director
(Theme: Pillar on Space Diplomacy) 2017 Manfred Lachs Conference
You Are Not Alone: The Problem of Safe Operations in LEO
SPACE TRAFFIC MANAGEMENT CONFERENCE Embry-Riddle Aeronautical University Space Situational Awareness and Space Traffic Management: Towards Their Comprehensive.
TCBMs in Space: A Role for Middle Powers
Space Debris Submitted to the Ilan Ramon Science Olympiad of the Weizmann Institute By the Ramaz Space Rams Ramaz Middle School New York, NY, USA Opening.
Institute of Air & Space Law, McGill University May 2016
John Caliri, Matthew Bologna, Chase Smith, and Michael Heem
Legal Issues Critical to SSA
New Entrants, Commercial Space and Changing Airspace Management
Space Weather in the UN COPUOS Context
Presentation transcript:

The Next 50 Years: Space Activities Opportunities and Challenges Ray A. Williamson Executive Director Secure World Foundation Presentation to the World Academy of Arts and Sciences 26 February 2008

Our Dependence on Space Applications Much of humanity now depends to some extent on space applications, e.g., – Operation of cell phones (precise timing) – Position, navigation (GPS) – Banking – Financial transactions – Credit card gasoline purchases – Natural resources management – Weather, climate predictions E.g., reduced costs for electricity generation – Disaster mitigation and response

The Space Activities Opportunity Private spaceflight and tourism are in development, e.g., Virgin Galactic, Bigelow Aerospace, EADS Astrium Science research and exploration from space – Advances in weather and climate prediction – Advances in space weather prediction (effects of the sun on technological systems) – Advances in knowledge of the universe

BUT…. Outer space is a harsh, unforgiving environment Objects in orbit tend to stay in orbit (Newton’s Laws) Orbital speeds are very high (~7 km/sec in low Earth orbit) Space weather (X-rays, high speed solar particles) can interrupt satellite operations

The Space Security Challenge Increasing crowding in some key orbits Increasing amounts of orbital debris Space weather effects Use of space weapons threaten space environment

Evolving orbital space activities are leading to crowding in some key orbits: – Polar orbits (Earth observation satellites) – Geosynchronous orbits (communications satellites) Orbital Crowding

Increasing amounts of debris in Earth orbit are becoming significant safety hazards to spacecraft −The Chinese Anti-satellite test in January 2007 added about 2500 pieces of “trackable debris” (>10 cm) – Today, some 18,000 objects > 10 cm orbit Earth (including operational satellites) – Even tiny pieces of debris can cause significant damage to a working spacecraft because impact velocities can exceed 10 km/sec. Orbital Debris

Debris Cloud Evolution Cloud of debris of size greater than 10 cm after 15 minutes Debris cloud after 10 days

Working Satellites (Green) and Chinese Asat debris cloud (red)

Limiting creation of new debris – UN Copuos resolution to limit debris adopted by General Assembly, October 2007 But voluntary only – Additional controls on creation of debris needed Mandatory within States? Research needed on methods to clean up existing debris The Way Forward

Develop an international cooperative approach to “Space Situational Awareness,” the ability to know where working spacecraft and major debris are at all times – Currently, only the United States has a well-developed SSA capability; many of those data are classified – Steps by Europe, Russia, and China to develop SSA systems may stimulate U.S. interest in a cooperative approach

The Way Forward Develop a Space Traffic Management (STM) system— to prevent satellite-satellite and satellite-debris collisions STM should be established and operated according to internationally-agreed upon policies, regulations, and rules – Could be a well-defined code of conduct – One possible model as a starting point is the International Civil Aviation Organization (ICAO)

TRAFFIC

Potential Policy Issues Legitimacy of STM organizational body to implement and enforce rules Limitations on freedom of action by all actors Reluctance to share data because of privacy and competitive concerns Arenas for arbitration and legal recourse

Space Weapons— the Ultimate Concern Development and use of space weapons, including anti-satellite devices, threaten current and future space activities

What is a space weapon? “A space weapon is an “object“ that is designed, tested or used to destroy or disrupt other objects in space or on Earth“

Potential Space Weapons Space-to-Space (S2S) Systems – Maneuvrable „Kill Vehicle“ – MicroSats and co-orbital ASATs – Laser and Microwaves Space-to-Earth (S2E) Systems – Metal Rods and Maneuvrable Reentry vehicles Earth-to-Space (E2S) Systems – BMD- Kill Vehicle and – HE-Laser – Nuclearexplosion at high altitude – Transatmospheric air/space planes

Old Space ‘Weapons‘ US and USSR USSR: Hunting Satellites (“Killer Sat.”– Istrebitelny Sputnik [IS] Target of IS (DS-P1-M, armoured) Early version of IS F-15-Asat‘ U.S.: Air Launched Miniature Vehicle (ALMV) Source: asat/almv.htm Source:

First stage trajectory Trajectory of the ASAT Interception G. Forden web.mit.edu/stgs

Chinese ASAT Test The Chinese FY-IC SAT (880kg) was hit by a kill vehicle at 856 km with v=7.42 km/s This was the first ASAT test in 20+ years The head on collision is comparable to the US MD Kill vehicle After 2 weeks the US SSN observed ~500 fragments >10 cm; So far ~2500 pieces have been tracked, but there are ~2000 larger pieces, which might stay several decades in space This is an increase of space debris in 850 km alt. of 28% The test has increased the chances of an equatorial SAT being hit by 50 % A “chain reaction “ at 900 km might be possible in the future

U.S. A-Sat Test National Reconnaissance Organization (NRO) satellite: USA-193 (NROL-21) – failed to reach its proper orbit and was falling out of orbit U.S. used modified Raytheon-built RIM-161 Standard Missile used for antiballistic missile tests to destroy it “President Bush ordered the action to prevent any possible contamination from the hazardous rocket fuel on board”, NYTimes, Feb 15, 2008

A-Sat Test—Debris Issues USA-193 strike took place Feb. 22 when satellite was about 210 km high; models estimate that: – 50% of debris washed out immediately (estimated) – 99% within 1 week Fits UN guidelines on space debris (Dec. 2007) Nevertheless, the test provided considerable technical information that will be of enormous interest to the U.S. ballistic missile engineers Negative reaction from many U.S. analysts and some countries – Concern that this is a covert A-Sat test – Upset space stability and the long term space sustainability

U.S. Asat Simulation

What might be done? Military Solutions: – Passive defense: hardening, maneuvring – Active defense: Defensive SATS, deny access to space Diplomatic solutions: – Strengthening existing treaties (OST) Additional protocol OST Review Conference – “Codes of conduct”/ Confidence Building Measures – Comprehensive ban on ASAT or SWs

Thanks