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A US Strategy for Sustainable Energy Security
A US Strategy for Sustainable Energy Security David Koranyi Foreword by Chuck Hagel A US Strategy for Sustainable Energy Security Atlantic Council Strategy Paper No. 2 © 2016 The Atlantic Council of the United States. All rights reserved. No part of this publication may be reproduced or transmitted in any form or by any means without permission in writing from the Atlantic Council, except in the case of brief quotations in news articles, critical articles, or reviews. Please direct inquiries to: Atlantic Council 1030 15th Street, NW, 12th Floor Washington, DC 20005 ISBN: 978-1-61977-953-2 Cover art credit: The Metropolitan Museum of Art. The Mill of Montmartre by Georges Michel, ca. 1820. This report is written and published in accordance with the Atlantic Council Policy on Intellectual Independence. The authors are solely responsible for its analysis and recommendations. The Atlantic Council, its partners, and funders do not determine, nor do they necessarily endorse or advocate for, any of this report’s particular conclusions. March 2016 Atlantic Council Strategy Papers Editorial Board Executive Editors Mr. Frederick Kempe Dr. Alexander V. Mirtchev Editor-in-Chief Mr. Barry Pavel Managing Editor Dr. Daniel Chiu Table of Contents Foreword ......................................................................i Executive Summary ...................................................iii Introduction .................................................................1 The Need for a US Sustainable Energy Strategy .................. 2 Ten Key Trends Affecting US Energy Security ...................... 3 A US Strategy for Sustainable Energy Security........ 17 Pillar 1. Accelerate the Energy Sector Transition and Solidify the American Innovative Advantage ..................... 22 Pillar 2. Lead on Global Climate Action and Sustain Robust Energy Diplomacy Capabilities ................. 26 Pillar 3. Promote a Liberalized and Rules-based Global Energy Trade System and Build a Functioning Global Energy and Climate Governance Network ............. -
Russia's Posture in Space
Russia’s Posture in Space: Prospects for Europe Executive Summary Prepared by the European Space Policy Institute Marco ALIBERTI Ksenia LISITSYNA May 2018 Table of Contents Background and Research Objectives ........................................................................................ 1 Domestic Developments in Russia’s Space Programme ............................................................ 2 Russia’s International Space Posture ......................................................................................... 4 Prospects for Europe .................................................................................................................. 5 Background and Research Objectives For the 50th anniversary of the launch of Sputnik-1, in 2007, the rebirth of Russian space activities appeared well on its way. After the decade-long crisis of the 1990s, the country’s political leadership guided by President Putin gave new impetus to the development of national space activities and put the sector back among the top priorities of Moscow’s domestic and foreign policy agenda. Supported by the progressive recovery of Russia’s economy, renewed political stability, and an improving external environment, Russia re-asserted strong ambitions and the resolve to regain its original position on the international scene. Towards this, several major space programmes were adopted, including the Federal Space Programme 2006-2015, the Federal Target Programme on the development of Russian cosmodromes, and the Federal Target Programme on the redeployment of GLONASS. This renewed commitment to the development of space activities was duly reflected in a sharp increase in the country’s launch rate and space budget throughout the decade. Thanks to the funds made available by flourishing energy exports, Russia’s space expenditure continued to grow even in the midst of the global financial crisis. Besides new programmes and increased funding, the spectrum of activities was also widened to encompass a new focus on space applications and commercial products. -
The Commercial Space Launch Amendments Act of 2004, H.R
Harvard Journal of Law & Technology Volume 17, Number 2 Spring 2004 Commercialization of Space Commercial Space Launch Amendments Act of 2004 On March 4, 2004, the Commercial Space Launch Amendments Act of 20041 (“CSLAA”) was passed by the House of Representatives by a vote of 402 to one.2 The bill is “designed to promote the devel- opment of the emerging commercial human space flight industry,” and is sponsored by Space and Aeronautics Subcommittee Chairman Representative Dana Rohrabacher (R-CA).3 If enacted, the CSLAA will establish a regulatory regime tailored to the needs and dangers of the commercial space launch business, thereby freeing the industry from the tangle of ill-suited regulations with which it has been forced to contend, and consequently allowing the private sector to challenge the hegemony of the National Aeronautics and Space Administration (“NASA”) in space.4 This Note will begin by briefly discussing the potential for valuable commercial development in space. Next, it will explore the key reasons why NASA has failed to tap this potential and why existing regulatory frameworks have prevented private enterprise from doing so. It will then describe how the CSLAA would advance the emerging suborbital human space flight industry by explicitly de- fining the industry to be regulated, by vesting control in a single regu- lator, and by limiting the regulatory obstacles standing in the way of commercial development. Finally, the Note will frame the CSLAA as one piece of a potentially much broader trend in the promotion of pri- vate space entrepreneurship by gover nment. Though its future prospects are far from certain,5 commercial human space flight is one of a number of industries whose activities in space could create substantial value on Earth.6 Proposed business 1. -
REASONS to MIND ASTEROIDS with the Rapid Progress Made In
ASTEROID MINING & ITS LEGAL IMPLICATIONS Neil Modi & Devanshu Ganatra Presentation ID- IAC- 16.E7.IP.23.x32357 REASONS TO MINE ASTEROIDS With the rapid progress made in technology, humans are taking huge steps in space today. There is huge potential in space, and particularly in asteroid mining. ENERGY CRISIS RARE EARTH METALS • Non-renewable fossil fuels like coal, oil currently account for 81% of • Many of the metals widely used in almost all industrial products the world’s primary energy. were always limited and are now in SHORT SUPPLY leading to skyrocketing manufacturing costs. • EARLIER, renewable energy could not compete with non-renewable sources because it relied on metals in short supply. Resources found • These include Platinum Group Metals (PMGS) and others like on asteroids would solve this problem completely. gold, cobalt, iron, molybdenum etc. Image Credit-The U.S. Energy Image Credit- FuelSpace.org- ‘How Asteroids Can Information Administration Save Mankind’ PROJECTED SCARCITY OF RESOURCES ON EARTH Image Credit-Shackleton Energy Company Image Credit- Chris Clugston’s ‘An Oil Drum- An Analysis’ (2010) THE NEED FOR WATER 1. SUPPORT SYSTEM FOR ASTRONAUTS- Since the main constituents of water HYDRATION AND OXYGEN are hydrogen and oxygen, it is a source of oxygen for life support. TO ASTRONAUTS 2. PROTECTION FROM RADIATION- Water absorbs and blocks infrared radiation, which means that by storing heat it helps to maintain temperature. 3. ROCKET FUEL- Rocket propellant is hydrogen and oxygen based, with a large percentage of the weight of a spacecraft taken up by fuel. 4. SPACE EXPLORATION- A GAS STATION IN SPACE KEY TO SPACE BLOCKS EXPLORATION WATER RADIATION Today billions of dollars are spent in rocket fuel to sustain space explorations. -
Classical Mechanics
Classical Mechanics Hyoungsoon Choi Spring, 2014 Contents 1 Introduction4 1.1 Kinematics and Kinetics . .5 1.2 Kinematics: Watching Wallace and Gromit ............6 1.3 Inertia and Inertial Frame . .8 2 Newton's Laws of Motion 10 2.1 The First Law: The Law of Inertia . 10 2.2 The Second Law: The Equation of Motion . 11 2.3 The Third Law: The Law of Action and Reaction . 12 3 Laws of Conservation 14 3.1 Conservation of Momentum . 14 3.2 Conservation of Angular Momentum . 15 3.3 Conservation of Energy . 17 3.3.1 Kinetic energy . 17 3.3.2 Potential energy . 18 3.3.3 Mechanical energy conservation . 19 4 Solving Equation of Motions 20 4.1 Force-Free Motion . 21 4.2 Constant Force Motion . 22 4.2.1 Constant force motion in one dimension . 22 4.2.2 Constant force motion in two dimensions . 23 4.3 Varying Force Motion . 25 4.3.1 Drag force . 25 4.3.2 Harmonic oscillator . 29 5 Lagrangian Mechanics 30 5.1 Configuration Space . 30 5.2 Lagrangian Equations of Motion . 32 5.3 Generalized Coordinates . 34 5.4 Lagrangian Mechanics . 36 5.5 D'Alembert's Principle . 37 5.6 Conjugate Variables . 39 1 CONTENTS 2 6 Hamiltonian Mechanics 40 6.1 Legendre Transformation: From Lagrangian to Hamiltonian . 40 6.2 Hamilton's Equations . 41 6.3 Configuration Space and Phase Space . 43 6.4 Hamiltonian and Energy . 45 7 Central Force Motion 47 7.1 Conservation Laws in Central Force Field . 47 7.2 The Path Equation . -
Energy Technology Perspectives 2020
Energy Technology Perspectives 2020 A path for the decarbonisation of the buildings sector 14 December 2020 Page 1 Opening remarks Timur Gül Head, Energy Technology Policy Division, International Energy Agency (IEA) The IEA buildings technology work across four main deliverables Energy Technology Tracking clean energy Special Report on Clean Technology guide progress Perspectives Innovation Tracking Clean Energy Progress Assessing critical energy technologies for global clean energy transitions The IEA is unfolding a series of resources setting an ambitious pathway to reach the Paris Agreement and other Sustainable Development goals. Opening remarks Roland Hunziker Director, Sustainable Buildings and Cities, World Business Council for Sustainable Development (WBCSD) Energy Technology Perspectives 2020 presentation Thibaut ABERGEL Chiara DELMASTRO Co-leads, Buildings Energy Technology, Energy Technology Policy Division, International Energy Agency (IEA) Commitment to net-zero emissions is globalising Share of energy-related CO2 emissions covered by national and supra-national public net-zero emissions targets as of 01st SeptemberDecember 20202020 Carbon or climate 100% 10 neutrality target 80% 8 No target 2 60% 6 Under discussion GtCO 40% 4 In policy document 20% 2 Proposed legislation 0% 0 In law Total emissions (right axis) Countries responsible for around 60% of global energy-related CO2 emissions have formulated net-zero emissions ambitions in laws, legislation, policy documents or official discussions. Source: IEA (2020),| Credit Energyphoto -
Global Ionosphere-Thermosphere-Mesosphere (ITM) Mapping Across Temporal and Spatial Scales a White Paper for the NRC Decadal
Global Ionosphere-Thermosphere-Mesosphere (ITM) Mapping Across Temporal and Spatial Scales A White Paper for the NRC Decadal Survey of Solar and Space Physics Andrew Stephan, Scott Budzien, Ken Dymond, and Damien Chua NRL Space Science Division Overview In order to fulfill the pressing need for accurate near-Earth space weather forecasts, it is essential that future measurements include both temporal and spatial aspects of the evolution of the ionosphere and thermosphere. A combination of high altitude global images and low Earth orbit altitude profiles from simple, in-the-medium sensors is an optimal scenario for creating continuous, routine space weather maps for both scientific and operational interests. The method presented here adapts the vast knowledge gained using ultraviolet airglow into a suggestion for a next-generation, near-Earth space weather mapping network. Why the Ionosphere, Thermosphere, and Mesosphere? The ionosphere-thermosphere-mesosphere (ITM) region of the terrestrial atmosphere is a complex and dynamic environment influenced by solar radiation, energy transfer, winds, waves, tides, electric and magnetic fields, and plasma processes. Recent measurements showing how coupling to other regions also influences dynamics in the ITM [e.g. Immel et al., 2006; Luhr, et al, 2007; Hagan et al., 2007] has exposed the need for a full, three- dimensional characterization of this region. Yet the true level of complexity in the ITM system remains undiscovered primarily because the fundamental components of this region are undersampled on the temporal and spatial scales that are necessary to expose these details. The solar and space physics research community has been driven over the past decade toward answering scientific questions that have a high level of practical application and relevance. -
Fuel Cells and Environmental, Energy, and Other Clean Energy Technologies…
Energy Efficiency & Renewable Energy U.S. Department of Energy Fuel Cell Technologies Program Nancy L. Garland, Ph.D. Technology Development Manager Fuel Cell Technologies Program Energy Efficiency and Renewable Energy United States Department of Energy Washington, D.C. 18th WWorldo rld Hydrogen EnergyEnergy Conference 2010 Essen, Germany May 17, 2010 Advancing Presidential Priorities Energy efficiency and renewable energy research , development , and deployment activities help the U.S. meet its economic, energy security, and environmental challenges concurrently. Energy Security Economic • Deploy the cheapest, cleanest, • Create green jobs through fastest energy source – energy Recovery Act energy projects efficiency • Double renewable energy • One million plug-in hybrid cars generation by 2012 on the road by 2015 Presidential Priorities • Weatherize one million homes • Develop the next generation of annually sustainable biofuels and infrastructure • Increase fuel economy standards Environmental • Implement an economy-wide cap-and-trade program to reduce greenhouse gas emissions 80 percent by 2050 • Make the US a leader on climate change • Establish a national low carbon fuel standard U.S. DOE President’s National Objectives for DOE— Energy to Secure America’s Future • Quickly Implement the Economic Recovery Package: Create Millions of New Green Jobs and Lay the Foundation for the Future • Restore Science Leadership: Strengthen America ’s Role as the World Leader in Science and Technology • Reduce GHG Emissions: Drive emissions 20 Percent below 1990 levels by 2020 • Enhance Energy Security: Save More Oil than the U.S currently imports from the Middle East and Venezuela combined within 10 years • Enhance Nuclear Security: Strengthen non-proliferation activities, reduce global stockpiles of nuclear weapons, and maintain safety and reliability of the US stockpile First Principle: Pursue material and cost-effective measures with a sense of urgency From: Secretary Chu’s presentation on DOE Goal’s and Targets, 5/5/09 U.S. -
Contribution of Renewables to Energy Security
INTERNATIONAL ENERGY AGENCY AGENCE INTERNATIONALE DE L’ENERGIE CONTRIBUTION OF RENEWABLES TO ENERGY SECURITY IEA INFORMATION PAPER S AMANTHA ÖLZ, R ALPH SIMS AND N ICOLAI KIRCHNER I NTERNATIONAL E NERGY A GENCY © OECD/IEA, April 2007 Table of contents Acknowledgements............................................................................................................... 3 Foreword .............................................................................................................................. 5 Executive Summary.............................................................................................................. 7 1. Risks to energy security ............................................................................................... 13 1.1 Risks for developing countries............................................................................. 15 1.2 Policy responses to energy security risks ............................................................ 15 1.3 Energy security implications of renewable energy technologies........................... 16 2. Current energy use by market segment........................................................................ 19 2.1. Electricity production ........................................................................................... 19 2.2. Heat .................................................................................................................... 21 2.3. Transport............................................................................................................ -
Toward Designing Social Human-Robot Interactions for Deep Space Exploration
Toward Designing Social Human-Robot Interactions for Deep Space Exploration Huili Chen Cynthia Breazeal MIT Media Lab MIT Media Lab [email protected] [email protected] ABSTRACT sleep deprivation, decrease in group cohesion, and decrease in mo- In planning for future human space exploration, it is important to tivation [8]. On the team level, factors related to interpersonal consider how to design for uplifting interpersonal communications communications and group dynamics among astronauts also deci- and social dynamics among crew members. What if embodied social sively impact mission success. For example, astronauts will have to robots could help to improve the overall team interaction experi- live in an ICE condition for the entirety of the mission, necessitating ence in space? On Earth, social robots have been shown effective group living skills to combat potential interpersonal problems [11]. in providing companionship, relieving stress and anxiety, fostering Their diverse cultural backgrounds may additionally impact coping connection among people, enhancing team performance, and medi- in an ICE environment and interplanetary crew’s behavior [49]. ating conflicts in human groups. In this paper, we introduce asetof Unlike shorter-duration space missions, LDSE missions require as- novel research questions exploring social human-robot interactions tronauts to have an unprecedented level of autonomy, leading to in long-duration space exploration missions. greater importance of interpersonal communication among crew members for mission success. The real-time support and interven- KEYWORDS tions from human specialists on Earth (e.g., psychologist, doctor, conflict mediator) are reduced to minimal due to costly communi- Human-robot Interaction, Long-duration Human Space Mission, cation and natural delays in communication between space and Space Robot Companion, Social Connection Earth. -
The Militarisation of Space 14 June 2021
By, Claire Mills The militarisation of space 14 June 2021 Summary 1 Space as a new military frontier 2 Where are military assets in space? 3 What are counterspace capabilities? 4 The regulation of space 5 Who is leading the way on counterspace capabilities? 6 The UK’s focus on space commonslibrary.parliament.uk Number 9261 The militarisation of space Contributing Authors Patrick Butchard, International Law, International Affairs and Defence Section Image Credits Earth from Space / image cropped. Photo by ActionVance on Unsplash – no copyright required. Disclaimer The Commons Library does not intend the information in our research publications and briefings to address the specific circumstances of any particular individual. We have published it to support the work of MPs. You should not rely upon it as legal or professional advice, or as a substitute for it. We do not accept any liability whatsoever for any errors, omissions or misstatements contained herein. You should consult a suitably qualified professional if you require specific advice or information. Read our briefing ‘Legal help: where to go and how to pay’ for further information about sources of legal advice and help. This information is provided subject to the conditions of the Open Parliament Licence. Feedback Every effort is made to ensure that the information contained in these publicly available briefings is correct at the time of publication. Readers should be aware however that briefings are not necessarily updated to reflect subsequent changes. If you have any comments on our briefings please email [email protected]. Please note that authors are not always able to engage in discussions with members of the public who express opinions about the content of our research, although we will carefully consider and correct any factual errors. -
INTRODUCTION to U.S. Export Controls for the Commercial Space Industry
INTRODUCTION TO U.S. Export Controls for the Commercial Space Industry 2nd Edition – November 2017 Department of Federal Aviation Commerce Administration This publication was prepared by the U.S. Department of Commerce’s Office of Space Commerce and the Federal Aviation Administration’s Office of Commercial Space Transportation. For additional information, questions, or comments, please visit our websites: www.space.commerce.gov ast.faa.gov IMAGE CREDITS Cover: Spaceflight Industries, Inc. Page 2: Blue Origin Page 12: NASA/Orbital ATK Page 32: Mobilus In Mobili Page 50: Planet Page 58: SSL Page 62: Spire Table of Contents PURPOSE ......................................................................1 SECTION 1: BACKGROUND ...................................................2 1.1 Export Control 101 ........................................................4 1.1.1 Definitions: Exports, Deemed Exports, and Re-exports .................4 1.1.2 The Reasons for Controls ................................................4 1.1.3 Regulations and Responsible Departments .............................5 1.1.4 Multilateral Commitments ..............................................7 1.2 What’s Changed Under Export Control Reform .........................8 1.2.1 Satellite Export Control Reform .........................................8 1.2.2 Major Process Changes under Export Control Reform ..................9 SECTION 2: UNDERSTANDING THE CONTROL LISTS AND HOW THEY WORK ......................................................12 2.1 Overview .................................................................14