Human Spaceflight Safety: Regulatory Issues and Mitigating Concepts
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Weather and Aviation: How Does Weather Affect the Safety and Operations of Airports and Aviation, and How Does FAA Work to Manage Weather-Related Effects?
Kulesa 1 Weather and Aviation: How Does Weather Affect the Safety and Operations of Airports and Aviation, and How Does FAA Work to Manage Weather-related Effects? By Gloria Kulesa Weather Impacts On Aviation In addition, weather continues to play a significant role in a number of aviation Introduction accidents and incidents. While National Transportation Safety Board (NTSB) reports ccording to FAA statistics, weather is most commonly find human error to be the the cause of approximately 70 percent direct accident cause, weather is a primary of the delays in the National Airspace contributing factor in 23 percent of all System (NAS). Figure 1 illustrates aviation accidents. The total weather impact that while weather delays declined with overall is an estimated national cost of $3 billion for NAS delays after September 11th, 2001, delays accident damage and injuries, delays, and have since returned to near-record levels. unexpected operating costs. 60000 50000 40000 30000 20000 10000 0 1 01 01 0 01 02 02 ul an 01 J ep an 02 J Mar May S Nov 01 J Mar May Weather Delays Other Delays Figure 1. Delay hours in the National Airspace System for January 2001 to July 2002. Delay hours peaked at 50,000 hours per month in August 2001, declined to less than 15,000 per month for the months following September 11, but exceeded 30,000 per month in the summer of 2002. Weather delays comprise the majority of delays in all seasons. The Potential Impacts of Climate Change on Transportation 2 Weather and Aviation: How Does Weather Affect the Safety and Operations of Airports and Aviation, and How Does FAA Work to Manage Weather-related Effects? Thunderstorms and Other Convective In-Flight Icing. -
Mitchell Thomas JOS Article
H-SC Journal of Sciences (2017) Vol. VI Thomas Mars: A prospect for settlement Mitchell H. Thomas’17 Department of Biology, Hampden-Sydney College, Hampden-Sydney, VA 23943 The exploration of Mars was once left to the imagination. However, in recent years, the topic of exploring Mars has become more realistic and increasingly popular in news articles and scientific communities. Technology developed in the previous half-century have already allowed humans to send rovers to Mars in order to retrieve some basic data about the planet. Current technological advancements are resulting in reusable rockets that could one day travel between Earth and Mars. Exploration and colonization of Mars are important for the development of research on the planet and the search for life. Current data is limited, but shows that the conditions on Mars could have supported life in the past. To further our knowledge of the red planet, The atmosphere surrounding Earth is nearly organizations like NASA and companies like SpaceX one-hundred times denser than that of Mars and its are developing plans to colonize Mars. Many composition is crucial to life. According to NASA, the obstacles stand in the way before humans can reach Earth’s atmosphere is comprised of 78% Nitrogen, and colonize the red planet. However, Mars is the 21% Oxygen, and 1% Other. On Mars, the sparse best option for interplanetary colonization and the atmosphere is comprised of nearly 96% Carbon most feasible way to research current and future life Dioxide, less than 2% Argon, less than 2% Nitrogen, on a planet other than Earth. -
Tianwen-1: China's Mars Mission
Tianwen-1: China's Mars Mission drishtiias.com/printpdf/tianwen-1-china-s-mars-mission Why In News China will launch its first Mars Mission - Tianwen-1- in July, 2020. China's previous ‘Yinghuo-1’ Mars mission, which was supported by a Russian spacecraft, had failed after it did not leave the earth's orbit and disintegrated over the Pacific Ocean in 2012. The National Aeronautics and Space Administration (NASA) is also going to launch its own Mars mission in July, the Perseverance which aims to collect Martian samples. Key Points The Tianwen-1 Mission: It will lift off on a Long March 5 rocket, from the Wenchang launch centre. It will carry 13 payloads (seven orbiters and six rovers) that will explore the planet. It is an all-in-one orbiter, lander and rover system. Orbiter: It is a spacecraft designed to orbit a celestial body (astronomical body) without landing on its surface. Lander: It is a strong, lightweight spacecraft structure, consisting of a base and three sides "petals" in the shape of a tetrahedron (pyramid- shaped). It is a protective "shell" that houses the rover and protects it, along with the airbags, from the forces of impact. Rover: It is a planetary surface exploration device designed to move across the solid surface on a planet or other planetary mass celestial bodies. 1/3 Objectives: The mission will be the first to place a ground-penetrating radar on the Martian surface, which will be able to study local geology, as well as rock, ice, and dirt distribution. It will search the martian surface for water, investigate soil characteristics, and study the atmosphere. -
U.S. Human Space Flight Safety Record As of July 20, 2021
U.S. Human Space Flight Safety Record (As of 20 July 2021) Launch Type Total # of Total # People Total # of Total # of People on Died or Human Space Catastrophic Space Flight Seriously Flights Failures6 Injured3 Orbital (Total) 9271 17 1664 3 Suborbital 2332 3 2135 2 (Total) Total 1160 20 379 5 § 460.45(c) An operator must inform each space flight participant of the safety record of all launch or reentry vehicles that have carried one or more persons on board, including both U.S. government and private sector vehicles. This information must include— (1) The total number of people who have been on a suborbital or orbital space flight and the total number of people who have died or been seriously injured on these flights; and (2) The total number of launches and reentries conducted with people on board and the number of catastrophic failures of those launches and reentries. Federal Aviation Administration AST Commercial Space Transportation Footnotes 1. People on orbital space flights include Mercury (Atlas) (4), Gemini (20), Apollo (36), Skylab (9), Space Shuttle (852), and Crew Dragon (6) a. Occupants are counted even if they flew on only the launch or reentry portion. The Space Shuttle launched 817 humans and picked up 35 humans from MIR and the International Space Station. b. Occupants are counted once reentry is complete. 2. People on suborbital space flights include X-15 (169), M2 (24), Mercury (Redstone) (2), SpaceShipOne (5), SpaceShipTwo (29), and New Shepard System (4) a. Only occupants on the rocket-powered space bound vehicles are counted per safety record criterion #11. -
Space Policy Directive 1 New Shepard Flies Again 5
BUSINESS | POLITICS | PERSPECTIVE DECEMBER 18, 2017 INSIDE ■ Space Policy Directive 1 ■ New Shepard fl ies again ■ 5 bold predictions for 2018 VISIT SPACENEWS.COM FOR THE LATEST IN SPACE NEWS INNOVATION THROUGH INSIGNT CONTENTS 12.18.17 DEPARTMENTS 3 QUICK TAKES 6 NEWS Blue Origin’s New Shepard flies again Trump establishes lunar landing goal 22 COMMENTARY John Casani An argument for space fission reactors 24 ON NATIONAL SECURITY Clouds of uncertainty over miltary space programs 26 COMMENTARY Rep. Brian Babin and Rep. Ami Ber We agree, Mr. President,. America should FEATURE return to the moon 27 COMMENTARY Rebecca Cowen- 9 Hirsch We honor the 10 Paving a clear “Path” to winners of the first interoperable SATCOM annual SpaceNews awards. 32 FOUST FORWARD Third time’s the charm? SpaceNews will not publish an issue Jan. 1. Our next issue will be Jan. 15. Visit SpaceNews.com, follow us on Twitter and sign up for our newsletters at SpaceNews.com/newsletters. ON THE COVER: SPACENEWS ILLUSTRATION THIS PAGE: SPACENEWS ILLUSTRATION FOLLOW US @SpaceNews_Inc Fb.com/SpaceNewslnc youtube.com/user/SpaceNewsInc linkedin.com/company/spacenews SPACENEWS.COM | 1 VOLUME 28 | ISSUE 25 | $4.95 $7.50 NONU.S. CHAIRMAN EDITORIAL CORRESPONDENTS ADVERTISING SUBSCRIBER SERVICES Felix H. Magowan EDITORINCHIEF SILICON VALLEY BUSINESS DEVELOPMENT DIRECTOR TOLL FREE IN U.S. [email protected] Brian Berger Debra Werner Paige McCullough Tel: +1-866-429-2199 Tel: +1-303-443-4360 [email protected] [email protected] [email protected] Fax: +1-845-267-3478 +1-571-356-9624 Tel: +1-571-278-4090 CEO LONDON OUTSIDE U.S. -
Recommended Practices for Human Space Flight Occupant Safety
Recommended Practices for Human Space Flight Occupant Safety Version 1.0 August 27, 2014 Federal Aviation Administration Office of Commercial Space Transportation 800 Independence Avenue, Room 331 7 3 Washington, DC 20591 0 0 - 4 1 C T Recommended Practices for Human Space Flight Page ii Occupant Safety – Version 1.0 Record of Revisions Version Description Date 1.0 Baseline version of document August 27, 2014 Recommended Practices for Human Space Flight Page iii Occupant Safety – Version 1.0 Recommended Practices for Human Space Flight Page iv Occupant Safety – Version 1.0 TABLE OF CONTENTS A. INTRODUCTION ............................................................................................................... 1 1.0 Purpose ............................................................................................................................. 1 2.0 Scope ................................................................................................................................ 1 3.0 Development Process ....................................................................................................... 2 4.0 Level of Risk and Level of Care ...................................................................................... 2 4.1 Level of Risk ................................................................................................................ 2 4.2 Level of Care ................................................................................................................ 3 5.0 Structure and Nature of the -
Water Rocket Booklet
A guide to building and understanding the physics of Water Rockets Version 1.02 June 2007 Warning: Water Rocketeering is a potentially dangerous activity and individuals following the instructions herein do so at their own risk. Exclusion of liability: NPL Management Limited cannot exclude the risk of accident and, for this reason, hereby exclude, to the maximum extent permissible by law, any and all liability for loss, damage, or harm, howsoever arising. Contents WATER ROCKETS SECTION 1: WHAT IS A WATER ROCKET? 1 SECTION 3: LAUNCHERS 9 SECTION 4: OPTIMISING ROCKET DESIGN 15 SECTION 5: TESTING YOUR ROCKET 24 SECTION 6: PHYSICS OF A WATER ROCKET 29 SECTION 7: COMPUTER SIMULATION 32 SECTION 8: SAFETY 37 SECTION 9: USEFUL INFORMATION 38 SECTION 10: SOME INTERESTING DETAILS 40 Copyright and Reproduction Michael de Podesta hereby asserts his right to be identified as author of this booklet. The copyright of this booklet is owned by NPL. Michael de Podesta and NPL grant permission to reproduce the booklet in part or in whole for any not-for-profit educational activity, but you must acknowledge both the author and the copyright owner. Acknowledgements I began writing this guide to support people entering the NPL Water Rocket Competition. So the first acknowledgement has to be to Dr. Nick McCormick, who founded the competition many years ago and who is still the driving force behind the activity at NPL. Nick’s instinct for physics and fun has brought pleasure to thousands. The inspiration to actually begin writing this document instead of just saying that someone ought to do it, was provided by Andrew Hanson. -
L-8: Enabling Human Spaceflight Exploration Systems & Technology
Johnson Space Center Engineering Directorate L-8: Enabling Human Spaceflight Exploration Systems & Technology Development Public Release Notice This document has been reviewed for technical accuracy, business/management sensitivity, and export control compliance. It is Montgomery Goforth suitable for public release without restrictions per NF1676 #37965. November 2016 www.nasa.gov 1 NASA’s Journey to Mars Engineering Priorities 1. Enhance ISS: Enhanced missions and systems reliability per ISS customer needs 2. Accelerate Orion: Safe, successful, affordable, and ahead of schedule 3. Enable commercial crew success 4. Human Spaceflight (HSF) exploration systems development • Technology required to enable exploration beyond LEO • System and subsystem development for beyond LEO HSF exploration JSC Engineering’s Internal Goal for Exploration • Priorities are nice, but they are not enough. • We needed a meaningful goal. • We needed a deadline. • Our Goal: Get within 8 years of launching humans to Mars (L-8) by 2025 • Develop and mature the technologies and systems needed • Develop and mature the personnel needed L-8 Characterizing L-8 JSC Engineering: HSF Exploration Systems Development • L-8 Is Not: • A program to go to Mars • Another Technology Road-Mapping effort • L-8 Is: • A way to translate Agency Technology Roadmaps and Architectures/Scenarios into a meaningful path for JSC Engineering to follow. • A way of focusing Engineering’s efforts and L-8 identifying our dependencies • A way to ensure Engineering personnel are ready to step up -
The Esa Exploration Programme – Exomars and Beyond
Lunar and Planetary Science XXXVI (2005) 2408.pdf THE ESA EXPLORATION PROGRAMME – EXOMARS AND BEYOND. G. Kminek1 and the Exploration Team, 1European Space Agency, D/HME, Keplerlaan 1, 2200 AG Noordwijk, The Netherlands, [email protected]. Management and Organization: The countries Technology Development for Exploration: Two participating in the European Exploration Programme categories for exploration technology developments Aurora have recently confirmed and increased their have been identified: contribution. The ESA Council has later approved the Generic Exploration Technology: They have a Agency’s budgets for 2005, including the budget for long-term strategic value, both for robotic and human Aurora. These developments enable major industrial exploration missions. Planetary protection, habitable activities to continue in line with original plans. These systems, risk assessment for human missions to planets, include work on the ExoMars mission and the Mars grey and black water recycling as well as psychological Sample Return mission, in-orbit assembly, rendezvous support for the Concordia Antarctic Station, Facility and docking, habitation and life support systems plus a for Integrated Planetary Exploration Simulations are broad range of technology development work. examples of selected generic exploration technologies. The Aurora Exploration Programme has been inte- Mission Specific Technologies: Specifically devel- grated into the Human Spaceflight and Microgravity oped for the programme’s missions, and will eventually Directorate , which now forms the Human Spaceflight, be implemented after reaching a minimum technology Microgravity, and Exploration Directorate of ESA. readiness level. EVD, sealing and sealing monitoring Early Robotic Missions: Robotic mission have technology, containment technology, specific instru- been identified as necessary prerequisite before send- ment developments, sample handling and distribution ing human to Mars. -
1 HOLD for RELEASE UNTIL PRESENTED by WITNESS March
HOLD FOR RELEASE UNTIL PRESENTED BY WITNESS March 13, 2019 Statement of James F. Bridenstine Administrator National Aeronautics and Space Administration before the Committee on Commerce, Science, and Transportation United States Senate Mr. Chairman and Members of the Committee, I am very pleased to appear before you today. NASA is proud to be at the forefront of a global effort to advance humanity’s future in space, leading the world while expanding on our Nation’s great capacity for exploration and innovation. This is a role the Agency has played for over 60 years, leveraging the talent and hard work of America’s skilled Government and aerospace industry workforce to push the boundaries of science, exploration, and technology development to achieve bold goals in the aviation and space arenas. Now, pursuant to Space Policy Directive-1 (and consistent with the NASA Transition Authorization Act of 2017), NASA is pursuing “an innovative and sustainable program of exploration with commercial and international partners to enable human expansion across the solar system and to bring back to Earth new knowledge and opportunities.” We are working on a sustainable campaign of exploration, transitioning the International Space Station (ISS), returning humans to the surface of the Moon and lunar orbit, where we will build the systems, deep space infrastructure, and operational capabilities to expand human presence beyond the Earth-Moon system, eventually embarking on human missions to Mars and other destinations. Since its inception, NASA’s historic and enduring purpose has been aligned to four major strategic thrusts – Discover, Explore, Develop, and Enable. These correspond to our missions of scientific discovery of the natural phenomena of the Earth, of other worlds, and of the cosmos as a whole. -
January 2018 Satellite & Space Monthly Review
February 5, 2018 Industry Brief Chris Quilty [email protected] January 2018 +1 (727)-828-7085 Austin Moeller Satellite & Space Monthly Review [email protected] +1 (727)-828-7601 January 11, 2018: Air force to utilize more smallsats for weather DMSP F19 Readying for Launch observation. Citing growing budget constraints, the US Air Force announced that is considering using small satellites in combination with next-gen software rather than procuring traditional multibillion-dollar, cost-plus spacecraft to replace/replenish its Defense Meteorological Satellite Program (DMSP). Despite awarding a $94 million contract to Ball Aerospace in November to design the Weather System Follow-on Microwave (WSF-M) satellite, the Air Force plans to begin launching small satellites equipped with infrared imaging and electro-optical instruments to monitor battlefield weather starting in 2021-2022. The Air Force is also considering augmenting their current capabilities with inactive NOAA GOES satellites in the near-term. These considerations parallel recent comments by USSTRATCOM commander Gen. John Hyten, who has repeatedly stated that the Air Force currently spends too much time and money developing large, high- cost satellites, and needs to invest in more small satellites for strategic Source: Lockheed Martin and budgetary reasons. Conclusion: Smallsats ready for a DoD growth spurt? With growing evidence of Russian/Chinese anti- satellite technology demonstrations, the Pentagon is becoming increasingly reluctant to spend billions of dollars on monolithic “Battlestar Galactica” satellite systems that place too many eggs in one basket. While not as robust or technologically-capable as high-end spacecraft built by traditional contractor, such as Lockheed Martin, small satellites are orders-of-magnitude less expensive to build, launch, and maintain. -
Space Rescue Ensuring the Safety of Manned Space¯Ight David J
Space Rescue Ensuring the Safety of Manned Space¯ight David J. Shayler Space Rescue Ensuring the Safety of Manned Spaceflight Published in association with Praxis Publishing Chichester, UK David J. Shayler Astronautical Historian Astro Info Service Halesowen West Midlands UK Front cover illustrations: (Main image) Early artist's impression of the land recovery of the Crew Exploration Vehicle. (Inset) Artist's impression of a launch abort test for the CEV under the Constellation Program. Back cover illustrations: (Left) Airborne drop test of a Crew Rescue Vehicle proposed for ISS. (Center) Water egress training for Shuttle astronauts. (Right) Beach abort test of a Launch Escape System. SPRINGER±PRAXIS BOOKS IN SPACE EXPLORATION SUBJECT ADVISORY EDITOR: John Mason, B.Sc., M.Sc., Ph.D. ISBN 978-0-387-69905-9 Springer Berlin Heidelberg New York Springer is part of Springer-Science + Business Media (springer.com) Library of Congress Control Number: 2008934752 Apart from any fair dealing for the purposes of research or private study, or criticism or review, as permitted under the Copyright, Designs and Patents Act 1988, this publication may only be reproduced, stored or transmitted, in any form or by any means, with the prior permission in writing of the publishers, or in the case of reprographic reproduction in accordance with the terms of licences issued by the Copyright Licensing Agency. Enquiries concerning reproduction outside those terms should be sent to the publishers. # Praxis Publishing Ltd, Chichester, UK, 2009 Printed in Germany The use of general descriptive names, registered names, trademarks, etc. in this publication does not imply, even in the absence of a speci®c statement, that such names are exempt from the relevant protective laws and regulations and therefore free for general use.