Deep Space Habitats Hearing Committee on Science, Space, and Technology House of Representatives
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Exploration of the Moon
Exploration of the Moon The physical exploration of the Moon began when Luna 2, a space probe launched by the Soviet Union, made an impact on the surface of the Moon on September 14, 1959. Prior to that the only available means of exploration had been observation from Earth. The invention of the optical telescope brought about the first leap in the quality of lunar observations. Galileo Galilei is generally credited as the first person to use a telescope for astronomical purposes; having made his own telescope in 1609, the mountains and craters on the lunar surface were among his first observations using it. NASA's Apollo program was the first, and to date only, mission to successfully land humans on the Moon, which it did six times. The first landing took place in 1969, when astronauts placed scientific instruments and returnedlunar samples to Earth. Apollo 12 Lunar Module Intrepid prepares to descend towards the surface of the Moon. NASA photo. Contents Early history Space race Recent exploration Plans Past and future lunar missions See also References External links Early history The ancient Greek philosopher Anaxagoras (d. 428 BC) reasoned that the Sun and Moon were both giant spherical rocks, and that the latter reflected the light of the former. His non-religious view of the heavens was one cause for his imprisonment and eventual exile.[1] In his little book On the Face in the Moon's Orb, Plutarch suggested that the Moon had deep recesses in which the light of the Sun did not reach and that the spots are nothing but the shadows of rivers or deep chasms. -
Actual Problems Актуальные Проблемы
АКАДЕМИЯ НАУК АВИАЦИИ И ВОЗДУХОПЛАВАНИЯ РОССИЙСКАЯ АКАДЕМИЯ КОСМОНАВТИКИ ИМ. К.Э.ЦИОЛКОВСКОГО RUSSIAN ASTRONAUTICS ACADEMY OF K.E.TSIOLKOVSKY'S NAME ACADEMY OF AVIATION AND AERONAUTICS SCIENCES СССР 7 195 ISSN 1727-6853 12.04.1961 АКТУАЛЬНЫЕ ПРОБЛЕМЫ АВИАЦИОННЫХ И АЭРОКОСМИЧЕСКИХ СИСТЕМ процессы, модели, эксперимент 1(42), т.21, 2016 RUSSIAN-AMERICAN SCIENTIFIC JOURNAL ACTUAL PROBLEMS OF AVIATION AND AEROSPACE SYSTEMS processes, models, experiment УРНАЛ 1(42), v.21, 2016 УЧНЫЙ Ж О-АМЕРИКАНСКИЙ НА ОССИЙСК Р Казань Daytona Beach А К Т УА Л Ь Н Ы Е П Р О Б Л Е М Ы А В И А Ц И О Н Н Ы Х И А Э Р О К О С М И Ч Е С К И Х С И С Т Е М Казань, Дайтона Бич Вып. 1 (42), том 21, 1-210, 2016 СОДЕРЖАНИЕ CONTENTS С.К.Крикалёв, О.А.Сапрыкин 1 S.K.Krikalev, O.A.Saprykin Пилотируемые Лунные миссии: Manned Moon missions: problems and задачи и перспективы prospects В.Е.Бугров 28 V.E.Bugrov О государственном управлении About government management of программами пилотируемых manned space flights programs космических полетов (критический (critical analysis of problems in анализ проблем отечественной Russian astronautics of the past and космонавтики прошлого и present) настоящего) А.В.Даниленко, К.С.Ёлкин, 90 A.V.Danilenko, K.S.Elkin, С.Ц.Лягушина S.C.Lyagushina Проект программы развития в Project of Russian program on России перспективной космической technology development of prospective технологии – космических тросовых space tethers applications систем Г.Р.Успенский 102 G.R.Uspenskii Прогнозирование космической Forecasting of space activity on деятельности по пилотируемой manned astronautics космонавтике А.В.Шевяков 114 A.V.Shevyakov Математические методы обработки Mathematical methods of images изображений в аэрокосмических processing in aerospace information информационных системах systems Р.С.Зарипов 140 R.S.Zaripov Роль и место военно-транспортных Russian native military transport самолетов в истории авиации aircrafts: history and experience of life России, опыт их боевого применения (part II) (ч. -
The Effect of Time and Volume Stater of Bioethanol Content from Coconut Fiber Waste and Mengkudu Nutrient Content Compositions 8 in 100 Gr Mengkudu [8]
Copyright © 2019 American Scientific Publishers Journal of All rights reserved Computational and Theoretical Nanoscience Printed in the United States of America Vol. 16, 5224–5227, 2019 The Effect of Time and Volume Stater of Bioethanol Content from Coconut Fiber Waste and Mengkudu Netty Herawati∗, Muh A. P. Muplih, M. Iqbal Satriansyah, and Kiagus A. Roni Chemical Engineering Study Program, Faculty of Engineering, Muhammadiyah University of Palembang, Jalan Jendral Ahmad Yani 13 Ulu, Plaju, Palembang, 3011, Indonesia Mengkudu and coconut fiber are a plant which frequently find in Indonesia. Mengkudu is a plant that has many advantages and carbohydrate content as 51,67%. Coconut fiber has high enough cellulose content as 43,44%, with high carbohydrate content and high cellulose content they can be utilized as basic ingredient in the making of bioethanol. The purpose of this research is to determine the best condition in the process of making bioethanol from them. Bioethanol was made by fermentation which was helped by bactery, that was Saccaromyches cerevisae or often known as bread yeast. The results of this research were obtained fermentation time and volume of the stater used in making bioethanol from mengkudui fruit in order to get the best content bioetanol is in 60 hours using a stater volume of 10% which produces 6.26% bioethanol, while for the manufacture of bioethanol from waste Coconut coir is at 72 hours using a 6 gr volume of starch which produces bioethanol 13.80%. RESEARCH ARTICLE Keywords: Mengkudu, Coconut Fiber, Bioethanol, Time Variety, Stater Volume, Saccaromy chescerevisae. 1. INTRODUCTION as FGE [6]. Bioethanol is an alcohol compound with a The increase of human population and the develop of hydroxyl group (OH), 2 carbon atoms C, with the chem- industry are directly proportional with the increase of ical formula C2H5OH, which is made by sugar fermen- dependency number with oil fuel. -
TSR6908.MHR3.Avenger
AVENGERS CAMPAIGN FRANCHISES Avengers Branch Teams hero/heroine and the sponsoring nation, Table A: UN Proposed Avengers Bases For years, the Avengers operated avengers membership for national heroes and New Members relatively autonomously, as did the has become the latest political power chip Australia: Sydney; Talisman I Fantastic Four and other superhuman involved in United Nations negotiations. China: Moscow; Collective Man teams. As the complexities of crime Some member nations, such as the Egypt: Cairo; Scarlet Scarab fighting expanded and the activities of the representatives of the former Soviet France: Paris; Peregrine Avengers expanded to meet them, the Republics and their Peoples' Protectorate, Germany: Berlin; Blitzkrieg, Hauptmann team's needs changed. Their ties with have lobbied for whole teams of powered Deutschland local law enforcement forces and the beings to be admitted as affiliated Great Britain: Paris; Spitfire, Micromax, United States government developed into Avengers' branch teams. Shamrock having direct access to U.S. governmental The most prominent proposal nearing a Israel: Tel Aviv; Sabra and military information networks. The vote is the General Assembly's desired Japan: Undecided; Sunfire Avengers' special compensations (such as establishment of an Avengers' branch Korea: Undecided; Auric, Silver domestic use of super-sonic aircraft like team for the purpose of policing areas Saudi Arabia: Undecided; Arabian Knight their Quintets) were contingent on working outside of the American continent. This Soviet Republics: Moscow; Peoples' with the U.S. National Security Council. proposal has been welcomed by all Protectorate (Perun, Phantasma, Red After a number of years of tumultuous member nations except the United States, Guardian, Vostok) and Crimson Dynamo relations with the U.S. -
George C. Marshall Space Flight Center Malshall Space Flight Center, Alabama
NASA TECHNICAL MEMORANDUM NASA TM X-53973 SPACE FLIGHT EVOLUTION By Georg von Tiesenhausen and Terry H. Sharpe Advanced Systems Analysis Office June 30,1970 NASA George C. Marshall Space Flight Center Malshall Space Flight Center, Alabama MSFC - Form 3190 (September 1968) j NASA TM X-53973 I [. TITLE AND SUBTITLE 5. REPORT DATE June 30,1970 Space Flight Evolution 6. PERFORMlNG ORGANIZATION CODE PD-SA 7. AUTHOR(S) 8. PERFORMING ORGANIZATION REPORT # Georg von Tiesenhausen and Terry H. Sharpe I 3. PERFORMlNG ORGANIZATION NAME AND ADDRESS lo. WORK UNIT, NO. Advanced Systems Analysis Office Program Development 1 1. CONTRACT OR GRANT NO. Marshall Space Flight Center, Alabama 35812 13. TYPE OF REPORT & PERIOD COVEREC 2. SPONSORING AGENCY NAME AND ADDRESS Technical Memorandum 14. SPONSORING AGENCY CODE I 15. SUPPLEMENTARY NOTES 16. ABSTRACT This report describes a possible comprehensive path of future, space flight evolution. The material in part originated from earlier NASA efforts to defme a space program in which earth orbital, lunar, and planetary programs are integrated. The material presented is not related to specific time schedules but provides an evolutionary sequence. The concepts of commonality of hardware and reusability of systems are introduced as keys to a low cost approach to space flight. The verbal descriptions are complemented by graphic interpretations in order to convey a more vivid impression of the concepts and ideas which make upthis program. 17. KEY WORDS 18. DISTRIBUTION STATEMENT STAR Announcement Advanced Systems Analysis Office 19. SECURITY CLASSIF. (of this rePmt> (20. SECURITY CLA ;IF. (of this page) 121. NO. OF PAGES 122. -
Acoustic Shaping, Inc: Manufacturers in Mars Orbit
PROPOSAL AND BUSINESS PLAN SUBMITTED TO THE 1999 "NASA MEANS BUSINESS" STUDENT COMPETITION ACOUSTIC SHAPING, INC: MANUFACTURERS IN MARS ORBIT By the Georgia Tech team Sam Wanis, Don Changeau, Justin Hausaman, Ashraf Charania, Catherine Matos, Richard Ames DECEMBER 1998 I. Proposal Summary The Georgia Tech team proposes a Business Plan for a technical concept which they have demonstrated in '97 and '98 NASA Microgravity flight-tests: Acoustic Shaping as a means of non- contact manufacturing in Space. Acoustic Shaping will offer flexible manufacturing of pressure vessels and precision-formed components using raw material obtained from moons and asteroids. The customers are the space-faring construction industry, as well as bio-engineering companies of the 21st century. Material from lunar and asteroid-based mines will be shipped to manufacturing facilities in Earth and Mars orbit. Finished products will be delivered using aerodynamic decelerators to customers on planetary surfaces, or used in the construction of space station modules and vehicles for other missions. By reducing the cost of manufactured components to a fraction of the cost of Earth-built or machined components, ASI will provide an enabling resource for human exploration of the Solar system. A systematic Implementation Plan is laid out to develop ASI as the aerospace construction industry of the 21st century. From its already-demonstrated technical foundations, the Plan reaches out using the student team's projections of the evolving space industry. This Plan is used to convey a sampling of Georgia Tech's capabilities and interests in NASA's HEDS mission, across disciplines and levels. The team has won support from faculty research teams across the School of Aerospace Engineering, the Dupree College of Business and the GT-Emory School of Biomedical Engineering, each of which brings research and curricular capabilities to this mission. -
JBIS Journal of the British Interplanetary Society
JBIS Journal of the British Interplanetary Society VOL. 66 No. 5/6 MAY/JUNE 2013 Contents On the Possibility of Detecting Class A Stellar Engines using Exoplanet Transit Curves Duncan H. Forgan Asteroid Control and Resource Utilization Graham Paterson, Gianmarco Radice and J-Pau Sanchez Application of COTS Components for Martian Surface Exploration Matthew Cross, Christopher Nicol, Ala’ Qadi and Alex Ellery In-Orbit Construction with a Helical Seam Pipe Mill Neill Gilhooley The Effect of Probe Dynamics on Galactic Exploration Timescales Duncan H. Forgan, Semeli Papadogiannakis and Thomas Kitching Innovative Approaches to Fuel-Air Mixing and Combustion in Airbreathing Hypersonic Engines Christopher MacLeod Gravitational Assist via Near-Sun Chaotic Trajectories of Binary Objects Joseph L. Breeden jbis.org.uk ISSN 0007-084X Publication Date: 24 July 2013 Notice to Contributors JBIS welcomes the submission for publication of suitable technical articles, research contributions and reviews in space science and technology, astronautics and related fields. Text should be: Figure captions should be short and concise. Every figure 1. As concise as the scientific or technical content allows. used must be referred to in the text. Typically 5000 to 6000 words but shorter (2-3 page) papers 2. Permission should be obtained and formal acknowledgement are also accepted called Technical Notes. Papers longer made for use of a copyright illustration or material from than this would only be accepted when the content demands elsewhere. it, such as a major subject review. 3. Photos: Original photos are preferred if possible or good 2. Mathematical equations may be either handwritten or typed, quality copies. -
Luna 27:RUSSIAN Remote LUNAR Observation EXPLORATION of Hydrogenmissions Subsurface (Down to 0.5 M) Distribution with Active Neutron and Gamma Spectrometers
RUSSIAN LUNAR EXPLORATION MISSIONS The vision of the Russian Space Agency on the robotic settlements in the Moon Maxim Litvak Space Research Institute Russian Academy of sciences page 1 RUSSIAN LUNAR EXPLORATION MISSIONS History/Heritage Zond-3 photos of far side of the Moon Luna-9 Luna-16 with Lunokhod-1 first landing samples of regolith page 2 RUSSIAN LUNAR EXPLORATION MISSIONS Main principles of Lunar Program page 3 RUSSIAN LUNAR EXPLORATION MISSIONS 1. Lunar program shall include initial exploration/investigation stage to solve key, most important lunar tasks and to provide basis for following human exploration and utilization of lunar resources. 2. Lunar program shall be developed as a sequence of key projects/missions with increasing complexity where subsequent missions inherit and develop science results and technologies achieved in previous missions and projects. 3. Lunar program goals shall take into account current technology readiness level (including technologies developed by Soviet lunar program and other space agencies) and available funding resources. 4. Lunar Program shall start with robotic missions and continue with manned lunar missions, solving specific tasks at each stage to effectively approach strategic goal – human exploration of the Moon and creating long living lunar bases. 5. Lunar Program (primary goals) shall be based on national funding capabilities but allow and provides possibilities for close involvement of international cooperation. page 4 RUSSIAN LUNAR EXPLORATION MISSIONS Main goals of Lunar Program page 5 RUSSIAN LUNAR EXPLORATION MISSIONS 1. NEW MOON SCIENCE . Origin and evolution . Polar regions and volatiles . Lunar exosphere and radiation environment. 2. NEW LUNAR TRANSPORT CAPABILITIES . To support robotic and human missions to lunar orbit and lunar surface. -
Lunar Mission Safety and Rescue : Technical Summary
MSC-03976 LMSC-A984262B JULY 15,1971 LUN..A..R 1Vl:ISSION S..A..FET-y ..A..ND RESCUE PREPARED FOR NATIONAL AERONAUTICS &SPACE ADMINISTRATION MANNED SPACECRAFT CENTER HOUSTON, TEXAS CONTRACT NAS 9-10969 _ .. .... // .. ~ ~---·-_:. ·.. : -· :_:_. __ ;._· __ ._· ... ::. ·.--.:' ..:: -: .. ,' ·... -~ -=:-.}!· '..... ._ ... ::_::. · :' _ __ _.:_ .. _·:; : ....... -.. .- ·: :. .. _ .. · , .. I ·.' _~...,~- - ... ·-.· . ·.. ;- _-... _.·_ ·•·· .. ··•·••·· . ;~~ :., ~:···.·· .. ··· h .,·, .. >- ' ·.··· .· . ·.. ·. ~-~~\:, .•. #~?L ·. <____ , ;..,;.,_::·: _____ ............,. _____ -..;...--.....;....;·.· ·____- ... .;.......,..__----'--·--· :...;....·_:"'--_... :·· --· .___ .· ---'-"--~ TECHNICAL SUMMARY LOCKHEED MISSILES & SPACE COMPANY A GllOUP D I VISION OF LO C KHEED AIR C RAfT CORPORATI O N SPACE SYSTEMS DIVISION • SUNNYVALE, C ALIFORNIA MSC-03976 LMSC-A984262B Revision 1 LUNAR MISSION SAFETY AND RESCUE TECHNICAL SUMMARY i( Prepared for National Aeronautics and Space Administration Manned Spacecraft Center Houston, Texas 77058 Under Contract NAS 9-10969 MSC DRL-T-591 Line Item 7 LOCKHEED MISSILES & SPACE COMPANY ,) SPACE SYSTEMS DIVISION P. O. BOX 504, SUNNYVALE, CALIF. 94088 Lunar Surface Features - Apollo 14 Mission iii LMSC-A984262B FOREWORD This report was prepared by the Lockheed Missiles & Space Company, Sunnyvale, California, and presents a technical summary of results of the Lunar Mission Safety and Rescue Study performed for the National Aeronautics and Space Admin istration, Manned Spacecraft Center, under Contract NAS 9-10969. This is one of the following four reports documenting the contract findings: MSC-03975, LMSC-A984262A, Lunar Mission Safety and Rescue Executive Summary MSC-03976, LMSC-A984262B, Lunar Mission Safety and Rescue Technical Summary MSC-03977, LMSC-A984262C, Lunar Mission Safety and Rescue Hazards Analysis and Safety Requirements MSC-03978, LMSC-A984262D, Lunar Mission Safety and Rescue Escape/Rescue Analysis and Plan v LMSC-A984262B ACKNOWLEDGMENTS The Lunar Mission Safety and Rescue Study was performed under the direction of Mr. -
Extensions of Remarks E1424 HON. BILL FOSTER HON. BILL FLORES
E1424 CONGRESSIONAL RECORD — Extensions of Remarks September 16, 2014 these institutions can continue serving Amer- rest of the Chamber Board for their leadership ship from Rollins College, Crummer Graduate ican consumers. and dedication to our community. I would also School of Business. In addition, H.R. 5461 incorporates three like to recognize and thank Russ Slinkard, the I am honored to recognize Julio Rocha, dur- other bills that originated in the Financial Serv- President and Chief Executive Officer of the ing Hispanic Heritage Month, for his leader- ices Committee and previously received over- Joliet Region Chamber of Commerce and In- ship and contributions to the Central Florida whelming bipartisan support: H.R. 634, the dustry, and all of the staff. Community. Business Mitigation and Price Stabilization The Joliet Region Chamber of Commerce f Act; H.R. 3211, the Mortgage Choice Act; and and Industry has been a partner to the city as H.R. 4167, the Restoring Proven Financing for it has grown and changed over the past 100 HONORING JAMISON DUNN American Employees Act. years. The Chamber plays a vital role in the In this time when there seems to be so little economic health of Joliet and the surrounding HON. SAM GRAVES that Republicans and Democrats in Wash- area. OF MISSOURI ington agree on, I think it’s important to note Again, I would like to congratulate the Joliet IN THE HOUSE OF REPRESENTATIVES just how much bipartisan support all of these Region Chamber of Commerce and Industry Tuesday, September 16, 2014 bills earned. for 100 years of service to our community. -
Aas 20-695 Geometrical Tools for the Systematic Design of Low-Energy
AAS 20-695 GEOMETRICAL TOOLS FOR THE SYSTEMATIC DESIGN OF LOW-ENERGY TRANSFERS IN THE EARTH-MOON-SUN SYSTEM Anastasia Tselousova,∗ Maksim Shirobokov,y and Sergey Trofimovz Weak stability boundary (WSB) trajectories are Sun-perturbed low-energy trajec- tories connecting a near-Earth orbit and a lunar orbit. Among their benefits are the increased mass delivered to a working orbit and larger launch windows. However, the flight is much longer than for traditional high-energy lunar transfers. Since the discovery of WSB trajectories several decades ago, they have been being designed numerically, by a single or multiple shooting procedure. The major challenge is in choosing a good initial guess for that procedure: a WSB trajectory consists of legs with alternating fast/slow dynamics and is extremely sensitive. The paper presents several geometrical tools that enable the systematic design of a high-quality initial guess in the framework of the planar bicircular four-body problem. The constraints on the launch energy C3 and the selenocentric distance of the lunar orbit insertion point are satisfied by construction. The initial-guess planar WSB trajectory is then fed to the standard multiple shooting procedure in order to get a three-dimensional trajectory with the trans-lunar injection from a specific parking orbit adapted to the realistic ephemeris model. The technique developed is ideologically similar to the patched conic approximation for high-energy trajectories: the region of prevalence concept introduced by R. Castelli is exploited instead of the sphere of influence, so that a WSB trajectory appears to be divided into the three legs: departing, exterior, and arriving. -
A Study of Superhero Mythology Ryan Woods This Is a Digitised Version Of
Gods in Spandex: A Study of Superhero Mythology Ryan Woods This is a digitised version of a dissertation submitted to the University of Bedfordshire. It is available to view only. This item is subject to copyright. GODS in SPANDEX: A STUDY of SUPERHERO MYTHOLOGY Ryan Woods A thesis submitted to the University of Bedfordshire, in fulfilment of the requirements for the degree of Master of Arts by Research University of Bedfordshire Research Institute for Media, Arts and Performance Submitted: February 2020 Table of Contents Author Declaration .......................................................................................................................................ii Abstract .........................................................................................................................................................iii Acknowledgements ..................................................................................................................................... iv Introduction ...................................................................................................................................................v Methodology ................................................................................................................................................. xi Literature Review ....................................................................................................................................... xix Chapter One ................................................................................................................................................