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Annotated List of Works Cited Primary Sources Newspapers “Apollo 11 se Vraci na Zemi.” Rude Pravo [Czechoslovakia] 22 July 1969. 1. Print. This was helpful for us because it showed how the U.S. wasn’t the only ones effected by this event. This added more to our project so we had views from outside the US. Barbuor, John. “Alunizaron, Bajaron, Caminaron, Trabajaron: Proeza Lograda.” Excelsior [Mexico] 21 July 1969. 1. Print. The front page of this newspaper was extremely helpful to our project because we used it to see how this event impacted the whole world not just America. Beloff, Nora. “The Space Race: Experts Not Keen on Getting a Man on the Moon.” Age [Melbourne] 24 April 1962. 2. Print. This was an incredibly important article to use in out presentation so that we could see different opinions. This article talked about how some people did not want to go to the moon; we didn’t find many articles like this one. In most everything we have read it talks about the advantages of going to the moon. This is why this article was so unique and important. Canadian Press. “Half-billion Watch the Moon Spectacular.” Gazette [Montreal] 21 July 1969. 4. Print. This source gave us a clear idea about how big this event really was, not only was it a big deal in America, but everywhere else in the world. This article told how Russia and China didn’t have TV’s so they had to find other ways to hear about this event like listening to the radio. -
EPSC-DPS2011-1845, 2011 EPSC-DPS Joint Meeting 2011 C Author(S) 2011
EPSC Abstracts Vol. 6, EPSC-DPS2011-1845, 2011 EPSC-DPS Joint Meeting 2011 c Author(s) 2011 Analysis of mineralogy of an effusive volcanic lunar dome in Marius Hills, Oceanus Procellarum. A.S. Arya, Guneshwar Thangjam, R.P. Rajasekhar, Ajai Space Applications Centre, Indian Space Research Organization, Ahmedabad-380 015 (India). Email:[email protected] Abstract found on the lunar surface. As a part of initiation of the study of mineralogy of MHC, an effusive dome Domes are analogous to the terrestrial shield located in the south of Rima Galilaei, near the volcanoes and are among the important volcanic contact of Imbrian and Eratosthenian geological units features found on the lunar surface indicative of is taken up for the present study. The morphology, effusive vents of primary volcanism within Mare rheology and the possible dike parameters have regions. Marius Hills Complex (MHC) is one of the already been studied and reported [5]. most important regions on the entire lunar surface, having a complex geological setting and largest distribution of volcanic constructs with an abundant number of volcanic features like domes, cones and rilles. The mineralogical study of an effusive dome located in the south of Rima Galilaei, near the contact of Imbrian and Eratosthenian geological units is done using hyperspectral band parameters and spectral plots so as to understand the compositional variation, the nature of the volcanism and relate it to the rheology of the dome. Fig. 1: Distribution of dome in MHC (Red-the dome under study, Green- from Virtual Moon Atlas, Magenta [6]) and the Study area showing the dome under study on M3 1. -
A Guideline for a Sustainable Lunar Base Design for Constructed in Lunar Lava Tubes and Their Vertical Skylights
50th International Conference on Environmental Systems ICES-2021-186 12-15 July 2021 A Guideline for a Sustainable Lunar Base Design for Constructed in Lunar Lava Tubes and Their Vertical Skylights Masato Sakurai1, Asuka Shima2, Isao Kawano3, Junichi Haruyama4 Japan Aerospace Exploration Agency (JAXA), Chofu-shi, Tokyo, 182-8522, Japan. and Hiroyuki Miyajima5 International University of Health and Welfare, Narita Campus 1, 4-3, Kōzunomori, Narita, Chiba, 286-8686 Japan The lunar surface is a hostile environment subject to harmful radiation and meteorite impacts. A recently discovered lava tube avoids these risks and, as it undergoes only slight temperature changes, it is a promising location for constructing a lunar base. JAXA engages in research in regenerative ECLSS (Environmental Control Life Support Systems), particularly addressing water and air recycling and treating organic waste. Overcoming these challenges is essential for long-term lunar habitation. This paper presents a guideline for a sustainable lunar base design. Nomenclature ECLSS = Environmental Control Life Support System HTV = H-II Transfer Vehicle ISS = International Space Station JAXA = Japan Aerospace Exploration Agency JSASS = Japan Society for Aeronautical and Space Science MHH = Marius Hills Hole MIH = Mare Ingenii Hole MTH = Mare Tranquillitatis Hole SELENE = Selenological and Engineering Explorer UZUME = Unprecedented Zipangu Underworld of the Moon Exploration (name of the research group for vertical holes) SDGs = Sustainable Development Goals SELENE = Selenological and Engineering Explorer I. Introduction uture space exploration will extend beyond low Earth orbit and dramatically expand in scope. In particular, F industrial activities are planned for the Moon with the development of infrastructure that includes lunar bases. This paper summarizes our study of the construction of a crewed permanent settlement, which will be essential to support long-term habitation, resource utilization, and industrial activities on the Moon. -
Earthrise- Contents and Chapter 1
EARTHRISE: HOW MAN FIRST SAW THE EARTH Contents 1. Earthrise, seen for the first time by human eyes 2. Apollo 8: from the Moon to the Earth 3. A Short History of the Whole Earth 4. From Landscape to Planet 5. Blue Marble 6. An Astronaut’s View of Earth 7. From Cold War to Open Skies 8. From Spaceship Earth to Mother Earth 9. Gaia 10. The Discovery of the Earth 1. Earthrise, seen for the first time by human eyes On Christmas Eve 1968 three American astronauts were in orbit around the Moon: Frank Borman, James Lovell, and Bill Anders. The crew of Apollo 8 had been declared by the United Nations to be the ‘envoys of mankind in outer space’; they were also its eyes.1 They were already the first people to leave Earth orbit, the first to set eyes on the whole Earth, and the first to see the dark side of the Moon, but the most powerful experience still awaited them. For three orbits they gazed down on the lunar surface through their capsule’s tiny windows as they carried out the checks and observations prescribed for almost every minute of this tightly-planned mission. On the fourth orbit, as they began to emerge from the far side of the Moon, something happened. They were still out of radio contact with the Earth, but the on- board voice recorder captured their excitement. Borman: Oh my God! Look at that picture over there! Here’s the Earth coming up. Wow, that is pretty! Anders: Hey, don’t take that, it’s not scheduled. -
A Journey: the International Space Station an Annotated Storyboard: an Example of How to Create a Digital Story
A Journey: The International Space Station An Annotated Storyboard: An Example of How to Create a Digital Story This was my first attempt to create a digital story, and in fact the first time I had ever done video editing on the computer. As a result, it is not perfect. The original intent had been to create a digital story of no more than about 7 minutes length, that told of some aspect of my life, Work or interests. It was to include a variety of images and videos from several sources, have a soundtrack, and my own narration. One of the first things you are told when you go to build a digital story, is to create a storyboard to lay out your ideas, scenes, script and thoughts, aims and goals for each segment of the story. This was not how I created this story. I think visually. My first steps were to review my extensive image and video collection to identify source material and a list of topics from which I would begin my work, and from that, to select a series of videos and still images which I would try to incorporate in my story, and lay them out in a meaningful order. My original idea was to talk about different spacecraft and how they operate. But during the initial review of a preliminary draft of that story, my mentor asked, “why is this meaningful for you” and, when I showed videos of the interior of the space station, he asked “well I see a bunch of stuff, but what is it?” This set me off in a somewhat different direction from where I had started. -
NASA's BEST Activities
NASA’s BEST Activities Beginning Engineering Science and Technology An Educators Guide to Engineering Clubs Grades 3–5 Table of Contents General Supplies List for Activities 1–12 .................................................................... 3 Lesson Plan Cover Page ............................................................................................ 12 Activity #1: Build a Satellite to Orbit the Moon!........................................................ 15 Activity #2: Launch Your Satellite! ............................................................................ 26 Teacher Notes for Activities 3–5:......................................................................... 37 Activity #3: Design a Lunar Rover!............................................................................ 38 Activity #4: Design a Landing Pod! ........................................................................... 46 Activity #5: Landing the Rover! ................................................................................. 55 Teacher Notes for Activities 6–7:......................................................................... 61 Activity #6: Mission: Preparation! ............................................................................. 62 Activity #7: Ready, Set, Explore! ............................................................................... 74 Teacher Notes for Activities 8 and 9: .................................................................. 77 Activity #8: Crew Exploration Vehicle ...................................................................... -
EH9.3 JULYL04 Gallery.Pmd
gallery NEIL MAHER ON SHOOTING THE MOON ON 22 APRIL 1970, the first Earth Day, citizens paraded, rallied, and protested for the environment with drawings, paintings, and illustrations—but not with photographs—of the entire Earth. No such photograph existed. In 1970, the reigning iconic image of the Earth from space was the first picture shown here, Earthrise, taken by Apollo 8 in late December of 1968. On 7 December 1972, an Apollo 17 astronaut snapped the second photograph below, which quickly replaced Earthrise as the image of Earth from space for an American public ready to “Think Globally, Act Locally.” This essay explores the connections between technology, nature, and narrative in the production and reception of these two popular NASA photographs. While both these pictures are familiar to Americans today, the stories they tell are less well known, surprisingly divergent, and indicate that whether we are hiking close to home with map and compass or rocketing toward the Moon, technology mediates our contact with the environment and in doing so shapes the stories we tell about nature. As important, these extraterrestrial tales also suggest how the relationship between nature and technology in American culture shifted during four of the most turbulent years of the postwar period.1 The technology used to create and publicize these two photographs was nearly identical. Both the Apollo 8 and Apollo 17 missions depended on three-stage Saturn 5 rockets, developed by NASA’s Wernher Von Braun, to transport astronauts far enough from Earth—approximately 240,000 nautical miles—to peer back at the entire planet. -
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. -
Analysis of Lava Tubes and Skylights in the Lunar Exploration Context
EPSC Abstracts Vol. 7 EPSC2012-632-1 2012 European Planetary Science Congress 2012 EEuropeaPn PlanetarSy Science CCongress c Author(s) 2012 Analysis of Lava Tubes and Skylights in the Lunar Exploration Context E. Martellato, B. Foing, J. Benkhoff ESA/ESTEC, Keplerlaan 1, 2201 Noordwijk ZH, The Netherlands (corresponding author: [email protected], [email protected]) collapsed sections of roofs ([6]). Skylights could Abstract originate as enlargement of pre-existing fractures, for instance following a moonquake ([8]), or as The past and current scientific activities related to the incompleting crusting over the melted lava flow (e.g., future robotic and human exploration of the Moon [4]), or as collapse of the lava tubes ceiling caused by have stressed the importance of lava tubes as random meteoroids impacts (e.g., [6]). convenient settlements in an inhospitable planet, providing a natural shielding to a variety of natural 2. Observations hazards with minimizing costs of the construction of manned bases. The detection of lava tubes could be In our analysis, we consider two skylights candidates favoured by the presence of skylights, which also detected by the Terrain Camera onboard the Japanese represent a way to access to these underground orbiter SELenological and Engineering Explorer structures. In this context, we analyze one of the (SELENE) ([9], [10]), and then observed at higher proposed mechanism of skylights formation, that is resolution by Lunar Reconnaissance Orbiter Camera random impacts craters, by comparing crater- (LROC) onboard the NASA spacecraft Lunar geometry argumentations ([11]) with numerical Reconnaissance Orbiter (LRO) ([2]). modelling outcomes. A first pit is located on the Marius Hills region 1. -
GRAIL-Identified Gravity Anomalies In
Solar System Exploration Division, GSFC Code 690 GRAIL-identified gravity anomalies in Oceanus Procellarum: Insight into subsurface impact and volcanic/magmatic structures on the Moon Ariel N. Deutsch1, Gregory A. Neumann2, James W. Head1 1Department of Earth, Environmental and Planetary Sciences, Brown University, 2NASA Goddard Space Flight Center Introduction: Lunar gravity anomalies. Positive Bouguer gravity anomalies. • Four distinctive positive Bouguer gravity anomalies are • Previous work has suggested that these four positive gravity anomalies may be due to: -Subsurface volcanic sills [2]. • New, higher-resolution GRAIL data [3] allow for the re- analysis of these anomalies. • Understanding the subsurface density structures that contribute to these anomalies is important in order to discuss regional impact and volcanic histories, and the evolution of the lunar crust in Oceanus Procellarum. Objectives. 1. Constrain subsurface structures that contribute to the . four positive Bouguer gravity anomalies. 2. Discuss the hidden impact and volcanic histories of . the Moon. Methods. Results: Filled and buried impact craters. RESULTS: MANTLE UPWELLING • Six geologic end-member scenarios are explored to 20 200 1. Filled and Buried Impact 2. Southern Aristarchus Plateau analyze the four observed gravitational anomalies. 15 Model 3 10 GRAIL 100 • Impact crater parameters [e.g., 4] are estimated to C Gravity 5 B from uplift Gravity from A 0 0 km -3 km km ρ = 3150 kg m -5 mGal mGal • Analyses of the generation, ascent, and eruption of -3 mGal ρ = 2800 kg m crater -10 Surface topography -100 -3 of subsurface magmatic structures and also the . -15 ∆ρ = 600 kg m Highland crust -20 -200 Mantle interpretation of surface volcanic features. -
SMART-1 Highlights & Apollo Celebration
EPSC Abstracts Vol. 13, EPSC-DPS2019-824-1, 2019 EPSC-DPS Joint Meeting 2019 c Author(s) 2019. CC Attribution 4.0 license. SMART-1 Highlights & Apollo Celebration B.H. Foing, G.Racca, A. Marini, O. Camino, D. Koschny, D. Frew, J. Volp, J.-L. Josset, S. Beauvivre, Y. Shkuratov, K. Muinonen, U. Mall, A. Nathues, M. Grande, B. Kellett, P. Pinet, S. Chevrel, P. Cerroni, M.A. Barucci, S. Erard, D. Despan, V. Shevchenko, P. McMannamon, A.Borst, M. Ellouzi, B. Grieger, M. Almeida, S.Besse, P. Ehrenfreund, C.Veillet, M. Burchell, P. Stooke , SMART1 project, STWT teams, (1) ESA ESTEC, postbus 299, NL-2200 AG Noordwijk, ([email protected]) (2) ILEWG ([email protected]) Abstract SMART-1 results have been relevant for lunar science 11-first mission preparing the ground for ESA and exploration, in relation with previous missions collaboration in Chandrayaan-1, Chang’ E1-2, landers (Apollo, Luna) and subsequent missions (Kaguya, and future international lunar exploration. Chang'E1-2, Chandrayaan-1, LRO, LCROSS, GRAIL, 12-first Earth and Moon family portraits of during cruise LADEE, Chang’E3-4 and future landers). We present and lunar eclipse (Figs 1-2) and Earthrise SMART-1 highlights that celebrate APOLLO legacy after 50 years. Overview of SMART-1 mission and payload: SMART-1 was the first in the programme of ESA’s Small Missions for Advanced Research and Technology [1,2,3]. Its first objective has been achieved to demonstrate Solar Electric Primary Propulsion (SEP) for future Cornerstones (such as Bepi-Colombo) and to test new technologies for spacecraft and instruments. -
GRAIL-Identified Gravity Anomalies in Oceanus Procellarum: Insight Into 2 Subsurface Impact and Magmatic Structures on the Moon 3 4 Ariel N
1 GRAIL-identified gravity anomalies in Oceanus Procellarum: Insight into 2 subsurface impact and magmatic structures on the Moon 3 4 Ariel N. Deutscha, Gregory A. Neumannb, James W. Heada, Lionel Wilsona,c 5 6 aDepartment of Earth, Environmental and Planetary Sciences, Brown University, Providence, RI 7 02912, USA 8 bNASA Goddard Space Flight Center, Greenbelt, MD 20771, USA 9 cLancaster Environment Centre, Lancaster University, Lancaster LA1 4YQ, UK 10 11 Corresponding author: Ariel N. Deutsch 12 Corresponding email: [email protected] 13 14 Date of re-submission: 5 April 2019 15 16 Re-submitted to: Icarus 17 Manuscript number: ICARUS_2018_549 18 19 Highlights: 20 • Four positive Bouguer gravity anomalies are analyzed on the Moon’s nearside. 21 • The amplitudes of the anomalies require a deep density contrast. 22 • One 190-km anomaly with crater-related topography is suggestive of mantle uplift. 23 • Marius Hills anomalies are consistent with intruded dike swarms. 24 • An anomaly south of Aristarchus has a crater rim and possibly magmatic intrusions. 25 26 Key words: 27 Moon; gravity; impact cratering; volcanism 1 28 Abstract 29 30 Four, quasi-circular, positive Bouguer gravity anomalies (PBGAs) that are similar in diameter 31 (~90–190 km) and gravitational amplitude (>140 mGal contrast) are identified within the central 32 Oceanus Procellarum region of the Moon. These spatially associated PBGAs are located south of 33 Aristarchus Plateau, north of Flamsteed crater, and two are within the Marius Hills volcanic 34 complex (north and south). Each is characterized by distinct surface geologic features suggestive 35 of ancient impact craters and/or volcanic/plutonic activity.