ROCKETS and MISSILES Recent Titles in Greenwood Technographies
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Master Table of All Deep Space, Lunar, and Planetary Probes, 1958–2000 Official Name Spacecraft / 1958 “Pioneer” Mass[Luna] No
Deep Space Chronicle: Master Table of All Deep Space, Lunar, and Planetary Probes, 1958–2000 Official Spacecraft / Mass Launch Date / Launch Place / Launch Vehicle / Nation / Design & Objective Outcome* Name No. Time Pad No. Organization Operation 1958 “Pioneer” Able 1 38 kg 08-17-58 / 12:18 ETR / 17A Thor-Able I / 127 U.S. AFBMD lunar orbit U [Luna] Ye-1 / 1 c. 360 kg 09-23-58 / 09:03:23 NIIP-5 / 1 Luna / B1-3 USSR OKB-1 lunar impact U Pioneer Able 2 38.3 kg 10-11-58 / 08:42:13 ETR / 17A Thor-Able I / 130 U.S. NASA / AFBMD lunar orbit U [Luna] Ye-1 / 2 c. 360 kg 10-11-58 / 23:41:58 NIIP-5 / 1 Luna / B1-4 USSR OKB-1 lunar impact U Pioneer 2 Able 3 39.6 kg 11-08-58 / 07:30 ETR / 17A Thor-Able I / 129 U.S. NASA / AFBMD lunar orbit U [Luna] Ye-1 / 3 c. 360 kg 12-04-58 / 18:18:44 NIIP-5 / 1 Luna / B1-5 USSR OKB-1 lunar impact U Pioneer 3 - 5.87 kg 12-06-58 / 05:44:52 ETR / 5 Juno II / AM-11 U.S. NASA / ABMA lunar flyby U 1959 Luna 1 Ye-1 / 4 361.3 kg 01-02-59 / 16:41:21 NIIP-5 / 1 Luna / B1-6 USSR OKB-1 lunar impact P Master Table of All Deep Space, Lunar, andPlanetary Probes1958–2000 ofAllDeepSpace,Lunar, Master Table Pioneer 4 - 6.1 kg 03-03-59 / 05:10:45 ETR / 5 Juno II / AM-14 U.S. -
Collezione Per Genova
1958-1978: 20 anni di sperimentazioni spaziali in Occidente La collezione copre il ventennio 1958-1978 che è stato particolarmente importante nella storia della esplorazio- ne spaziale, in quanto ha posto le basi delle conoscenze tecnico-scientifiche necessarie per andare nello spa- zio in sicurezza e per imparare ad utilizzare le grandi potenzialità offerte dallo spazio per varie esigenze civili e militari. Nel clima di guerra fredda, lo spazio è stato fin dai primi tempi, utilizzato dagli Americani per tenere sotto con- trollo l’avversario e le sue dotazioni militari, in risposta ad analoghe misure adottate dai Sovietici. Per preparare le missioni umane nello spazio, era indispensabile raccogliere dati e conoscenze sull’alta atmo- sfera e sulle radiazioni che si incontrano nello spazio che circonda la Terra. Dopo la sfida lanciata da Kennedy, gli Americani dovettero anche prepararsi allo sbarco dell’uomo sulla Luna ed intensificarono gli sforzi per conoscere l’ambiente lunare. Fin dai primi anni, le sonde automatiche fecero compiere progressi giganteschi alla conoscenza del sistema solare. Ben presto si imparò ad utilizzare i satelliti per la comunicazione intercontinentale e il supporto alla navigazio- ne, per le previsioni meteorologiche, per l’osservazione della Terra. La Collezione testimonia anche i primi tentativi delle nuove “potenze spaziali” che si avvicinano al nuovo mon- do dei satelliti, che inizialmente erano monopolio delle due Superpotenze URSS e USA. L’Italia, con San Mar- co, diventò il terzo Paese al mondo a lanciare un proprio satellite e allestì a Malindi la prima base equatoriale, che fu largamente utilizzata dalla NASA. Alla fine degli anni ’60 anche l’Europa entrò attivamente nell’arena spaziale, lanciando i propri satelliti scientifici e di telecomunicazione dalla propria base equatoriale di Kourou. -
Brazil's Accession to the Mtcr
Wyn Q. Bowen Report: BRAZIL’S ACCESSION TO THE MTCR by Wyn Q. Bowen Wyn Q. Bowen is a Senior Research Associate of the Center for Nonproliferation Studies at the Monterey Institute of International Studies. He is also a Ph.D. candidate in International Relations at the University of Birmingham and is completing a dissertation on U.S. missile nonproliferation policy during the Bush administration. n October 1995, Brazil’s membership in the Mis- the design and construction of a center from which to sile Technology Control Regime (MTCR) was ap- launch the VLS at Alcantara (CLA), in the northern proved unanimously at the regime’s 10th plenary state of Maranhao.1 The VLS was to be developed us- I 2 meeting in Bonn, Germany. Acceptance in the MTCR ing technology derived from the Sonda rocket series. was the outcome of a series of policy changes initi- The central role of the military in the MECB during ated by Brazil in early 1994 to address international the 1980s, however, cast doubt over the true nature of missile proliferation concerns. This report consid- the space program. The Brazilian Commission for Space ers the past Brazilian rocket and missile activities that Activities (COBAE), responsible for overseeing and generated these concerns and the policy changes running the MECB, was chaired by the armed forces which Brazil undertook to gain acceptance in the chief of staff.3 The prominent role of the Air Force’s MTCR. The implications of Brazil’s membership in Aerospace Technical Center (CTA) in developing the the regime are also considered, along with some of VLS also suggested the military might have other rea- the missile proliferation concerns which continue to sons for developing space launch vehicles. -
University of Montana Report of the President 1927-1928 University of Montana (Missoula, Mont.)
University of Montana ScholarWorks at University of Montana University of Montana Report of the President, University of Montana Publications 1895-1968 1-1-1928 University of Montana Report of the President 1927-1928 University of Montana (Missoula, Mont.). Office of ther P esident Let us know how access to this document benefits ouy . Follow this and additional works at: https://scholarworks.umt.edu/presidentsreports_asc Recommended Citation University of Montana (Missoula, Mont.). Office of the President, "University of Montana Report of the President 1927-1928" (1928). University of Montana Report of the President, 1895-1968. 33. https://scholarworks.umt.edu/presidentsreports_asc/33 This Report is brought to you for free and open access by the University of Montana Publications at ScholarWorks at University of Montana. It has been accepted for inclusion in University of Montana Report of the President, 1895-1968 by an authorized administrator of ScholarWorks at University of Montana. For more information, please contact [email protected]. t O f f III STATE UNIVERSITY of MONTANA * * * PRESIDENT’ S ANNUAL REPORT 1927 - 1928 ********* ******* ***** * * * * TABLE OF CONTENTS FOR PRESIDENT’ S RE -ORT 1927-1928 A. President’ s Report ------------------------------------------------------------------------------ Page 1 B . Reports of Administrative Officers I. Dean of the Faculty ----------------------------------------------------------------------- " 9 I I. (a) Dean of Men (Not Reported) (b) Dean of Yvomen — " 10 III.(a) Registrar -
Iran, Terrorism, and Weapons of Mass Destruction
Iran, Terrorism, and Weapons of Mass Destruction Prepared Remarks for the hearing entitled “WMD Terrorism and Proliferant States” before the Subcommittee on the Prevention of Nuclear and Biological Attacks of the Homeland Security Committee September 8, 2005 Dr. Daniel Byman Director, Center for Peace and Security Studies, Georgetown University Senior Fellow, Saban Center for Middle East Policy at the Brookings Institution E-mail: [email protected] Iran, Terrorism, and Weapons of Mass Destruction Chairman Linder, Members of the Committee, and Committee staff, I am grateful for this opportunity to speak before you today. I am speaking today as a Professor in the Georgetown University Security Studies Program and as a non-resident Senior Fellow at the Brookings’ Saban Center for Middle East Policy. My remarks are solely my own opinion: they do not reflect my past work for the intelligence community, the 9/11 Commission, the U.S. Congress, or other branches of the U.S. government. Since the Islamic Revolution in 1979, Iran has been one of the world’s most active sponsors of terrorism. Tehran has armed, trained, financed, inspired, organized, and otherwise supported dozens of violent groups over the years. Iran has backed not only groups in its Persian Gulf neighborhood, but also terrorists and radicals in Lebanon, the Palestinian territories, Bosnia, the Philippines, and elsewhere.1 This support remains strong even today. It comes as no surprise then, twenty five years after the revolution, the U.S. State Department still considers Iran “the most active state sponsor of terrorism.”2 Yet despite Iran’s very real support for terrorism today, I contend that it is not likely to transfer chemical, biological, nuclear, or radiological weapons to terrorists for three major reasons. -
Aerospace Facts and Figures 1983/84
Aerospace Facts and Figures 1983/84 AEROSPACE INDUSTRIES ASSOCIATION OF AMERICA, INC. 1725 DeSales Street, N.W., Washington, D.C. 20036 Published by Aviation Week & Space Technology A MCGRAW-HILL PUBLICATION 1221 Avenue of the Americas New York, N.Y. 10020 (212) 997-3289 $9.95 Per Copy Copyright, July 1983 by Aerospace Industries Association o' \merica, Inc. · Library of Congress Catalog No. 46-25007 2 Compiled by Economic Data Service Aerospace Research Center Aerospace Industries Association of America, Inc. 1725 DeSales Street, N.W., Washington, D.C. 20036 (202) 429-4600 Director Research Center Virginia C. Lopez Manager Economic Data Service Janet Martinusen Editorial Consultant James J. Haggerty 3 ,- Acknowledgments Air Transport Association of America Battelle Memorial Institute Civil Aeronautics Board Council of Economic Advisers Export-Import Bank of the United States Exxon International Company Federal Trade Commission General Aviation Manufacturers Association International Civil Aviation Organization McGraw-Hill Publications Company National Aer~mautics and Space Administration National Science Foundation Office of Management and Budget U.S. Departments of Commerce (Bureau of the Census, Bureau of Economic Analysis, Bureau of Industrial Economics) Defense (Comptroller; Directorate for Information, Operations and Reports; Army, Navy, Air Force) Labor (Bureau of Labor Statistics) Transportation (Federal Aviation Administration The cover and chapter art throughout this edition of Aerospace Facts and Figures feature computer-inspired graphics-hot an original theme in the contemporary business environment, but one particularly relevant to the aerospace industry, which spawned the large-scale development and application of computers, and conti.nues to incorpora~e computer advances in all aspects of its design and manufacture of aircraft, mis siles, and space products. -
Krinkelt–Rocherath in Belgium on December 17–18, 1944 During the German Ardennes Offensive
CONTENTS Introduction Chronology Design and Development Technical Specifications The Combatants The Strategic Situation Combat Statistics and Analysis Aftermath Further Reading INTRODUCTION The rocket-propelled grenade launcher (RPG) has become a ubiquitous weapon on the modern battlefield; and all of these weapons trace their lineage back to the American 2.36in rocket launcher, better known as the bazooka. The bazooka was the serendipitous conjunction of two new technologies: the shaped-charge antitank warhead and the shoulder-fired rocket launcher. This book looks at the development of this iconic weapon, and traces its combat use on the World War II battlefield. One of the widespread myths to have emerged about German tank design during World War II was the notion that German sideskirt armor was developed in response to the bazooka, and its British equivalent, the PIAT (Projector Infantry Antitank). American and British troops began encountering the new versions of German armored vehicles with extra armor shields in 1944, and so presumed that this new feature was in response to the Allied shaped-charge weapons. The shields received a variety of names including “bazooka shields,” “bazooka pants,” and “PIAT shields.” In reality, their development was not a response to Allied shaped-charge weapons, for most German innovations in tank technology during the war years were prompted by developments on the Eastern Front. This book examines the real story behind the bazooka shields. It also traces the many specialized devices developed by the Wehrmacht in World War II to deal with the threat of infantry close-attack weapons. A remarkable variety of curious devices was developed including a wood paste to defend against antitank charges, and a machine gun with a special curved barrel to allow armored vehicle crews to defend themselves from within the protective armor of their vehicle. -
Erdogan Warns Syria to Back Off from Turkish Outposts
Gulf / Middle East / Africa Thursday, February 6, 2020 07 Avalanches kill nearly 40 in eastern Turkey AFP overall toll to 38. Eight people be under the snow. Interior Minister Suley- Local media reported that ANKARA had been rescued alive from The rescuers had been man Soylu said rescuers had residents in nearby areas also the first avalanche. searching for two people from paused overnight and re- joined the rescue efforts in an AT least 33 people were killed Television images showed Tuesday’s incident, AFAD’s sumed their efforts Wednes- area difficult to reach in harsh in eastern Turkey on Wednes- dozens of people scrambling up Van province chairman Os- day morning to find the last winter conditions. day by a second avalanche the mountains, digging through man Ucar told reporters from two people. Television images showed which buried a team of rescu- snow in blizzards to find those his hospital bed. Authorities were alerted to dozens of people scrambling up ers searching for people hit by trapped under the snow. He was among those in- the first avalanche when snow- the mountains, digging through the first the day before. The number of those in- jured including former rul- clearing vehicle operator Ba- snow in blizzards to find those The bodies of 33 rescue jured was 53 in total after the ing party MP for Van, Gulsen hattin Karagulle escaped from caught under the snow. workers and civilians were second avalanche hit after Orhan, who now advises Presi- his snow-covered machine A special military plane discovered in Van province, 0900 GMT between Bahc- dent Recep Tayyip Erdogan. -
Operation Dauntless
Operation Dauntless Unit Preview: Self-Propelled Artillery Both the British and German players have a small number of self-propelled artillery units available in Operation Dauntless. This unit preview will briefly examine these sparse but handy units. British Self-Propelled Artillery The British 147th (Essex Yeomanry) Field Regiment consists of three batteries of four each "Sexton" self-propelled 25-pounder guns (shown below). As part of the 8th Armoured Brigade in Operation Dauntless, these are the only artillery units which are always available to the British player. These SP guns had a maximum gun elevation of 35 degrees, yielding a maximum range of 11,000 yards (about 25-26 Operation Dauntless map hexes). Unlike traditional artillery, these units can both move and fire in a single turn, with a respectable 12 Movement Allowance (up to 24 road hexes per turn). "The 147th fought as a self-propelled artillery unit using 25-pounder field guns mounted on Sherman tank chassis." (from the Essex Yeomanry Association website at http://www.essex-yeomanry.org.uk/in-the-news/69-military-units-of-essex-4.html ). "147 (Essex Yeomanry) Regiment was converted to 25 pounder guns and landed on D Day to fight through Germany." (from the History section of the British Army website at http://www.army.mod.uk/signals/organisation/8830.aspx ). Note that there are 3 variants of the Sexton, but only the Sexton II was based on a Grizzly (M4A1 Sherman) hull, so these vehicles were the Sexton II's. First built in 1943, Sextons were available in the field from June '44 onward. -
The Unique Evolutionary Dynamics of the SARS-Cov-2 Delta Variant
medRxiv preprint doi: https://doi.org/10.1101/2021.08.05.21261642; this version posted August 7, 2021. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted medRxiv a license to display the preprint in perpetuity. It is made available under a CC-BY-NC-ND 4.0 International license . The unique evolutionary dynamics of the SARS-CoV-2 Delta variant Adi Stern*†1,2, Shay Fleishon*3, Talia Kustin1,2, Michal Mandelboim3,4, Oran Erster3, Israel Consortium of SARS-CoV-2 sequencingY, Ella Mendelson3,4, Orna Mor3,4, Neta S. Zuckerman†3 1 The Shmunis School of Biomedicine and Cancer Research, George S. Wise Faculty of Life Sciences, Tel Aviv University, Tel Aviv, Israel. 2 Edmond J. Safra Center for Bioinformatics, Tel Aviv University, Tel Aviv, Israel 3 Central Virology Laboratory, Public Health Services, Ministry of Health and Sheba Medical Center, Tel-Hashomer, Israel. 4 School of Public Health, Sackler Faculty of Medicine, Tel-Aviv University, Tel- Aviv, Israel. * Co-equal authorship † Corresponding authors Y Israel Consortium of SARS-CoV-2 sequencing: Neta S. Zuckerman, Orna Mor, Efrat Dahan Bucris, Michal Mandelboim, Danit Sofer, Dana Bar-Ilan, Miranda Geva, Omer Asraf, Oran Erster, Gideon Rechavi, Efrat Glick-Saar, Nir Rainy, Chen Weiner, Reut Sorek-Abramovich, Yevgeni Yegorov, Anna Vishnevsky, Patricia Benveniste-Lekovitz, Abu Hamad Ramzia, Adina Bar Chaim, Ella Mendelson. NOTE: This preprint reports new research that has not been certified by peer review and should not be used to guide clinical practice. 1 medRxiv preprint doi: https://doi.org/10.1101/2021.08.05.21261642; this version posted August 7, 2021. -
Radar Detection of Artillery Rockets Page 1 (38) [email protected]
Robert Humeur Radar detection of artillery rockets Page 1 (38) [email protected] Författare Förband Kurs Robert Humeur Luftvärnsregementet 1CP018 Handledare Övlt Michael Reberg, övlt Mattias Elfström Radarupptäckt av artilleriraketer Sammanfattning: Denna rapport behandlar en radarsensors förmåga att upptäcka 107 mm raketer beroende på hur sensorn positioneras i förhållande till skyddsobjektet. Fältförsök, underrättelser och stridserfarenheter har visat att dessa raketer är vanligt förekommande samt svåra att detektera med radarsensorer. En modell för hur räckviddsökning beror på olika sensorpositioner har skapats genom att använda dokument från USA och forna Sovjetunionen beskrivande ballistik tillsammans med teorier för hur räckvidd påverkas av radarmålarea (RCS) samt en beskrivning av RCS tillhandahållen av FOI. Resultat från körningar i MATLAB visar att sensorpositioner inom 300 meter från skyddsobjektet är fördelaktiga vid en skottvidd av 3000 meter. Som tumregel för att uppnå maximal sensorprestanda bör strävan vara att placera sensorn på ett avstånd från skyddsobjektet understigande 10% av förväntad skottvidd. Nyckelord: C-RAM, raket, artilleri, radar, radarmålarea, upptäckt. Robert Humeur Radar detection of artillery rockets Page 2 (38) [email protected] Author Unit Course Robert Humeur The Swedish GBAD 1CP018 Regiment Supervisor LtCol Michael Reberg, LtCol Mattias Elfström Radar detection of artillery rockets Abstract: This report examines how a radar sensor’s ability to detect 107 mm rockets depends on sensor positioning in relation to the protected asset. Field trials, intelligence and combat experience have shown that these rockets are commonly used and among the most difficult to detect with radar sensors. By using U.S. and U.S.S.R. documentation on rocket ballistics together with existing theories of detection range dependence on radar cross section (RCS) and a RCS description provided by FOI, a model for range gain for various sensor positions is constructed. -
KV-IV in Bolt Action
KV-IV in Bolt action Points: Inexperienced (650 points) includes 15 crewmen and 1 commissar Damage Value: 10+ (Heavy Tank) Options • Spotter +10 points • Four man rocket reload crew + 28 points Weapons Hard point Weapons Range Shots Pen Special Rules Bow Bow MMG 36” 5 - Team, Fixed, forward arc Forward turret Medium Anti Tank Gun 60” 1 +5 Team, Fixed, forward, right, left arcs, HE(1”) coax MMG 36” 5 - Team, Fixed, forward, right, left arcs rear MMG 36” 5 - Team, Fixed, right, left arcs Forward sub turret Vehicle flame throwers 12” D6+1 +3 Team, Fixed, Forward, right, left arcs, Flamethrower Pintel HMG 36” 3 1 Team, Fixed, Flak Deck MG turret Twin MMG 36” 10 - Team, Fixed, Right arc Deck MG turret Twin MMG 36” 10 - Team, Fixed, Left arc Midships turret Twin heavy Howitzer (36”-84”) 2 HE Team, Fixed, forward, Left, right arcs, 72” Howitzer HE(4”) Rear MMG 36” 5 - Team, Fixed, Left Right arcs Pintel HMG 36” 3 1 Team, Fixed, Flak Midships sub Light Anti Tank gun 48” 1 +4 Team, Fixed, forward, right, left arcs, turret: HE(1”) Coax MMG 36” 5 - Team, Fixed, Left Right arcs Rear MMG 36” 5 - Team, Fixed, Left Right arcs Deck MG turret Twin MMG 36” 10 - Team, Fixed, Right arc Deck MG turret Twin MMG 36” 10 - Team, Fixed, Left arc Rear turret Medium Anti Tank Gun 60” 1 +5 Team, Fixed, rear, right, left arcs, HE(1”) coax MMG 36” 5 - Team, Fixed, rear, right, left arcs rear MMG 36” 5 - Team, Fixed, left, right arcs Katyusha Multiple launcher (12”-72”) 1 HE Team, Fixed, rear, right, left arcs, HE(3”) Special Rules Slow: maximum move of 6 inches Poor turning circle: instead of pivoting 90 degrees the front of the tank can be moved up to 3 inches to the left or right when the tank pivots.