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Aviation Classics Magazine
Avro Vulcan B2 XH558 taxies towards the camera in impressive style with a haze of hot exhaust fumes trailing behind it. Luigino Caliaro Contents 6 Delta delight! 8 Vulcan – the Roman god of fire and destruction! 10 Delta Design 12 Delta Aerodynamics 20 Virtues of the Avro Vulcan 62 Virtues of the Avro Vulcan No.6 Nos.1 and 2 64 RAF Scampton – The Vulcan Years 22 The ‘Baby Vulcans’ 70 Delta over the Ocean 26 The True Delta Ladies 72 Rolling! 32 Fifty years of ’558 74 Inside the Vulcan 40 Virtues of the Avro Vulcan No.3 78 XM594 delivery diary 42 Vulcan display 86 National Cold War Exhibition 49 Virtues of the Avro Vulcan No.4 88 Virtues of the Avro Vulcan No.7 52 Virtues of the Avro Vulcan No.5 90 The Council Skip! 53 Skybolt 94 Vulcan Furnace 54 From wood and fabric to the V-bomber 98 Virtues of the Avro Vulcan No.8 4 aviationclassics.co.uk Left: Avro Vulcan B2 XH558 caught in some atmospheric lighting. Cover: XH558 banked to starboard above the clouds. Both John M Dibbs/Plane Picture Company Editor: Jarrod Cotter [email protected] Publisher: Dan Savage Contributors: Gary R Brown, Rick Coney, Luigino Caliaro, Martyn Chorlton, Juanita Franzi, Howard Heeley, Robert Owen, François Prins, JA ‘Robby’ Robinson, Clive Rowley. Designers: Charlotte Pearson, Justin Blackamore Reprographics: Michael Baumber Production manager: Craig Lamb [email protected] Divisional advertising manager: Tracey Glover-Brown [email protected] Advertising sales executive: Jamie Moulson [email protected] 01507 529465 Magazine sales manager: -
Wind Tunnel Analysis and Flight Test of a Wing Fence on a T-38
Air Force Institute of Technology AFIT Scholar Theses and Dissertations Student Graduate Works 3-6-2009 Wind Tunnel Analysis and Flight Test of a Wing Fence on a T-38 Michael D. Williams Follow this and additional works at: https://scholar.afit.edu/etd Part of the Aerodynamics and Fluid Mechanics Commons Recommended Citation Williams, Michael D., "Wind Tunnel Analysis and Flight Test of a Wing Fence on a T-38" (2009). Theses and Dissertations. 2407. https://scholar.afit.edu/etd/2407 This Thesis is brought to you for free and open access by the Student Graduate Works at AFIT Scholar. It has been accepted for inclusion in Theses and Dissertations by an authorized administrator of AFIT Scholar. For more information, please contact [email protected]. WIND TUNNEL ANALYSIS AND FLIGHT TEST OF A WING FENCE ON A T-38 THESIS Michael D. Williams, Major, USAF AFIT/GAE/ENY/09-M20 DEPARTMENT OF THE AIR FORCE AIR UNIVERSITY AIR FORCE INSTITUTE OF TECHNOLOGY Wright-Patterson Air Force Base, Ohio APPROVED FOR PUBLIC RELEASE; DISTRIBUTION UNLIMITED The views expressed in this thesis are those of the author and do not reflect the official policy or position of the United States Air Force, Department of Defense, or the United States Government. AFIT/GAE/ENY/09-M20 WIND TUNNEL ANALYSIS AND FLIGHT TEST OF A WING FENCE ON A T-38 THESIS Presented to the Faculty Department of Aeronautical and Astronautical Engineering Graduate School of Engineering and Management Air Force Institute of Technology Air University Air Education and Training Command In Partial Fulfillment of the Requirements for the Degree of Master of Science in Aeronautical Engineering Michael D. -
Turkey Aerospace & Defense
TURKEY AEROSPACE & DEFENSE 2016 AEROSPACE TURKEY TURKEY AEROSPACE & DEFENSE 2016 Aerospace - Defense - Original Equipment Manufacturers Platforms - Clusters - Multinationals - Sub-Tier Suppliers Distinguished GBR Readers, Since the inception of the Undersecretariat for Defense Industries 30 years ago, significant steps have been taken to achieve the goals of having the Turkish armed forces equipped with modern systems and technologies and promoting the development of the Turkish defense industry. In the last decade alone, the aerospace and defense (A&D) sector's total turnover quadrupled, while exports have increased fivefold, reaching $5.1 billion and $1.65 billion in 2014, respectively. The industry's investment in research and development (R&D) reached almost $1 billion in 2014. The total workforce in the A&D industry reached 30,000 personnel, of which 30% are engineers. Even more remarkable, Turkey is now at the stage of offering its own platforms for both the local market and to international allies, and has commenced a series of follow up local programs. Although this progress has been achieved under the circumstances of a healthy and consistent political environment and in parallel with sustained growth in the Turkish economy, the proportion of expenditure for defense in the national budget and as a percentage of Turkey’s GDP has been stable. With the help of the national, multinational and joint defense industry projects that have been undertaken in Turkey by the undersecretariat, the defense industry has become a highly capable community comprising large-scale main contractors, numerous sub- system manufacturers, small- and medium-sized enterprises, R&D companies who are involved in high-tech, niche areas, research institutes, and universities. -
Eurofighter World Editorial 2016 • Eurofighter World 3
PROGRAMME NEWS & FEATURES DECEMBER 2016 GROSSETO EXCLUSIVE BALTIC AIR POLICING A CHANGING AIR FORCE FIT FOR THE FUTURE 2 2016 • EUROFIGHTER WORLD EDITORIAL 2016 • EUROFIGHTER WORLD 3 CONTENTS EUROFIGHTER WORLD PROGRAMME NEWS & FEATURES DECEMBER 2016 05 Editorial 24 Baltic policing role 42 Dardo 03 Welcome from Volker Paltzo, Germany took over NATO’s Journalist David Cenciotti was lucky enough to CEO of Eurofighter Jagdflugzeug GmbH. Baltic Air Policing (BAP) mis - get a back seat ride during an Italian Air Force sion in September with five training mission. Read his eye-opening first hand Eurofighters from the Tactical account of what life onboard the Eurofighter Title: Eurofighter Typoon with 06 At the heart of the mix Air Wing 74 in Neuburg, Typhoon is really like. P3E weapons fit. With the UK RAF evolving to meet new demands we speak to Bavaria deployed to Estonia. Typhoon Force Commander Air Commodore Ian Duguid about the Picture: Jamie Hunter changing shape of the Air Force and what it means for Typhoon. 26 Meet Sina Hinteregger By day Austrian Sina Hinteregger is an aircraft mechanic working on Typhoon, outside work she is one of the country’s best Eurofighter World is published by triathletes. We spoke to her Eurofighter Jagdflugzeug GmbH about her twin passions. 46 Power base PR & Communications Am Söldnermoos 17, 85399 Hallbergmoos Find out how Eurofighter Typhoon wowed the Tel: +49 (0) 811-80 1587 crowds at AIRPOWER16, Austria’s biggest Air [email protected] 12 Master of QRA Show. Editorial Team Discover why Eurofighter Typhoon’s outstanding performance and 28 Flying visit: GROSSETO Theodor Benien ability make it the perfect aircraft for Quick Reaction Alert. -
Albatross Can Soar at Sea for Days and Even Weeks at a Time
Executive Summary April 28, 2021 Sean Berger • Ryan Casterline • Jonathan Detwiler • Joshua Forrest Zackary Long • JR Sciple • Daniel Szallai • Xinpeng Zhao Introduction Out in the remote costal cliffs of the North Pacific Ocean, the Great Albatross can soar at sea for days and even weeks at a time. With a wingspan of more than 10 feet, this magnificent bird can stay aloft for free by utilizing dynamic soaring. Its maneuverability and flight longevity allow it to be unrivaled by any other sea bird. Inspired by this bird, the aerospace engineering undergraduate team from Penn State University designed the UQ-9 Albatross: an autonomous medical supply delivery VTOL aircraft in response to the 2020- 2021 VFS Student Design Competition sponsored by Boeing. Albatross is a hybrid 4-bladed quad rotor VTOL aircraft with folding wing capabilities, designed to deliver packages at high speed to local delivery centers and logistics sites. Its variable geometry and autonomous, compact package unloading system makes it an effective delivery vehicle. It was also designed to be multiply redundant to maximize safety. These features allow Albatross to operate in environments that are void of conventional runwayswith the advantagesof a fixed wing aircraft. Vehicle Overview The Albatross is a cargo aircraft that is capable of vertical takeoff and landing during the Fall semester. Our group decided upon a vehicle that changes the configuration of its wings between vertical and horizontal flight. The folding wing concept is a design that attempts to trade‐off the advantages and disadvantages of a conventional vertical take‐off and landing vehicle with a conventional fixed‐wing aircraft configuration. -
Folland Gnat / Hindustan Hf.24 Ajeet
Last update 1 December 2020 ||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||| FOLLAND GNAT / HINDUSTAN HF.24 AJEET ||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||| GT005 • F Mk.1 IE1076 (to Indian AF as IE1076, E1076) .59 (assembled by Hindustan Aircraft, Bangalore) David C. Tallichet/ MARC, Chino CA 86/08 (stored dism. MARC compound Chino 88) USAFM, March AFB CA: loan, displ. 89/18 (displ. as IAF “E1076" later red "RAF Red Arrows", being prepared for new paint scheme 17) ______________________________________________________________________________________ - • F Mk.1 IE1214 (built by Hindustan Aircraft, Bangalore) Hindustan (to Indian AF as IE1214) .62 David C. Tallichet/ MARC, Chino CA 86/08 (stored dism. MARC compound Chino 88/02) ______________________________________________________________________________________ GT038 • F Mk.1 IE1222 (built by Hindustan Aircraft, Bangalore) Hindustan (to Indian AF as IE1222, E222) .59 David C. Tallichet/ MARC, Chino CA 86/04 (stored dism. MARC compound Chino 88/97) Mid America Air Museum, Liberal KS: loan 97/15 ______________________________________________________________________________________ FL.504 • T Mk. 1 XM694 RAF Bedford: inst. airframe 90 sold to USA, dep. storage -
Corvettes and Opvs Countering Manpads Air Forces Directory Corvettes and Opvs Countering Manpads Air Forces Directory Singapore
VOLUME 26/ISSUE 1 FEBRUARY 2018 US$15 ASIA PAcific’s LARGEST CIRCULATED DEFENCE MAGAZINE SINGAPORE’S ARMED FORCES ASIA-PACIFIC MAIN BATTLE TANKS MALE /HALE UAVS CORVETTES AND OPVS COUNTERING MANPADS AIR FORCES DIRECTORY www.asianmilitaryreview.com B:216 mm T:213 mm S:197 mm AQS-24 B:291 mm S:270 mm T:286 mm THE VALUE OF ENSURING AN UNDERSEA ADVANTAGE KNOWS NO BORDERS. Mines don’t recognize borders, nor should the most advanced mine hunting solutions. Only Northrop Grumman’s advanced AQS-24 family of sensors deliver unparalleled performance with complete adaptability. From hardware versatility (deployable from helicopter or unmanned surface vessel) to increased speed in mission execution, the AQS-24 is the future of mine warfare. That’s why we’re a leader in advanced undersea technology. www.northropgrumman.com/minehunter ©2017 Northrop Grumman Corporation 02 | ASIAN MILITARY REVIEW | ©2017 Northrop Grumman Corporation Project Manager: Vanessa Pineda Document Name: NG-MSH-Z35767-B.indd Element: P4CB Current Date: 9-18-2017 11:09 AM Studio Client: Northrop Grumman Bleed: 216 mm w x 291 mm h Studio Artist: DAW Product: MSH Trim: 213 mm w x 286 mm h Proof #: 3-RELEASE Proofreader Creative Tracking: NG-MSH-Z35767 Safety: 197 mm w x 270 mm h Print Scale: None Page 1 of 1 Print Producer Billing Job: NG-MSH-Z35767 Gutter: None InDesign Version: CC 2015 Title: AQS-24 Intl Aus - Asian Military Review Color List: None Art Director Inks: Cyan, Magenta, Yellow, Black Creative Director Document Path: Mechanicals:Northrop_Grumman:NG-MSH:NG-MSH-Z35767:NG-MSH-Z35767-B.indd -
Air Defence in Northern Europe
FINNISH DEFENCE STUDIES AIR DEFENCE IN NORTHERN EUROPE Heikki Nikunen National Defence College Helsinki 1997 Finnish Defence Studies is published under the auspices of the National Defence College, and the contributions reflect the fields of research and teaching of the College. Finnish Defence Studies will occasionally feature documentation on Finnish Security Policy. Views expressed are those of the authors and do not necessarily imply endorsement by the National Defence College. Editor: Kalevi Ruhala Editorial Assistant: Matti Hongisto Editorial Board: Chairman Prof. Pekka Sivonen, National Defence College Dr. Pauli Järvenpää, Ministry of Defence Col. Erkki Nordberg, Defence Staff Dr., Lt.Col. (ret.) Pekka Visuri, Finnish Institute of International Affairs Dr. Matti Vuorio, Scientific Committee for National Defence Published by NATIONAL DEFENCE COLLEGE P.O. Box 266 FIN - 00171 Helsinki FINLAND FINNISH DEFENCE STUDIES 10 AIR DEFENCE IN NORTHERN EUROPE Heikki Nikunen National Defence College Helsinki 1997 ISBN 951-25-0873-7 ISSN 0788-5571 © Copyright 1997: National Defence College All rights reserved Oy Edita Ab Pasilan pikapaino Helsinki 1997 INTRODUCTION The historical progress of air power has shown a continuous rising trend. Military applications emerged fairly early in the infancy of aviation, in the form of first trials to establish the superiority of the third dimension over the battlefield. Well- known examples include the balloon reconnaissance efforts made in France even before the birth of the aircraft, and it was not long before the first generation of flimsy, underpowered aircraft were being tested in a military environment. The Italians used aircraft for reconnaissance missions at Tripoli in 1910-1912, and the Americans made their first attempts at taking air power to sea as early as 1910-1911. -
List of Exhibits at IWM Duxford
List of exhibits at IWM Duxford Aircraft Airco/de Havilland DH9 (AS; IWM) de Havilland DH 82A Tiger Moth (Ex; Spectrum Leisure Airspeed Ambassador 2 (EX; DAS) Ltd/Classic Wings) Airspeed AS40 Oxford Mk 1 (AS; IWM) de Havilland DH 82A Tiger Moth (AS; IWM) Avro 683 Lancaster Mk X (AS; IWM) de Havilland DH 100 Vampire TII (BoB; IWM) Avro 698 Vulcan B2 (AS; IWM) Douglas Dakota C-47A (AAM; IWM) Avro Anson Mk 1 (AS; IWM) English Electric Canberra B2 (AS; IWM) Avro Canada CF-100 Mk 4B (AS; IWM) English Electric Lightning Mk I (AS; IWM) Avro Shackleton Mk 3 (EX; IWM) Fairchild A-10A Thunderbolt II ‘Warthog’ (AAM; USAF) Avro York C1 (AS; DAS) Fairchild Bolingbroke IVT (Bristol Blenheim) (A&S; Propshop BAC 167 Strikemaster Mk 80A (CiA; IWM) Ltd/ARC) BAC TSR-2 (AS; IWM) Fairey Firefly Mk I (FA; ARC) BAe Harrier GR3 (AS; IWM) Fairey Gannet ECM6 (AS4) (A&S; IWM) Beech D17S Staggerwing (FA; Patina Ltd/TFC) Fairey Swordfish Mk III (AS; IWM) Bell UH-1H (AAM; IWM) FMA IA-58A Pucará (Pucara) (CiA; IWM) Boeing B-17G Fortress (CiA; IWM) Focke Achgelis Fa-330 (A&S; IWM) Boeing B-17G Fortress Sally B (FA) (Ex; B-17 Preservation General Dynamics F-111E (AAM; USAF Museum) Ltd)* General Dynamics F-111F (cockpit capsule) (AAM; IWM) Boeing B-29A Superfortress (AAM; United States Navy) Gloster Javelin FAW9 (BoB; IWM) Boeing B-52D Stratofortress (AAM; IWM) Gloster Meteor F8 (BoB; IWM) BoeingStearman PT-17 Kaydet (AAM; IWM) Grumman F6F-5 Hellcat (FA; Patina Ltd/TFC) Branson/Lindstrand Balloon Capsule (Virgin Atlantic Flyer Grumman F8F-2P Bearcat (FA; Patina Ltd/TFC) -
Selected Structural Elements of the Wing to Increase the Lift Force
I efektywność transportu Ernest Gnapowski Selected structural elements of the wing to increase the lift force JEL: L93 DOI: 10.24136/atest.2018.494 Data zgłoszenia: 19.11.2018 Data akceptacji: 15.12.2018 The article presents a currently used structural elements to increase the lift force. Presented mechanical and no-mechanical construction elements that increase the lifting force. The author's attention to the new direction of flow control using a DBD plasma actuator. This is a new direction of active flow control. Słowa kluczowe: aerodynamic, high-lift device, plasma actuator DBD Introduction One of the many causes of accidents and disasters in aviation is Fig. 1. The most common airline profiles; a) symmetrical, b) semi- a loss of lift force during flight, most often caused by flow disturb- symmetrical, c) flat bottomed, d) under-cambered ances around a wing profile. This is especially true when starting or landing, the wing operates in the limiting angles of attack. There Even a properly selected wing profile in certain conditions (at may be a stall and catastrophic disturbance of the flight path. high angles of attack) loses the lift force. To counteract this, con- Wing profiles have a specific geometry that determines the use struction offices introduce elements that improve the flow laminarity of a particular profile in aircraft constructions. The parameters which and improve safety. influence the choice of the design of the profile are; speed of flight, wing loading, purpose aircraft. Each airfoil has determined experi- Wing cuff mentally or by calculation the maximum angle of attack α and the Wing cuff is a static aerodynamic modification of the front part of minimum speed at which no loss of aerodynamic lift. -
Our Business at a Glance
Strategic Report BAE Systems is an international defence, aerospace and security company with leading OUR air, naval, land and cyber capabilities, supplying BUSINESS both defence and commercial customers. AT A GLANCE GLOBAL DEFENCE MARKET POSITION ($BN) We operate principally in the Defence revenue defence sector, with a growing Total revenue presence in adjacent commercial 1. LOCKHEED MARTIN markets. 2. BOEING We compete within a peer group of large, multi-national defence 3. BAE SYSTEMS and aerospace prime contractors. 4. RAYTHEON BAE Systems is the third largest global defence supplier (based 5. NORTHROP GRUMMAN on 2013 revenue). 6. GENERAL DYNAMICS 7. AIRBUS GROUP 8. UNITED TECHNOLOGIES 9. THALES 10. FINMECCANICA 0 20 40 60 80 100 Source: Defense News (based on 2013 revenue) ACCESSIBLE GLOBAL DEFENCE MARKETS ($BN) We are active in all of the top ten Principal markets accessible global defence 1. US 578 markets, with established leading 2. UK 63 positions in the US, UK, 3. JAPAN 54 Saudi Arabia and Australia. 4. FRANCE 53 5. GERMANY 45 6. INDIA 45 7. SAUDI ARABIA 38 8. SOUTH KOREA 33 9. BRAZIL 32 10. AUSTRALIA 30 Source: 2013 US defence budget (as shown in the Department of Defense Fiscal Year 2015 Budget Request) and, outside the US, Jane’s Defence Budgets (based on 2013 total defence budgets and constant 2015 US dollars) SALES1 BY DESTINATION (%) A signicant proportion of our Principal markets H A UK 22 sales are from international G A E F B Rest of Europe 13 markets outside the UK and US. C US/Canada 36 2 1 D Saudi Arabia 20 In 2014, 35% of our sales came E Rest of Middle East 1 from non-UK/US customers. -
Glider Handbook, Chapter 2: Components and Systems
Chapter 2 Components and Systems Introduction Although gliders come in an array of shapes and sizes, the basic design features of most gliders are fundamentally the same. All gliders conform to the aerodynamic principles that make flight possible. When air flows over the wings of a glider, the wings produce a force called lift that allows the aircraft to stay aloft. Glider wings are designed to produce maximum lift with minimum drag. 2-1 Glider Design With each generation of new materials and development and improvements in aerodynamics, the performance of gliders The earlier gliders were made mainly of wood with metal has increased. One measure of performance is glide ratio. A fastenings, stays, and control cables. Subsequent designs glide ratio of 30:1 means that in smooth air a glider can travel led to a fuselage made of fabric-covered steel tubing forward 30 feet while only losing 1 foot of altitude. Glide glued to wood and fabric wings for lightness and strength. ratio is discussed further in Chapter 5, Glider Performance. New materials, such as carbon fiber, fiberglass, glass reinforced plastic (GRP), and Kevlar® are now being used Due to the critical role that aerodynamic efficiency plays in to developed stronger and lighter gliders. Modern gliders the performance of a glider, gliders often have aerodynamic are usually designed by computer-aided software to increase features seldom found in other aircraft. The wings of a modern performance. The first glider to use fiberglass extensively racing glider have a specially designed low-drag laminar flow was the Akaflieg Stuttgart FS-24 Phönix, which first flew airfoil.