Airships to the Arctic Symposium Ii
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Martin Mahony 3S Working Paper 2018-31
! HISTORICAL GEOGRAPHIES OF THE FUTURE: IMAGINATION, EXPECTATION AND PREDICTION IN THE MAKING OF IMPERIAL ATMOSPHERE Martin Mahony 3S Working Paper 2018-31 1 ! Established in early 2011, and building on a tradition of leading environmental social science research at UEA, we are a group of faculty, researchers and postgraduate students taking forward critical social science approaches to researching the social and political dimensions of environment and sustainability issues. The overall aim of the group is to conduct world-leading research that better understands, and can potentially transform, relations between science, policy and society in responding to the unprecedented sustainability challenges facing our world. In doing this our approach is: INTERDISCIPLINARY, working at the interface between science and technology studies, human geography and political science, as well as linking with the natural sciences and humanities; ENGAGED, working collaboratively with publics, communities, civil society organisations, government and business; and REFLEXIVE, through being theoretically informed, self-aware and constructively critical. Our work is organised around fve interrelated research strands: KNOWLEDGES AND EXPERTISE PARTICIPATION AND ENGAGEMENT SCIENCE, POLICY AND GOVERNANCE TRANSITIONS TO SUSTAINABILITY SUSTAINABLE CONSUMPTION Science, Society and Sustainability (3S) Research Group 3S researchers working across these strands focus School of Environmental Sciences on a range of topics and substantive issues including: University of -
The Airship, History and Handling, 18 Oct 2002 Messrs Brian Hussey and Don Williams Spoke to Us on Airships
The Airship, History and Handling, 18 Oct 2002 Messrs Brian Hussey and Don Williams spoke to us on Airships. They introduced us to the Airship Heritage Trust (based at Cardington) and the Airship Association. We were each given a copy of Engineering Technology, May 2001 in which Don Williams had an article on Airship Control by Remote Sensing. A Brief History - Brian Hussey The history of airships gives a good understanding of what they are, and of their associated problems. The first thoughts were in 1670 in Italy, when a gondola supported by four evacuated copper spheres about a metre in diameter was proposed – it would not have worked. The first people to fly were the Montgolfiers in their hot air balloon in 1783, heated by a bonfire on the ground - though they believed it was smoke that gave buoyancy, and used rather noisome fuel to produce it - its range was limited. Only eighteen months later the Channel was crossed, from Dover to Calais – troubles with lift meant that the crew had to throw out every portable thing, including their outer clothing. The first successful airship flew in 1898, designed by Santos Dumont who had designed a 3½ HP petrol engine for the purpose. He used one for personal transport round Paris… Airships typically fly at between 1000 and 2000 ft, lift being reduced at higher altitudes. Lift is provided by a lighter-than-air gas: hydrogen being lightest but flammable – particularly if contaminated by air leakage; the non-inflammable helium, though more expensive (10% of the cost of a new airship), is preferable and can be recycled. -
Airship Venture, Blackwood's Magazine May,1933
N. S. Norway, The Airship Venture, Blackwood's Magazine May,1933. p.627 In the summer of 1924 there was a small Vickers’ staff working in two offices in Westminster upon the design of an airship, later to be christened R 100. I joined the staff in a humble capacity about that time, knowing nothing of airships but with a smattering of mathematics and the craft of heavier than air. I served with this staff till the autumn of 1930, when it was widely dispersed in the shadow of the R 101 disaster. In It is not often that the Gods in Olympus call the bluff of mortal theorists. The controversy of capitalism versus state enterprise has been argued, tested and fought out in many ways in many countries, but surely the airship venture in this country will stand as one of the most curious determinations of this matter. "Come," said the Gods, after wading through a number of airship proposals, "We will try this ancient question once again. The Air Ministry at Cardington shall build an airship of a certain size and of a certain speed, and Vickers Limited, shall build another to the same contract specification. By this ingenious device we really shall find out which is the better principle, capitalism or state enterprise." The Gods are then turned to other matters for the next six years while the experiment germinated. I joined the capitalist ship. For 18 months we worked in Westminster and in the drawing office we had set up at Crayford in Kent, before construction was commenced. -
The Airships
BY: Arjumand-Bano The Airships By Arjumand Bano (13005001010) Research Supervisor: Sir Kalim- Ur- Rehman A Research Project Submitted to Aviation Management In Partial fulfillment of requirement of Degree of Aviation Management Department of Institute of Aviation Studies University of Management and Technology Johar Town, Lahore May, 2017 Preface his project “The Airships” is done as a part of BS Aviation Management which has to be done in last semester in University of Management and T Technology, Lahore. I am glad to dedicate this project to Sir Kalim- Ur- Rehman which is project supervisor and without their guidance this project cannot be done competently. I am thankful to my parents and teachers who guided me in this project. For preparing the project I studied different websites related to airships. The data related to airships is easily available on internet. The research is based on airships types, its history, construction, biographies, modern airships etc. I tried my level best to put maximum information related to airships and keep the project from inaccuracies. If this project can help anyone to increase his/her information and knowledge I will feel that the purpose of my hard work has been achieved. ------------------------- Arjumand-Bano ID: 13005001010 Batch#5 Email: [email protected] BS Aviation Management (2013-2017) University of Management and Technology, Lahore. Acknowledgement t is genuine pleasure to express my deep sense of thanks and gratitude to supervisor Sir Kalim- Ur -Rehman. Their keen interest and dedication above I all their overwhelming attitude to help their students had been solely and largely responsible for completing my work. -
T.L. Blakemore Collection Lighter-Than-Air Box 1 1 Correspondence 1919-1929 2 Index: LTA Craft Photographs Vol. 1 & 2 N.D. 3
T.L. Blakemore Collection Lighter-Than-Air Box 1 1 Correspondence 1919-1929 2 Index: LTA Craft photographs Vol. 1 & 2 n.d. 3 "A" type airship n.d. 4 "AC" type airship 1922 5 "C" type airships n.d. 6 Santos Dumont - non rigid 1910 7 Car for "F" type airship (Navy) 1918 8 Goodyear Commercial motor balloon n.d. 9 "J" type airship n.d. 10 "J" type airship: Instrument board 1922 11 "J" type airship: Instrument Board n.d. 12 Photographs: J-6 engine outrigger for J-4 non-rigid 1933 13 Kite balloon: (Observation) 1920 14 Photographs Goodyear Pilgrim airship 1925 15 Photographs Roma Airship n.d. 16 Photographs RS-1 airship n.d. 17 Photographs "TC" type airship 1924 18 Photographs "TC" Instrument panels n.d. 19 Photographs "TC-11"control car n.d. 20 Photographs "TC-11" 1929 21 Photographs "TC" water model, AC Car n.d. 22 Photographs "TC" water model, TC car n.d. 23 Photographs "TC" or Los Angeles 1927 24 Photographs "TE" type airship n.d. 25 Photographs U.S. Army airship 1927 26 Photographs Zodiac 1920 27 Photograph Unidentified airship n.d. 28 Photograph Unidentified airship n.d. 29 Photograph Unidentified airship n.d. 30 Photograph Unidentified airship n.d. 31 Photograph U.S.S. Los Angeles n.d. 32 Photograph Airship car and motor n.d. 33 Photograph Airship car 1924 34 Photograph Engine car n.d. 35 Photograph Parts 1921 36 Photograph Left engine air starter 1926 37 Photograph Fabric n.d. 38 Photograph Components: Gas cell, Aero marine n.d plane & motor (docking device) 39 Photograph Mobile yaw guy winch 1933 40 Photograph Docking rail with trolley, mooring system n.d. -
HM Airship R100
HM Airship R100 HM Airship R100 was a privately designed and built rigid airship, part of a competition to develop new techniques for a projected larger commercial airship for use on British Empire routes. The other airship, the R101, was built by the Air Ministry. Both projects were funded by the British Government. First flight On December 16, 1929, the R100 made its maiden flight from the Royal Naval Air Station in Howden, Yorkshire, where it had been built by a subsidiary of Vickers-Armstrong. It initially flew to York and then continued on to Cardington, Bedfordshire, where the Government Airship Establishment was located. On January 16, 1930, the R100 achieved a speed of 81 mph (130 km/h), making it the fastest airship in the world. The R100 at the mooring mast in Bedforshire Transatlantic Voyage to Canada Originally the R100's contract required a demonstration flight to India. However, the decision to use gasoline engines, rather than the diesel engines originally specified prompted a change in destination to Canada as it was reasoned that a gasoline-powered flight to the tropics was deemed to be too dangerous. Once the R100 was formally handed over to the Air Ministry, a number of modifications were made in preparation for her transatlantic flight. During her last flight the tail fairing had collapsed due to aerodynamic pressures and her pointed tail was modified to a more rounded form, shortening her length by 15 ft (4.6 m). The English airship R100 on mooring mast in St Hubert, Quebec The R100 departed for Canada on July 29, 1930, arriving in Saint-Hubert, Quebec 78 hours later, having flown 3,300 mi (5,300 km) at an average speed of 42 mph (68 km/h). -
The R.101 Story: a Review Based on Primary Source Material and First Hand Accounts
Journal of Aeronautical History Paper No. 2015/02 The R.101 story: a review based on primary source material and first hand accounts by Peter Davison BA(hons) AMRAeS The editorial assistance of Dr Giles Camplin and Mr Crispin Rope is acknowledged. Abstract The airship R.101 was designed and built at the Royal Airship Works, Cardington, under the Imperial Airship Scheme, to shorten journey times to the Dominions. It crashed near Beauvais in northern France at 2.08am on 5th October 1930 while on a proving flight to Karachi (then in India). After hitting the ground, the airship caught fire, killing 48 of the 54 persons on board, including the Secretary of State for Air, Lord Christopher Thomson. This paper describes the development of the R.101, the background to the Imperial Airship Scheme, the accident and the subsequent Inquiry, largely through quotations from contemporary documents, both official and personal, and interviews with people involved. Preface This paper is the result of a long period of research into the circumstances relating to the Imperial Airship Scheme and the loss of the R.101 in October 1930 during a proving flight to India. Rather than subject myself to the limitations of commercial publishing and with regard to the limited market for the subject at this depth, the authors have decided to place unbound copies with the major archives in the UK for the benefit of future researchers. The paper cannot be conclusive due to uncertainty over the precise cause of the accident and the loss of all those on board with detailed knowledge of the final few minutes over France. -
Airships in International Affairs, 1890–1940 Also by John Duggan
Airships in International Affairs, 1890–1940 Also by John Duggan LZ 130 GRAF ZEPPELIN AND THE END OF COMMERCIAL AIRSHIP TRAVEL (with Manfred Bauer) COMMERCIAL ZEPPELIN FLIGHTS TO SOUTH AMERICA (with Jim Graue) ZEPPELINPOST LZ 130 (with Gisela Woodward) GRAF ZEPPELIN FLIGHTS TO ENGLAND GRAF ZEPPELIN FLIGHTS TO THE BALKANS GRAF ZEPPELIN POLAR POST (with Gisela Woodward) Also by Henry Cord Meyer COUNT ZEPPELIN: A Psychological Portrait AIRSHIPMEN, BUSINESSMEN AND POLITICS, 1890–1940 THE LONG GENERATION: Germany from Empire to Ruin, 1913–1946 FIVE IMAGES OF GERMANY: Half a Century of American Views on German History MITTELEUROPA IN GERMAN THOUGHT AND ACTION, 1815–1945 Airships in International Affairs, 1890–1940 John Duggan Management Consultant specializing in Oil Industry Economics and Henry Cord Meyer Research Professor Emeritus University of California Irvine © John Duggan and Henry Cord Meyer 2001 Softcover reprint of the hardcover 1st edition 2001 978-0-333-75128-2 All rights reserved. No reproduction, copy or transmission of this publication may be made without written permission. No paragraph of this publication may be reproduced, copied or transmitted save with written permission or in accordance with the provisions of the Copyright, Designs and Patents Act 1988, or under the terms of any licence permitting limited copying issued by the Copyright Licensing Agency, 90 Tottenham Court Road, London W1P 0LP. Any person who does any unauthorised act in relation to this publication may be liable to criminal prosecution and civil claims for damages. The authors have asserted their rights to be identified as the authors of this work in accordance with the Copyright, Designs and Patents Act 1988. -
Control, Response and Crash of HMA R.101.Pdf
Journal of Aeronautical History Draft 7 April 2018 Paper No. 2018/05 Control, Response and Crash of HMA R.101 Bryan Lawton Abstract The equations of motion of the R.101 airship, as derived and applied by the National Physical Laboratory in simulating the airship’s disaster for the Court of Inquiry in 1930, are used to illustrate some aspects of the airship’s stability, control and crash. The ship proved to be quite able to recover from the loss of one (or more) gas bags. It is shown that the airship’s first dive was caused by the failure of the forward gas bags, from which it was recovering when the elevator cable broke. The crew successfully attempted a soft landing, but a fire subsequently destroyed the ship and all aboard except for six of the crew. It was always known that the elevator cable broke, but the Court of Inquiry thought it happened during the subsequent fire and could not be a cause of the crash. Consequently, the NPL was unable to show that the airship impacted the ground at the expected angle of 15 - 25 o nose down. The computations made here demonstrate that such an impact is possible if the elevator cable broke as the airship was pulling out of the first dive. It is the simplest explanation of the tragedy that fits the known facts. 1. Introduction In their work on modelling the behaviour of the R.101 airship during her final and fatal descent, the National Physical Laboratory made wind tunnel measurements of the lift, drag, lifting moment and damping forces on a model of the airship and used these in solving the relevant equations of motion 1, 2.