Frank Whittle and Rolls-Royce

Total Page:16

File Type:pdf, Size:1020Kb

Frank Whittle and Rolls-Royce Frank Whittle and Rolls-Royce, Barnoldswick, developed and pioneered global aerospace since the opening of the site in W.W.2. Rolls Royce has been important locally as a major employer and nationally as the pioneer of national defence and civil aviation. Frank Whittle - father of the jet engine Rolls Royce grew from an electrical business established in 1884 by Henry Royce. During the First World War, the company developed their first aero-engine, the Eagle, which later powered the first transatlantic flight. In 1931, the company developed the R Engine which evolved into the Merlin – famously used to power the Spitfire and Hurricane fighters. The Second World War transformed Rolls Royce into a major force in the aero industry. Working with Frank Whittle, the company developed the first gas turbine – or jet – engine. In 1941 the Gloster Meteor made its first powered flight. It was this engine which was to be developed and manufactured in Barnoldswick. Frank Whittle (centre) with Stanley Hooker and John Herriot Frank Whittle - Production moves to Barnoldswick Rover were initially given the contract to produce the W2 jet engine for the Gloster Meteor. They decided to move production to Clitheroe and Barnoldswick to escape the heavy German bombing of their Midlands headquarters. Bankfield Mill was chosen as the main manufacturing site in Barnoldswick. Rover moved here to develop their top-secret war time project in 1940. Bracewell Hall, left, was used as offices by Rover, and later, Rolls-Royce In 1942, Rolls-Royce took over the contract from Rover, and assumed control of the Bankfield site in 1943. The Meteor fighter was ready for service in 1944. The factory at Ghyll Brow was also acquired by Roll-Royce and used for testing the assembled aero engines. Frank Whittle - Manufacture of the jet engines The site at Bankfield was jointly operated by the Ministry of Aircraft Production and Rolls- Royce. As well as the manufacturing plant at Bankfield and testing facility at Ghyll Brow, nearby Bracewell Hall was used for offices. The Hostel at Barnoldswick used to house the specialist aero technicians Telegram from the Ministry of Aircraft Production congratulating the workers at Barnoldswick after the successful deployment of the Meteor. By 1943 there were about 1500 people engaged in the manufacture of the turbine blades for the W2 engine. They worked 12 hour shifts around the clock to assemble the aero engines, which were tested at nearby Ghyll Brow. The images above and below show the W2 aero engine manufactured at Barnoldswick which powered the Gloster Meteor. Frank Whittle - Rolls-Royce since the war Roll-Royce continued to manufacture aero engines in Barnoldswick after the war. In 1946, jet engines from Bankfield were exported to the Soviet Union and China. However, the best-known engine made at the site is the R-B211 engine produced for the Boeing 747 jumbo Jet in the 1970s. The initials ‘R-B' stand for ‘Rolls-Barnoldswick'. During the 1980s, the Barnoldswick sites have become less important to Rolls-Royce as the development and testing of components has been moved to other sites. However, the company is still a major employer in the town. Frank Whittle and Rolls-Royce - Further Reading Websites with information on Frank Whittle and Rolls-Royce Frank Whittle - Wikipedia Rolls Royce aerospace - Wikipedia The Frank Whittle web site BBC Oxford dictionary of National Biography entry .
Recommended publications
  • Sir Frank Whittle
    Daniel Guggenheim Medal MEDALIST FOR 1946 For pioneering the development of turbojet propulsion of aircraft. SIR FRANK WHITTLE One day in July 1942, during World War II, a slightly-built young Englishman arrived in Washington on a highly confidential mission. So important was the equipment that accompanied him, so vital its secret, that he traveled under an assumed name and many who met him knew him only as “Frank.” He was in fact Frank Whittle, then a Wing Commander in the Royal Air Force; pioneer of the turbojet engine which was destined to make one of the most pro-found changes in aircraft propulsion since the beginning of powered flight. Born in Coventry, England, on June 1, 1907, Whittle entered Leamington College at the age of 11 on a scholarship won in elementary school. At the age of 16 he entered the Royal Air Force as an aircraft apprentice in the trade of metal rigger. At the final examination he was granted a cadetship at the Royal Air Force College, Cranwell. During 1928 and 1929, as a pilot officer, he spent fifteen months in the lllth Fighter Squadron and was then assigned to a flying instructors’ course at the Central Flying School, Wittering. It was during this course that the idea of using the turbine for jet propulsion first occurred to him. His patent application was filed in January, 1930. After one year as flying instructor and eighteen months as a floatplane and catapult testpilot, he was sent to Henlow in 1932 to take the Officers Engineering Course. The summer of 1934 saw him at Cambridge University (Peterhouse).
    [Show full text]
  • The Jet Generations Photo by Russ Rogers Via Warren Thompson
    A 21-year-old RAF pilot and a German graduate student got the whole thing going 70 years ago. The Jet Generations Photo by Russ Rogers via Warren Thompson By Bruce D. Callander N the last months of World War II, was losing the war but was still able self. Within a decade, the propel- Allied bombers were jumped by to inflict damage. ler-driven fighters of the major pow- German interceptors that had no These desperation weapons ar- ers would become virtually obso- propellers but could outrun any rived too late to have any substan- lete, their successors powered by conventional fighter. In the Pa- tial impact on the outcome of the “reaction engines.” cific, the Japanese sent piloted war, but they foreshadowed a post- At the time of the Wright brothers’ Iglide bombs against ships and air- war transformation in military tech- first flight in 1903, a relatively light craft, their suicide dives boosted by nology as dramatic in its way as the internal combustion engine was avail- rocket or turbojet engines. The Axis invention of the flying machine it- able. For the next three decades, pis- A four-ship of F-80 fighters. The Shooting Star was the nation’s first combat jet fighter. 68 AIR FORCE Magazine / October 2002 AIR FORCE Magazine / October 2002 68 A 21-year-old RAF pilot and a German graduate student got the whole thing going 70 years ago. The Jet Generations Photo by Russ Rogers via Warren Thompson By Bruce D. Callander N the last months of World War II, was losing the war but was still able self.
    [Show full text]
  • 0106Engines.Pdf
    They approached the jet engine problem in different ways, but they both solved it. The Converging Paths of Whittle and von Ohain Pictured in 1987 is Frank Whittle and the Whittle W1X, the engine he designed. The engine is on display in the jet gallery at the National Air and Space Museum in Washington, D.C. 70 AIR FORCE Magazine / January 2006 They approached the jet engine problem in different ways, but they both solved it. o one who witnessed the first apprentice at the age of 16. His goal flight by a jet aircraft had any was to become a pilot. N idea of the revolution that the Hugh Trenchard, Marshal of the jet engine would bring. The secret flight Royal Air Force, made many important in Germany of the Heinkel He-178 contributions to the RAF, but none more on Aug. 27, 1939, led to revolutions so than his concept of apprentice train- in aviation, warfare, transportation, ing. Trenchard insisted that his enlisted politics, and the world economy. and noncommissioned personnel have The Converging Paths of A functioning jet engine was real- a sound education. Then he wanted ized at about the same time by two his average RAF airman to have three independent inventors, British Frank years’ training as an apprentice before Whittle and German Hans Pabst von entering service as a mechanic or other Ohain. They could not have differed skilled worker. more in personality. Trenchard believed that only educat- Whittle and von Ohain Whittle, an extremely proficient Royal ed and well-trained men could become Air Force pilot, was quick tempered professional airmen.
    [Show full text]
  • Barnoldswick
    BANCROFT MILL ENGINE TRUST jointly presents with ROLLS ROYCE LEISURE 70th Anniversary of Rolls-Royce in Barnoldswick. Visit to Barlick of Terry Jones and his 1943 Barlick built Welland Engine, one of the first batch of jet engines to be produced. SATURDAY 17TH at the Leisure Centre, Skipton Road: the Welland on display from 1.00pm SUNDAY 18TH AT Bancroft Mill, Gillians Lane: the Welland on display from 11.00am and the Bancroft Mill engine running from 1.00pm Terry will attend at both venues with a video and talk and to answer questions. BANCROFT MILL ENGINE TRUST Gillians Lane Barnoldswick BB18 5QR Press release begins:- Rolls Royce: 70 years in Barnoldswick. Welland Engine returns to its birthplace with a joint effort by Bancroft Mill Engine Museum and Rolls Royce Leisure to host it and Terry Jones its rebuilder. Weaving was sporadic from 1920 at Bankfield Shed, in the doldrums in 1939 it suddenly became the country’s Shadow Factory No. 6, when it was occupied by the Rover Company to undertake the development of Frank Whittle’s W2B jet engine design. By early 1943 Rover had completed development of the engine. The mass production of the conventional Merlin engine having been put on a sound footing Rolls-Royce were in position in May of that year to come to Barnoldswick to take over the production of the W2B engine to the required standard and in the quantities needed. Work proceeded apace and by the end of that year Rolls Royce was making functional engines, renamed the RB23 Welland, in quantity to equip the Gloster Meteor aircraft that the Air Ministry had on order.
    [Show full text]
  • Military Jet Engine Acquisition
    Military Jet Engine Acquisition Technology Basics and Cost-Estimating Methodology Obaid Younossi, Mark V. Arena, Richard M. Moore Mark Lorell, Joanna Mason, John C. Graser Prepared for the United States Air Force Approved for Public Release; Distribution Unlimited R Project AIR FORCE The research reported here was sponsored by the United States Air Force under Contract F49642-01-C-0003. Further information may be obtained from the Strategic Planning Division, Directorate of Plans, Hq USAF. Library of Congress Cataloging-in-Publication Data Military jet engine acquisition : technology basics and cost-estimating methodology / Obaid Younossi ... [et al.]. p. cm. “MR-1596.” Includes bibliographical references. ISBN 0-8330-3282-8 (pbk.) 1. United States—Armed Forces—Procurement—Costs. 2. Airplanes— Motors—Costs. 3. Jet planes, Military—United States—Costs. 4. Jet engines— Costs. I. Younossi, Obaid. UG1123 .M54 2002 355.6'212'0973—dc21 2002014646 RAND is a nonprofit institution that helps improve policy and decisionmaking through research and analysis. RAND® is a registered trademark. RAND’s publications do not necessarily reflect the opinions or policies of its research sponsors. © Copyright 2002 RAND All rights reserved. No part of this book may be reproduced in any form by any electronic or mechanical means (including photocopying, recording, or information storage and retrieval) without permission in writing from RAND. Published 2002 by RAND 1700 Main Street, P.O. Box 2138, Santa Monica, CA 90407-2138 1200 South Hayes Street, Arlington, VA 22202-5050 201 North Craig Street, Suite 202, Pittsburgh, PA 15213-1516 RAND URL: http://www.rand.org/ To order RAND documents or to obtain additional information, contact Distribution Services: Telephone: (310) 451-7002; Fax: (310) 451-6915; Email: [email protected] PREFACE In recent years, the affordability of weapon systems has become increasingly important to policymakers in the Department of Defense and U.S.
    [Show full text]
  • Turbulent Combustion in Gas Turbine Engines
    Lecture 11. Turbulent Combustion in Gas Turbine Engines X.S. Bai TC in Gas Turbines Content • Development of gas turbine • Types of gas turbines • Gas turbine cycle • Gas turbine combustor • New gas turbine combustors for clean environment X.S. Bai TC in Gas Turbines History of gas turbine/jet propulsion engine Hero of Alexandria, Egypt Chinese solid fuel rocket, 1000 AD 130 BC Leonardo Da Vinci’s chimney jack, 1500 Giovanni Branca, Italy, 1629 Isaac Newton’s steam wagon, 1687 Johan Barber made first patent, 1791 X.S. Bai TC in Gas Turbines Gas turbine for modern aviation Frank Whittle, 1930, UK, submitted a patent for a gas turbine for jet propulsion Power Jets Ltd got contract from Air Minsistry In May 1941, the Whittle W1 engine made its first flight X.S. Bai TC in Gas Turbines Gas turbine for modern aviation Gloster Whittle E28 X.S. Bai TC in Gas Turbines Gas turbine for modern aviation Hans von Ohain and Max Hahn, 1936, Germany, submitted a patent for a gas turbine for jet propulsion Ernst Heinkel Aircraft Company made first true jet propulsion aircraft in 1939, Aug - Sept Secundo Campiri, Italy, made a gasturbine engine for the CC-2 aircraft, 1940 American (with the help of the British) made W.IX engine in 1941, GE Later Westinghouse Corporation made contiuous development X.S. Bai TC in Gas Turbines Gas turbine for modern aviation Ohain Whittle X.S. Bai TC in Gas Turbines Rolls-Royce Today •• aero-engines aero-engines •• marine marine propulsionpropulsion systemssystems •• energy energy businessbusiness •• Annual Annual salessales ofof overover £4.5£4.5 billionbillion •• Orders Orders ofof overover £13£13 billionbillion X.S.
    [Show full text]
  • Metropolitan Vickers, the Gas Turbine, and the State: a Socio
    Metropolitan Vickers, the Gas Turbine, and the State: A Socio- Technical History, 1935-1960 A thesis submitted to the University of Manchester for the degree of Doctor of Philosophy in the Faculty of Life Sciences 2012 Jakob Whitfield Contents List of Tables: .................................................................................................................................. 5 List of Figures .................................................................................................................................. 5 Abstract ........................................................................................................................................... 6 Declaration ...................................................................................................................................... 7 Copyright Statement ....................................................................................................................... 7 Acknowledgements ......................................................................................................................... 8 Acronyms, Initialisms, and Abbreviations Used ............................................................................ 10 Introduction ........................................................................................................................... 12 Metropolitan Vickers .................................................................................................................... 13 Historiography of the jet engine
    [Show full text]
  • Propulsion Technologies for the Future of Aviation
    26TH INTERNATIONAL CONGRESS OF THE AERONAUTICAL SCIENCES PROPULSION TECHNOLOGIES FOR THE FUTURE OF AVIATION Woodrow Whitlow, Jr. National Aeronautics and Space Administration Glenn Research Center Keywords: propulsion, environment, safety, mobility, capacity Abstract pounds and delivering 8 – 9 horsepower with minimum vibration. When it became clear that The aircraft engine was critical to enabling no off-the-shelf engine with the required power- powered flight and subsequent advances in to-weight ratio was available in the United aviation. The National Aeronautics and Space States and no company was interested in Administration (NASA) defined goals that building only one engine, the Wright brothers’ ensure the future health of the aviation industry. mechanic—Charles E. Taylor (Figure 1)—was Revolutionary aircraft that will enable a new entrusted with building the engine (Figure 2). It future of aviation and mobility are essential to weighed 170 pounds, with accessories, and that industry. This paper presents the objectives delivered 12 horsepower at 1025 revolutions per that must be achieved to revolutionize the minute. The excess horsepower allowed aviation system and breakthrough technology strengthening of wings, spars and bracing, and solutions to meet the challenges. The paper the Wrights could have added 150 pounds to the highlights research accomplishments at the vehicle weight. NASA Glenn Research Center that contribute to these solutions. Accomplishments include technologies that enhance aircraft safety, enable quiet aircraft engines as well as engines with reduced impact on air quality, and enhance the ability to move people and goods. 1 General Introduction The era of powered flight began with the Wright brothers on December 17, 1903.
    [Show full text]
  • Sir Frank Whittle
    Sir Frank Whittle A short life-history ... by Professor William Webb Frank Whittle was born on June 1 1907, in the Earlsdon district of Coventry, the son of a foreman in a machine tool factory. Both his parents had suffered a hard upbringing, working in the mills from the ages of ten or eleven and were uneducated. They were determined that Frank would have a better start in life. When Frank was four his father, a skilful and inventive mechanic who spent Sundays at a drawing board, gave him a toy aeroplane with a clockwork propeller and suspended it from a gas mantle. In 1912, at the age of five, he went to the local council school. When he was seven, the First World War broke out. Frank's interest in aeroplanes increased when he saw aircraft being built at the local Standard works, and was excited when an aeroplane force-landed near his home. In 1916 the family moved to Leamington Spa, where Frank's father had bought the Leamington Valve and Piston Ring Company, which comprised a few lathes and other tools, and a single-cylinder gas engine. With the war ongoing there was a great need for this sort of expertise and the business prospered. Frank was transferred to the local council school but in his spare time became familiar with machine tools and did piece work for his father. However, with the end of the war there came an end to the need for this kind of engineering work and the business floundered so badly that the Whittles were turned out of their home and had to move to rented accommodation.
    [Show full text]
  • The Development of the Whittle Turbojet
    THE AMERICAN SOCIETY OF MECHANICAL ENGINEERS 345 E. 47th St., New York, N.Y.10017 97-GT-528 The Society shall not be response* for statements or opinions advancedin papers or clitussion at meetings of the Society or of its Divisions or Sections, or printed In its publications. Discussion is printed only if the paper is published in an ASME Journal. Authorization to photocopy material for Internal or personal use under circumstance not falling within the fair use. provisions of the Copyright Act is granted by ASME to libraries and other users registered with the Copyright Clearance Center (CCC) Transacticcal Reporting Senrice provided that the base fee of $0.30 • per page is paid direcby to the CCC, 27 Congress Street Salem MA 01970. Requests for special pemlission or bulk reproduction shadd be addressed to the ASME Teetotal Pubistting Department Copyright 0 1997 by ASME All Rights Reserved Printed in U.S.A Downloaded from http://asmedigitalcollection.asme.org/GT/proceedings-pdf/GT1997/78682/V001T01A012/2408878/v001t01a012-97-gt-528.pdf by guest on 23 September 2021 , 111 11111111,11 1)111111111 THE DEVELOPMENT OF THE WHITTLE TURBOJET Cyrus B. Meher-Homji Bechtel Corporation Houston, Texas. ABSTRACT The history of jet propulsion starts with the inventions of Hero of Alexandria (circa AD 60) who developed the first Sir Frank Whittle passed away on August 8, 1996 at the age of reaction type turbine. In 1791 John Barber invented a Watt type 89, in Maryland. His work in developing the turbojet can truly beam engine driven by a primitive gas turbine via reduction be said to represent one of the greatest mechanical engineering gearing.
    [Show full text]
  • Paper 2019-01 Starr Whittle Thesis.Pdf
    Journal of Aeronautical History Paper No. 2019/01 A Commentary by Dr F Starr FIMMM, MI.MechE, C Eng. on FUTURE DEVELOPMENTS IN AIRCRAFT DESIGN A Thesis by Officer Cadet Frank Whittle, Cranwell 1928 1. Introduction This paper reviews the thesis that Officer Cadet Frank Whittle wrote when he was a student at RAF Cranwell in 1928, during his fourth and final term. With this thesis, Whittle began to consider what type of engine would be best suited for high speed flight at high altitude (1, 2). This put him on the road to jet propulsion, as we now know it, and he was able to file a patent in 1930. As will be seen, although Whittle makes use of the concept of the gas turbine, at this stage he was using it to drive a high speed propeller. An invention does not suddenly appear out of thin air; rather, it almost always involves false starts. So it was with Whittle’s invention of the jet engine. The thesis illustrates his first tentative steps towards eventual success, but, just as important, it shows how Whittle was beginning to develop as a professional engineer. It culminated with him being able to build and run his first engine, the WU, in 1937. Whittle was indeed a unique individual. To paraphrase what James St Peter says of him:- Sir Frank Whittle was perhaps the last of the individual innovator-inventors, who combined the hands-on skill of a mechanic and pilot, with the acquired knowledge of the trained engineer and aerodynamicist (3). At this point it is worth addressing the claim that the German, Hans von Ohain should be given equal status with Whittle.
    [Show full text]
  • Jet Engine - Wikipedia, the Free Encyclopedia 頁 1 / 18
    Jet engine - Wikipedia, the free encyclopedia 頁 1 / 18 Jet engine From Wikipedia, the free encyclopedia A jet engine is a reaction engine that discharges a fast moving jet to generate thrust by jet propulsion and in accordance with Newton's laws of motion. This broad definition of jet engines includes turbojets, turbofans, rockets, ramjets, pulse jets. In general, most jet engines are internal combustion engines[1] but non-combusting forms also exist. In common parlance, the term jet engine loosely refers to an A Pratt & Whitney F100 turbofan internal combustion airbreathing jet engine (a duct engine). engine for the F-15 Eagle being tested These typically consist of an engine with a rotary (rotating) in the hush house at Florida Air air compressor powered by a turbine ("Brayton cycle"), with National Guard base. The tunnel the leftover power providing thrust via a propelling nozzle. behind the engine muffles noise and These types of jet engines are primarily used by jet aircraft for long distance travel. Early jet aircraft used turbojet allows exhaust to escape engines which were relatively inefficient for subsonic flight. Modern subsonic jet aircraft usually use high-bypass turbofan engines which give high speeds, as well as (over long distances) fuel efficiency that is about as good as piston and propeller aeroengines.[2] Contents ■ 1 History ■ 2Uses Simulation of a low bypass turbofan's ■ 3 Types airflow ■ 3.1 Airbreathing ■ 3.1.1 Turbine powered ■ 3.1.1.1 Turbojet ■ 3.1.1.2 Turbofan ■ 3.1.1.3 Turboprop and turboshaft ■ 3.1.1.4 Propfan
    [Show full text]