Crewe Locomotive Drawings and Microfilm Lists
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Locomotives Designed and Built at Horwich, with Some Results
JULY 1909. LOCOMOTIVES DESIGNED AND BUILT AT HORWICH, WITH SOME RESULTS. - BY MR. GEORGE HUGHES, Member, CHIEF MECHANICALENGINEER, LAKCASHIRE AND YORKSHIRERAILWAY, HORWICH. Before discussing the desigu and performance of locomotives, the critic must have some knowledge of the railway upon which they run, and the nature of the work they perform. Particulars will be found by referring to the Appendices (pages 598-620), and the subjoined diagram Fig. 1 (page 5621, and statement, which give the power and weight of the various locomotives operating this traffic. The Lancashire and Yorkshire Railway Company possess 1,517 locomotives, 1,052 of which have been constructed at Horwich, and there are about 1,100 engines in steam daily, varying, of course, according to the demands of the traffic. When the works at Horwich were opened, the company had 1,000 engines, namely, 353 passenger, and 647 goods. There were 29 different types of passenger-engines, and 26 types of goods- engines. Realizing the great importance of having as few classes as possible, Mr. Aspinall, then Chief Mechanical Engineer, resolved to reduce the number, and to introduce standardization, and, wherever possible, interchangeabilit) . This policy, no doubt, from Downloaded from pme.sagepub.com at Purdue University Libraries on June 9, 2016 562 HORWICH LOCOMOTIVES. JULY 1909. Figt. IbS < 200.000 f80.000 160.000 14aooo .s0 120.000 h 100,000 6 80.000 60.000 40.000 2q 000 > Datum 20.000 t 30.000 % E 60.000 ' 80.000 Downloaded from pme.sagepub.com at Purdue University Libraries on June 9, 2016 JULY 1909. -
The Carrying Trade and the First Railways in England, C1750-C1850
The Carrying Trade and the First Railways in England, c1750-c1850 Carolyn Dougherty PhD University of York Railway Studies November 2018 Abstract Transport and economic historians generally consider the change from moving goods principally on roads, inland waterways and coastal ships to moving them principally on railways as inevitable, unproblematic, and the result of technological improvements. While the benefits of rail travel were so clear that most other modes of passenger transport disappeared once rail service was introduced, railway goods transport did not offer as obvious an improvement over the existing goods transport network, known as the carrying trade. Initially most railways were open to the carrying trade, but by the 1840s railway companies began to provide goods carriage and exclude carriers from their lines. The resulting conflict over how, and by whom, goods would be transported on railways, known as the carrying question, lasted more than a decade, and railway companies did not come to dominate domestic goods carriage until the 1850s. In this study I develop a fuller picture of the carrying trade than currently exists, highlighting its multimodal collaborative structure and setting it within the ‘sociable economy’ of late eighteenth- and early nineteenth-century England. I contrast this economy with the business model of joint-stock companies, including railway companies, and investigate responses to the business practices of these companies. I analyse the debate over railway company goods carriage, and identify changes in goods transport resulting from its introduction. Finally, I describe the development and outcome of the carrying question, showing that railway companies faced resistance to their attempts to control goods carriage on rail lines not only from the carrying trade but also from customers of goods transport, the government and the general public. -
RAILTOURS by Sophie Bunker-James
3403 ANON Recreating Gresley’s last design THE COMMUNICATION ORD No. 56 Winter 2020 C Daniela Filová No. 2007’s tender tank nears completion at North View Engineering. THE P2 PROGRESSES! This edition of The Communication Cord works. At Darlington Locomotive Works boiler parts are beginning to appear for focuses on the volume of work that has great strides continue to be made with the two new diagram 118a boilers, the first been completed on No. 2007 Prince of dozens of sub-assemblies and parts are of which should be assembled later this Wales. Construction of the locomotive now being produced for the fabrication of year. The accelerating rate of construction has moved forward on many fronts but the pony truck in parallel with the on-going means that we must re-double our efforts none more so than the tender, the tank manufacture of the complex electrical to finance all this work if No. 2007 is to be of which is nearly finished at North View system at both DLW and in deepest completed in 2022 – you all know what to Engineering as are the frames at Ian Howitt’s Cambridgeshire (see page 22). In Meiningen do! TCC 1 CONTENTS editorial by Graham Langer PAGE 1 We live in changing and challenging times! With the The P2 progresses! PAGE 2 confirmation that HS2 is going ahead it is becoming clear that Contents there will be massive changes in the way in which the West Editorial Coast route evolves and subsequent benefits for many of the PAGE 3 secondary lines that feed into it. -
Heyside Signals and Locomotives Three Etched Brass Footbridge Kits
The Lancashire & Yorkshire Railway Society The Lancashire & Yorkshire Railway Society sections; Cynric did the CAD work, and a short while later, I was presented with Heyside signals and locomotives three etched brass footbridge kits. Since the article on the 7mm scale layout Heyside in Magazine 251 there have been continuing The footbridge made up exactly as developments, both on the signalling side and in additions to the locomotive fleet, as its owner intended, fitting the space perfectly, RICHARD LAMBERT, who also took the layout photographs, explains… and providing a sound base to mount the signals. The signals themselves are made from wood, with etched and cast components from Scale Signal Supply for the fittings. The decking was made of copper-clad strip, stanchions from nickel- coated brass lace pins and the various brackets and smoke shields from brass sheet. The operating wire is 0.4mm nickel silver and the operation is by servos mounted under the baseboard. The gantry This was felt to be the signature piece of the layout with five dolls and nine arms. It is based on the gantry outside Victoria East Junction signal box and illustrations in the Society’s Focus on Signalling (No.3). The legs are made of wood, with brass ‘X’ pieces, while the support for the decking is four strips of brass. The decking itself is made from 84 P4 copper-clad sleepers, while the spandrels were commissioned by me from Scale Signal Supply. The dolls and hardware were built as before, but it was in the operation of the signals that most thought had to be given. -
The Mikado Messenger | Issue No. 66| April 2020 Ian Matthews Sanding the Filler, on the Tender Tank, Before It Is Painted
The Mikado Messenger | Issue No. 66| April 2020 Ian Matthews sanding the filler, on the tender tank, before it is painted - A1SLT Welcome to edition No. 66 of The Mikado Messenger, our monthly eNewsletter which aims to provide a regular progress update on the construction of new Gresley class No. 2007 Prince of Wales. Thanks to our supporters’ continued generosity, over £3.5m has now been donated or pledged – this equates to over 70% of the required £5m. This month see the launch of a brand new club - The Pony (Truck) Club - please see below for more information. Stephenson Engineering Ltd have sent us a fabulous video of the CNC machining programme that will be carried out on the coupling rods - it can be found in the Motion Update section, below. We are following Government guidelines with regards to the coronavirus, and whilst our office-based staff are now working from home, our workshop staff are continuing to work at Darlington Locomotive Works where they are taking all necessary precautions. However, as many of our supporters and volunteers are from vulnerable groups, the Works is currently closed to non-essential staff. In addition, Nene Valley Railway have cancelled all their events until the end of May 2020 so this means we can no longer hold the P2 Roadshow on Saturday 23rd May 2020 and the Supporters’ and Tornado Team day on Sunday 24th May 2020. We are sorry to have to make these changes. We hope you understand that the circumstances are beyond our control and the restrictions are very necessary at this challenging time. -
Serial Asset Type Active Designation Or Undertaking?
Serial Asset Type Active Description of Record or Artefact Registered Disposal to / Date of Designation, Designation or Number Current Designation Class Designation Undertaking? Responsible Meeting or Undertaking Organisation 1 Record YES Brunel Drawings: structural drawings 1995/01 Network Rail 22/09/1995 Designation produced for Great Western Rly Co or its Infrastructure Ltd associated Companies between 1833 and 1859 [operational property] 2 Disposed NO The Gooch Centrepiece 1995/02 National Railway 22/09/1995 Disposal Museum 3 Replaced NO Classes of Record: Memorandum and Articles 1995/03 N/A 24/11/1995 Designation of Association; Annual Reports; Minutes and working papers of main board; principal subsidiaries and any sub-committees whether standing or ad hoc; Organisation charts; Staff newsletters/papers and magazines; Files relating to preparation of principal legislation where company was in lead in introducing legislation 4 Disposed NO Railtrack Group PLC Archive 1995/03 National Railway 24/11/1995 Disposal Museum 5 YES Class 08 Locomotive no. 08616 (formerly D 1996/01 London & 22/03/1996 Designation 3783) (last locomotive to be rebuilt at Birmingham Swindon Works) Railway Ltd 6 Record YES Brunel Drawings: structural drawings 1996/02 BRB (Residuary) 22/03/1996 Designation produced for Great Western Rly Co or its Ltd associated Companies between 1833 and 1859 [Non-operational property] 7 Record YES Brunel Drawings: structural drawings 1996/02 Network Rail 22/03/1996 Designation produced for Great Western Rly Co or its Infrastructure -
Module BESTT MS1
Module BESTT MS1 Marine Steam Boiler Types, Construction and Maintenance. Aim This unit introduces learners to the wide variety of fuels which may be encountered in steam launches and small steam ships operating on inland waterways or sheltered coastal waters. The range of types of boilers is explained. In each case, the benefits of each fuel type or boiler type are explored. The reasons for caution when conducting external work on old boilers are explained. INTRODUCTION Boiler types considered Horizontal Fire Tube boilers (including locomotive type) Vertical Fire Tube boilers Horizontal Drum Water Tube boilers Vertical Drum Water Tube boilers Single coil (or Flash) boilers Construction, design and general arrangements Heat transfer Cleaning Considerations for boiler choice and design Options for materials and insulations Boiler cladding materials The sheer variety of boiler types used in marine applications is wider than anything we will encounter for railway locomotives or in road steam applications. Although fire tube boilers from earliest days have been the norm for railway locomotives, water tube boilers could also very occasionally be found in locomotives. The well-known Sentinel shunters had water tube boilers a little bigger but otherwise similar to the company’s steam wagon boilers, and Sir Nigel Gresley on the LNER experimented with a ‘Yarrow’ type boiler but dropped the idea and fitted Britain’s only 4-6-4 express engine with a traditional loco boiler. For shipping, various forms of the classic marine multi-furnace fire tube ‘Scotch’ boiler was a norm to the last, and vertical fire tube types were a standard for small steam launches, but alongside these a huge range of highly efficient water tube types was under constant development resulting in many different configurations. -
Predicting Locomotive Performance
PREDICTING LOCOMOTIVE PERFORMANCE . W. B. Hall. F R Eng., F.I.Mech.E. The more efficient locomotives tested towards the end of the ‘steam era’ had overall thermal efficiencies of around 7 or 8 percent when working at optimum conditions; that is, the work done at the drawbar was 7 or 8 percent of the calorific value of the coal burned. When account is taken of the energy losses from the boiler (mainly unburned fuel and heat carried away by the products of combustion) and of mechanical losses between the cylinders and the drawbar, the residual thermal efficiency referred to the cylinders could be as high as 14% or 15 %. By comparison, the efficiency of a perfect heat engine operating with similar steam conditions and exhausting to the atmosphere would be around 20%. The evolution of designs capable of the above performance had proceeded against a background of considerable mechanical ingenuity and engineering insight, but with an almost total lack of a theoretical framework for some of the more important processes involved. Mechanics and to some extent properties of materials were exceptions, but until the early part of the 20 th century the theoretical understanding of fluid mechanics, heat transfer and irreversible thermodynamics was not adequate to provide a theoretical framework for crucial aspects of design. Design ‘rules’ there were in abundance, but many were limited to only small variations from the test data from which they had been derived; most were purely empirical, and some were dimensionally unsound. The situation in the 1930s is well illustrated in a series of articles in the Railway Gazette by E.L.Diamond 1 which reviews both the nature of the problem and the many attempts to produce theoretical guidelines for design purposes. -
The Evolution of the Steam Locomotive, 1803 to 1898 (1899)
> g s J> ° "^ Q as : F7 lA-dh-**^) THE EVOLUTION OF THE STEAM LOCOMOTIVE (1803 to 1898.) BY Q. A. SEKON, Editor of the "Railway Magazine" and "Hallway Year Book, Author of "A History of the Great Western Railway," *•., 4*. SECOND EDITION (Enlarged). £on&on THE RAILWAY PUBLISHING CO., Ltd., 79 and 80, Temple Chambers, Temple Avenue, E.C. 1899. T3 in PKEFACE TO SECOND EDITION. When, ten days ago, the first copy of the " Evolution of the Steam Locomotive" was ready for sale, I did not expect to be called upon to write a preface for a new edition before 240 hours had expired. The author cannot but be gratified to know that the whole of the extremely large first edition was exhausted practically upon publication, and since many would-be readers are still unsupplied, the demand for another edition is pressing. Under these circumstances but slight modifications have been made in the original text, although additional particulars and illustrations have been inserted in the new edition. The new matter relates to the locomotives of the North Staffordshire, London., Tilbury, and Southend, Great Western, and London and North Western Railways. I sincerely thank the many correspondents who, in the few days that have elapsed since the publication: of the "Evolution of the , Steam Locomotive," have so readily assured me of - their hearty appreciation of the book. rj .;! G. A. SEKON. -! January, 1899. PREFACE TO FIRST EDITION. In connection with the marvellous growth of our railway system there is nothing of so paramount importance and interest as the evolution of the locomotive steam engine. -
Compounding and Superheating in Horwich Locomotives
M.\RCH 1910. 399 COMPOUNDING AND SUPERHEATING IN HORWICH LOCOMOTIVES. BY MR. GEORGE HUGHES, Member. CHIEFMECTI~NICAL EXGINEER, LANCASHIRE AND YORESHIRERAILWAY, HORWICH. When using the diagrams, tables, and illustrations given in this Paper it should be remembered that the Lancashire and Yorkshire Rail way is made up of severe gradients, numerous junctions, many goods depots and sidings, and that it runs through a very thickly populated district, consequently, with densc traffic, it is extremely difficult to operate. COMPOUNDING. For many years the compounding of locomotives has been a siibjcct of controversy, and to-day opinions are divided. Even a very important element, the ratios of volume of the high and loa-pressure cplinders, is debatable, for we find them as low a5 1 to 1.69, and as high as 1 to 3, and even more. It appears to the autlior, when comparing the area of a simple engine cylinder with that of the low pressure of a compound, if the back-pressure on the low-pressure piston iR not proportionatdy lower than in the Downloaded from pme.sagepub.com at UNIV NEBRASKA LIBRARIES on June 4, 2016 400 ('OXPOGNDING ATZD SUPERHEATING. ~IAI:CHl!ll(J. simple engine, it is better not to over-cylinder a compound on the low-pressure side. The question of boiler pressures is another point upon which much diversity of opinion exists, as pressures varying from 140 to 230 lb. per square inch are in use, or have been tried. On tbis point, the author considers that steam-pressure should not be raised simply for compounding, because per se this produces greater efficiency at the cost of increased boiler maintenance. -
Superheated Steam Boiler
A boiler is a closed vessel in which water or other fluid is heated. The heated or vaporized fluid exits the boiler for use in various processes or heating applications. [1][2] Contents [hide ] • 1 Overview o 1.1 Materials o 1.2 Fuel o 1.3 Configurations o 1.4 Safety • 2 Superheated steam boilers • 3 Supercritical steam generators o 3.1 History of supercritical steam generation • 4 Hydronic boilers • 5 Accessories o 5.1 Boiler fittings and accessories o 5.2 Steam accessories o 5.3 Combustion accessories o 5.4 Other essential items • 6 Controlling draft • 7 See also • 8 References • 9 Further reading • 10 External links Overview [edit ] Materials The pressure vessel in a boiler is usually made of steel (or alloy steel), or historically of wrought iron . Stainless steel is virtually prohibited (by the ASME Boiler Code) for use in wetted parts of modern boilers, but is used often in superheater sections that will not be exposed to liquid boiler water. In live steam models, copper or brass is often used because it is more easily fabricated in smaller size boilers. Historically, copper was often used for fireboxes (particularly for steam locomotives ), because of its better formability and higher thermal conductivity; however, in more recent times, the high price of copper often makes this an uneconomic choice and cheaper substitutes (such as steel) are used instead. For much of the Victorian "age of steam", the only material used for boilermaking was the highest grade of wrought iron, with assembly by rivetting . This iron was often obtained from specialist ironworks , such as at Cleator Moor (UK), noted for the high quality of their rolled plate and its suitability for high-reliability use in critical applications, such as high-pressure boilers. -
Part 2 of the Bibliography Catalogue
Bibliography - L&NWR Society Periodicals Part 2 Titles - LR to Z excluding Railway Magazine Registered Charity - L&NWRSociety No. 1110210 Copyright LNWR Society 2014 Title Year Volume Page Locomotives & Railways LNWR "Bloomer" Engines 1900 1/1 9 Review of Locomotive building for British Railways during 1899 - LNWR 1900 1/1 10 Mr.J.Ramsbottom's "Lady of the Lake" Class LNWR 1900 1/10 142 Mr. J.Ramsbottom's Lady of the Lake Class LNWR 1900 1/10 142 The North Western "Precedents" 1900 1/2 17 The North Western "Precedents" 1900 1/3 37 The North Western "Precedents" 1900 1/4 40 The North Western "Precedents" 1900 1/4 54 North Staffordshire Goods Engine Four DX Goods Engines recently sold by LNWR 1900 1/8 113 Railway & Locomotive Notes. Accident at Holmes Chapel. 1901 2/03 44 Railway & Locomotive Notes. Continuing list of Jubilee engines. 1901 2/03 45 Advert. Working & Management of an English Railway by Sir George Findlay. 1901 2/03 48 LNWR "Problem" Class 1901 2/19 85 North London Rly. Inside cylinder locomotives 1901 2/21 101 The Britannia Tubular Bridge, North Wales 1901 2/23 123 Outside cylinder tank engines "Metropolitan Railway Type" LNWR 1901 2/24 135 The Britannia Tubular Bridge 1902 3/25 9 The North Western Compound Locomotives 1902 3/27 24 The Britannia Tubular Bridge 1902 3/29 43 4ft 3in 8 Coupled 4 Cylinder Compound Mineral Locomotive LNWR 1902 3/29 47 The North Western Compound Locomotives 1902 3/30 57 The Britannie Tubular Bridge 1902 3/32 44 LNWR 6 Coupled Coal Engines 1902 3/33 90 The Britannia Tubular Bridge 1902 3/35 105 The North Western Compound Locomotives 1902 3/35 107 The Britannia Tubular Bridge 1902 3/36 115 Engraving and notes on McConnell "Patent" Type under the heading Supplement 1903 4/38 18 L&YR 4 Coupled Passenger Engines (LNWR Newtons) 1903 4/39 27 Outside Cylinder Bogie Tank Engines LNWR Metroploitan Tank rebuilds 1903 4/41 49 6 Coupled Saddle Tank Engine LNWR 1903 4/41 52 The North Western Compound Locomotives series not concluded 1903 4/42 61 London Railway Record Ten Years After.