CAF Annual Report 2018
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Investor Presentation 2019
Eversholt Rail Investor Presentation 2nd December 2019 Contents • Strategic context • Refranchising, opportunities and challenges • New and existing fleet management • Financial overview • Conclusions • Q&A 1 Executive summary • 2015-2018 characterised by investment to grow balance sheet • General election result and Williams Review should set the industry’s direction of travel over the medium term • Business focused on long-term value while addressing strategic challenges and opportunities • Contracted new build programmes coming to a very successful conclusion: C802 fleet fully delivered, C397 in advanced state of delivery and C195/C331 fleets progressing well • Management effort shifting to maximising opportunities for fleets with leases expiring in the near future and exploring attractiveness of alternative growth opportunities 2 Strategic context Strategy Great Trains, Great People, Great Future To be recognised as the expert provider of transport asset financing and Vision asset management for the long term Two strands to our strategy: 1 Optimise our current portfolio through maximising asset utilisation and investing to enhance residual value (RV) 2 Developing opportunities for further growth in transport sector Maintain investment discipline: we will continue to be selective in choosing growth opportunities ensuring that they are the right assets for our portfolio Great Trains Great Great People Great Great FutureGreat C802 all units in service Company offsite C397 in service 2019 4 2019 – pressures across the rail industry Reshaping -
Gloucester Railway Carriage & Wagon Co. 1St
Gloucester Railway Carriage & Wagon Co. 1st Generation DMU’s for British Railways A Review Rodger P. Bradley Gloucester RC&W Co.’s Diesel Multiple Units Rodger P Bradley As we know the history of the design and operation of diesel – or is it oil-engine powered? – multiple unit trains can be traced back well beyond nationalisation in 1948, although their use was not widespread in Britain until the mid 1950s. Today, we can see their most recent developments in the fixed formation sets operated over long distance routes on today’s networks, such as those of the Virgin Voyager design. It can be argued that the real ancestry can be seen in such as the experimental Michelin railcar and the Beardmore 3-car unit for the LMS in the 1930s, and the various streamlined GWR railcars of the same period. Whilst the idea of a self-propelled passenger vehicle, in the shape of numerous steam rail motors, was adopted by a number of the pre- grouping companies from around the turn of the 19th/20th century. (The earliest steam motor coach can be traced to 1847 – at the height of the so-called to modernise the rail network and its stock. ‘Railway Mania’.). However, perhaps in some ways surprisingly, the opportunity was not taken to introduce any new First of the “modern” multiple unit designs were techniques in design or construction methods, and built at Derby Works and introduced in 1954, as the majority of the early types were built on a the ‘lightweight’ series, and until 1956, only BR and traditional 57ft 0ins underframe. -
H2@Railsm Workshop
SANDIA REPORT SAND2019-10191 R Printed August 2019 H2@RailSM Workshop Workshop and report sponsored by the US Department of Energy Office of Energy Efficiency and Renewable Energy Fuel Cell Technologies Office, and the US Department of Transportation Federal Railroad Administration. Prepared by Mattie Hensley, Jonathan Zimmerman Prepared by Sandia National Laboratories Albuquerque, New MexiCo 87185 and Livermore, California 94550 Issued by Sandia National Laboratories, operated for the United States Department of Energy by National Technology & Engineering Solutions of Sandia, LLC. NOTICE: This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government, nor any agency thereof, nor any of their employees, nor any of their contractors, subcontractors, or their employees, make any warranty, express or implied, or assume any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represent that its use would not infringe privately owned rights. References herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise, does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States Government, any agency thereof, or any of their contractors or subcontractors. The views and opinions expressed herein do not necessarily state or reflect those of the United States Government, any agency thereof, or any of their contractors. Printed in the United States of America. This report has been reproduced directly from the best available copy. Available to DOE and DOE contractors from U.S. Department of Energy Office of Scientific and Technical Information P.O. -
Diesel Multiple Unit (DMU) Fact Sheet February 2016
Oasis Rail Transit Diesel Multiple Unit (DMU) Fact Sheet February 2016 Approximately 17 miles in length, the proposed Oasis Rail Transit corridor extends between downtown Cincinnati and the City of Milford and would initially be served by seven stations. In addition to providing a new rail-based regional transportation option serving Eastern Corridor communities, the Oasis line would also offer new opportunities for community enhancement and development. PREFERRED RAIL VEHICLE TYPE: DMU One of the most prominent features considered for the Oasis line is the actual rail vehicle (or train) that would transport passengers to their destinations. Early studies completed for the Eastern Corridor Program recommended that self-propelled passenger coaches be considered as the preferred rail vehicle type. Further studies explored in more detail the technologies available for the line including: • Diesel-powered locomotives pulling single or bi-level passenger coaches • Electrically-powered streetcar-type vehicles • Electrically-powered light rail vehicles call Electric Multiple Units (EMU/LRT) • Diesel-powered passenger cars (Diesel Multiple Units or DMUs) The results of those studies confirmed that diesel-powered passenger cars, or DMUs, would be the most appropriate technology for the Oasis Rail Transit line. Features of DMUs that made it stand out beyond other rail vehicle choices included: • DMUs are flexible in terms of operational capabilities and can efficiently serve the 17-mile Oasis corridor – which is too short for traditional “push-pull” locomotives and coach cars but More information about rail generally too long for streetcar-type vehicles – and efficiently vehicles is available in the Oasis manage the spacing between stations. -
Operational Rail Vehicle Strategy 2019-2034 Operational Rail Vehicle Strategy 2019-2034
OPERATIONAL RAIL VEHICLE STRATEGY 2019-2034 OPERATIONAL RAIL VEHICLE STRATEGY 2019-2034 INTRODUCTION The Science Museum Group (SMG) through the National Railway Museum (NRM) owns the largest fleet of operating historic locomotives in the United Kingdom, so it’s essential that we have a strategy to ensure the most effective and efficient use of these vehicles. The NRM, Locomotion and Science & Industry Museum in Manchester (SIM) will continue to operate a select number of rail vehicles from our collection. Showing our collections in action is one of the most direct tools we have to share our key values with visitors: revealing wonder, igniting curiosity and sharing authentic stories. What’s more, our visitors expect a train ride. We need to meet that expectation whilst managing our collection in the most professional and responsible manner. A commercially viable and deliverable plan will see a core selection of operating vehicles at York and Locomotion within the maintenance capabilities of teams at those locations. These have been chosen for reasons of accessibility, affordability, income potential, attractiveness to visitors, practicality of operation and sustainable repair as well as the railway stories they reveal. We use our rail vehicles in various ways with priority always given for static display for our visitors at York and Shildon. Other ways in which we use them are: operation on museum sites; static loans to accredited museums; operating loans to heritage railways; main line operation. Our loans reach diverse audiences across the UK, making the national collection accessible to many. These vehicles are brand ambassadors for our mission of inspiring future engineers and scientists. -
Realizing the Potential of Diesel Multiple-Unit Technology
00_TRN_286_TRN_286 7/11/13 5:04 PM Page 11 Realizing the Potential of Diesel Multiple-Unit Technology Research Overcomes Barriers THOMAS C. CORNILLIE P esigners of railroad vehicles long have recognized HOTO : T D the efficiencies achievable by locating propulsion HOMAS within a passenger-carrying vehicle, eliminating the need C. C for a separate locomotive. Although various designs of ORNILLIE vehicles powered by steam- and gasoline-fueled engines came into service starting in the 1890s, “diesel multiple unit” (DMU) emerged as a term-of-art in the late 1930s to describe vehicles that could operate as single cars or be combined to form a longer train. For the past 60 years, the rail diesel car (RDC) has epit- omized DMU technology in North America. The Budd Company of Philadelphia built nearly 400 RDCs between 1949 and 1962. These cars quickly gained a reputation for The Denton County Transportation Authority operates DMU vehicles between Denton, Texas, and a connection with the reliability, for adaptability to a range of services, and for Dallas Area Rapid Transit System at Carrolton. Couplings that the ease of making incremental technological upgrades. consolidate power and control connections into a single As federal policy structures for supporting transit couple—a standard feature on current DMU designs— investments solidified in the 1970s, DMU technology facilitate adapting train configuration to ridership demand. offered a way to improve the efficiency of commuter rail service. Revenue service demonstrations of European the intent of FRA crashworthiness regulations, coupled DMUs were carried out with federal funding; however, with regulatory reforms, has opened the door in Ameri- these efforts did not lead to the deployment of new tech- can and Canadian cities to DMUs incorporating proven nology. -
North Wales Coastal Extension
Train Simulator – North Wales Coastal Extension North Wales Coastal Extension: Crewe - Holyhead © Copyright Dovetail Games 2019, all rights reserved Release Version 1.0 Page 1 Train Simulator – North Wales Coastal Extension Contents 1 Route Map ............................................................................................................................................ 5 2 Rolling Stock ........................................................................................................................................ 6 3 Driving the Class 175 'Coradia' ............................................................................................................ 8 Cab Controls ....................................................................................................................................... 8 Key Layout .......................................................................................................................................... 9 4 Class 175 'Coradia' Systems ............................................................................................................. 10 DSD ................................................................................................................................................... 10 DRA ................................................................................................................................................... 10 Manual Door Control ........................................................................................................................ -
Potentials of Alternative Propulsion Systems for Railway Vehicles – a Techno-Economic Evaluation
2014 Ninth International Conference on Ecological Vehicles and Renewable Energies (EVER) Potentials of Alternative Propulsion Systems for Railway Vehicles – A Techno-Economic Evaluation Johannes Pagenkopf, M.Sc. Stefan Kaimer, M.Sc. German Aerospace Center, German Aerospace Center, Institute of Vehicle Concepts, Institute of Vehicle Concepts, Rutherfordstraße 2 Rutherfordstraße 2 12489 Berlin, Germany 12489 Berlin, Germany Email: [email protected] Email: [email protected] Abstract—This paper discusses alternative propulsion First, relevant alternative propulsion systems are briefly systems for heavy railway vehicles. First, edge conditions discussed. Then, the drivetrain’s potentials and drawbacks such as drivers and roadblocks for the implementation of in terms of technical, economical and operational aspects alternative propulsions in railway vehicles are discussed. For are briefly addressed with a particular focus on battery operations on a non-electrified railway route, the required electric multiple units (BEMU) and fuel cell multiple units main propulsion components of a battery electric multiple unit and of a fuel cell multiple unit are roughly dimensioned (FCMU). and economically compared with a benchmark diesel In the subsequent case study, the drivetrains of a multiple unit, the BR 612 of Deutsche Bahn. The non- BEMU and a FCMU are roughly designed and electrified route from Ulm to Oberstdorf was considered as a economically evaluated against a conventional diesel reference route for the simulation and drivetrain layout. Our multiple unit (DMU). analysis finds that alternative drive concepts hold a high potential for future railway vehicles, depending on the boundary conditions. III. ALTERNATIVE PROPULSION SYSTEMS IN (HEAVY) RAIL SYSTEMS Keywords — railway; life cycle costs; alternative propulsion; fuel cell; battery electric; simulation. -
Trains Galore
Neil Thomas Forrester Hugo Marsh Shuttleworth (Director) (Director) (Director) Trains Galore 15th & 16th December at 10:00 Special Auction Services Plenty Close Off Hambridge Road NEWBURY RG14 5RL Telephone: 01635 580595 Email: [email protected] Bob Leggett Graham Bilbe Dominic Foster www.specialauctionservices.com Toys, Trains & Trains Toys & Trains Figures Due to the nature of the items in this auction, buyers must satisfy themselves concerning their authenticity prior to bidding and returns will not be accepted, subject to our Terms and Conditions. Additional images are available on request. If you are happy with our service, please write a Google review Buyers Premium with SAS & SAS LIVE: 20% plus Value Added Tax making a total of 24% of the Hammer Price the-saleroom.com Premium: 25% plus Value Added Tax making a total of 30% of the Hammer Price 7. Graham Farish and Peco N Gauge 13. Fleischmann N Gauge Prussian Train N Gauge Goods Wagons and Coaches, three cased Sets, two boxed sets 7881 comprising 7377 T16 Graham Farish coaches in Southern Railway steam locomotive with five small coaches and Livery 0633/0623 (2) and a Graham Farish SR 7883 comprising G4 steam locomotive with brake van, together with Peco goods wagons tender and five freight wagons, both of the private owner wagons and SR all cased (24), KPEV, G-E, boxes G (2) Day 1 Tuesday 15th December at 10:00 G-E, Cases F (28) £60-80 Day 1 Tuesday 15th December at 10:00 £60-80 14. Fleischmann N Gauge Prussian Train Sets, two boxed sets 7882 comprising T9 8177 steam locomotive and five coaches and 7884 comprising G8 5353 steam locomotive with tender and six goods wagons, G-E, Boxes F (2) £60-80 1. -
Rail Accident Report
Rail Accident Report Buffer stop collision at Chester station 20 November 2013 Report 26/2014 November 2014 This investigation was carried out in accordance with: l the Railway Safety Directive 2004/49/EC; l the Railways and Transport Safety Act 2003; and l the Railways (Accident Investigation and Reporting) Regulations 2005. © Crown copyright 2014 You may re-use this document/publication (not including departmental or agency logos) free of charge in any format or medium. You must re-use it accurately and not in a misleading context. The material must be acknowledged as Crown copyright and you must give the title of the source publication. Where we have identified any third party copyright material you will need to obtain permission from the copyright holders concerned. This document/publication is also available at www.raib.gov.uk. Any enquiries about this publication should be sent to: RAIB Email: [email protected] The Wharf Telephone: 01332 253300 Stores Road Fax: 01332 253301 Derby UK Website: www.raib.gov.uk DE21 4BA This report is published by the Rail Accident Investigation Branch, Department for Transport. Buffer stop collision at Chester station 20 November 2013 Contents Summary 5 Introduction 6 Preface 6 Key definitions 6 The accident 7 Summary of the accident 7 Context 8 The investigation 12 Sources of evidence 12 Key facts and analysis 13 Sequence of events 13 Background information 16 Identification of the immediate cause 21 Identification of causal factors 22 Factors affecting the severity of consequences 35 Previous -
Applying Life Cycle Assessment to Analyze the Environmental Sustainability of Public Transit Modes for the City of Toronto
Applying life cycle assessment to analyze the environmental sustainability of public transit modes for the City of Toronto by Ashton Ruby Taylor A thesis submitted to the Department of Geography & Planning in conformity with the requirements for the Degree of Master of Science Queen’s University Kingston, Ontario, Canada September, 2016 Copyright © Ashton Ruby Taylor, 2016 Abstract One challenge related to transit planning is selecting the appropriate mode: bus, light rail transit (LRT), regional express rail (RER), or subway. This project uses data from life cycle assessment to develop a tool to measure energy requirements for different modes of transit, on a per passenger-kilometer basis. For each of the four transit modes listed, a range of energy requirements associated with different vehicle models and manufacturers was developed. The tool demonstrated that there are distinct ranges where specific transit modes are the best choice. Diesel buses are the clear best choice from 7-51 passengers, LRTs make the most sense from 201-427 passengers, and subways are the best choice above 918 passengers. There are a number of other passenger loading ranges where more than one transit mode makes sense; in particular, LRT and RER represent very energy-efficient options for ridership ranging from 200 to 900 passengers. The tool developed in the thesis was used to analyze the Bloor-Danforth subway line in Toronto using estimated ridership for weekday morning peak hours. It was found that ridership across the line is for the most part actually insufficient to justify subways over LRTs or RER. This suggests that extensions to the existing Bloor-Danforth line should consider LRT options, which could service the passenger loads at the ends of the line with far greater energy efficiency. -
Annual Report 2012 at a Glance
Knorr-Bremse Group Annual Report 2012 At a Glance KNORR-BREMSE GROUP 2008 2009 2010 2011 2012 Sales EUR mill. 3,384 2,761 3,712 4,241 4,300 Net income EUR mill. 192 99 239 329 295 Employees (as per Dec. 31)* 15,890 15,613 18,053 20,050 19,120 Personnel costs EUR mill. 686 641 721 805 861 Balance-sheet total EUR mill. 1,788 1,664 2,194 2,530 2,615 Equity EUR mill. 639 533 754 902 995 Capital expenditure ** EUR mill. 134 101 113 159 166 Depreciation ** EUR mill. 115 118 147 165 160 Reliability Incoming orders EUR mill. 3,209 3,185 4,040 4,073 3,948 Research and development expenditure EUR mill. 171 153 175 209 250 T 2012 R Technological Excellence * incl. leasing Entrepreneurship * *not including investments in financial assets L REPO A ANNU Passion Responsibility Knorr-Bremse Group Knorr-Bremse Group Annual Report 2012 At a Glance KNORR-BREMSE GROUP 2008 2009 2010 2011 2012 Sales EUR mill. 3,384 2,761 3,712 4,241 4,300 Net income EUR mill. 192 99 239 329 295 Employees (as per Dec. 31)* 15,890 15,613 18,053 20,050 19,120 Personnel costs EUR mill. 686 641 721 805 861 Balance-sheet total EUR mill. 1,788 1,664 2,194 2,530 2,615 Equity EUR mill. 639 533 754 902 995 Capital expenditure ** EUR mill. 134 101 113 159 166 Depreciation ** EUR mill. 115 118 147 165 160 Reliability Incoming orders EUR mill.