Norfolk Southern: Locomotive Hydrogen Fuel Perspective
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Locomotive Dedication Ceremony
The American Society of Mechanical Engineers REGIONAL MECHANICAL ENGINEERING HERITAGE COLLECTION LOCOMOTIVE DEDICATION CEREMONY Kenefick Park • Omaha, Nebraska June 7, 1994 Locomotives 4023 and 6900 are examples of the world’s largest motive power in the steam and diesel eras. These locomotives are on permanent display at Kenefick Park, which was established in 1989 in honor of noted former Union Pacific chairman, John C. Kenefick. The 4023 was one of twenty-five famous “Big Boy” type simple articulated locomotives Locomotive 4023 was a feature display lauded in the industry and press as the highest horsepower, heaviest and longest steam at the Omaha Shops locomotives ever built, developing seven thousand horsepower at their seventy miles until being moved to per hour design speed. Kenefick Park. 2 World’s largest The Big Boy type was designed at the Omaha headquarters of Union Pacific under the single unit diesel personal direction of the road’s noted mechanical head, Otto Jabelmann. The original locomotives required four axle trucks to distribute twenty locomotives of this type were built by American Locomotive Company in their heavy weight and Schenectady, New York, in the fall of 1941. They were built in preparation for the nation’s keep within track probable entry into World War II because no proven diesel freight locomotive was yet loading limits. in production. These 4-8-8-4 type locomotives were specifically designed to haul fast, heavy eastbound freight trains between Ogden, Utah, and Green River, Wyoming, over the 1.14 percent eastbound grade. The 4023 was one of five additional units built in 1944 under govern- ment authority in preparation for a twenty-five percent increase in traffic due to the shift from European to Pacific war operations. -
Failure of Wheel on Locomotive SCT 008 Near Fisher, South Australia
Failure of wheel on locomotive SCTInsert 008 document title Locationnear Fisher, | Date South Australia | 28 May 2011 ATSB Transport Safety Report Investigation [InsertRail Occurrence Mode] Occurrence Investigation Investigation XX-YYYY-####RO -2011- 0 09 Final – 3 July 2013 Released in accordance with section 25 of the Transport Safety Investigation Act 2003 Publishing information Published by: Australian Transport Safety Bureau Postal address: PO Box 967, Civic Square ACT 2608 Office: 62 Northbourne Avenue Canberra, Australian Capital Territory 2601 Telephone: 1800 020 616, from overseas +61 2 6257 4150 (24 hours) Accident and incident notification: 1800 011 034 (24 hours) Facsimile: 02 6247 3117, from overseas +61 2 6247 3117 Email: [email protected] Internet: www.atsb.gov.au © Commonwealth of Australia 2013 Ownership of intellectual property rights in this publication Unless otherwise noted, copyright (and any other intellectual property rights, if any) in this publication is owned by the Commonwealth of Australia. Creative Commons licence With the exception of the Coat of Arms, ATSB logo, and photos and graphics in which a third party holds copyright, this publication is licensed under a Creative Commons Attribution 3.0 Australia licence. Creative Commons Attribution 3.0 Australia Licence is a standard form license agreement that allows you to copy, distribute, transmit and adapt this publication provided that you attribute the work. The ATSB’s preference is that you attribute this publication (and any material sourced from it) using the following wording: Source: Australian Transport Safety Bureau Copyright in material obtained from other agencies, private individuals or organisations, belongs to those agencies, individuals or organisations. -
Sali DIESEL-ELECTRIC LOCOMOTIVE Empresa Ferroviaria Andina S.A, Bolivia
SALi DIESEL-ELECTRIC LOCOMOTIVE Empresa Ferroviaria Andina S.A, Bolivia At the end of 2017, the Andina-FCA Railway Company and Stadler Valencia signed a contract for the supply of the first three SALi locomotives to be used for freight transport services on its metric gauge railway network in Bolivia. SALi is a 6-axle diesel-electric locomotive with an ultra-lightweight design and with forefront technology, to successfully face the challenges entailed in operating on metre-gauge networks under conditions of great altitude (over 5,000 metres above sea-level) at a maximum speed of 100km/h, combining a high-power output at great altitude with reduced fuel consumption. It features 6 AC traction motors and two acoustic and heat-insulated driver’s cabs, to enhance comfort under extreme temperature conditions. Due to its design and performance, it is destined to become the benchmark locomotive of the Bioceanic Rail Integration Corridor which, crossing Bolivia, will link the Peruvian port of Ilo with the port of Santos, near Sao Paulo in Brazil. www.stadlerrail.com Stadler Rail Group Stadler Rail Valencia S.A. Ernst-Stadler-Strasse 1 Pol. Ind. Mediterráneo. Mitjera 6 CH-9565 Bussnang E-46550 Albuixech (Valencia) Phone +41 71 626 21 20 Phone +34 96 141 50 00 [email protected] [email protected] Technical features Vehicle data Technology – Based on proven models such as the EURO4000, UKLIGHT and Customer Empresa Ferroviaria Andina S.A EURODUAL. Region Bolivia – Suitable for operations at high altitude (over 5,000 m above -
Engineering Info
Engineering Info To Find Given Formula 1. Basic Geometry Circumference of a circle Diameter Circumference = 3.1416 x diameter Diameter of a circle Circumference Diameter = Circumference / 3.1416 2. Motion Ratio High Speed & Low Speed Ratio = RPM High RPM Low RPM Feet per Minute of Belt RPM = FPM and Pulley Diameter .262 x diameter in inches Belt Speed Feet per Minute RPM & Pulley Diameter FPM = .262 x RPM x diameter in inches Ratio Teeth of Pinion & Teeth of Gear Ratio = Teeth of Gear Teeth of Pinion Ratio Two Sprockets or Pulley Diameters Ratio = Diameter Driven Diameter Driver 3. Force - Work - Torque Force (F) Torque & Diameter F = Torque x 2 Diameter Torque (T) Force & Diameter T = ( F x Diameter) / 2 Diameter (Dia.) Torque & Force Diameter = (2 x T) / F Work Force & Distance Work = Force x Distance Chain Pull Torque & Diameter Pull = (T x 2) / Diameter 4. Power Chain Pull Horsepower & Speed (FPM) Pull = (33,000 x HP)/ Speed Horsepower Force & Speed (FPM) HP = (Force x Speed) / 33,000 Horsepower RPM & Torque (#in.) HP = (Torque x RPM) / 63025 Horsepower RPM & Torque (#ft.) HP = (Torque x RPM) / 5250 Torque HP & RPM T #in. = (63025 x HP) / RPM Torque HP & RPM T #ft. = (5250 x HP) / RPM 5. Inertia Accelerating Torque (#ft.) WK2, RMP, Time T = WK2 x RPM 308 x Time Accelerating Time (Sec.) Torque, WK2, RPM t = WK2 x RPM 308 x Torque WK2 at motor WK2 at Load, Ratio WK2 Motor = WK2 Ratio2 6. Gearing Gearset Centers Pd Gear & Pd Pinion Centers = ( PdG + PdP ) / 2 Pitch Diameter No. of Teeth & Diametral Pitch Pd = Teeth / DP Pitch Diameter No. -
UKDUAL LOCOMOTIVE BRLL to Be Used by DRS, United Kingdom
UKDUAL LOCOMOTIVE BRLL to be used by DRS, United Kingdom Beacon Rail Leasing Limited (BRLL) ordered 10 UKDUAL locomotives in August 2013 to be used by British operator Direct Rail Services (DRS) for both passenger and freight services. This locomotive – named Class 88 in the United Kingdom – is a dual-mode locomotive that can run on electrified lines under 25 kV AC overhead catenary with a power at rail of up to 4000 kW, but also has a diesel engine to run on non-electrified lines. It is a four-axle locomotive adapted to UK loading gauges, with AC/AC transmission and low axle load. It fully complies with all European standards regarding safety, emissions and environmental protection and with British regulations. The UKDUAL locomotive offers excellent flexibility to rail operators since the units can be operated on main lines as well as on secondary lines. www.stadlerrail.com Stadler Rail Group Stadler Rail Valencia S.A. Ernst-Stadler-Strasse 1 Pol. Ind. Mediterráneo. Mitjera 6 CH-9565 Bussnang E-46550 Albuixech (Valencia) Phone +41 71 626 21 20 Phone +34 96 141 50 00 [email protected] [email protected] Technical features Vehicle data Technology – Based on the UKLIGHT locomotive Customer BRLL/DRS – Multipurpose locomotive for passenger and freight Region United Kingdom applications Number of vehicles 10 – Adapted to UK gauges and regulations Commissioning 2017 – Caterpillar diesel engine C27 Stage IIB Locomotive type Dual-mode: electric/ – Electrical transmission manufacturer: ABB diesel-electric – AC traction -
History of a Forgotten Engine Alex Cannella, News Editor
POWER PLAY History of a Forgotten Engine Alex Cannella, News Editor In 2017, there’s more variety to be found un- der the hood of a car than ever. Electric, hybrid and internal combustion engines all sit next to a range of trans- mission types, creating an ever-increasingly complex evolu- tionary web of technology choices for what we put into our automobiles. But every evolutionary tree has a few dead end branches that ended up never going anywhere. One such branch has an interesting and somewhat storied history, but it’s a history that’s been largely forgotten outside of columns describing quirky engineering marvels like this one. The sleeve-valve engine was an invention that came at the turn of the 20th century and saw scattered use between its inception and World War II. But afterwards, it fell into obscurity, outpaced (By Andy Dingley (scanner) - Scan from The Autocar (Ninth edition, circa 1919) Autocar Handbook, London: Iliffe & Sons., pp. p. 38,fig. 21, Public Domain, by the poppet valves we use in engines today that, ironically, https://commons.wikimedia.org/w/index.php?curid=8771152) it was initially developed to replace. Back when the sleeve-valve engine was first developed, through the economic downturn, and by the time the econ- the poppet valves in internal combustion engines were ex- omy was looking up again, poppet valve engines had caught tremely noisy contraptions, a concern that likely sounds fa- up to the sleeve-valve and were quickly becoming just as miliar to anyone in the automotive industry today. Charles quiet and efficient. -
Effective 10/21/2016
Association of American Railroads SAFETY AND OPERATIONS MANUAL OF STANDARDS AND RECOMMENDED PRACTICES SECTION A, PART I TABLES OF CONTENT Compiled under the direction of the Committees responsible for the subjects shown herein. EFFECTIVE 10/21/2016 Published by The Association of American Railroads 425 Third Street, SW., Washington, D.C. 20024 © Copyright Association of American Railroads Printed in U.S.A. EFFECTIVE 10/21/2016 EFFECTIVE Copyright © 2016 by the Association of American Railroads (AAR) Safety and Operations 425 Third Street SW Suite 1000 Washington, DC 20024 All rights reserved, including the right to reproduce this book in any form. It is the AAR’s intention that this publication be used to promote the objectives of the AAR and its members for the safe, efficient, and uniform interchange of rail equipment in North America. To this end, only excerpts of a rule or specification may be reproduced by the purchaser for their own use in promoting this objective. No portion of this publication may be displayed or otherwise made available to multiple users through any electronic distribution media including but not limited to a local area network or the Internet. No portion may be sold or used for advertisement or gain by any entity other than the AAR and its authorized distributor(s) without written permission from the AAR. AAR Manual of Standards and Recommended Practices Tables of Content ORDERING INFORMATION Copies of the various sections of this manual can be obtained as follows: ORDERS FOR Publications Department PUBLICATIONS Transportation Technology Center, Inc. P.O. Box 11130 55500 DOT Road Pueblo, CO 81001 Email: [email protected] Phone: Toll-free 877-999-8824, Direct 719-584-0538 Fax: 719-584-7157 TTCI Web page: http://www.aar.com Online ordering: http://www.aarpublications.com/ CIRCULAR Subscriptions to Circular Letters of the AAR Safety and Operations’ Technical Services are available in LETTER hardcopy or electronic format (online access via AAR’s Web page at http://aarcirculars.aar.org. -
FERRMED LOCOMOTIVE CONCEPT STUDY 1 2.Pdf
FERRMED FREIGHT LOCOMOTIVE CONCEPT STUDY By: TABLE OF CONTENTS 1 INTRODUCTION .................................................................................................................... 4 1.1 What is FERRMED? ....................................................................................................... 4 1.2 FERRMED Objectives .................................................................................................... 5 1.3 The FERRMED Standards.............................................................................................. 5 2 EXECUTIVE SUMMARY ....................................................................................................... 7 3 EUROPEAN NETWORK CHARACTERISTICS .................................................................... 9 4 INTEROPERABILITY AND CROSS-ACCEPTANCE .......................................................... 12 4.1 Interoperability .............................................................................................................. 12 4.2 ERTMS.......................................................................................................................... 18 4.3 Cross-Acceptance ......................................................................................................... 21 5 STATE-OF-THE-ART WORLDWIDE LOCOMOTIVES ....................................................... 23 6 REQUIRED STARTING TRACTIVE EFFORT AND POWER TO HAUL “FERRMED TRAINS” ..................................................................................................................................... -
1976 Technical Documentation Locomotive Truck Hunting M.Pdf
TECHNICAL DOCUMENTATION LOCOMOTIVE TRUCK HUNTING MODEL V. K. Garg OHO G. C. Martin P. W. Hartmann J. G. Tolomei mnnnn irnational Government-Industry 04 - Locomotives ch Program on Track Train Dynamics R-219 TE C H N IC A L DOCUMENTATION rnn nnn LOCOMOTIVE TRUCK HUNTING MODEL V. K. Garg G. C. Martin P. W. Hartmann a a J. G. Tolomei dD 11 TT|[inr i3^1 i i H§ic§ An International Government-Industry Research Program on Track Train Dynamics Chairman L. A. Peterson J. L. Cann Director Vice President Office of Rail Safety Research Steering Operation and Maintenance Federal Railroad Administration Canadian National Railways G. E. Reed Vice Chairman Director Committee W. J. Harris, Jr. Railroad Sales Vice President AMCAR Division Research and Test Department ACF Industries Association of American Railroads D. V. Sartore or the E. F. Lind Chief Engineer Design Project Director-Phase I Burlington Northern, Inc. Track Train Dynamics Southern Pacific Transportation Co. P. S. Settle Tack Tain President M. D. Armstrong Railway Maintenance Corporation Chairman Transportation Development Agency W. W. Simpson Dynamics Canadian Ministry of Transport Vice President Engineering W. S. Autrey Southern Railway System Chief Engineer Atchison, Topeka & Santa Fe Railway Co. W. S. Smith Vice President and M. W. Beilis Director of Transportation Manager General Mills, Inc. Locomotive Engineering General Electric Company J. B. Stauffer Director M. Ephraim Transportation Test Center Chief Engineer Federal Railroad Administration Electro Motive Division General Motors Corporation R. D. Spence (Chairman) J. G. German President Vice President ConRail Engineering Missouri Pacific Co. L. S. Crane (Chairman) President and Chief W. -
Feeling Joules and Watts
FEELING JOULES AND WATTS OVERVIEW & PURPOSE Power was originally measured in horsepower – literally the number of horses it took to do a particular amount of work. James Watt developed this term in the 18th century to compare the output of steam engines to the power of draft horses. This allowed people who used horses for work on a regular basis to have an intuitive understanding of power. 1 horsepower is about 746 watts. In this lab, you’ll learn about energy, work and power – including your own capacity to do work. Energy is the ability to do work. Without energy, nothing would grow, move, or change. Work is using a force to move something over some distance. work = force x distance Energy and work are measured in joules. One joule equals the work done (or energy used) when a force of one newton moves an object one meter. One newton equals the force required to accelerate one kilogram one meter per second squared. How much energy would it take to lift a can of soda (weighing 4 newtons) up two meters? work = force x distance = 4N x 2m = 8 joules Whether you lift the can of soda quickly or slowly, you are doing 8 joules of work (using 8 joules of energy). It’s often helpful, though, to measure how quickly we are doing work (or using energy). Power is the amount of work (or energy used) in a given amount of time. http://www.rdcep.org/demo-collection page 1 work power = time Power is measured in watts. One watt equals one joule per second. -
Hydrogen-Rail (Hydrail) Development
H2@Rail Workshop Hydrogen-Rail (hydrail) Development Andreas Hoffrichter, PhD Burkhardt Professor in Railway Management Executive Director of the Center for Railway Research and Education [email protected] H2@Rail Workshop, Lansing, MI March 27, 2019 Contents • Current rail energy consumption and emissions • Hybrids • Primary power plant efficiencies • Hydrail development • Past and on-going research - 2 - Michigan State University, 2019 Current Rail Energy Efficiency and GHG DOT (2018), ORNL (2018) - 3 - Michigan State University, 2019 Regulated Exhaust Emissions • The US Environmental Protection Agency (EPA) has regulated the exhaust emissions from locomotives • Four different tiers, depending on construction year of locomotive • Increasingly stringent emission reduction requirements • Tier 5 is now in discussion (see next slide) • Achieving Tier 4 was already very challenging for manufacturers (EPA, 2016) - 4 - Michigan State University, 2019 Proposed Tier 5 Emission Regulation • California proposed rail emission regulation to be adopted at the federal level (California Air Resources Board, 2017) - 5 - Michigan State University, 2019 Class I Railroad Fuel Cost 2016 (AAR, 2017) • Interest from railways in alternatives high when diesel cost high, interest low when diesel cost low • When diesel cost are high, often fuel surcharges introduced to shippers • Average railroad diesel price for the last 10 years ~US$2.50 per gallon (AAR, 2017) - 6 - Michigan State University, 2019 Dynamic Braking • Traction motors are used as generators • Generated electricity is: – Converted to heat in resistors, called rheostatic braking – Fed back into wayside infrastructure or stored on-board of train, called regenerative braking • Reduces brake shoe/pad wear, e.g., replacement every 18 month rather than every18 days (UK commuter train example) • Can reduces energy consumption. -
Overview of Wheel/Rail Load Environment Caused by Freight Car Suspension Dynamics
34 TRANSPORTATION RESEARCH RECORD 1241 Overview of Wheel/Rail Load Environment Caused by Freight Car Suspension Dynamics SEMIH KALAY AND ALBERT REINSCHMIDT It has been a well-established fact that excessive wheel/rail loads dynamic load factors that represent only the effects of max cause accelerated wheel/rail wear, truck component deterioration, imum dynamic load conditions (7). The most serious problem track damage, and increased potential for derailment. The eco with these types of assumptions is that they neither make any nomic and safety impact of the increased wheel rail loads can only distinction for the effects of suspension design used in differ be ascertained by a total characterization of the wheel/rail loads. In this paper, a comprehensive set of experimental results obtained ent types of freight cars nor describe the variety of track from on-track testing of conventional North American freight cars conditions found in revenue service. Ideally, for design of using both wayside and on-board measurement systems are pre track and fretgh:t car structures, a total description of the load sented. The particular emphasis is given to the wheel/rail loads spectra including low-frequency high-dynamic loads should resulting from suspension dynamics. The dynamic wheel/rail envi be used (8). ronment addressed in this paper is limited to dynamic performance Our purpose in this paper is to provide an overall under regimes such as rock-and-roll and pitch-and-bounce, hunting, and standing of the dynamic load environment encountered under curving. The strong dependence of the dynamic response of a railway vehicle on a truck suspension system has been illustrated typical North American freight cars.