RFA Case Study Unit Train Derailment Incident Details

Total Page:16

File Type:pdf, Size:1020Kb

RFA Case Study Unit Train Derailment Incident Details Unit Train Derailment Site Case Study: Emergency Response Tactics Incident Details Published by: Renewable Fuels Association Authored by: International Association of Fire Chiefs March 2015 This document was prepared by the International Association of Fire Chiefs (IAFC) for the Renewable Fuels Association (RFA). The information, though believed to be accurate at the time of publication, should not be considered asPREFACE legal advice or as a substitute for developing specific company operating guidelines. IAFC or RFA makes no warranty, expressed or implied, or assumes any legal liability or responsibility for the accuracy, completeness, or applicability of the information presented in this document. 1 Handling Instructions Hazardous Material - Unit Train Related Transportation Incidents Case Study The information gathered in this CASE STUDY is classified as open source and should be used as a reference in reviewing the potential hazards of your community. At a minimum, the attached materials will be disseminated through the Renewable Fuels Association (RFA). Points of Contact: Renewable Fuels Association: Kristin Moore Vice President, Technical Services 425 Third St. SW, Suite1150 Washington, DC 20024 International Association of Fire Chiefs: James Rist Program Specialist 4025 Fair Ridge Dr. Fairfax, VA 22033 Richard Miller Program Manager John Woulfe Assistant Director Programs and Technology 2 Table of Contents Case Study #1……………………………………………………………………………….4 Case Study #2………………………………………………………………………………15 Case Study #3………………………………………………………………………………24 Case Study #4………………………………………………………………………………34 Case Study #5………………………………………………………………………………39 Appendix: Events Summary Table………………………………………………………47 3 Case Study #1 Title: Lynchburg Derailment Incident Background and Locality Contact: Conference Call Interview – Conducted on Wednesday, 4 June 2014 Lynchburg Fire Department, Fire Chief Steven B. Ferguson ([email protected]) 800 Madison Street Lynchburg, VA 24504-2545 Rail Line: CSX Transportation / CSX Corporation (CSX) Date: Monday, 30 April 2014 Location: Lynchburg, Virginia Narrative: Written by James Rist and Richard Miller Weather: Source – Weather Underground (www.wunderground.com) Photos: Various Sources Emergency Plan/ Fire Pre-Plan: Yes Supporting Documentation: Lynchburg Narrative Lynchburg is an independent city in the Commonwealth of Virginia. As of the 2010 census, the population was 75,568. Located in the foothills of the Blue Ridge Mountains along the banks of the James River, Lynchburg is approximately 120 miles west of Richmond. Other nearby cities include: Roanoke (southwest), Charlottesville (northeast), and Danville (south). The Lynchburg Fire Department, established in April of 1883, provides fire suppression and prevention services, emergency medical services, technical rescue, hazardous materials response, and confined space emergency response for approximately 76,000 Lynchburg residents, as well as the thousands who enter the area daily to work and shop. The department is staffed with 192 personnel, including civilians, firefighters and emergency medical personnel operating with eight stations, an administrative office, a specialized repair shop, and a fire training facility. The City of Lynchburg uses the Commonwealth of Virginia Department of Fire Programs for fire service certifications. All Lynchburg personnel are Hazardous Materials Level Awareness and Operations certified, with many certified at the Technician-Level. HazMat Team The Lynchburg Fire Department's HazMat Team provides the citizens of Lynchburg with an innovative approach for resolution of life safety situations involving hazardous materials. Fire department employees provide advanced planning and management services for chemical releases in the Lynchburg area. By developing partnerships and enacting written mutual aid agreements with other localities, the hazmat team provides the ability to take an 4 offensive approach to unplanned releases of hazardous materials. Some incidents may require the response of the regional hazmat team; however, Lynchburg’s team effectively decreases critical time delays before more aggressive actions can be taken. This will favorably change the outcome of a chemical release in the Lynchburg area. HazMat Team Capabilities Ability to: Control a hazardous substance spill or leak. Assess and manage container damage. Detect and monitor hazardous atmospheres. Work at transportation or fixed facility emergencies. Use advanced chemical protective clothing. Decontaminate personnel during exposures. Perform advanced hazmat life support medical services. The hazmat team operates in compliance with governmental regulations and professional standards. Members of the hazmat team offer additional hazmat related training for other Lynchburg public safety departments. HazMat Team Profile The Lynchburg HazMat Team was developed in 1999 and operates a Level III self-contained response unit from Lakeside Drive Fire Station #7. The team consists of 30 technicians and specialists who perform these special operations in addition to their firefighting and EMS duties with the Lynchburg Fire Department. Rail Background Lynchburg has pre-plans for the railways in their area, as both CSX and Norfolk Southern have rail yards. Lynchburg also sees passenger rail as Amtrak shares rail time with freight rail. In addition to the normal freight and passenger rail train traffic, Lynchburg experiences a unit train of either Bakken crude oil or ethanol daily. These trains, operated by CSX, transport these products through Lynchburg southeast to Yorktown, VA to the Plains All American Pipeline LP. At that location these products are transloaded (Transloading is the process of transferring a shipment from one mode of transportation to another) into either pipeline or aboard barges or ships moored on the York River. Besides crude oil and ethanol, products such as butane, biodiesel components and other petroleum products, will also come and go by rail and water; therefore some of these products may pass through Lynchburg heading 5 westward. Free access mapping system: http://www.mapsofworld.com/usa/states/virginia/virginia-railway-map.html Incident On Wednesday afternoon, 30 April 2014, at 1400 hours a CSX Bakken crude oil unit train was transiting through downtown Lynchburg when it derailed. The 105-car train had 17 of its DOT- 111 rail cars derail. Three cars landed in the James River where one leaked product into the river, but another car breeched and burned. A local business called 9-1-1 reporting a vehicle fire. Initial fire department response consisted of three engines, truck (ladder), a Battalion Chief and EMS. Upon arrival after initial determination of a rail incident, an additional two engines and truck were dispatched to the assignment. Incident command post was established at a nearby intersection and a defensive posture to protect exposures was initially established. Regional Mutual Aid called to provide backfill coverage. A Lynchburg Fire Department recall was activated for off-duty staff to report (overtime) for backfill to maintain adequate emergency service protection. The incident command post location was relocated in the first hour to a parking lot that allowed the incident command post to safely continue operations. The command post operation was unified with police and city management. According to Lynchburg EMS, there was no CSX representation at the command post until the end of the incident and command was never able to meet or talk with the train crew. A second fire department Command Battalion Chief had to be dispatched to the CSX rail yard within the city of Lynchburg to acquire the train’s consist, which was attained and brought back to the command post. Product identification: Incident command identified the products involved by the DOT placards (DOT 1267) and utilizing the DOT 2012 Emergency Response Guide (ERG), command 6 made efforts to verify that information with the train’s consist. Incident command established a staging area a few blocks from the second command post. No additional fire department resource units were required for the incident as command decided to conduct a nonintervention mode of operation. Therefore, fire department resources never totaled more than six engines, two trucks, hazmat, and additional command staff on the scene. Command established a James River water operations boat crew to gain an assessment of the rail cars in the water and deploy containment booms. A half mile evacuation of the downtown area was established as outlined in Public Safety Section of the 2012 DOT ERG Guide 128. Command continued to monitor the situation and allowed the product involved to burn off before deciding to transition into offensive operations. An Initial foam fire attack was used to extinguish the remaining product. Complete extinguishment and overhaul operations continued with assistance from the CSX rail operators until termination of the incident. Utilizing a tag or passport accountability system with a Rescue Intervention Team format, all personnel wore their structural gear with self-contained breathing apparatuses except hazmat at who wore Level-B suits while performing air sampling. Key Factors of Operations: The City of Lynchburg municipal water supply adequately met the needs of the incident. Foam concentrate and foam supply was adequate for this incident. Lynchburg Fire Chief Ferguson assessed that the fire department resources met the need for this incident. Lynchburg’s
Recommended publications
  • Activity-Based Rail Freight Costing a Model for Calculating Transport Costs in Different Production Systems
    Activity-Based Rail Freight Costing A model for calculating transport costs in different production systems GERHARD TROCHE Freight flows Requirements & Desires Train timetable Possibilities & Restrictions Infrastructure Doctoral Thesis in Railway Traffic Planning Stockholm, Sweden 2009 KUNGLIGA TEKNISKA HÖGSKOLAN TRITA-TEC-PHD 09-002 Royal Institute of Technology ISSN 1653-4468 ISBN 13:978-91-85539-35-2 Division for Transportation & Logistics Railway Group Activity-Based Rail Freight Costing A model for calculating transport costs in different production systems Gerhard Troche Doctoral Thesis Stockholm, February 2009 Gerhard Troche © 2009 Gerhard Troche [email protected] Division for Transportation & Logistics - Railway Group - S – 100 44 STOCKHOLM Sweden www.infra.kth.se Printed in Sweden by Universitetsservice US AB, Stockholm 2009 - 2 - Activity-Based Rail Freight Costing - 3 - Gerhard Troche Innehåll Preface 7 Summary 9 1 Introduction 17 1.1 Background 17 1.2 The need for information on railway costs 23 1.3 Goals and purpose 26 1.4 Delimitations 28 2 Literature review 31 2.1 Introductory remarks 31 2.2 General theory of costs and cost calculation 33 2.3 Transport cost models for rail freight 51 3 Methodology 67 3.1 Research approach 67 3.2 Selection of activities and cost items to be depicted 71 3.3 Model validation 75 3.4 Methods of data collection 78 4 Structuring the rail freight system 83 4.1 Products and production systems 83 4.2 Operating principles for freight trains 90 4.3 Changing organizational structures in the railway
    [Show full text]
  • Rail Accident Report
    Rail Accident Report Derailment of a passenger train near Cummersdale, Cumbria 1 June 2009 Report 06/2010 March 2010 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 2010 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. * Cover photo courtesy of Network Rail Derailment of a passenger train near Cummersdale, Cumbria, 1 June 2009 Contents Preface 5 Key Definitions 5 The Accident 6 Summary of the accident 6 The parties involved 7 Location 8 External circumstances 8 The trains involved 10 Events preceding the accident 10 Events during the accident 10 Consequences of the accident 11 Events following the accident 11 The Investigation
    [Show full text]
  • JR East Technical Review No.27-AUTUMN.2013
    Interpretive article Clarification of Mechanism of Shinkansen Derailment in the 2011 Great East Japan Earthquake and Countermeasures Against Earthquakes Kenji Horioka Director, Safety Research Laboratory, Research and Development Center of JR East Group The Great East Japan Earthquake of March 11, 2011 resulted in tremendous damage to JR East railway facilitates due to seismic vibration and the ensuing tsunami. One incident was the derailment of a Tohoku Shinkansen train making a test run near Sendai Station. This marked the second time a JR East Shinkansen train had derailed, following that in the 2004 Mid Niigata Prefecture Earthquake. This article will cover the derailment accident investigation and its findings along with issues and lessons discovered in the process of that investigation. It will also cover past countermeasures against earthquakes and future issues in R&D. 1 Introduction of the process of clarifying derailment accident phenomena, lessons learned through that, and new issues that came up in Broad-ranging damage was suffered in the JR East area due to light the recent earthquake. seismic vibration and the ensuing tsunami of the Great East In clarifying derailment accident phenomena, we received Japan Earthquake of March 11, 2011. The earthquake was huge, much technical guidance from the Railway Technical Research measuring a magnitude (MW) of 9.0 (approx. 1,000 times the Institute (RTRI) related to issues such as analyzing response of energy of the 1995 Great Hanshin-Awagi Earthquake), but we structures affected by seismic motion and analyzing rolling stock were fortunate in that there were no major injuries to passengers. behavior. I would like to take this opportunity to express our JR East did, however, suffer unprecedented damage including gratitude for their assistance.
    [Show full text]
  • Railwayoccurrencerepo Rt
    RAILWAY OCCURRENCE REPORT 05-109 tourist Trains Linx and Snake, derailments, Driving 20 February 2005 - Creek Railway, Coromandel 3 March 2005 TRANSPORT ACCIDENT INVESTIGATION COMMISSION NEW ZEALAND The Transport Accident Investigation Commission is an independent Crown entity established to determine the circumstances and causes of accidents and incidents with a view to avoiding similar occurrences in the future. Accordingly it is inappropriate that reports should be used to assign fault or blame or determine liability, since neither the investigation nor the reporting process has been undertaken for that purpose. The Commission may make recommendations to improve transport safety. The cost of implementing any recommendation must always be balanced against its benefits. Such analysis is a matter for the regulator and the industry. These reports may be reprinted in whole or in part without charge, providing acknowledgement is made to the Transport Accident Investigation Commission. Report 05-109 tourist Trains Linx and Snake derailments Driving Creek Railway Coromandel 20 February 2005 - 3 March 2005 Abstract On Sunday 20 February 2005 at about 1300, the Driving Creek Train Linx derailed at Peg 1660. The rear bogie of the last passenger set derailed and was dragged about 15 m before one of the derailment bars hit a rail joint fishplate, causing the rear bogie to jump further to the left-hand side of the track. One passenger received moderate injuries. In the afternoon of Sunday 27 February 2005, the rear bogie of the last passenger set of the Train Linx derailed to the inside of a tight right-hand curve at Peg 1270 on the Driving Creek Railway.
    [Show full text]
  • Chapter 14 Yards and Terminals1
    CHAPTER 14 YARDS AND TERMINALS1 FOREWORD This chapter deals with the engineering and economic problems of location, design, construction and operation of yards and terminals used in railway service. Such problems are substantially the same whether railway's ownership and use is to be individual or joint. The location and arrangement of the yard or terminal as a whole should permit the most convenient and economical access to it of the tributary lines of railway, and the location, design and capacity of the several facilities or components within said yard or terminal should be such as to handle the tributary traffic expeditiously and economically and to serve the public and customer conveniently. In the design of new yards and terminals, the retention of existing railway routes and facilities may seem desirable from the standpoint of initial expenditure or first cost, but may prove to be extravagant from the standpoint of operating costs and efficiency. A true economic balance should be achieved, keeping in mind possible future trends and changes in traffic criteria, as to volume, intensity, direction and character. Although this chapter contemplates the establishment of entirely new facilities, the recommendations therein will apply equally in the rearrangement, modernization, enlargement or consolidation of existing yards and terminals and related facilities. Part 1, Generalities through Part 4, Specialized Freight Terminals include specific and detailed recommendations relative to the handling of freight, regardless of the type of commodity or merchandise, at the originating, intermediate and destination points. Part 5, Locomotive Facilities and Part 6, Passenger Facilities relate to locomotive and passenger facilities, respectively.
    [Show full text]
  • Report 99-115 Vintage Train Derailment Kawakawa 26 June
    Report 99-115 vintage train derailment Kawakawa 26 June 1999 Abstract At about 1345 hours on Saturday, 26 June 1999, a vintage steam train operated by the Bay of Islands Vintage Railway was on a scheduled passenger trip from Opua to Kawakawa when the track spread and the locomotive and the following two carriages derailed at low speed. No injuries to the crew or passengers resulted. Safety issues identified included the standard of track maintenance and the adequacy of the track inspection. Two safety recommendations were made to the operator, and two to the Director of the Land Transport Safety Authority to address the safety issues. The Transport Accident Investigation Commission is an independent Crown entity established to determine the circumstances and causes of accidents and incidents with a view to avoiding similar occurrences in the future. Accordingly it is inappropriate that reports should be used to assign fault or blame or determine liability, since neither the investigation nor the reporting process has been undertaken for that purpose. The Commission may make recommendations to improve transport safety. The cost of implementing any recommendation must always be balanced against its benefits. Such analysis is a matter for the regulator and the industry. These reports may be reprinted in whole or in part without charge, providing acknowledgement is made to the Transport Accident Investigation Commission. Transport Accident Investigation Commission P O Box 10-323, Wellington, New Zealand Phone +64 4 473 3112 Fax +64 4 499 1510 E-mail: [email protected] Web site: www.taic.org.nz Contents List of Abbreviations..............................................................................................................................
    [Show full text]
  • Commission of Railway Safety)
    GOVERNMENT OF INDIA MINISTRY OF CIVIL AVIATION (COMMISSION OF RAILWAY SAFETY) Office of the Commissioner of Railway Safety, Eastern Circle, 14, Strand Road (12th Floor), Kolkata - 700001. No. Dated: 17.08.2011 To The Chief Commissioner of Railway Safety, Ashok Marg, Lucknow - 226 001. Sir, Sub: Preliminary narrative report on derailment of 12510 Dn Guwahati – Bangalore Express between Km 279/10– 279/7 in Gour Malda – Jamirghata Double line non electrified section of MLDT division of E.Rly and its subsequent collision by 53027 Up Azimganj – Malda Town Passenger train at about 19.05 hrs on 31.07.2011. INTRODUCTION 1.1 Preamble In accordance with Rule 3 of the 'Statutory Investigation into Railway Accidents Rules, 1998, issued by the Ministry of Civil Aviation, Government of India, I hereby submit a brief Preliminary narrative Report of my Statutory Inquiry in respect of the Derailment of 12510 Dn Guwahati – Bangalore Express between Km 279/10 – 279/7 in Gour Malda – Jamirghata Double line non electrified section of MLDT division of E.Rly and its subsequent collision by 53027 Up Azimganj – Malda Town Passenger train at about19.05 hours on 31.07.2011 1.2 Inspection and Inquiry - 1.2.1 On 31.07.2011, I received a call on my mobile phone from CSO/E.Rly at 19.35 hrs. On seeing the call log at 20.00 hrs, I immediately rang him. He responded stating that there was an accident of the Bangalore – Guwahati Express over Malda division in MLDT-AZ section in which a passenger train is also involved.
    [Show full text]
  • On the Influence of Rail Vehicle Parameters on the Derailment Process and Its Consequences
    DAN BRABIE on the Derailment Parameters Vehicle On the Influence of Rail and its Consequences Process TRITA AVE 2005:17 ISSN 1651-7660 ISBN 91-7283-806-X On the Influence of Rail Vehicle Parameters on the Derailment Process and its Consequences DAN BRABIE Licentiate Thesis in Railway Technology KTH 2005 KTH Stockholm, Sweden 2005 www.kth.se On the Influence of Rail Vehicle Parameters on the Derailment Process and its Consequences by Dan Brabie Licentiate Thesis TRITA AVE 2005:17 ISSN 1651-7660 ISBN 91-7283-806-X Postal Address Visiting address Telephone E-mail Royal Institute of Technology Teknikringen 8 +46 8 790 84 76 [email protected] Aeronautical and Vehicle Engineering Stockholm Fax Railway Technology +46 8 790 76 29 SE-100 44 Stockholm . Contents Contents.............................................................................................................................i Preface and acknowledgements.................................................................................... iii Abstract ............................................................................................................................v 1 Introduction.................................................................................................................1 1.1 Background information......................................................................................1 1.2 Previous research.................................................................................................1 1.3 Scope, structure and contribution of this thesis...................................................3
    [Show full text]
  • Unit Train Transportation of Coal
    Digitized by the Internet Archive in 2012 with funding from University of Illinois Urbana-Champaign http://archive.org/details/unittraintranspo163ferg The Minimum Fee for NOTICE: Return or renew all Library Materials! each Lost Book is $50.00. JIJN 9 7 IQflQ The person charging this material Is re^Wisible for it was withdrawn its return to the library from which on or before the Latest Date stamped below. ins for discipli- Theft, mu lersity. nary actiof^rijl , To renew can TeiepHonS Center, UNIVERSITY OF ILLINOIS LIBRARY L161—O-1096 C>)A.<.cyJ^ CklfS! JbKARY >' OF ILLINOIS 4AJLUNC UNIT TRAIN TRANSPORTATION OF COAL BY JOHN ALAN FERGUSON S., Eastern Illinois University, 1970 M.S., Eastern Illinois University. 1971 THESIS Submitted in partial fulfillment of the requirements the degree of Master of Science in Mechanical Engineering in the Graduate College of the University of Illinois at Urbana-Champaign, 1975 Urbana, Illinois The person charging this material is re- sponsible for its return to the library from which it was withdrawn on or before the Latest Date stamped below. Theft, mutilation, and underlining of books are reasons for disciplinary action and may result in dismissal from the University. To renew call Telephone Center, 333-8400 UNIVERSITY OF ILLINOIS LIBRARY AT URBANA-CHAMPAIGN I l I I & uZtx tLkM m i° w» it* flee : L161—O-1096 . Appendix E CAC Document No. 163 Final Report * The Coal Future: Economic and Technological Analysis of Initiatives and Innovations to Secure Fuel Supply Independence by Michael Rieber Center for Advanced Computation University of Illinois at Urbana-Champaign and Shao Lee Soo James Stukel College of Engineering University of Illinois at Urbana-Champaign Advisor Jack Simon, Chief Illinois State Geological Survey Center for Advanced Computation University of Illinois at Urbana-Champaign Urbana, Illinois 61801 May 1975 This work was supported by the National Science Foundation (RANN) , NSF Grant No.
    [Show full text]
  • Summary of Accidents Investigated by the Federal Railroad Administration (FRA) Includes 238 Railroad Accidents
    © Summary of Accidents U.S. Department Investigated By The of Transportation Federal Railroad Administration Federal Railroad Administration Calendar Year 1 9 8 7 <T5 Office of Safety June 1989 Washington, D.C. 20590 TABLE OF CONTENTS P a g e INTRODUCTION .................. i ACCIDENT SUMMARY . .............................. iii ACCIDENT SUMMARY BY TRACK CLASS, DAMAGES, TYPE AND CAUSE................................................ iv INVOLVEMENT OF TRAIN ACCIDENTS BY RAILROAD, TYPE, AND CAUSE (Total figures varing due to duplicate reporting). v ACCIDENT LOCATION...................................... vi ACCIDENT INVESTIGATION REPORTS ........................ 1 / INTRODUCTION The 1987 Summary of Accidents Investigated by the Federal Railroad Administration (FRA) includes 238 railroad accidents. This summary provides the following information: o the railroad(s) involved o the location and the time of the accident o the type of railroad accident o the method of operation and movements involved o the speed involved o the type and class of track o the number of casualties o the estimated cost of railroad damages o the probable cause and any contributing factor(s). The railroad codes used in this summary can be found in the FRA Guide for Preparing Accident/Incident Reports Appendix A. Estimated railroad damage includes labor cost, and all other costs to repair or replace damaged on-track equipment, signals, track, track structures, or roadbed. The cost of lading and clearing the wreck, as well as the cost to society, is not included. y* The data were edited and summarized by FRA personnel. The United States Government assumes no liability for its contents or use. 9 Federal Railroad Administration Office of Safety, RRS-22 400 Seventh Street, S.W.
    [Show full text]
  • Moving Crude Oil by Rail
    Moving Crude Oil by Rail Association of American Railroads July 2014 Summary U.S. crude oil production has risen sharply in recent years, with much of the increased output moving by rail. In 2008, U.S. Class I railroads originated 9,500 carloads of crude oil. In 2013, they originated 407,761 carloads. In light of these increased volumes, railroads have taken numerous steps to enhance crude oil safety. They’ve undertaken top-to-bottom reviews of their operations and voluntarily updated their operating practices, from the selection of routes, to train speeds, to track and equipment inspections. Railroads already provide training to more than 20,000 emergency responders each year, but they are increasing their efforts to train first responders and are creating inven- tories of emergency response resources along their lines. And in addition to reviewing their own operations to make them safer, railroads are urging federal regulators to toughen existing standards for new tank cars and require that existing tank cars used to transport crude oil be retrofitted with safety-enhancing technologies or, if not upgraded, aggressively phased out. Additional pipelines will probably be built in the years ahead, but the competitive advantages railroads offer will keep them in the crude oil transportation market long into the future. The Shale Revolution Has Led to Sharply Higher Crude Oil Production Throughout the world, huge quantities of crude oil and natural gas are trapped in non- permeable shale rock. Over the past few years, technological advances — especially in hydraulic fracturing (“fracking”) and horizontal drilling — along with higher crude oil prices have made recovery of much of this oil and gas economically feasible.
    [Show full text]
  • Army Rail Transport Operations and Units
    FM 55-20 FIELD MANUAL m s ^ ; )cJ' M. il ARMY RAIL TRANSPORT OPERATIONS AND UNITS RETURN TO ARMY LIBRARY ROOM 1 A 518 PENTAGON HEADQUARTERS DEPARTMENT OF THE A\R M Y JUNE 1974 1 r il *FM 55-20 FIELD MâNUAL HEADQUARTERS DEPARTMENT OF THE ARMY No. 55-20 ! WASHINGTON, D. C., H June 197b ARMY RAIL TRANSPORT OPERATIONS AND UNITS Paragraph Page CHAPTER 1. INTRODUCTION 1-1—1-7 1-1 2. TRANSPORTATION RAILWAY UNITS Section I. General 2-1—2-3 2-1 II. Supervisory and Command Units 2-4—2-6 2-2 III. Maintenance and Operating Units 2-7—2-11 2-9 IV. Transportation Railway Service Teads 2-12, 2-13 2-18 t* A CHAPTER 3. RAILWAY OPERATIONS - 3-1—3-14 3-1 4. OPERATIONAL CONSIDERATIONS IN A THEATER OF OPERATIONS 4-1—4-6 4-1 f » A 5. RELATIONSHIP WITH OTHER AGENCIES . 5-1—5-5 5-1 6. RAILWAY MAINTENANCE AND SUPPLY _. 6-1—6-4 6-1 7. RAILWAY CONSTRUCTION AND REHABILITATION 7-1—7-11 7-1 8. RAILWAY ENGINEERING DATA 8-1—8-4 8-1 9. RAILWAY COMMUNICATIONS DATA 9-1—9-5 9-1 10. RAILWAY AUTOMATIC DATA PROCESSING SYSTEM ; 10-1, 10-2 10-1 11. RAILWAY SECURITY 11-1—11-7 11-7 12. PLANNING Section I. General - 12-1, 12-2 12-1 II. Railway Line Capacity Planning 12-3—12-15 12-1 III. Railway Yard Capacity Determination 12-16—12-19 12-4 IV. Railway Equipment Requirements 12-20—12-23 12-6 V.
    [Show full text]