Positive Train Control (PTC) Implementation on A-Train Commuter Rail Updated July 31, 2018 Presentation Overview
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Positive Train Control
POSITIVE TRAIN CONTROL Carolyn Hayward-Williams Director – Technical Oversight Dennis Stonecypher PTC Specialist National Space-Based PNT Advisory Board Meeting – June 2019 Outline 1. What is Positive Train Control (PTC) and Why is it being Implemented? 2. What does PTC do? 3. The Interoperable Electronic Train Management System (I-ETMS) 4. Use of Non-Us GNSS signals for PTC 2 What is Positive Train Control? PTC is a technology capable of automatically controlling train speeds and movements, should a train operator fail to take appropriate action in the prevailing conditions. PTC MUST reliably and functionally prevent train-to-train collisions, overspeed derailments, incursions into established work zone limits, and movements of trains through switches in the wrong position. 3 Why PTC? Chatsworth, CA September 12, 2008 25 Deaths, 135 Injuries 4 PTC is Required by Statute Congress passed the Rail Safety Improvement Act of 2008 (RSIA), requiring PTC systems to be fully implemented by December 31, 2015 on: Class I railroads’ main lines that transport poison- or toxic-by-inhalation hazardous materials and Any main lines with regularly scheduled intercity or commuter rail passenger service In October 2015, Congress extended the deadline for full implementation by at least three years to December 31, 2018, and required FRA to approve any railroad’s request for an “alternative schedule and sequence” with a final deadline not later than December 31, 2020, if a railroad demonstrated it met certain statutory criteria by December 31, 2018. 5 Overview of a PTC System GPS 2. Communication Segment 3. Wayside Segment Back Office Server (BOS) 4. -
GAO-13-720, POSITIVE TRAIN CONTROL: Additional Authorities
United States Government Accountability Office Report to the Chairman, Committee on Commerce, Science, and Transportation, U.S. Senate August 2013 POSITIVE TRAIN CONTROL Additional Authorities Could Benefit Implementation GAO-13-720 August 2013 POSITIVE TRAIN CONTROL Additional Authorities Could Benefit Implementation Highlights of GAO-13-720, a report to the Chairman, Committee on Commerce, Science, and Transportation, U. S. Senate Why GAO Did This Study What GAO Found In the wake of a 2008 commuter train To install positive train control (PTC)—a communications-based system collision that resulted in 25 fatalities, designed to prevent certain types of train accidents caused by human factors— RSIA was enacted. It requires major almost all railroads are overlaying their existing infrastructure with PTC freight railroads, Amtrak, and components; nonetheless, most railroads report they will miss the December 31, commuter railroads to install PTC on 2015, implementation deadline. Both the Association of American Railroads many major routes by the end of 2015. (AAR) and the Federal Railroad Administration (FRA) have reported that most PTC implementation, overseen by railroads will not have PTC fully implemented by the deadline. Of the four major FRA, is a complex endeavor that freight railroads included in GAO’s review, only one expects to meet the 2015 touches almost every aspect of train deadline. The other three freight railroads report that they expect to have PTC operations on major lines. According to implemented by 2017 or later. Commuter railroads generally must wait until FRA, 37 railroads are required to implement PTC. GAO was asked to freight railroads and Amtrak equip the rail lines they operate on, and most of the examine the status of PTC seven commuter railroads included in this review reported that they do not expect implementation. -
Positive Train Control (PTC)
Positive Train Control (PTC) Positive Train Control Safety is Amtrak’s top priority. Amtrak is a leader in the installation of Positive Train Control (PTC), a safety technology designed to match train speed to track conditions for improved safety. Positive Train Control provides an added layer of safety. Installation and maintenance of PTC is the responsibility of the railroad that controls the track. Amtrak Infrastructure In December 2015, Amtrak activated PTC on track between New York and Washington, D.C., completing installation on most Amtrak-owned infrastructure on the Northeast Corridor (NEC) spine. PTC has been installed between Boston and New Haven since 2000. The only exceptions are seven miles, all of which are located in or adjacent to terminal areas where trains move slower and automatic train control systems are in service. Of note, Amtrak is not responsible for installing PTC on the following segments of the NEC which it doesn’t control, between New York and Boston: Harold Interlocking east of New York Penn Station is the responsibility of the LIRR, and Metro-North Railroad is responsible for the 56 mile New Rochelle-New Haven segment owned by the states of New York and Connecticut. In early 2016, Amtrak activated PTC on the 104-mile Harrisburg Line. Amtrak has also installed and is operating PTC along the 97 miles of track it owns in Michigan and Indiana, where PTC was introduced in 2002. Amtrak is working on installation of PTC on other lines, including the 60 mile Springfield line (where a major double-tracking project funded by the state of Connecticut is underway), the 105 mile Hudson line between Poughkeepsie and the Schenectady area (leased by Amtrak), and the 135 mile Dearborn-Kalamazoo segment of the Michigan line owned by Michigan, as well as the Chicago Union Station terminal areas. -
Positive Train Control Session #2
APTA Rail Conference Positive Train Control Session #2 June 12, 2018 Darren Morris Katie Brown Director, Commuter Rail Project Manager, PTC Operating Characteristics PNWR TriMet WES • Class III Freight • 6 Diesel Multiple Units • Subsidiary to Genesee & • Service began in 2009 Wyoming • Weekday service – morning • Operates in Eugene – and afternoon peak Portland –Astoria triangle • 30 minute headways • 27 Locomotives • 60 mph max speed • 40 mph max speed Automatic Train Control (ATC) / Centralized Traffic Control (CTC) PNWR Dispatch ‐ St. Albans, Vermont WES Commuter Rail • 14.3 mile corridor shared exclusively with PNWR • 5 stations, mix of single and double track HOST Shared Corridor TENANT TENANT Why E‐ATC, not I‐ETMS? In 2009 TriMet opened it’s Westside Express Service with ATC technology. PNWR/TriMet ATC system already met 6 of 8 PTC requirements per 49 CFR 236.1005: • Prevent train to train collisions • Prevent movement of trains through a mainline switch in the improper position • Provide an appropriate warning or enforcement when a derail or switch protecting access to the mainline is its derailing or protecting position • A hazard detector integrated into the PTC system that is required, detects an unsafe condition or transmits an alarm • Limits speeds of passenger/freight to 59/49 mph in areas without broken rail detection or equivalent safeguards • Prevent over speed derailments . with Permanent Speed Restrictions (PSR) E‐ATC PNWR/TriMet E‐ATC system meets the remaining two requirements: • Prevent incursions into established work zones with Temporary Speed Restrictions (TSR) • Provides an appropriate warning or enforcement when a mandatory directive is issued associated with a highway‐rail grade crossing warning system malfunction as required by 234.105, .106, .107 with Mandatory Directives (MD) How have statutory requirements affected operational performance in our fixed block, cab signal based system • Pre E‐ATC: Manually enforced civil speed restrictions. -
Travelling Virtual Balise for Etcs
A. Filip, Int. J. Transp. Dev. Integr., Vol. 1, No. 3 (2017) 578–588 TRAVELLING VIRTUAL BALISE FOR ETCS A. FILIP Faculty of Electrical Engineering and Informatics, University of Pardubice, Czech Republic. ABSTRACT The railway industry has taken a great effort and is currently focused on exploitation of global naviga- tion satellite system (GNSS) for the European train control system (ETCS). It has been assessed that replacement of track balises, used for safe train location determination, with virtual balises (VBs) de- tected by means of GNSS will significantly reduce the track-side infrastructure and operational costs. However, this innovated ETCS can be put into operations only in the case when detection of VBs by means of GNSS will achieve the same safety integrity level (SIL 4) and availability as it is required for physical balise groups (BGs). This paper describes a novel travelling virtual balise (TVB) concept, which was proposed to meet the demanding ETCS safety requirements for GNSS using the existing European Geostationary Navigation Overlay Service (EGNOS) safety-of-life (SoL) service. The TVB concept profits from the basic feature of GNSS – i.e. the ability of abundant train position determination in GNSS service volume, which can- not be realized by current track balise groups (BGs) with a spacing of hundreds of metres or more. The frequent GNSS train positions are utilized for (1) fast diagnostics of on-board location determination system (LDS), (2) introduction of reactive fail-safety into LDS and (3) derivation and justification of the ETCS safety requirements for EGNOS. The TVB concept brings one significant advantage to ETCS in contrast to the static VBs – i.e. -
GAO-20-516R, Positive Train Control: Railroads Generally Made Progress
441 G St. N.W. Washington, DC 20548 April 30, 2020 The Honorable Roger Wicker Chairman Committee on Commerce, Science, and Transportation United States Senate Positive Train Control: Railroads Generally Made Progress, but Several Must Meet Compressed Schedules to Meet Implementation Date Dear Mr. Chairman: Positive train control (PTC) is a communications-based system designed to automatically slow or stop a train in certain cases where it is not being operated safely. Over a decade ago, a federal law was enacted requiring the implementation of PTC by 42 railroads—including 30 commuter railroads, Amtrak, and several Class I and Class II/III freight railroads—to prevent train-to-train collisions and other types of accidents.1 The National Transportation Safety Board stated in 2018 that since the enactment of this law, it had investigated 22 rail accidents that could have been prevented by PTC. By statute, railroads were required to implement PTC by December 31, 2018, unless they met certain statutory requirements and requested an extension.2 Few railroads completed implementation by year-end 2018, so the Federal Railroad Administration (FRA) granted nearly all of the 42 railroads required to implement PTC an extension up to December 31, 2020. However, FRA is not authorized to grant further extensions. Over the years, we have periodically reported and testified on railroads’ progress implementing PTC.3 We have consistently identified the challenges arising during the complex and lengthy implementation process, which involves nearly all major rail lines and almost every aspect of railroads’ operations. In July 2019 we reported that most railroads had completed the earlier stages of implementation, such as equipment installation, and were in various stages of testing 1Certain railroads were required to implement PTC by December 31, 2015. -
POSITIVE TRAIN CONTROL Engineering Basics and Lessons Learned
POSITIVE TRAIN CONTROL Engineering Basics and Lessons Learned FRA Program Delivery Conference – October 2015 Outline 1. Positive Train Control (PTC) introduction and background 2. Engineering considerations 3. Lessons learned 4. Guidance documents and technical assistance For discussion purposes only. Not the official position of FRA/USDOT. 2 What is PTC? A type of train control required on most passenger and certain freight routes – with limited exceptions It is required by law by under the Rail Safety Improvement Act of 2008 (RSIA) By statute a compliant PTC system must: Prevent train-to-train collisions Prevent over-speed derailments Prevent incursions into established work zones Prevent movement of a train through a switch left in the wrong position Be Interoperable For discussion purposes only. Not the official position of FRA/USDOT. 3 What are the typical components of a PTC system? On-board (locomotive): On-board computer displays event recorder antennas/transponder readers radios, and GPS Infrastructure (track): Wayside interface units (WIU) Transponders Switch monitoring systems Example diagram of a PTC system architecture. For discussion purposes only. Not the official position of FRA/USDOT. 4 What are the typical components of a PTC system? Communications Infrastructure: Radio/cellular towers GPS antennas Fiber (or copper) backbone Back Office: Back Office Servers (BOS) Dispatch center Example diagram of a PTC system architecture. For discussion purposes only. Not the official position of FRA/USDOT. 5 What -
Implementation of Positive Train Control Systems
Report o f the Railroad Safety Advisory Comm ittee to th e Federal Railroad Adm inistrator Implementation of Positive Train Control Systems September 8,1999 "s jnals, Control and nications Table of Contents Executive Summary............................................................. v I. Introduction...................................................... 1 II. The Role of Current and Forecasted Railroad Traffic to National Transportation...................5 HI. Methods of Operations and PTC ........................................................... .............. 13 A. Introduction....................................... 13 1. Operations by Signal Indications ............................................................... .............13 2. Operations by Mandatory Directives ........................................................................13 3. Operations by Manual Block Rules.......... ........... ........... .......................................14 4. Other Methods of Operation................................................. ....................................14 5. Requirements for Signal and Train Control Systems................................................ 15 B. Current PTC System Concepts...................... ........................................................... 15 1. PTC Level 1 ............................................................................................................16 2. PTC Level 2 ..................................................................... .......................................16 -
Cyber Security Risk Management for Connected Railroads
U.S. Department of Transportation Office of Research, Federal Railroad Development and Technology Administration Washington , DC 20590 Cyber Security Risk Management for Connected Railroads No aProximate Field Logic Proximatea Access Access Needed Controllers Required _____..._ _________ __, Railroad Radio CPS Local or Carrier Network Communications Base Stations Field Linka es Closed Network Short Range RF Balises Accidentally Cleared Signal (tt.g. C&S Testing or Malicious lnJeCtion) . : 8m Block RelayMtal PLC Vital Radio Code ___J~ IT'll_!_l'~ R92~m~ Extralayerof Line Command '\Y' ; 1~ne 1ze/Ac\rvafif protection I , . Lack of acknowledgement False acknoY,,;edgement (~~the-middle) (dispatcher not able to know the 8Ctual status C&S Testing Signal ol blue block relay) MOWlimil Clearing ' '...====='....""'.""."' False Injection ___ Spoofing _____: 110.--•-I I (Attack) I ____________________ J +Work l im it Misunderstood = Risk DOT/FRA/ORD-20/25 Final Report | June 2020 NOTICE This document is disseminated under the sponsorship of the Department of Transportation in the interest of information exchange. The United States Government assumes no liability for its contents or use thereof. Any opinions, findings and conclusions, or recommendations expressed in this material do not necessarily reflect the views or policies of the United States Government, nor does mention of trade names, commercial products, or organizations imply endorsement by the United States Government. The United States Government assumes no liability for the content or use of the material contained in this document. NOTICE The United States Government does not endorse products or manufacturers. Trade or manufacturers' names appear herein solely because they are considered essential to the objective of this report. -
Understanding Government and Railroad Strategy for Crude Oil Transportation in North America
Understanding Government and Railroad Strategy for Crude Oil Transportation in North America by S. Joel Carlson Bachelor of Science in Civil Engineering, University of Alberta, 2006 Submitted to the Engineering Systems Division and the Department of Civil and Environmental Engineering in partial fulfillment of the requirements for the degrees of Master of Science in Engineering Systems and Master of Science in Transportation at the MASSACHUSETTS INSTITUTE OF TECHNOLOGY June 2014 © 2014 Massachusetts Institute of Technology. All rights reserved. Signature of Author . Engineering Systems Division Department of Civil and Environmental Engineering May 21, 2014 Certified by . Joseph M. Sussman JR East Professor of Civil and Environmental Engineering and Engineering Systems Thesis Supervisor Accepted by . Richard C. Larson Engineering Systems Division Chair, Education Committee Accepted by . Heidi M. Nepf Department of Civil and Environmental Engineering Chair, Departmental Committee for Graduate Students 2 Understanding Government and Railroad Strategy for Crude Oil Transportation in North America by S. Joel Carlson Submitted to the Engineering Systems Division and the Department of Civil and Environmental Engineering on May 21, 2014 in partial fulfillment of the requirements for the degrees of Master of Science in Engineering Systems and Master of Science in Transportation Abstract On July 6, 2013, an oil-laden unit train derailed and exploded in Lac-Mégantic, Quebec, Canada, killing 47 people, shocking and saddening many, and leading to significantly increased public scrutiny of crude oil transported by rail. Simultaneously, there has been intense scrutiny of proposed pipelines from the oil/tar sands in Alberta, most notably the TransCanada Keystone XL. Not only is there concern about the potential environmental impacts of the pipelines themselves, such as a potential spill of diluted bitumen, but there is also concern about the consequences of greenhouse gas emissions caused by the energy-intensiveness of bitumen production and refining. -
Positive Train Control Project Status
Positive Train Control Project Status Metro-North Railroad Long Island Rail Road January 28, 2014 CPOC Positive Train Control Benefits • On October 16, 2008, Congress passed the Rail Safety Improvement Act of 2008 requiring implementation of PTC by Dec. 2015. • An approved PTC System must prevent the following: - Train-to-train collisions. - Over-speed derailments. - Injuries to workers as the result of unauthorized incursions by train into a work zone. - Movement of a train through an improperly aligned switch 1 PTC System Design PRIMARY ACSES Safety Server Transmits Train BACK OFFICE SAFETY Dispatcher COMPUTER Temporary Speed Consoles Restrictions to Trains RWPS ACSES II Management and SYSTEM Communications Systems ACSES II major subsystems: • On-Board (Rolling Stock) RAILROAD DATA NETWORK • Wayside (Interlocking and Right of Way Infrastructure) CELLULAR • Back Office (Temporary Speed Restriction Interlocking Status and Temporary Servers and Central Office Equipment) WiFi locations Speed Restriction • Communications (Ground Based, Land Radio Mobile Data Radio and Wireless Communications Networks) Data Radio • Roadway Worker Protection System Signal Location (RWPS) Interlocking Signal ACSES ADU COMPUTER ACSES Wayside CSS / ATC DATA Interface RADIO Unit Signal System Automatic Cab Speed Signal Transponder Reader In Track Transponders Control 2 What PTC Does Interlocking Maximum Maximum Typical Signal Block Enforce 45 mph Enforce 30 mph Authorized Speed Authorized Speed Enforce 30 to 15 mph Train Cab Signal Protects Stop Signal PTC Protects -
2045 Metropolitan Transportation Plan
2045 Metropolitan Transportation Plan Technical Report #4 Needs Assessment DRAFT October 2020 Table of Contents 1.0 Introduction ............................................................................................................................................ 1 2.0 Special Considerations............................................................................................................................ 2 2.1 Resilience ............................................................................................................................................ 2 2.2 Tourism ............................................................................................................................................... 7 3.0 Emerging Trends ................................................................................................................................... 11 3.1 Changing Demographics and Travel Patterns ................................................................................... 11 3.2 Shared Mobility ................................................................................................................................. 14 3.3 Connected and Autonomous Vehicles (CAV) .................................................................................... 21 3.4 Electric and Alternative Fuel Vehicles ............................................................................................... 29 4.0 Roadways and Bridges .........................................................................................................................