The VAL by Siemens Transportation Systems

Total Page:16

File Type:pdf, Size:1020Kb

The VAL by Siemens Transportation Systems The VAL by Siemens Transportation Systems Siemens Transportation Systems 50 rue Barbès - BP 531 92542 Montrouge cedex France tel.: + 33 1 49 65 70 00 fax: + 33 1 49 65 70 93 www.siemens-ts.fr Printed in France - April productions 2002 - Trends efficient rail solutions The VAL The most successful fully automated metro system Conceived, designed and developed by Siemens Transportation Systems, the VAL (Véhicule Automatique Léger) is the first fully automated light metro, without driver or attendant on board the vehicle. Since its introduction during the eighties, the VAL system has regularly benefited from the latest technology, constantly improving its capacity, reliability and safety. Today, a fully proven new generation of VAL (VAL 208 and VAL 258) brings to the cities and the airports the appropriate solution to resolve their transportation needs. Inaugurated in Lille (North of France) in 1983, the VAL is also in operation in the cities of Taipei (Taiwan), Toulouse (France), Rennes (France) and soon in Turin (Italy). The VAL system is as well suitable for airport people mover: applications in Paris-Orly and Chicago-O'Hare and soon in Paris-Charles de Gaulle. 3 The VAL VAL 208 2.076 m VAL, the new generation of fully automated metro 2.05 m 1.945 m 3.678 m 0.945 m The VAL system, the first fully automated line haul transit system, without any driver or attendant on board the 1.360 m 3.490 m 1.175 m 1.620 m 1.510 m 12.70 m 2.074 m vehicles, was inaugurated in the City of Lille – France in 1983. Since then, full automation has become a daily reality 10.00 m 26.14 m that matches the challenges of the modern world. The VAL system was selected and put into operation by several cities (ranging in size from 300,000 to more than 2.568 m 2 million inhabitants) and major airports around the world. In each case, the service is tailored to the specific needs VAL 258 3.555 m of each city. VAL, with a capacity up to 30,000 passengers per hour per direction, is more attractive than any other conventional system with equivalent traffic capacity. 10.00 m 1.880 m 13.78 m The new modern VAL system takes full advantage of > A new on-board control unit, featuring an open the latest fully proven technology, enhancing fur- architecture, using standard computer industry ther more its unique and unequalled features with components, to be tailored to each operator's spe- regards to safety, quality of service and flexibility of cific requirements with regards to multi-media and operation. In order to minimize life cycle costs, its maintenance options. 6,175 m7,6 m 6,175 m design benefited from a continuous feedback from 10.00 m4.052 m 10.00 m the operators and STS operation and service activi- > A new Operation Control Center design, using 13,38 m 13,38 m ties during nearly two decades of operation. standard off-the-shelf hardware and software, benefiting from worldwide support. Open archi- The new VAL features: tecture is provided for easy Operator's access and customization to meet his own needs and require- > New rubber tired vehicles developed for ments. Characteristics: VAL 208 VAL 258 Train configuration: 1 to 6 cars better performance in terms of power to weight Base config.: Married pair Single car Power supply: 750 VDC ratio and better comfort, attractiveness, reliability Weight with A/C: 31.2 tons 19 tons Propulsion: 4 motors/car, 65 Kw each Useful interior area: 45 m2 25 m2 Options: Air conditioning and maintainability. Two vehicle widths, based on Nbr seats (mini): 11 8 On-board video surveillance the same subassembly design, are available and Nbr doors / side: 6 2 Dynamic display Variable seating configuration selected based on the specific site requirements. 4 5 The VAL operation Each operator has a console which, in addition to where passenger evacuation and the inspection continuous communication capabilities with the by the operating personnel are more convenient. passengers on board the trains and in the sta- Otherwise, the traction voltage is automatically The VAL system requires no drivers or attendants on board the vehicles or in the stations. From the control center, tions, provides all remote control capabilities for shut-down, all the trains located on the section of only a few operators supervise the whole system as well as the movement of the trains and of the passengers. They train operation, station status and power supply the line are stopped, and the vehicle door located management, failure management. near the emergency handle can be opened. control the system start up and shutdown and respond to any unscheduled events such as failures or emergencies. Beyond the normal operating mode for maximum At Chicago O'Hare airport, since its opening in the service conditions, the system allows for the early 90's, the VAL has been operating around the implementation of alternate modes ensuring a clock, 24 hours a day, all year long on an elevated reduced service, whenever required. guideway contending with most severe weather Depending on the requirements, the operational conditions (123 days per year of subfreezing tem- modes may include pinched loop, bi-directional peratures, 23 inches of snow fall and daily capability, shuttle mode and single track operation. January average temperatures of 19° F). Unlike other systems, the VAL features some auto- 3 matic recovery strategies which do not require the 1 2 intervention of central control or operators. Easy capability to cope in real time with the traffic demand is offered by the automatic insertion- 4 removal of vehicles on the line, either according 5 to a pre-defined time table, or by a simple control 6 by the operator at the Control Center. If exceptionally, a train is stranded on the line, it can be automatically pushed by the following train, 12 8 7 without the need for human intervention, for easy 9 10 11 alighting the passengers at the next station. An emergency evacuation handle is provided at each door of the car. 1 On board video monitoring 4 Station intercom 7 Transmission line assembly 10 Wayside control unit When this handle is pulled, it transmits immedia- 2 On board intercom 5 Platform doors 8 Wayside vehicle communication 11 Operation control center tely an alarm to the Control Center. Whenever 3 Station video monitoring 6 On board control unit 9 Track running rails 12 Guidance/power rails possible, the train continues to the next station, 6 7 The VAL solution, local police services), fraud reduction, etc, for This greatly enhances the feeling of security of improving the quality of service offered. the passenger, especially during off-peak hours, A modern metro for the City when the trains are less crowded. A friendly system without drivers As well it is a tool to record and follow up any inci- An automated people mover for Airports or attendants on-board the vehicles dent. In addition, the built-in safety features of the sys- Safety, the first priority tem are not impaired in the case of loss of com- An optimized solution for return on ve waiting times at transfer stations, even during Full automation precludes the risk of human error munication with the Control Center investment off-peak hours. This greatly enhances the attracti- or misbehavior, a frequent cause of accidents that veness of the system. still occurs in rail transit today. The protection of the environment Reduced initial investment costs Segregated right of way prevents collisions with For a given traffic capacity, VAL’s increased train Minimising the Operating costs road vehicles or pedestrians. This greatly The electrical propulsion system of the VAL frequency (with train headway down to one At any time, trains can be automatically inserted enhances the system availability. vehicles does not contribute pollution to the envi- minute) allows shorter train length. into or removed from revenue service by simple, Platform doors prevent falls on the track, a fre- ronment, the vehicles are designed with regene- VAL achieves the same capacity as other systems remote commands from central control operators. quent cause of accident and delays on systems rative braking for reduced energy consumption. but with shorter train lengths. This is a determi- This translates into unprecedented flexibility for not equipped with platform doors. The VAL vehicles run on rubber-tired wheels for ning factor for reducing the costs of the infra- metro operation The automatic leveling of the vehicle floor to the substantial noise reduction when compared to structure, the length and the design of the sta- The fleet and headway can be adjusted to the station platform level allows safe access for the conventional steel wheel on steel rail vehicles. tions, the size of the tunnels and guideways, optimal transport capacity to match the demand elderly or disabled passengers. On a segregated right of way, the VAL system is contributing also to the reduction of time and nui- in real time. This, of course, yields a transporta- Unique built-in safety features (such as station independent of road traffic. sance during construction. This considerably faci- tion efficiency, since only a minimum of empty door operation or emergency evacuation) have litates implementation in crowded cities where places is transported, and is a significant measure been designed into the VAL system for the protec- smaller viaducts and tunnels can be used. of the operator's profitability. tion of the passengers. Increased revenues Enhancing the Operator’s image A comprehensive, highly reliable communi- On a segregated right of way , with powerful Compared to a conventional system, drivers or on cations system vehicle propulsion and rubber tire adhesion, VAL board attendants are not required for VAL opera- Through telephones, intercoms, public address, provides high commercial speed (nearly twice as tion, and personnel may be reassigned to roving cameras in the stations and in the trains, quick much as LRT's) and punctuality, thus offering services without additional expenses.
Recommended publications
  • ACRP Report 37 – Guidebook for Planning and Implementing
    AIRPORT COOPERATIVE RESEARCH ACRP PROGRAM REPORT 37 Sponsored by the Federal Aviation Administration Guidebook for Planning and Implementing Automated People Mover Systems at Airports ACRP OVERSIGHT COMMITTEE* TRANSPORTATION RESEARCH BOARD 2010 EXECUTIVE COMMITTEE* CHAIR OFFICERS James Wilding CHAIR: Michael R. Morris, Director of Transportation, North Central Texas Council of Metropolitan Washington Airports Authority (re- Governments, Arlington tired) VICE CHAIR: Neil J. Pedersen, Administrator, Maryland State Highway Administration, Baltimore VICE CHAIR EXECUTIVE DIRECTOR: Robert E. Skinner, Jr., Transportation Research Board Jeff Hamiel MEMBERS Minneapolis–St. Paul Metropolitan Airports Commission J. Barry Barker, Executive Director, Transit Authority of River City, Louisville, KY Allen D. Biehler, Secretary, Pennsylvania DOT, Harrisburg MEMBERS Larry L. Brown, Sr., Executive Director, Mississippi DOT, Jackson James Crites Deborah H. Butler, Executive Vice President, Planning, and CIO, Norfolk Southern Corporation, Dallas–Fort Worth International Airport Norfolk, VA Richard de Neufville William A.V. Clark, Professor, Department of Geography, University of California, Los Angeles Massachusetts Institute of Technology Eugene A. Conti, Jr., Secretary of Transportation, North Carolina DOT, Raleigh Kevin C. Dolliole Unison Consulting Nicholas J. Garber, Henry L. Kinnier Professor, Department of Civil Engineering, and Director, John K. Duval Center for Transportation Studies, University of Virginia, Charlottesville Austin Commercial, LP Jeffrey W. Hamiel, Executive Director, Metropolitan Airports Commission, Minneapolis, MN Kitty Freidheim Paula J. Hammond, Secretary, Washington State DOT, Olympia Freidheim Consulting Steve Grossman Edward A. (Ned) Helme, President, Center for Clean Air Policy, Washington, DC Jacksonville Aviation Authority Adib K. Kanafani, Cahill Professor of Civil Engineering, University of California, Berkeley Tom Jensen Susan Martinovich, Director, Nevada DOT, Carson City National Safe Skies Alliance Debra L.
    [Show full text]
  • Véhicule Automatique Léger
    Véhicule automatique léger Véhicule automatique léger (VAL, deutsch: „leichtes automatisches Fahrzeug“) ist ein besonders leicht gebautes, fahrerloses, spurgeführtes Personennahverkehrsmittel, das sowohl als Peoplemover z. B. in Flughäfen als auch als Stadtschnellbahnsystem eingesetzt wird. Ursprünglich von Matra entwickelt, ist VAL heute ein Produkt von Siemens Mobility. Inhaltsverzeichnis Technik VAL 208 (links) und VAL 206 der Neoval Métro Lille Cityval Airval Installationen Fahrzeugtypen Projekte Galerie Siehe auch Einzelnachweise Weblinks Technik Die Trag- und Antriebsfunktion wird durch gummibereifte Räder auf einem Betonfahrweg ausgeübt. Seitliche Führungsräder rollen an seitlich angebrachten Führungsschienen entlang. An Stellen, wo die seitlichen Führungsschienen unterbrochen sind, wie beispielsweise in Weichen, übernehmen Führungsschienen in der Fahrwegmitte die seitliche Führung. Die Val 206 der Metro Toulouse auf der Weichenfunktion wird durch eine einzelne Führungsschienen übernehmen die Linie A Zunge zwischen den Führungsschienen seitliche Führung in einer Weiche – realisiert, in etwa vergleichbar mit einer hier OrlyVAL. beweglichen Herzstückspitze in Weichen von Zweischienenbahnen. Das System basiert auf einer Erfindung von Professor Robert Gabillard (Université Lille Nord de France) und wurde Anfang der 1980er Jahre von der Firma Matra Transport entwickelt. Die Abteilung Verkehrstechnik von Matra gehört seit 2001 vollständig zu Siemens Transportation Systems. Erstmals angewendet wurde das VAL-System 1983 bei der damals neu gebauten Métro Lille. Es eignet sich aufgrund der geringeren Kosten besonders gut für mittelgroße Städte. Das Akronym bedeutete ursprünglich Villeneuve-d’Ascq à Lille (deutsch: „Villeneuve-d’Ascq nach Lille“) und bezeichnete die beiden Endpunkte der ersten Strecke. Erst später wurde daraus véhicule automatique léger. Wie auch bei einigen anderen fahrerlosen Personenbeförderungssystemen sind die Bahnsteige beim VAL-System durch transparente Glaswände mit eingelassenen Bahnsteigtüren von den Gleisen getrennt.
    [Show full text]
  • Microsoft Powerpoint
    Siemens Industry Mobility Cityval ® A Solução Verde para a Mobilidade das Cidades Brasileiras Apresentação: Rezier Possidente Siemens Ltda . 1 Agosto de 2009 © Siemens Industry – Mobility – Turn Key Cityval ® Cityval O Cityval é um conceito inovador de transporte automático, resultado da parceria , na França, entre duas conceituadas companhias: a Siemens e a Lohr Industrie . O Cityval é construído com base na vasta experiência da Siemens, principalmente com o veículo Val, em projetos de excelência em segurança e confiabilidade, aliada a soluções inovadoras do parceiro Lohr, tornando o Cityval um veículo, sobretudo, eficiente. A nova geração do Sistema Automático de Transporte 2 Agosto de 2009 © Siemens Industry – Mobility – Turn Key Alto investimento da Siemens em P&D para prover solu ççções eficientes aos desafios do novo s éééculo Em 2008, a Siemens investiu €€€ 3.78 bilhões em P&D para prover solu ções avan çadas relacionadas as megatendências de urbaniza ção, mudan ças demogr áficas, água, energia, mobilidade e seguran ça. No campo do transporte p úblico, a Siemens introduziu o Cityval, com o desafio de contribuir significantemente para: Aumentar a atratividade do transporte p úúúblico Reduzir os congestionamentos e a polui ççção Reduzir o consumo de energia Aumentar a seguran ççça do espa ççço p úúúblico O Cityval tamb ém proporciona aos cidadãos um sistema de transporte inteligente e eficiente enquanto garante a todos um novo padrão de conforto e seguran ça. O Cityval ajuda as cidades a contribu ííírem ativamente com o Protocolo
    [Show full text]
  • Représentation Énergétique Macroscopique Du Métro VAL 206 Et Structures De Commande Déduites Par Inversion Jean-Noël Verhille
    Représentation énergétique macroscopique du métro VAL 206 et structures de commande déduites par inversion Jean-Noël Verhille To cite this version: Jean-Noël Verhille. Représentation énergétique macroscopique du métro VAL 206 et structures de commande déduites par inversion. Sciences de l’ingénieur [physics]. Arts et Métiers ParisTech, 2007. Français. NNT : 2007ENAM0018. pastel-00002981 HAL Id: pastel-00002981 https://pastel.archives-ouvertes.fr/pastel-00002981 Submitted on 4 Oct 2007 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. N°: 2007-ENAM-0018 Ecole doctorale n° 432 : Sciences des Métiers de l’Ingénieur T H È S E pour obtenir le grade de Docteur de l’École Nationale Supérieure d'Arts et Métiers Spécialité “Automatique” présentée et soutenue publiquement par Jean-Noël VERHILLE le 4 juillet 2007 REPRÉSENTATION ÉNERGÉTIQUE MACROSCOPIQUE DU MÉTRO VAL 206 ET STRUCTURES DE COMMANDE DÉDUITES PAR INVERSION Directeur de thèse : Jean-Paul HAUTIER Codirecteur(s) de thèse : Alain BOUSCAYROL Pierre-Jean BARRE Jury : M. Gérard COQUERY, Directeur de recherches, INRETS .................................. Président M. Dominique MEIZEL, Professeur, ENSIL......................................................... Rapporteur M. Xavier ROBOAM, Directeur de recherches CNRS, ENSEEIHT...................... Rapporteur M. Alain BOUSCAYROL, Professeur, USTL Examinateur M.
    [Show full text]
  • Optimisation Énergétique De Ligne De Métro Automatique
    2016 - ENAM - 0018 o École doctorale n 432 : Sciencesdes Métiers de l’ingénieur Doctorat ParisTech THÈSE pour obtenir le grade de docteur délivré par École Nationale Supérieure d’Arts et Métiers Spécialité “Génie électrique” présentée et soutenue publiquement par Jonathan LÉSEL le 20 Juin 2016 Optimisation de la consommation énergétique d’une ligne de métro automatique prenant en compte les aléas de trafic à l’aide d’outils d’intelligence artificielle Directeur de thèse : Benoit ROBYNS Co-encadrants de thèse : Patrick DEBAY - Gauthier CLAISSE Jury M. Eric MONMASSON , Professeur, Laboratoire SATIE, Université de Cergy Pontoise Président M. Serge PIERFEDERICI, Professeur, GREEN- ENSEM, Université de Lorraine Rapporteur M. Stéphane CAUX , Professeur, LAPLACE, Université de Toulouse Rapporteur M. Julien POUGET , Docteur-Ingénieur, SNCF I&R Examinateur T M. Benoit ROBYNS , Professeur, L2EP-HEI Examinateur M. Patrick DEBAY , Docteur, HEI-Lille Examinateur H M. Gauthier CLAISSE , Ingénieur, SIEMENS Mobility Examinateur È Arts et Métiers ParisTech - Campus de Lille S EA 2697 - L2EP - Laboratoire d’Electrotechnique et d’Electronique de Puissance,F-59000 Lille, France E Table des matières Table des figures vii Liste des tableaux xi Table des abréviations xiii Remerciements xv Introduction générale1 1 Optimisation énergétique des tables horaires3 1.1 Introduction................................4 1.2 Contexte des travaux de thèse......................4 1.2.1 Contexte historique........................4 1.2.2 Contexte sociétal et environnemental..............5 1.2.2.1 Augmentation de l’urbanisation............5 1.2.2.2 Épuisement des ressources fossiles et contraintes envi- ronnementales......................6 1.2.2.3 Évolution des transports urbains...........7 1.2.2.4 Solutions envisagées...................8 1.3 Planification ferroviaire..........................9 1.3.1 Planification stratégique et Planification opérationnelle.....9 1.3.2 Évaluation de la capacité......................9 1.3.3 Problème de planification des trains...............
    [Show full text]
  • Etude D'opportunité Et De Faisabilité D'une Troisième Ligne De Métro À
    TRANSPORTS COLLECTIFS URBAINS Ā TOULOUSE OPPORTUNITÉ ET FAISABILITÉ D’UNE TROISIÈME LIGNE DE MÉTRO MAXIME LAFAGE SEPTEMBRE 2011 Étude d’opportunité et de faisabilité d’une troisième ligne de métro à Toulouse 1 | Page TRANSPORTS COLLECTIFS URBAINS Ā TOULOUSE : OPPORTUNITÉ ET FAISABILITÉ D’UNE TROISIÈME LIGNE DE MÉTRO Étude d’opportunité et de faisabilité d’une troisième ligne de métro à Toulouse 2 | Page TABLE DES MATIÈRES TABLE DES MATIÈRES 3 INTRODUCTION 4 PREMIÈRE PARTIE – ÉLÉMENTS D’ARBITRAGE ENTRE VAL ET TRAMWAY 9 CHAPITRE 1 – CARACTÉRISTIQUES DU VAL 10 SECTION 1 – CARACTÉRISTIQUES DU VAL : POINTS FORTS ET POINTS FAIBLES 10 SECTION 2 – LE VAL ACTUEL Ā TOULOUSE 13 SECTION 3 – REGARDS SUR LE VAL 17 CHAPITRE 2 – CARACTÉRISTIQUES DU TRAMWAY 19 SECTION 1 – CARACTÉRISTIQUES DU TRAMWAY : POINTS FORTS ET POINTS FAIBLES 19 SECTION 2 – LE TRAMWAY ACTUEL Ā TOULOUSE 23 SECTION 3 – REGARDS SUR LE TRAMWAY 26 CHAPITRE 3 – LE CHOIX DU VAL POUR LE TISSU URBAIN TOULOUSAIN 27 SECTION 1 – RÉSEAU ACTUEL : POINTS FORTS ET DÉFAILLANCES 27 SECTION 2 – POTENTIALITÉS FUTURES 33 SECTION 3 – COMPARAISONS AU REGARD DU CAS TOULOUSAIN 37 DEUXIÈME PARTIE – LE CHOIX D’UN TRACÉ COHÉRENT 47 CHAPITRE 1 – ÉTUDE DÉMOGRAPHIQUE, ÉQUIPEMENTS DESSERVIS E ET INTERCONNEXIONS 47 SECTION 1 – ÉTUDE DÉMOGRAPHIQUE DES QUARTIERS PEU OU NON DESSERVIS 47 SECTION 2 – ÉQUIPEMENTS DESSERVIS 52 SECTION 3 – INTERCONNEXIONS AVEC LE RÉSEAU ACTUEL 58 CHAPITRE 2 – ARTICULER ET RESSOUDER UN TISSU URBAIN ÉCLATÉ : PRÉSENTATION DU TRACÉ 59 SECTION 1 – SECTEUR OUEST : ENTRE AÉROPORT, GARONNE ET
    [Show full text]
  • Siemens Mobility Services Efficiency, Sustainability and Reliability
    Siemens Mobility Services Efficiency, Sustainability and Reliability © Siemens AG 2015. All rights reserved. siemens.com/mobility-services Siemens Mobility Services Your trusted partner for reliable service Technologies served: High Speed & Turnkey Projects & Intelligent Traffic Commuter Rail Locomotives Urban Transport Rail Automation Electrification Systems SIMOS™ Portfolio Spare Part Upgrade Operation Services Services Services Maintenance Assistance Qualification Services Services Services © Siemens AG 2015. All rights reserved. Seite 2 April 2015 Siemens Mobility Services Siemens Mobility Services References worldwide United Kingdom Austria Czech Republic • South West Trains (2002-2025) • U4 Railcover Vienna Local Railway • Prag Metro (2005-2019) • West Coast Mainline (2005-2025) Cargo (2011-2039) • Heathrow Express (1997-2023) Russia • TransPennine Express (2005-2012) • Velaro RUS (2010-2040) • London Midlands (2005-2025) • Desiro RUS (2011-2051) • Scotrail (2008-2020) • Northern Rail (1998-2013) Poland • London Eastern (2004-2013) • PKP IC Loks (2010-2024) • Combino Poznan (2007-2019) USA • Chicago VAL 256 (1994-2012) Germany • Vattenfall (1996-2016) France • SkyTrain (2002-2018) • Paris/Orly VAL 206 (2001-2015) • Combino Potsdam (1999-2014) • VAL Roissy CDG (2012-2015) • Mittelrheinbahn (2008-2018) • VAL Lille (2011-2017) (2011-2017) • VAL Toulouse (2011-2014) China • VAL Rennes (2006-2017) • HXD1 Loco MS (2013-2015) • HXD1B Loco MS (2013-2016) Spain Italy • Velaro E (2007-2022) • Turin VAL 208 (2006-2012) Thailand • Nertus Cornella
    [Show full text]
  • MCT on Train 2018 DEF.Indd
    On Train MULTI CABLE TRANSIT Putting Safety First ZA Les Godets 12 bis rue des Petits Ruisseaux 91370 VERRIÈRES LE BUISSON FRANCE Phone : +33 (0)1 69 75 24 17 Fax : +33 (0)1 69 75 24 01 http://www.afimes.com E-mail : [email protected] Putting Safety First Sommaire : Performances du système MCT ..................................................................................................... 4 Principes du système MCT ............................................................................................................. 5 Références ..................................................................................................................................... 6 Traversées avec cadre ................................................................................................................... 9 Cadres ......................................................................................................................................... 10 Accessoires pour cadres .............................................................................................................. 11 Traversées avec bague ............................................................................................................... 12 Bagues RGP ................................................................................................................................. 13 Modules fixes .............................................................................................................................. 15 Modules réglables ......................................................................................................................
    [Show full text]
  • Mesures De Qualité De L'air Dans Le Métro Toulousain En 2012
    ² Qualité de l'air Rapport d'étude Mesures de qualité de l'air dans le métro toulousain en 2012 ORAMIP 19 avenue Clément Ader 31770 COLOMIERS Tél : 05 61 15 42 46 Fax : 05 61 15 49 03 [email protected] www.oramip.org ORAMIP Qualité de l’air dans le métro toulousain en 2012 2 Qualité de l’air dans le métro toulousain en 2012 ORAMIP SOMMAIRE Synthèse de la campagne de mesures .................................................................. page 4 Résultats pour les particules inférieures à 10 microns ........................................... page 10 Résultats pour le Dioxyde d’azote .......................................................................... page 48 Résultats pour le Benzène ..................................................................................... page 56 Résultats pour le Confinement ............................................................................... page 62 Annexes.................................................................................................................. page 66 3 ORAMIP Qualité de l’air dans le métro toulousain en 2012 SYNTHÈSE DE LA CAMPAGNE DE MESURES 2012 L’Autorité Organisatrice des Transports de l’agglomération toulousaine TISSO-SMTC a été, en 2004, l’un des premiers gestionnaires des transports en commun en France à mettre en place un plan de surveillance de la qualité de l’air dans l’enceinte de son réseau métro. Ainsi depuis 2004, l’ORAMIP réalise en partenariat avec TISSEO-SMTC, des mesures d’évaluation de la qualité de l’air intérieur sur l’ensemble de l’infrastructure du réseau métro. Ces sept années de mesures ont ainsi permis d’acquérir une base de données sur les niveaux de concentrations en particules de diamètre inférieur à 10 µm, en dioxyde d'azote et benzène rencontrés dans le métro toulousain. Il est ainsi apparu que les concentrations en particules de diamètre inférieur à 10 µm relevées dans l’enceinte du métro dépassent ponctuellement la valeur guide applicable aux enceintes souterraines établi par le Conseil Supérieur d'Hygiène Publique de France.
    [Show full text]
  • Light Rail in France
    LIGHT RAIL IN FRANCE - THE CURRENT SCENE by Graham Jellett Last updated: 6th May 2013 Light Rail in France – The Current Scene by Graham Jellett,MA,MSc,CDipAF,CEng,MICE,FCILT,MCIHT Area Officer, Light Rail Transit Association Introduction This paper contains numerical and technical data, many photographs and associated information, relating to all urban public light rail systems currently operating in France. My original presentation on the subject was entitled “French Metro and Tramway Systems”, when only 14 such systems existed at the end of 1997, and was first given in January 1998 in Gateshead Civic Centre. Over the past fifteen years the content of this talk has changed significantly and has been updated regularly as new systems, extensions to existing systems and more rolling stock have come into public use, ticket prices have changed and smartcards have been introduced in 23 of the 26 conurbations with light rail. Since January 1998 the talk has been delivered to 109 audiences in England, Scotland and Wales at meetings of professional engineering and transport institutions, university transport students, light rail and railway enthusiast societies and other interested clubs and societies. Presentation to Meetings In every year since the mid-1980s France has always had in service more than double the number of metros and tramways concurrently running in the UK and now has nearly four times the ten UK light rail systems currently operating. A total of 37 public light rail systems currently operate in 26 French conurbations comprising 6 metros, 24 steel wheel tramways, 3 rubbertyred tramways and 4 tram-trains.
    [Show full text]
  • FINAL Technology Options Memo Honolulu High-Capacity Transit Corridor Project
    FINAL Technology Options Memo Honolulu High-Capacity Transit Corridor Project April 27, 2006 Prepared for: City and County of Honolulu Prepared by: Lea+Elliott, Inc. Under Sub Contract to: Parsons Brinckerhoff Quade & Douglas, Inc. AR00049911 TABLE OF CONTENTS EXECUTIVE SUMMARY S-1 CHAPTER 1 INTRODUCTION 1-1 Report Organization 1-1 Project Background 1-1 CHAPTER 2 INITIAL SCREENING OF TECHNOLOGIES 2-1 Overview of Transit Technology Categories Considered 2-1 Land-Based Technology Categories 2-1 Water-Based Technology Categories 2-3 Transit Service Types 2-4 Technology Category Screening 2-5 Initial Screening Criteria 2-5 Eliminated Transit Technology Categories 2-6 Remaining Technology Categories and Their Characteristics 2-7 CHAPTER 3 TRANSIT TECHNOLOGY ASSESSMENT 3-1 Technology Assessment Criteria 3-1 Technology Assessment Methodology 3-2 Technology Assessment Results 3-2 Technology Assessment Summary 3-4 Conventional Bus Category — Single Unit Bus 3-5 Conventional Bus Category — Articulated Bus 3-6 Guided Bus Category - Guided Bus 3-6 Light Rail Transit Category - Streetcar Tram 3-7 Light Rail Transit Category - Light Rail Vehicle 3-7 Light Rail Transit Category - Diesel Multiple Unit (Articulated, Single Level) 3-8 People Mover Category — Automated People Mover (APM) 3-8 Monorail Category — Medium Monorail 3-8 Monorail Category — Large Monorail 3-9 Maglev Category - Maglev 3-9 Rapid Rail Transit Category - Medium Rapid Rail Vehicle 3-9 Rapid Rail Transit Category - Large Rapid Rail Vehicle 3-10 CHAPTER
    [Show full text]
  • PARC DES TRAMWAYS - METROS (Sauf Paris) VAL Et Crémaillères Rhône-Alpes Bernard CONY Toutes Informations Complémentaires Sont Les Bienvenues
    FRANCE : PARC DES TRAMWAYS - METROS (sauf Paris) VAL et Crémaillères Rhône-Alpes Bernard CONY Toutes informations complémentaires sont les bienvenues En noir les réseaux en service ----- En bleu : chantiers et commandes en cours incorporées au total En rouge les réseaux à l'étude et les commandes en attente ou en option non comptées --- En violet les dernières mises à jour du tableau Années de N° de parc Contructeur Type Nombre Total Observations livraison ANGERS : IRIGO : Ligne A de 12,300 km inaugurée le 25 juin 2011 : 10/2014 : étude en cours ligne B de 10 km 1001 à 1017 Alstom Citadis 302 2009-02/2011 17 17 Ligne A : 750 volts + APS Ligne B à mettre en service en 2019 pas encore connu ???? ???? ???? Etude 18 rames prévues AUBAGNE : Le Charrel - Gare SNCF : 1 ligne de 2,900 km inaugurée le 1er septembre 2014 Projet de ligne de 9 km avorté ?? Citadis Compact 001 à 008 Alstom 2013 - 2014 L'accés au tramway est gratuit type 202 3 3 3 rames en service les 5 autres pour Val'Tram AUBAGNE à La Bouilladisse : ex voie de la Valdonne - env. 14 km - PROJET adopté Citadis Compact Financement de l'Etat OK Val'Tram Alstom 2013 - 2014 5 5 type 202 5 rames déjà achetées pour Aubagne AVIGNON : 1 ligne pour 6,000 km à mettre en service en 2018 (projet accepté le 10 janvier 2015) pas encore connu Alstom Citadis Compact Juillet 2018 10 10 A mettre en service en juin 2019 BESANCON : GINKO 2 lignes pour 23 km (14,5 km réels une grande partie en tronc commun) mise en service le 30 août 2014 N° des rames 301 à 319 Composition (n° rame + n° de caisse) URBOS
    [Show full text]