FR8RAIL, project Midterm conference Vienna

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Presentation transcript:

FR8RAIL, project 730617 Midterm conference Vienna 18 April 2018 Jan Bergstrand & Anders Ekmark Trafikverket

Driving Innovation within Shift2Rail: FR8RAIL project “IP 5Technologies for sustainable and attractive European Rail Freight” Structure FR8RAIL Vision IP5 Implementation Strategies and Business Analytics Identification of high level requirements in market segments, KPI’s and Migration 2 Asset Control tower & customer communication Condition monitoring for predictive maintenance Automated train composition and operation Longer coupled trains with distributed power Smart eco-efficient propulsion technologies Logistics capable Future wagon Electrification, and Telematics Telematics and electrification providing more intelligence Automated couplers Automated couplers with specifications and migration plans Wagon Design Low-noise, lightweight, track friendly running gear, core and new market wagon 2020 Condition based maintenance Condition based maintenance and predictive maintenance Targets of Shift 2 Rail Synchronization and alignments of technical interfaces Synchronization of technical findings/specifications between the workpackages Reduction of Green House Gases Market Growth & Modal Shift Management and dissemination Project management Improved services and customer quality until 2030 Cost reduction

Automation and digitalisation

The relationship and contribution to TD in general

Project Status Overview D4.3 Running gear and wagon design concepts D1.2 Specification wagon D5.3 Technical requirements for automatic couplers D3.1 Requirement Analysis and Technologies evaluation for train’s wireless backbone D1.3 Specification propulsion 1 D5.4 Automatic coupler conceptual design D2.1 Overall developed high level architecture D1.4 Specification propulsion 1 D5.5 Cost benefit analysis D5.2 Technical requirements for automatic couplers (preliminary version) D2.6 Installed processes D5.6 Migration plan D3.4 Algorithms for positioning rail freight trains D2.4 Determination of relevant variables for condition monitoring of components D7.1 Plan for use and dissemination D3.5 Technologies for wheel to rail contact monitoring D8.1 Quality plan D2.5 Defined thresholds D3.7 Specification of data model for application interface of CMS 01/09/2016 01/01/2017 01/01/2018   01/01/2019 31/08/2019 D3.2 Detailed Specification of train’s wireless backbone infrastructure D2.7 Continuous data transfer from the locomotive to the landsite D5.1 State of the art on automatic couplers D3.3 Safety analysis D7.3 Website D3.6 Wayside condition monitoring impact analysis D2.8 Modified IT system D1.1 Market Segments architecture D3.8 Specification of data model for application interface of WMS D6.1 Overall high-level architecture D2.2 List of components and feedings D4.2 Optimized acoustic and aerodynamic characteristics D7.2 Information activities D2.3 Revised list with all relevant maintenance tasks D4.1 State of the art D4.4 Detailed Running gear and wagon design concept 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36

FR8RAIL relations Focus areas and projects in MAAP. FR8RAIL in yellow.

Project status Managment Project meetings: TMT + SC meetings: 02.08, 05.08 (TMT only), 14.09, 07.12. Overall status: Second reporting period 01.01.17 – 31.12.17 All WPs are making progress. Some deliverables are delayed in order to allow for better collaboration across WPs and with other projects (e.g. CONNECTA, X2RAIL) There is a need to accelerate the project with respect to the Wagon Design in WP4 due to developments in the market.

FR8RAIL WP1 – Business Analytics, KPIs, Top Level Requirements Business Analytics, KPI, TLR Work break-down structure FR8RAIL WP1 – Business Analytics, KPIs, Top Level Requirements 1.1 Market Segments (Leader: CON) 1.2 Top level requirements, development of technical specifications for Wagon application 1.3 Top level requirements, development of technical specification for Propulsion (Leader: BT) 1.4 Development of Key Performance Indicators D1.1 - Market Segments architecture D1.2 - Specifications Wagon D1.2.1 core market wagon D1.2.2 extended market wagon D1.2.3 automatic coupling D1.3 - Specifications Propulsion D1.3.1 New Propulsion last mile applications D1.3.2 Locomotive boogie D1.4 Key Performance Indicators for IP 5 D1.4.1 Novel wagon vs typical UIC standard wagons D1.4.2 Running gear and automatic coupler D1.4.3 Locomotive D1.4.4 Propulsion

First trache of our CBM initiatives are already in implementation WP2 Outlook: 3.1 Define target process incl. approval process First trache of our CBM initiatives are already in implementation WP2 Funnel (BR 185, 189, 152, 29x und 26x) Difference +19 +00 +04 +00 +08 +n/a 7 19 41 4 8 In validation Check if implementation In desicion In Implementation Implemented Identified u.a. Battery, Air condition u.a. traction motor blower u.a. Schraubenkompressoraggregat u.a. Main switch FML = 918 pro Stk. = 3.672 € pro. Tfz. KTL = 974 pro Stk. = 1.948 € pro. Tfz. New: Focus BR 152 Clear quality gates are defined to manage all CBM ideas through the process Weekly update calls and meetings are in place to monitor progress DB Cargo AG | Holger Niggemann | Projekt CBM | 14. März 2018

Telematics and Electrification WP3 Communications (T3.1) Positioning (T3.2) Z Sensors: Wagon monitoring (T3.3) X Sensors: Cargo monitoring (T3.4) Y Sensors: Loco monitoring (WP2) Automatic coupler (WP5) WSN: Wireless Sensor Network OBU: on-board unit wOBU: Wagon OBU LOBU: Locomotive OBU Freight Telematic System (FTS)= OBUs = wOBUs + LOBU

TELEMATICS automated brake test

WP 4 Wagon design-Core Market Concepts Tightness improved tightness by multiple labyrinths secondary rubber sealing Volume the largest volume at the market NEW mechanism - Favourable kinematics without rail interruption - Minimal resistance during sidewall movement Without friction of pulley during opening Simple control and adjustment the lowest weight max. stiffness of design Weight Covered Wagon Habbii(ll)ns with Optimised construction

Running Gear – Core Market with double suspension Running gear with single suspension Headstock-free bogie with disc brake and radially adjustable wheelsets by means of „cross-coupling“

Wheel Sets

Modular Wagon for ext. Market Optimization of the usable train length by flexible adjustment of the load length of the wagons with coupling rod Increase of the payload by the low mass of the wagons Reduction of the wagon costs by using 2 axle wagons Universal applicability for different container types Improved aerodynamics and thus reducing air resistance and energy consumption

Modular Wagon Concepts for ext. Market

Aerodynamical/-acoustics methods & Analysis

Rail without automatic coupling Self driving trucks will increase the competiveness significantly. Assumption: Start of migration of autonomous trucks in 2024 Showcase: Development of costs of rail freight vs. truck 2018-2030 (2018=100%) Approx. 1/3 of truck costs are costs for drivers.1 With migration of autonomous trucks, road transportation will reduce costs dramatically. Without massive increase of productivity, competitiveness of rail freight will be weakened significantly. Rail without automatic coupling Truck Assumptions: Costs for rail freight increase in average by 2% p.a. because of raising costs for infrastructure and electric power supply. Diesel costs and costs for road toll will not increase, other cost increases will be adjusted by gains in productivity. Beginning of migration of autonomous trucks in 2024, all long-distance road transportation with autonomous trucks in 2030. 1 Source: Cost calculation truck, hwh

Competitors increased their competitiveness… The railway has not increased its productivity in a significant way in the past 20 years. Barge Road Rail Additionally platooning Competitors increased their competitiveness… …rail freight didn‘t.

WP 5 Automatic Couplers

There is a great need for new thinking and migration of innovations Capacity Infrastructure Further develop-ment of rail freight corridors Extension of nodes and passing tracks ETCS Automatic coupling systems Dimensioning of freight trains Longer trains (>750m) Heavier trains Faster trains Electric power supply on train Digitization Intelligent locomotives and wagons Telematics and sensor technology Predictive Maintenance Data transmission on train Automation Automated marshalling yards Automated shunting locomotives autonomous driving Automation of production processes Electro-pneumatical brake Premises / Basis-Innovations