Sorry, you need to enable JavaScript to visit this website.
An official website of the European UnionAn official EU website
English (en)
TRIMIS

The integration of Checkpoint Systems into Solid State Interlockings for automatics train supervision

CHECKPOINT

The integration of Checkpoint Systems into Solid State Interlockings for automatics train supervision
Original Language Title: 
Sicherungssystemintegrierte Checkpoint Anlagen

Background & policy context: 

Operational safety is an important issue in railway operation. On the other hand the track usage fees play an important role for the attractiveness of railway transport. The visual inspection is a cost driver in the current situation. The introduction of the new ÖBB management operation system should result  in an increase in safety and quality and/or a reduction of operating costs. These goals can only be achieved by concentrating the responsible staff to a few locations.

Objectives: 

The main objective is to replace the traditional train supervision system which employs staff to perform visual inspections. Thus the number of checkpoints shall be increasable having less personnel costs at the same time. The basic objective is to replace the human detection by an automated system. This requires an integration of sensors into the train control systems. The automatically acquired data should flow into the control systems to prevent accidents and damages.

Methodology: 

The traditional train supervision has to be replaced by a technical solution, the so-called checkpoints. Checkpoints can be defined as trackside locations where trains are examined to detect any deviation from nominal conditions. In February 2003, the project 'The integration of Checkpoint Systems into Solid State Interlockings for automatics train supervision' was officially launched. In Autumn 2004, the checkpoint-prototype went into operation on the railway line between Vienna and the Austrian-Hungarian border.

Institution Type:
Institution Name: 
Federal Ministry for Transport, Innovation and Technology (BMVIT)
Type of funding:
Key Results: 

The project is currently in its final phase, no results are disclosed. From other projects we learned that filters against solar irradiation are necessary for IR-sensors. But sensors equipped with filters managed to survive a five years test. Also an auto-calibration of the sensors is necessary to allow a longer unattended operation of the sensors in the field.

Policy implications

The system is helpful to cope with low quality rolling stock which will be operated in Europe due to the liberalisation of rail freight. The plenitude of vehicles and also new technologies (changing gauges) require increased monitoring. To avoid costly visual inspections this project helps to secure the open access to the rail networks by providing the basics for filtering out problematic vehicles that might cause damages or derail. Because of the detection in an early stage costs for preventing accidents are low.

Partners: 

Leader:


Alcatel Austria AG


Transport Solutions


Mag. Michael Sünder


Scheydgasse 41


A-1211 Vienna


Austria


 


Partner:


Federal Austrian Railways Network Operation


Manfred Pisek Elisabethstr. 9


A-1010 Vienna


Austria


 


Technical University, Vienna


Institute for rail technology, transport economy and cable railways


DI Dr. Schöbel Karlsplatz 13


A-1040 Vienna


Austria


 


Technical University, Vienna


Institute for electrical measuring and control systems


DI Thomas Maly


Gushausstraße 25


A-1040 Vienna


Austria

Organisation: 
Alcatel Austria AG
Address: 
Scheydgasse 41
Zipcode: 
A-1211
City: 
Vienna
Contact country:
Telephone: 
+43 1 277223655