Kokkola | Finland
Train DetectionFinland

Kokkola

Operator
Finnish Transport Infrastructure Agency
Country
Finland
Partner
Mipro
Segment
Main & Regional Line
Application
Track Vacancy Detection
Products
RSR123, FAdC
Protocols
Frauscher Safe Ethernet FSE
Year
2019
Scope of project
275 sensors on open line 75 sensors in Ylivieska station

Frauscher supplied one of Finland’s busiest railway lines with new axle counters. The line was extended from a single to a double track section and Mipro was looking for a solution which can interface with their interlocking system in an efficient and cost effective way. Other important criteria was a minimum maintenance requirement and outdoor equipment which can cope with the harsh environmental conditions in Finland.

The railway section between Kokkola and Ylivieska is one of Finland’s busiest lines where trains reach up to 200 km/h. Environmental conditions in Finland are harsh: heavy snow and extreme cold temperatures are common during winter.

The Finnish Transport Agency planned to extend the railway section between Kokkola and Ylivieska from a single to a double track section. This project was one of the most comprehensive signalling system projects ever conducted in Finland. Obviously, the project needed to be performed without affecting the regular train operation.

The Frauscher Wheel Sensor RSR123 has proven its reliability even under harshest environmental conditions and combined with the Frauscher Advanced Counter FAdC, it was the system of choice for this project. This combination allows to detect high speed trains under the very demanding environment given on this line. Using the Frauscher Safe Ethernet FSE protocol significantly sped up the installation and reduced the costs for the entire project. Based on training, the customer was able to configure the system by themselves – thanks to the open interfaces and configuration process.

Saving costs by realising mixed architectures

The FAdC indoor equipment is located in numerous signaling shelters along the track. This saves massive costs in terms of cabling requirements due to short distances from the sensor to the evaluation board.

System status always on screen

The Frauscher Diagnostic System FDS allows remote access to valuable data for planning and conduction of preventive and predictive maintenance work.

Similar Projects
This might also interest you
1/5
Train DetectionUnited Kingdom of Great Britain and Northern Ireland

Wherry Lines

The Wherry Lines are railway branch lines in East Anglia in the East of England, linking Norwich – Great Yarmouth – Lowestoft. The project aimed to integrate Frauscher Advanced Counter FAdC into two external systems to mitigate against a train passing a red signal without authority on approach to level crossings.
Train DetectionAustria

GKB Graz-Köflacher Bahn

The operator of the Graz-Köflacher Bahn has made substantial modernisations to the network, choosing a decentralised system architecture and the EULYNX standardised interface. In this case, it was crucial that the new system would ensure a seamless transition from the previous parallel interface for relay systems to EULYNX.
Train DetectionChina

CBTC Fallback System on Beijing Metro Lines

Beijing metro, one of the busiest lines in the world, was Frauscher’s very first assignment when entering the Chinese market. Due to its utilised capacity, it requires a great level of stability, reliability and performance of the entire signalling system. The Communication Based Train Control System (CBTC) applied here relies on a backup system consisting of fixed automatic train detection systems. Axle counting systems from Frauscher are perfectly suited for the accurate operation of such stand-by systems.
Train DetectionCanada

City of Calgary Grade Crossing Upgrade

The City of Calgary in Alberta, Canada was seeking an upgrade to the existing signaling system at a crossing near a station in the downtown area, to alleviate shunt issues caused by winter conditions. The Frauscher Advanced Counter FAdC and Wheel Sensors RSR180 were chosen to augment the existing system. During the eleven month trial period, the axle counter ran in shadow mode with the legacy system to gauge performance and compatibility. After the axle counter was proven during the trial with no faults or errors, the city was able to implement a hybrid crossing design using both the axle counting system and track circuits.
Train DetectionCanada

Toronto Transit Commission

The Toronto Transit Commission (TTC) Line 1 Yonge-University is Toronto’s longest subway line, with track circuits utilized for signalling. Due to an increasing number of daily passengers and an aged system the need for upgrading without interfering with the daily operations became readily apparent. It was further required that the new signalling system functions independently of the existing system. It would provide CBTC fallback functionalities, and work as an overlay to the current track circuit-based system.