Frauscher Sensor Technology has completed the divestiture to Wabtec Corporation.

Find Out More
Beijing Metro Line 12 | China
Train DetectionChina

Beijing Metro Line 12

Operator
Beijing Metro
Country
China
Segment
Urban
Application
Track Vacancy Detection
Products
RSR180, FAdC®
Protocols
Proprietary protocols
Year
2024
Scope of project
Approx. 263 counting heads

The Beijing Metro Line 12 is the first metro line that combines Frauscher Advanced Counter FAdC® and Railway Signal Safety Protocol Type I (RSSP-I). The line (from Sijiqingqiao Station to Dongbabei Station) was placed into full operation on 15 December 2024.

Beijing Metro Line 12 is a metro project in northern Beijing. It is 27.5 km long with 20 stations, located in one of the busiest commuting areas, connecting four major urban districts. It is the first metro line that uses the Frauscher Advanced Counter FAdC® with software interface as a CBTC fallback system in Beijing.

Furthermore, following the combination of the Frauscher Communication board (COM) and the Railway Signal Safety Protocol (RSSP) that has been implemented successfully in Huangpu Tram T1 of Guangzhou and the Fenghuang Maglev Line in Hunan Province, Line 12 is also the first metro line that uses this proven technology.

The RSSP is mentioned in the standard specification for the Chinese railway industry, which has been commonly applied for data transmission in the CBTC system. Frauscher’s technical team has developed the communication board that supports the RSSP protocol (COM-RSSP) and successfully obtained the CENELEC SIL 4 Certification two years ago.

Software interface

Frauscher Advanced Counter FAdC® is able to communicate with higher-level systems via the Ethernet interface using customised protocols. The protocols RSSP and FSFB have been used in China.

Installation friendly

The tail cable of Wheel Sensor RSR180 and Frauscher Rail Claw SK150 are specially designed for easy installation without track drilling.

Similar Projects
This might also interest you
1/5
Train DetectionUnited States of America

Reducing Delays in a Metro (subway) Environment

A large metro operator was researching ways to reduce bottlenecks that were causing significant delays at a busy station. With two routes dividing in close proximity to the station and a complex auto-routing system that required the use of a 30-second timer to release switches, trains would frequently back up when approaching the station.
Train DetectionChina

Fenghuang Maglev

Fenghuang Maglev is a medium-low speed maglev rapid transit line. Since maglev trains do not have wheels, traditional wheel-based detection systems cannot be directly applied to maglev traffic engineering.
Train DetectionIndia

Ensuring reliable rail operations across India´s longest rail-road bridge

The Bogibeel Bridge is India’s longest rail-road bridge that connects Assam and Arunachal Pradesh, carrying both rail and road traffic across the Brahmaputra River. Harsh environmental conditions and structural constraints made conventional signalling unworkable. The Frauscher Advanced Counter FAdC® axle counting system was selected for its proven reliability and low maintenance under these challenging conditions.
Train DetectionUnited Kingdom of Great Britain and Northern Ireland

London to Corby

The project was part of Network Rail’s Midland Main line electrification programme and involved re-signalling between Bedford and Kettering. The goal is the reduction of industry costs and environmental benefits through lighter rolling stock, reduced fuel costs and lower carbon emissions.
Train DetectionSpain

Three-rail Castellbisbal

The dual-gauge system of the Spanish railway network is quite challenging in terms of track vacancy detection: Wheel sensors must be installed on two rails next to each other in tight spaces and have to detect axles reliably on the respective rail. Frauscher developed a solution which copes also with the complexity of different interlocking technology in the stations along the line.