Its value lies in the integrated architecture: road chassis, self-propelled rail running, railway braking, four-point stabilization, HIAB railway recovery crane, recovery spreader and remote control in one platform.
Heavy road-rail rescue vehicle integrating road travel, railway running and recovery lifting.
Rail gear and project-specific gauge configuration allow the recovery vehicle to operate on the intended railway network where engineered.
Outriggers, lateral positioning and recovery spreaders create the controlled lifting architecture at the incident.
Remote control, work-zone limits and integrated railway recovery systems support controlled operation at the incident site.
Use road deployment where it shortens mobilization and provides viable track access.
Transfer onto the railway through a route-compatible access point and rail-running configuration.
Create a verified stabilizer footprint for the actual corridor and ground condition.
Use approved vehicle lifting points, rigging and the relevant OEM load chart.
Return the vehicle to a recoverable position or remove the obstruction so infrastructure access can be restored.
Keep the truck, crane, rail gear, braking, rigging and trained crew ready as one emergency-response capability.
This tool returns scenario architecture and feasibility concerns only. It never certifies a lift or infers capacity from incomplete geometry.
Partial data is accepted. The tool will show exactly what still controls the decision.
LyncisRail integrates mobility, railway running and recovery lifting in one platform. The benefit appears only when route access, gauge, catenary, stabilizer footprint, vehicle lifting points and the incident geometry are engineered together.
| Recovery stage | Integrated requirement | What must be controlled |
|---|---|---|
| Reach incident | Road / rail mobility | A viable road-to-rail access path |
| Position | Gauge, clearance, railway braking | Route compatibility and controlled movement |
| Stabilize | Ground, track and outrigger geometry | Verified support and stabilizer footprint |
| Lift / rerail | Vehicle points, rigging and load chart | Vehicle-specific load case and approved lifting method |
For Indonesian applications, the TM50 architecture can be developed around 1,067 mm or 1,435 mm railway environments, self-propelled rail movement, railway braking, stabilizer geometry, the HIAB recovery crane and fleet-specific recovery tooling. Where the incident demands more than a single-unit case, two TM50 units can be engineered to work in parallel.
Share the vehicle type, mass, approved lifting points, incident scenario, road and rail access, gauge, catenary condition, stabilizer space and required lifting geometry. CBP can help define the recovery study and the technical information still required.
CONTACT CBPHUBUNGI CBP