Railway Engineering / Indonesia
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Safe selection begins with vehicle mass distribution, lifting points, synchronization, floor/foundation interfaces and the maintenance movement that must happen while the vehicle is raised. AUTOLIFT covers the workflow from synchronized lifting to bogie exchange, turning and transport.
Synchronized columns positioned at vehicle lifting points, with project-specific arms, controls, battery/wireless options and capacities.
Best fit
Flexible multi-fleet depots.
Jacks guided along workshop rails for repeatable positioning in dedicated bays.
Best fit
Structured maintenance tracks.
Underfloor architecture supported from the workshop floor/foundation.
Best fit
Permanent heavy-maintenance bays.
Alternative underfloor architecture where the building structure and maintenance concept favour suspended equipment.
Best fit
Engineered new-depot structures.
Lift and support the vehicle body independently of the bogie.
Best fit
Bogie exchange and major overhaul.
Dedicated lifting for bogie maintenance and component access.
Best fit
Bogie workshops.
Stationary or self-propelled architectures that lower and transfer bogies/components below the vehicle.
Best fit
Fast bogie exchange.
Rotate bogies or components where workshop flow requires directional change.
Best fit
Compact bogie-shop routing.
Move bogies, wagons and heavy components between workstations.
Best fit
Integrated depot material flow.
Installation, commissioning, FAT/SAT support, maintenance, annual inspection, spares, retrofit and technical training.
Best fit
Long-term installed-base availability.
Mobile, rail-guided or underfloor lifting.
Support carbody and bogie independently.
Use bogie lift, drop table or turntable.
Transfer through the depot with guided transport or manipulators.
Start with the movement, then qualify vehicle loads and civil interfaces. Equipment names come second.
Start here when the job is to raise the complete vehicle at approved lifting points. Vehicle geometry, load reactions, floor capacity and required fleet flexibility determine the final arrangement.
Generic lifting language hides vehicle lifting points, unequal reactions, synchronization, structural deflection, floor/foundation capacity and the maintenance task that happens after lifting.
AUTOLIFT combines synchronized lifting with underfloor, carbody, bogie, drop-table, turntable and transport systems so the depot can be engineered around the maintenance movement rather than isolated machines.
CBP's controlled project record contains multiple mobile lifting-jack, underfloor-lift, bogie-turntable and related handling projects across Indonesian railway customers. Project stages are kept individually bounded; shipment does not automatically become installation, SAT or acceptance.
The controlled record identifies an eleven-set PT KAI mobile-lifting-jack program awarded in 2026. Downstream production, FAT, shipment, installation and acceptance remain project-specific milestones and are not collapsed into one status.
Nominal arithmetic ignores unequal mass distribution, lifting-point reactions, structural deflection and allowable jack utilization. The vehicle load case controls the configuration.
Mobile jacks preserve layout flexibility and can serve multiple fleets. Underfloor lifting can free the work area and support structured heavy-maintenance flow, but civil integration becomes a primary design problem.
Electronic synchronization coordinates movement. It does not cure weak floors, incorrect lifting points, bad geometry or an invalid load case.
A drop table is only as useful as the pit, rail continuity, bogie path and downstream workstation designed around it.