Schindler expands elevator robot fleet

Schindler has expanded its Robotic Installation System for Elevators fleet as interest grows in automated lift-shaft installation on high-rise and complex building projects.

The R.I.S.E system is designed to operate inside elevator shafts, automating tasks such as measurement, drilling, and anchor-bolt installation. Schindler says the robot can complete drilling and setting of anchor bolts for landing doors, divider beams, and wall brackets faster than conventional methods, while relieving installation teams of repetitive and physically demanding work.

Once installed in the shaft, the autonomous robot can operate around the clock until the anchor bolts are installed. A Schindler R.I.S.E operator remains on site for quality control and support, while data from each installation step can be recorded and exchanged with the building’s digital model for later construction and maintenance reference.

Lift-shaft work is a clear target for automation because it combines precision, repetition, physical strain, and constrained access. Manual drilling and setting of anchor bolts can be noisy, dusty, and ergonomically difficult, particularly on tall buildings where similar tasks must be repeated floor after floor.

Construction robotics has often struggled where systems try to solve too many site problems at once. Variable ground conditions, changing access routes, weather, overlapping trades, incomplete information, and non-standard workfaces all make general-purpose automation difficult. R.I.S.E operates in a more controlled environment: the lift shaft provides a defined vertical workspace and a repeatable task sequence.

That practical focus is also visible elsewhere in site automation. Haulotte and Builder Assist are testing robotic systems on mobile elevating work platforms for overhead drilling, façade painting, coating, and other repetitive work at height. The pattern is increasingly clear: robots are entering construction through specific, physically demanding tasks rather than broad attempts to automate whole trades.

For high-rise schemes, lift installation sits on a critical path. Delays can affect access, fit-out logistics, commissioning, and occupation sequencing. A system that improves repeatability and reduces manual exposure inside shafts can support both programme control and safety, provided it integrates cleanly with the main contractor’s schedule, temporary works, and lift package responsibilities.

The data link also deserves attention. As building safety and asset management requirements become more demanding, recorded installation information can carry value beyond the construction phase. Digital evidence of locations, tolerances, and completed steps may support handover, maintenance planning, and later modifications, particularly in large buildings with complex vertical-transport systems.

The commercial case will still depend on utilisation. Specialist robots need enough suitable projects to justify deployment, training, transport, support, and maintenance. Dense city markets with high-rise residential, office, healthcare, and mixed-use pipelines are more likely to support repeat use than low-rise markets where lift shafts are fewer and simpler.

Schindler’s continued investment in R.I.S.E suggests that elevator-shaft automation is moving from demonstration into a more established deployment model. The next test is not whether the robot can work, but how consistently it can be planned into procurement, site logistics, subcontractor workflows, and digital building records across different project types.