Modern stair and chair lifts are no longer limited to simple vertical motion. Comfort, safety, and ease of use increasingly depend on automated secondary movements. These include footrests, armrests, safety requirements and seat positioning. Actuonix recently worked with a lift manufacturer to automate a chair lift footrest using compact linear actuators, improving ease of use and rider confidence.
Linear Actuators for Stair Lifts: Automating Chair Lift Footrests and Seating Functions
Automating Chair Lift Footrests with Linear Actuators
For this application, L16 linear actuator was selected to automate the chair lift footrest. The L16 provided required force and flexible stroke options while maintaining a slim profile that fits within space-constrained lift designs.
By using linear actuators for stair lifts, manufacturers can:
- Automatically deploy and retract footrests during boarding and dismounting
- Reduce manual handling for users with limited mobility
- Deliver smooth, repeatable motion compared to mechanical systems
The L16 actuator integrates easily with common actuator controllers, allowing designers to fine-tune speed, positioning, and synchronization with other lift functions. Learn more about controller options in our guide to comparing actuator controllers..
Using Linear Actuators Beyond the Footrest
While this project focused on footrest automation, the same actuator selection approach can be applied to other chair lift and accessibility-related functions. Linear actuators for stair lifts can also be used to:
- Raise and lower armrests for easier transfers
- Adjust backrests to improve seating posture
- Position headrests for additional rider support
In a related accessibility application, a compact PQ12 micro linear actuator was used as a safety locking mechanism for a home elevator door. This application required small, controlled, and reliable linear motion for low-force locking.
These examples illustrate the flexibility of electric linear actuators across accessibility and motion-control designs. Their use is not only limited to these applications but can be integrated into many systems where manual movement is replaced with controlled, automated linear motion to improve safety, consistency, and user experience.
For manufacturers evaluating different actuator options, Actuonix offers tools to help identify the most suitable solution based on application requirements. You can explore available options using our actuator selection resources or Talk to our team now.
FAQ: Linear Actuators for Stair and Chair Lifts
How are linear actuators used in stair and chair lifts?
Electric linear actuators are commonly used in stair and chair lifts to automate functions such as footrests, headrests, armrests, and seating adjustments. Linear actuators for stair lifts provide controlled, repeatable motion in a compact form, making them well suited for accessibility equipment used on a daily basis.
How do linear actuators automate chair lift footrests?
Linear actuators automate chair lift footrests by extending and retracting the footrest automatically during boarding and exit. This removes the need for manual operation and provides smooth, predictable motion compared to spring-loaded or purely mechanical systems.
Which Actuonix actuator was used for the chair lift footrest in this project?
In this project, an L16 linear actuator was used to automate the chair lift footrest. The L16 was selected for its force capability, flexible stroke options, and compact profile that fits within space-constrained stair lift designs.
Are linear actuators suitable for safety locking applications?
Yes, compact electric linear actuators can be used in safety-related applications when properly selected. For example, a PQ12 micro linear actuator has been used as a safety locking mechanism for a home elevator door where controlled, low-force linear motion is required.
What factors should be considered when selecting linear actuator for a stair lift?
When selecting linear actuators for stair lifts, designers should consider load requirements, stroke length, available mounting space, and noise performance. These factors help ensure reliable operation in daily-use accessibility applications.
