Height-Adjustable Furniture Motion
For mechanisms that raise, lower, or reposition furniture structures, go to height-adjustable motion systems. Deeper system configuration belongs on that dedicated page.
APPLICATION ROUTING
Linear Actuator Applications
Linear actuator applications begin with the motion your mechanism must perform. Use this hub to identify that motion, open the closest application path, and collect the engineering inputs needed before product selection.
ServoCylMotion keeps this page focused on navigation. Detailed system configuration, sizing, controls, compatibility, and product decisions stay on the relevant solution, product, or engineering-resource page.
START WITH THE MECHANISM
Choose by the Motion Your Mechanism Needs
Motion task
Start with this question
Define before selection
Lift / lower
What must move vertically or against gravity?
Moving load, travel, loaded speed, duty cycle, mounting geometry
Push / pull
What needs controlled extension and retraction?
Force in both directions, stroke, alignment, end positions
Tilt / pivot
What rotates around a hinge or pivot?
Pivot locations, leverage through the motion, angular travel, available envelope
Slide / index
What moves along a guided path?
Travel, cycle time, friction, positioning requirement, guide arrangement
Position / adjust
What must stop at controlled positions?
Repeatability need, feedback method, control logic, speed profile
Open / close
What lid, panel, door, cover, or access mechanism must move?
Hinge geometry, breakaway condition, clearance, end-of-travel behavior
Clamp / press
What process needs controlled axial force?
Working force, motion profile, dwell, process feedback, tooling guidance
Synchronize
Do multiple axes need coordinated movement?
Axis count, load distribution, feedback, controller architecture
One mechanism can involve several of these motions. Define the complete movement before choosing a product family or requesting a model recommendation.
APPLICATION PATHS
Explore Application Paths
Automation & Machine Motion
For pressing, lifting, positioning, indexing, and related machine functions, continue to automation and machine motion. Use that path when linear motion is one part of a larger machine, fixture, or automated process.
Multi-Position Comfort Systems
For products with multiple adjustable sections or user-controlled positions, explore multi-position comfort systems. Controls and system architecture remain downstream.
AV Lifting & Concealment Systems
For mechanisms that raise, lower, reveal, conceal, or reposition display equipment, open AV lifting and concealment systems. Final selection still depends on the actual load, travel, packaging, and control requirements.
If none of these paths matches your mechanism, compare linear actuator product families or organize the requirements with the product selector.
ENGINEERING INPUTS
Define the Engineering Inputs Before Selection
An application name is useful for routing, but it does not establish an exact actuator match.
Input
What to provide
What it helps establish
Load and force
Moving load, direction, friction, gravity effects, peak condition
The force requirement at the real operating condition
Travel and stroke
Required mechanism travel, retracted position, extended position
The actuator travel and packaging relationship
Loaded speed
Required movement speed under the actual load
Whether the motion can meet the required cycle timing
Duty and cycle
Run time, rest time, cycles per hour, operating pattern
The operating pattern that must be checked against product limits
Mounting and geometry
Mounting points, pivot locations, available envelope, guidance
Leverage, alignment, clearance, and non-axial load risks
Environment
Dust, water, temperature, cleaning, vibration, indoor/outdoor exposure
Which environmental documentation and design features must be reviewed
Feedback and control
End limits, intermediate positions, feedback signal, synchronization need
The control architecture and feedback compatibility
Electrical
Supply voltage, current constraints, wire length, connector and controller needs
The power, protection, wiring, and control-system requirements
For preliminary calculations, use the actuator sizing resource. Treat the result as an input to engineering review, not automatic approval of a specific configuration.
SELECTION BOUNDARY
What an Application Page Cannot Confirm
An application path can narrow the search. It cannot independently confirm:
✓
the exact actuator model or configuration;
✓
final force, speed, stroke, or duty performance at the real operating point;
✓
environmental or ingress suitability for a specific exposure;
✓
regulated-use or safety compliance;
✓
multi-axis synchronization performance;
✓
compatibility among the actuator, controller, power supply, wiring, and feedback devices.
Those decisions require project-specific data and verified product documentation. A mechanism drawing with mounting points, load direction, travel, speed, duty pattern, available voltage, environment, and control method is the strongest starting point for review.
DECISION SUPPORT
Frequently Asked Questions
What are linear actuator applications?
They are mechanisms that use controlled straight-line movement to lift, lower, push, pull, slide, tilt, position, open, close, clamp, press, or adjust a load. The application name identifies a path; the final selection depends on the motion requirements.
How do I choose the right application path?
Start with the motion and mechanism geometry. Then define load or force, travel, loaded speed, duty cycle, environment, mounting, electrical supply, and control requirements. Open the path that best matches the mechanism and keep detailed selection downstream.
Can an application example tell me the exact actuator model?
No. An example describes a motion pattern or solution category. Exact selection requires the real operating point, dimensions, environment, controls, and compatibility review.
Does actuator stroke always equal mechanism travel?
Not necessarily. Linkages, pivots, mounting positions, and lever arms can make actuator travel different from the visible movement of the load. A dimensional drawing or sketch helps establish the relationship.
When is position feedback needed?
Feedback becomes relevant when a system must know position, stop at intermediate locations, coordinate multiple axes, or operate in a closed-loop control scheme. The feedback signal must also match the controller architecture.
What should I send for an engineering review?
Send a mechanism drawing or sketch with the load, travel, loaded speed, duty pattern, mounting points, environment, available power, feedback/control requirements, and expected quantity. For an unlisted application, contact ServoCylMotion with those inputs.
NEXT STEP
Use Product Selector
Choose an Application
Open the application path that best matches your mechanism, then validate the engineering inputs before selecting a product. If the project is still at the requirements stage, use the product selector to organize the information for review.