Maintain orientation while decoupling upstream and downstream cycles.
System principle
Linear vibratory feeders engineered around the component.
Create a controlled, repeatable path from the orienting feeder to the point of use without losing datum, pitch or production availability.
Application inputPart · orientation · rate · interface
Drive size and control matched to track mass, length and component behaviour.
Track exit coordinated with the final stop, escapement or pick point.
How the principle works
A / 01Controlled vibration advances the part along a profiled path.
The drive creates a directional vibratory motion that advances components along the track. Stable movement depends on the relationship between drive, springing, track mass, mounting, amplitude and the contact characteristics of the part.
Because the component and track behave as a system, final settings should be established with representative parts and the complete tooling fitted.
The objective is sustainable accepted output at the hand-off—not simply the fastest visible track speed.
Common configurations
Choose the inline arrangement to suit the task.
Single-lane transfer
A dedicated track carries one oriented stream from feeder discharge to the receiving process.
Multi-lane presentation
Parallel lanes can increase availability or feed several stations where component geometry and layout permit.
Buffered track
A longer controlled queue provides autonomous cycles while the upstream feeder replenishes or recovers.
Metering track
Sensors and control logic regulate flow where parts must reach the hand-off with controlled spacing.
Selection inputs
What determines the correct drive and track?
Drive selection starts with the loaded track mass and required conveying condition. The component then determines contact geometry, allowable vibration, track finish and practical pitch.
- Part size, weight, centre of gravity and geometry
- Track length, route, slope and support arrangement
- Required rate and seconds of accumulation
- Permitted contact surfaces and cosmetic standard
- Ambient, clean-area or washdown requirements
- Changeover range and adjustment strategy
System boundary
Coordinate upstream supply and downstream demand.
A linear feeder performs best when the bowl or step feeder, track-full sensor, controller and receiving machine share a clear operating sequence. Stopping only the inline drive can allow upstream pressure to build; stopping everything too early can reduce useful buffer.
- Track-full demand controls upstream feed
- Low-part state protects downstream availability
- Jam timing distinguishes a pause from a fault
- Restart logic avoids uncontrolled surges
Common questions
Linear feeder questions, answered.
Practical guidance for an early project review. Final design and performance are confirmed against the actual application.
01How fast can a linear vibratory feeder run?+
There is no universal rate. Sustainable output depends on component geometry, pitch, track condition, queue pressure, drive selection and the final release. The rate should be demonstrated with representative components against an agreed acceptance test.
02Can the amplitude be adjusted?+
Yes. A suitable controller can adjust drive output, and closed-loop or sensor-led control may be used where the application requires it. Settings should remain within the validated operating window.
03Can a track feed uphill?+
A limited rise may be practical, but slope changes conveying behaviour and available rate. The route should be trialled with the actual component rather than assumed from an unloaded track.
Start with the component
Need a stable path to the next machine?
Send a part photo or drawing, the required orientation and sustainable rate. We will help define the right linear feeding approach.
Request an application review