Bolts, pins & shafts
Long or cylindrical parts that may cross, bridge or require a controlled axial presentation.
Parts and production applications
Step feeders are evaluated where controlled lifting, low-level loading and a robust linear presentation path suit the product and production environment.
Component families
Suitability always depends on the whole part set, required orientation and accepted production rate.
Long or cylindrical parts that may cross, bridge or require a controlled axial presentation.
Robust metal components requiring single-layer elevation, track orientation and accurate escapement.
Clips, housings, connectors, plugs and formed parts with defined datums or inspection features.
Caps, plugs, collars and dispensing components requiring top/bottom or axial orientation.
Heavier components that benefit from a rigid path and carefully engineered transfer points.
Friction-sensitive components that require real-sample assessment for sticking, nesting and release.

Orientation tooling is designed around the component datum and downstream operation.
Industrial markets
A step-feeder system can be integrated wherever a repeatable part presentation is needed before assembly, insertion, inspection, packing or robotic handling.
Selection criteria
Technology-neutral selection protects the production result. Step feeding is one option within a wider component-handling toolbox.
Often effective for compact parts needing dedicated mechanical orientation around a circular track.
Considered where robust components demand very high presentation rates and rotary handling suits the geometry.
Useful for frequent format change, delicate parts or applications where vision-guided picking adds value.
Straight answers
Yes, representative production samples are normally required before the feeding principle, tooling and acceptance criteria can be finalised. Drawings alone do not reveal friction, bounce, nesting or normal manufacturing variation.
Potentially. Contact surfaces, batch depth, impact points, return paths and acceptable marking must be assessed. A flexible or robotic feeder may be more appropriate where part-on-part contact is unacceptable.
Only when all materials and finishes have been tested. A geometry that feeds well in metal may behave differently in moulded plastic or rubber because friction, static and rebound change.
A camera can verify orientation, presence or selected features after step elevation. Vision is not a cure for unstable presentation, so the mechanical feed path still needs to create a controlled viewing and handling condition.
Application review
Send a drawing or photograph, the component range, required orientation, sustained output and receiving-machine details. We will identify the most suitable next step.
Step feeder knowledge centre
Compare principles, define the application and arrive at a quotation or trial with the evidence needed for a useful answer.
Compare feeding principles by component, noise, rate and hand-off.
Read the guide →Engineering guidance for bolts, screws, pins, nuts, bushes and shafts.
Read the guide →Understand lower-vibration bulk feeding and realistic noise objectives.
Read the guide →Build a complete brief from components, rate, layout and acceptance evidence.
Read the guide →See which tooling, controls, guarding and integration choices determine scope.
Read the guide →Define the verified datum, buffer and one-part machine release.
Read the guide →Protect feed-path geometry, sensing, alignment and fault recovery.
Read the guide →Get direct answers to common engineering and purchasing questions.
Read the guide →Provide representative components and identify surfaces or features that must remain undamaged. Define the required orientation and delivery rate at the receiving process. Assess the parts after the full feeding and transfer sequence, including replenishment and pauses, so handling quality is reviewed alongside consistent presentation.
Related guidance: Read the guide → · Read the guide →