Parts feeding systems designed around production reality.
Feed and present components for assembly, packaging, inspection, insertion, testing and robotic handling across UK manufacturing.
The sector provides context. The component determines the design.
Two parts used in the same industry can need completely different feeding principles.
We review material, finish, geometry, tolerances, orientation, rate, cleanliness, inspection, changeover and the receiving process before recommending a platform.
Explore common industrial applications.
These pages identify the typical parts and project priorities. Final design is established from your samples and machine interface.
Automotive components
Clips, connectors, seals, plugs, terminals, fasteners and precision mouldings for assembly and test stations.
View application →02Medical & pharmaceutical components
Controlled feeding of closures, diagnostic components, devices and moulded parts where handling and cleanability matter.
View application →03Electronics & electrical parts
Orientation and presentation of terminals, connectors, housings and small components to assembly, insertion and test equipment.
View application →04Fasteners, fixings & inserts
Screws, nuts, washers, rivets and threaded inserts presented to drivers, presses, assembly machines and robots.
View application →05Caps, closures & packaging components
High-flow feeding and orientation for screw caps, snap caps, pumps, lids, overcaps and other packaging components.
View application →06Plastic mouldings & metal components
Application-engineered feeding for moulded, pressed, machined and cast parts across general manufacturing.
View application →Protect the part
Control drop height, contact, recirculation and surface marking.
Prove orientation
Define the accepted face, leading feature, datum and rotation.
Balance the cycle
Separate sustained machine demand from peak feeder output.
Plan recovery
Agree how jams, rejects, empty conditions and restarts behave.
Application and integration questions
Useful starting points. Final recommendations are based on your component, presentation requirement and machine cycle.
Do you need sample components to design a feeder?
Representative production samples are strongly recommended and may be essential. Drawings establish dimensions and tolerances, but physical trials reveal friction, bounce, nesting, tangling, surface marking and behaviour at the required speed.
Can one feeder handle several component variants?
Sometimes. Closely related variants may share adjustable or change-part tooling. A flexible feeder may be more appropriate for wider variation. The solution depends on geometric differences, required changeover time, production mix and whether the same discharge presentation is possible.
What information is needed for a parts feeder quotation?
Provide part drawings or clear photographs, material and finish, dimensions and weight, the required final orientation, normal and peak rate, production variants, loading preference, available space, downstream machine details, utilities, environment and acceptance criteria.
Can vision inspection be integrated into a feeder system?
Yes. Vision can verify orientation, presence, variant, colour or selected visible features before release. Inspection limits, lighting, reject handling and the response to uncertain results must be defined objectively and proven with representative samples.
What is an escapement in a parts feeder?
An escapement separates and releases one component—or a defined group—from the feed track when the downstream machine requests it. It controls pitch and presentation while preventing the queue behind it from entering the pick or assembly position.
Can a parts feeder connect to an existing machine or robot?
Yes. The interface can provide a continuous queue, one-part-on-demand presentation, a robot pick position, a chute or a controlled transfer. Mechanical datum, discharge height, I/O, call-for-part logic, fault states, guarding and recovery behaviour should be agreed with the host-machine team.
Turn a loose component into a controlled machine input.
Send a photograph or drawing, target rate and required orientation. We will help identify the most credible feeding route.