01
Application-engineered
Feeding · orientation · inspection · presentation
Component feeders for reliable automated production.
Custom component feeders and automated small-parts feeding systems built around your part, required orientation, sustained rate and the exact hand-off to your machine.
01Production-part
trials
trials
02Complete line
integration
integration
03UK project
support
support
Production-ready feeding Engineered around your component and line
A reliable feed path
From loose parts to one controlled presentation.
Component feeders—also called industrial parts feeders—separate loose components, establish or verify orientation, buffer flow and present one accepted part to an automated assembly, inspection or packaging process.
Sortation Solutions specifies the feeding principle, tooling, controls and interface as one application-engineered system.
What determines the right feeder? →01Bulk load→
02Separate→
03Orient→
04Inspect→
05Buffer→
06Present→
Component feeder types
Choose the principle that suits the part.
Geometry, handling risk, output condition and format range decide the technology—not a headline speed alone.
02
Application-engineered
Centrifugal feeders for high-flow component presentation
A centrifugal feeder uses controlled rotary motion to separate and present suitable robust components at high flow. Its real value is sustained accepted output after orientation, buffering and rejects.Explore this system ↗
03
Application-engineered
Step feeders for quiet, controlled component elevation
A step feeder lifts components progressively from a low-level hopper onto an output rail. It reduces bowl vibration and loading height, while final orientation is completed by rails, tooling, sensors or vision.Explore this system ↗
04
Application-engineered
Flexible feeders for changing products and difficult geometries
A flexible feeder redistributes parts on a controlled surface so a camera can locate pickable components and guide a robot. It is considered where format variety or difficult geometry makes dedicated tooling impractical.Explore this system ↗
05
Application-engineered
Hoppers, elevators and linear feeders for a complete feed path
Hoppers and elevators provide controlled replenishment; linear feeders transport and buffer oriented parts; escapements release one accepted component when the machine calls.Explore this system ↗
06
Application-engineered
Vision-guided feeding that verifies the part before hand-off
Vision-guided feeding combines stable part presentation, controlled lighting, cameras, image processing and reject or robot logic. It is most reliable when the inspection and feed path are designed together.Explore this system ↗
APPLICATION-SPECIFICTooling and output are confirmed against representative parts.
Start with the evidence
The part chooses the feeder.
Two components with similar dimensions can behave completely differently in bulk. The selection review examines the real production condition.
01
Geometry
Symmetry, centre of gravity, hooks, holes, flexibility and nesting.
02
Surface
Finish, marking risk, friction, oil, static and cleanability.
03
Output
Accepted orientation, datum, pitch and sustained parts at hand-off.
04
Interface
Buffers, sensors, signals, guarding, access and fault recovery.
Manufacturing applications
Systems for the components your line depends on.
From high-volume assembly parts to delicate or frequently changing products, the feed path is configured around production evidence.
Automotive
Clips, retainers, electrical connectors, housings, seals, bushes, grommets and more.
Explore application ↗Electronics
Contacts, terminals, connector bodies, pins, ferrules, inserts and more.
Explore application ↗Medical
Device components, caps, closures, small moulded parts and more.
Explore application ↗Packaging
Screw caps, snap caps, dispensing closures, pumps, valves, fitments and more.
Explore application ↗Fasteners
Screws, bolts, nuts, captive nuts, washers, rings and more.
Explore application ↗General automation
Pressings, mouldings, inserts and production components across manufacturing.
Browse all applications ↗A measurable project path
Prove the feed before it reaches production.
Clear input evidence and agreed acceptance criteria reduce project risk at every stage.
Define
Share parts, variants, orientation, target output and receiving-machine details.
Assess
Review bulk behaviour, handling risk and the complete feed path.
Trial
Test representative components against agreed acceptance criteria.
Integrate
Engineer controls, buffering, safeguarding and the machine hand-off.
Commission
Confirm operation, training and documented evidence.
Buyer and engineering guides
Answer the questions that decide the project.
Use practical, answer-first guidance to prepare a stronger brief, compare quotations and reduce integration risk.
How component feeders work
Follow the complete path from loose parts to one controlled presentation.
Read the guide →Custom component feeders
Understand tooling, trials and the application data needed for a part-specific system.
Explore custom feeders →Integration and controls
Plan hand-off, buffering, signals, guarding and acceptance with the next machine.
Open integration guide →Cost and quotation factors
Compare included scope and total ownership factors instead of headline price alone.
Read cost guide →Fault diagnosis
Use an evidence-led sequence for jams, low output, marking and double feeds.
Troubleshoot a feeder →Component feeding FAQs
Get concise answers on selection, samples, rate, formats, trials and integration.
Browse all FAQs →Feeder rate and buffer planner
Estimate downstream demand, design margin, gross presentation target, accumulation and trial count.
Use the planner →Parts that tangle, stick or nest
Start with the observed behaviour, then compare handling and trial routes without guesswork.
Diagnose the behaviour →Existing equipment support
Repair, retool or replace a component feeder with evidence.
Changed parts, worn surfaces, obsolete controls or a new machine interface do not always require a new feeding system. Start by separating a service issue from a tooling, component-variation or integration problem.
Straight answers
Common component-feeding questions.
Final suitability and performance are confirmed against the actual part and agreed trial criteria.
Which component feeder is best for my part?+
The answer depends on geometry, centre of gravity, friction, tangling or nesting, surface sensitivity, required orientation, sustained rate and the downstream hand-off. Representative production samples are the safest basis for selection.
How should feeder output be specified?+
Specify sustained accepted parts at the agreed discharge condition over a stated test period, including normal replenishment and defined interventions. A short internal peak is not a reliable production measure.
Can the feeder integrate with an existing machine or robot?+
Yes. The project can include mechanical interfaces, queue sensing, PLC or robot handshakes, buffer logic, guarding, reject handling and commissioning, subject to an application and controls review.
What should I send for an initial review?+
Send photographs or drawings, dimensions, material and finish, all expected variants, required orientation, target sustained output, available space and information about the machine receiving each part.
Start an application review
Send us the component. Get a clear starting recommendation.
Share photographs or drawings, variants, material and finish, required orientation, target sustained output and details of the receiving machine.
Is the problem bulk supply, orientation or the machine hand-off?
A component feeder is a connected feed path. When output is low, separate the point where parts enter the feeder from the point where the receiving machine accepts them. That distinction helps identify which part of the system needs attention.
Bulk supply is inconsistent
Observe whether the receiving feeder alternates between too few and too many parts. Record hopper level, replenishment requests and material still arriving after a stop request. More hopper capacity alone will not resolve bridging, uncontrolled overrun or a demand signal that does not reflect the feeder’s useful working level.
Parts circulate but accepted orientation is scarce
Compare the returned parts with the drawing and normal supplier variation. Look for nests, tangles, finish changes or an orientation feature that the proposed tooling cannot reliably distinguish. Keep rejected attitudes separate from damaged components. A rate counted inside the feeder can conceal poor usable delivery after orientation.
Oriented parts reach the queue but the process waits
Review the final datum, spacing, escapement, pick confirmation and demand sequence. Establish whether a part is actually ready when the machine requests it, and whether a blocked downstream station stops replenishment appropriately. Trial recovery as well as normal demand. An accepted-part measurement at the real hand-off is more useful than comparing feeder speeds at different points.
Continue with Hoppers, linear feeders and controlled replenishment · Escapement and machine interfaces · Rate and buffer planning.
Specify the fastener at the receiving tool
A fastener can leave a feeder in the right direction and still be unsuitable for insertion. Define the condition at the screwdriver, riveting tool or assembly fixture so feeding and fastening have a shared acceptance point.
Explore complete component feeding systems — read the detailed guide