Compression springs
Control nesting and present coil ends or axis orientation for insertion.

Separate, orient and present coil springs, torsion springs, retaining clips and formed wire components while managing interlocking and surface damage.
Yes, many springs and wire forms can be fed automatically, but suitability depends on whether they nest, hook or interlock in bulk. The feed method, loading depth, agitation and separation tooling must be developed from representative production samples.
Two springs with similar dimensions can behave very differently if one has open hooks, uneven legs or a geometry that catches adjacent parts. A trial should therefore reproduce the expected bulk condition.
Depending on the component, the concept may use a vibratory bowl, step feeder, controlled conveyor, flexible vision feeder or pre-separation stage.

The component geometry, incoming condition and required assembly pose determine whether dedicated or flexible feeding is the better route.
Control nesting and present coil ends or axis orientation for insertion.
Manage hooks, legs and interlocking before final orientation.
Feed retaining clips, formed pins and wire components into assembly fixtures.
Aggressive agitation can create more tangles and damage, so the full bulk and recirculation strategy is part of the design.
Shallow controlled loading can reduce the number of contacts and opportunities for interlocking.
Step elevation, tailored track features or flexible presentation may be preferable to high-energy recirculation.
The receiving process must define exactly which end, leg, axis or feature is required at hand-off.
The proposed method is selected from the actual component, accepted presentation and downstream process—not from a generic rate claim.
| Component samples | Representative production batches including normal variation, finish and any free-state dimensional spread. |
|---|---|
| Bulk condition | How springs arrive, storage method, oil or contamination, and observed tangling frequency. |
| Required pose | Axis, end, hook or leg orientation plus permitted rotational freedom. |
| Output demand | Sustained accepted rate and any buffer between feeder and assembly process. |
| Quality limits | No distortion, unacceptable marking, entanglement or mixed-format contamination. |
| Trial evidence | Bulk loading depth, runtime, intervention count and accepted output condition. |
A handful of separated springs may run well while a production batch tangles. Testing should use enough parts to reproduce normal bulk pressure, recirculation and replenishment.
There is no universal best option. Bowl, step, conveyor and flexible feeders can all be credible depending on tangling, required pose, rate and format variety.
Some tangles can be reduced through controlled loading and separation features, but severe interlocking may require upstream preparation, alternative packaging or a flexible handling strategy.
It can if contact, compression or recirculation is unsuitable. Representative trials should check free length, finish and functional quality after feeding.
Potentially, particularly with flexible vision feeding, but access for picking and the ability to separate each variant must be proven.
Send a part photo or drawing, the target rate and the required orientation. We will recommend the most suitable starting point.