Tactile-Switch Components
This guide separates the real material or manufacturing requirement from standard servo-feeder functions, then identifies the data and validation needed for a reliable line.
What the Evidence Supports
This page separates the real material or manufacturing topic from capabilities that have not been demonstrated for a HENLI servo feeder.
- HENLI already has an educational page describing key domes as tactile-switch components.
- The original article mixed ergonomic product design, worker strain and component placement with coil feeding.
- No advanced sensing or feedback system that places tactile switches was evidenced.
Evidence Required for Special Claims
The application name alone does not prove a special machine capability. Treat each claim as project-specific and record the evidence used for quotation and acceptance.
- Machine specification: identify the exact model, component ratings, environmental limits and approved material envelope.
- Performance: state the test material, feed pitch, cycle rate, sample size, measurement method and acceptance tolerance.
- Certification or compatibility: identify the applicable standard, scope, configuration and supporting report instead of relying on a general label.
What the Servo Feeder Controls—and What It Does Not
| Engineering area | Feeder or line action | Boundary |
|---|---|---|
| Strip index | Servo motion places the carrier for each die stroke. | The die creates the dome, contact or terminal geometry. |
| Thin-strip grip | Pressure, roll finish and acceleration can be adjusted for stable feeding. | Feasibility depends on actual material and carrier design. |
| Pilot release | The feeder can release strip for die-pilot correction. | Timing must match the press and die. |
| Part handling | Exit support can protect delicate stamped features. | Assembly, tactile force and life testing are downstream responsibilities. |
Application Data to Verify Before Quotation
Use measured production data and material documentation. A feeder model should not be selected from the application name alone.
- Identify the stamped component: metal dome, contact, terminal, bracket or carrier.
- Provide strip material, temper, thickness, width and surface requirement.
- Provide the die progression, feed pitch and pilot-hole arrangement.
- Define target SPM and available feed window.
- Check roll pressure, guides and exit support for delicate features.
- Separate feed acceptance from tactile-force and switch-life testing.
Recommended Engineering Workflow
1. Define the stamped part
Link the feeder to a real strip and die operation.
2. Protect the carrier
Set contact and guides for thin material and formed features.
3. Coordinate pilots
Verify release timing and multi-station progression.
4. Test the switch downstream
Measure tactile force, electrical function and life after assembly.
Frequently Asked Questions
Can a servo feeder make tactile switches?
It can feed strip for stamped metal components; the complete switch also needs tooling, assembly and testing.
What is a metal dome?
It is a formed conductive spring component used in many tactile-switch designs.
Does feeding control ergonomic feel?
No. End-user feel depends on dome design, force-displacement behavior, housing and assembled product.
Technical References
These sources support the material, process or component boundary discussed above. They do not certify a HENLI machine unless an HENLI-specific test or certificate is explicitly identified.
Related HENLI Resources
Electronics StampingReview continuous-strip feeding for small precision parts.
NC Servo Feeder ModelsCompare base configurations for the actual strip.
Define the Application Before Selecting a Feeder
Send the material standard and condition, width and thickness range, feed pitch, target strokes per minute, press and die details, surface requirements, line layout and the acceptance method. HENLI can review the standard feeder scope and identify any special engineering that still requires validation.
