Pedal travel and track mapping
Translate pedal motion, active travel, direction, zero and full-scale points, inactive margins, redundancy, and required output into controlled track geometry and curve data.
Pedal-position resistive feedback element
Accelerator Pedal Position Sensor Resistor Card
An accelerator pedal position sensor resistor card converts pedal travel through a project-defined resistive and contact interface. Chipsimple reviews the complete measurement chain—mechanical motion, printed tracks, output curve, terminals, electronics, environment, and validation—before artwork and acceptance limits are released.
- Pedal travel mapped to controlled track geometry
- Single or redundant track review by drawing
- Mating contact and terminal interface planning
- Curve, linearity, and lifecycle validation route
Rotary / Linear / ArcCategory geometry routes
1–4 tracks typicalCategory track-count reference
By drawingPedal travel and output curve
By project reviewContact and validation plan
On this pageOverview
Quick Specifications
Category-level selection values cover substrate, sensor geometry, printed systems, track count, resistance behavior, contact route, and operating environment. Final values are confirmed against the customer drawing, mating contact, electronics, and validation method.
Final values confirmed against customer drawing.
| Substrate Material | Alumina / FR-4 / PI |
|---|---|
| Sensor Geometry | Rotary / Linear / Arc |
| Resistor System | RuO₂ / Carbon |
| Conductor System | Ag / Ag-Pd / Au / Ag-C |
| Track Count | 1–4 tracks typical |
| Nominal Resistance | 100 Ω–1 MΩ typical |
| Resistance Curve | Linear / Nonlinear / Segmented |
|---|---|
| Resistance Tolerance | ±1–10% by material system |
| Linearity | ±0.5–2% FS typical |
| TCR | ±100–200 ppm/°C ceramic reference |
| Contact System | Precious metal / Carbon |
| Operating Temperature | -40 to +125°C, system-dependent |
Engineering Capabilities
Pedal feedback requires the mechanical and electrical definitions to move together. The four reviews below establish the artwork, printed-system route, contact interface, and acceptance method without treating category values as a finished pedal specification.
Printed-system and alignment review
Select the drawing-compatible substrate, resistor, conductor, pad, and overlap route, then control artwork registration around the mechanical reference and terminal interface.
Contact and terminal interface
Review wiper material, contact force, path width, support, connector location, electrical loading, and assembly stack as a single interface rather than isolated card features.
Output and lifecycle validation
Define resistance, curve, correlation between tracks, linearity, contact behavior, environmental exposure, cycling, and end-of-line test conditions for the intended pedal module.
Typical Applications
These scenes show representative directions only. Suitability depends on the released pedal mechanics, redundancy concept, electronics, vehicle environment, diagnostic strategy, and validation plan.
Application illustrationAccelerator and throttle feedback
Pedal or throttle modules require released travel, track correlation, contact mechanics, vibration, temperature, contamination, calibration, and system-level fault handling.
Review application inputs
Application illustrationAutomotive control electronics
A resistor card can be considered within an automotive control module after interfaces, electrical loading, diagnostics, assembly, environment, and qualification are defined.
Review application inputs
Application illustrationIndustrial pedal and lever controls
Industrial motion controls need application-specific travel, support, contact force, enclosure, contamination, signal conditioning, duty cycle, and field validation.
Review application inputsVerified Product Views
The verified photographs show complete surface views from the supplied product set. They support only the visible geometry described below; they do not establish material identity, resistance, curve accuracy, environmental rating, contact life, or production acceptance.
- Visible format
- Rectangular white cards are shown individually and in two-card arrangements.
- Printed geometry
- Arc-shaped segmented regions, dark paths, conductive routing, pads, and sample markings are visible.
- Reference features
- Corner marks and terminal regions can be seen, but their dimensions and functions require the drawing.
- Evidence boundary
- Surface photographs cannot confirm substrate chemistry, electrical values, redundancy behavior, wear, temperature, or lifecycle performance.
Manufacturing & Quality
Chipsimple supports drawing-led printed sensor elements with controlled printing, resistance adjustment where applicable, dimensional and electrical inspection, and protected handling. The exact route depends on substrate, resistor system, contact design, and validation plan; these photographs show general company capability, not evidence of the displayed product batch.
View Full Capabilities
Technical FAQ
Short answers for quotation planning; released drawings and validation requirements remain controlling.
What should be defined first for a custom Accelerator Pedal Position Sensor Resistor Card?
Start with pedal travel, mechanical transfer, required output curves, track count and correlation, fault-detection concept, contact mechanics, terminal layout, controller loading, environment, lifecycle target, and end-of-line calibration. These inputs determine whether an arc, linear, or other drawing-defined route is appropriate.
Are the Quick Specifications guaranteed for every resistor card?
No. These are category-level selection values, not a released part specification. Substrate, resistor and conductor systems, geometry, resistance, tolerance, linearity, TCR, contact route, and operating temperature are narrowed against the drawing, mating mechanics, electronics, and validation plan.
How should Accelerator Pedal Position Sensor Resistor Card performance be validated?
Validate the card inside production-intent pedal mechanics and electronics. Check output versus travel, track correlation, contact stability, hysteresis, loading, vibration, temperature, contamination, cycling, connector behavior, diagnostics, and calibration using drawing-defined limits.
What should be included with the RFQ?
Send the controlled drawing or artwork, dimensions and tolerances, active travel or angle, resistance and output-curve data, track count, mating contact, electrical loading, environment, validation method, quantity, and schedule. For redundant designs, include both output curves, correlation or ratio limits, diagnostic thresholds, and the required relationship between tracks.
Request a Accelerator Pedal Position Sensor Resistor Card Quote
Share the pedal drawing, motion and curve data, mating contact, electronics, environment, and qualification targets. We will identify missing inputs and propose a drawing-led material, artwork, prototype, and validation route.
- Drawing-led DFM and curve-definition review
- Substrate, resistor, conductor, and contact-system selection
- Prototype and validation-route planning
- Confidential handling of customer drawings and data
- Controlled drawing, artwork, dimensions, tolerances, and active travel or angle
- Resistance range, output curve or table, linearity target, and track count
- Mating wiper or contact details, force window, connector, and assembly stack
- Substrate and printed-system preference, or permission for engineering selection
- Electrical loading, temperature, vibration, fluids, contamination, and lifecycle targets
- Prototype quantity, annual volume, inspection method, validation plan, and schedule
- 1We check the drawing, motion, electrical response, contact interface, environment, and missing acceptance inputs.
- 2You receive DFM questions and a proposed material, artwork, prototype, and validation route for review.
- 3Production follows the approved revision, inspection plan, traceability requirement, and packing instruction.
Submit RFQ and upload files
PDF, DWG, DXF, STEP, Gerber, ZIP, Excel, Word, or sample photos are accepted.