JASPER manufactures thin pressure and occupancy sensing components that fit inside a defined seat cushion, follow its load path, and connect to customer-owned electronics. The supplied sensor is one input component, not a complete occupant classification or restraint control system.
Compare all seven routes by the seat, signal, sensing principle, and component responsibility that still need to be released.
Mat or pad geometry designed around the cushion boundary, active zone, cable exit, and installation process.
Choose it when: the physical mat format and seat fit are the first unresolved decisions
View Seat Occupancy Sensor Mat
Pressure-responsive seat component for project-defined occupied or load-related signal behavior.
Choose it when: the pressure path, response target, and seat-level test method need alignment
View Car Seat Pressure Sensor
Occupancy input component used with a separate buckle signal and customer-controlled reminder logic.
Choose it when: the project is organized around SBR input boundaries and seat-position coverage
View Seat Belt Reminder Sensor
Thin printed film construction with controlled sensing area, spacer or adhesive pattern, tail, and connector.
Choose it when: printed-layer structure, flexibility, routing, and lamination are the core risks
View Flexible Membrane Seat Pressure Sensor
Force-sensitive resistor route only when the required sensing principle and electronics support it.
Choose it when: the system needs force-related response rather than only an open or closed state
View FSR Seat Pressure Sensor
Pressure or membrane mat shaped for front, rear, or specialty passenger seating positions.
Choose it when: passenger load coverage and the installed cushion boundary drive the design
View Passenger Seat Occupancy Sensor
Custom sensor layouts for bus, school bus, taxi, shuttle, and commercial passenger seats.
Choose it when: repeated seat modules, protected routing, installation consistency, and service conditions matter
View Bus Seat Occupancy SensorA car seat occupancy sensor is a pressure, contact, or resistance-responsive component installed within a seat assembly. The cushion, foam, upholstery, support surface, occupant posture, preload, and cable route all influence what the sensor experiences.
JASPER supplies the custom sensor mat, printed circuit, tail, lead, connector, and component-level manufacturing evidence described by the released drawing. The OEM, Tier 1, or system owner remains responsible for the ECU, classification or reminder logic, calibration, diagnostics, seat integration, vehicle tests, and regulatory documentation.
The useful RFQ question is not simply whether a sensor detects weight. It is which seat state must be recognized, where the repeatable load reaches the cushion, what signal the electronics expect, and how that condition will be validated in the actual seat.
The products overlap. Use the route that owns the hardest open decision, then confirm the actual sensing principle and supplied scope during drawing review.
| Product Route | Primary Buyer Question | Evidence to Approve |
|---|---|---|
| Sensor mat | How should the physical mat fit the cushion and leave the seat? | Seat section, outline, active zone, installation sample, tail route, and connector fit |
| Pressure sensor | What occupied or pressure-related condition must the component reproduce? | Load path, signal target, fixture, seat-level sample data, and false-trigger checks |
| SBR sensor | Which seating position supplies occupancy input to customer-owned reminder logic? | Seat map, buckle interface boundary, occupied and empty cases, and integration records |
| Flexible membrane sensor | How should the printed layers, spacer, tail, and lamination be constructed? | Layer drawing, circuit artwork, cross-section, samples, continuity or response checks |
| FSR sensor | Does the system truly require force-sensitive resistor behavior? | Confirmed sensing principle, response method, electronics interface, calibration plan, and samples |
| Passenger or bus sensor | How does application geometry change the sensing zone and cable protection? | Real seat module, repeated installation study, routing, cleaning exposure, and service review |
A flat bench can confirm continuity or basic response, but it cannot reproduce foam compression, trim preload, sculpted bolsters, seat heating layers, ventilation channels, support ribs, or passenger posture.
The active zone is only one part of a flexible sensor. Printed traces, spacer openings, adhesive land, insulation, tail reinforcement, lead transition, and connector termination must survive the same installation path.
A sensor component can provide an occupied, contact, or pressure-related electrical input. The customer system decides how that input is filtered, diagnosed, calibrated, classified, and combined with buckle, restraint, or other vehicle information.
Name the seating position, intended input, occupied and empty states, customer logic, and supplier boundary.
Review seat section, foam, trim, supports, sensing zone, tail exit, connector, and assembly sequence.
Choose contact, pressure, membrane, FSR-type, or another confirmed structure against the signal need.
Check component evidence and the real seat under agreed occupied, empty, preload, and routing conditions.
Lock drawings, circuit, materials, connector, inspection, packaging, traceability, and change triggers.
Each application still needs a real seat drawing, customer signal requirement, and validation method.
Custom pressure or contact sensing components for a defined front-seat cushion and harness route.
Single or multiple seating positions with seat-specific zones, tail exits, and connector placement.
Occupancy component supplied for use with a separate buckle input and customer-controlled SBR logic.
Presence or seat-state sensing for project-defined vehicle and equipment seating modules.
Repeated passenger seat modules requiring consistent installation and protected cable routing.
Non-standard cushions where outline, active area, connector, and service access must be engineered.
An early seat section, marked photo, connector reference, and description of occupied and empty behavior are enough to begin a useful component review.
It is a seat-integrated pressure, contact, or resistance-responsive component used to provide information about a defined seat condition. The exact behavior depends on the released sensor, seat stack, electronics, logic, and validation method.
No. JASPER supplies the component described by the drawing. The OEM, Tier 1, or system owner controls the ECU, classification logic, calibration, diagnostics, vehicle integration, validation, and compliance documentation.
Yes. The project can define the outline, sensing zone, cutouts, tail exit, cable length, connector, labeling, packaging, and component inspection after the seat and electronics interfaces are reviewed.
Choose from the required signal behavior. FSR-type construction fits projects that need a confirmed force-related response. Contact-type membrane sensing may be simpler when the system only needs a stable open or closed state.
Check the released component and the installed seat for fit, occupied and empty response, false activation, preload, edge loading, tail strain, connector fit, repeated installation, and any project-specific conditioning.
Review printed traces, contact geometry, routing, connectors, and component test access.
Review Resource
Connect seat sensor sourcing to wider automotive printed interface and assembly decisions.
Review Resource
Start with the cushion section, marked sensing zone, tail route, connector, and signal expectation.
Review ResourceJASPER can review the cushion boundary, sensing principle, printed structure, tail, connector, component test, and production controls while your OEM or Tier 1 team retains system logic and vehicle validation.
Share the project basics. JASPER will review the stack, materials, connector, quantity, and production risks.
