Accurate passenger detection is critical for airbag safety systems. Beyond determining whether a seat is occupied, distinguishing between an adult and a child—particularly an infant in a rear-facing seat—is essential. Incorrect classification may lead to inappropriate airbag deployment, posing significant risk to young passengers.
It identifies front-passenger occupancy through capacitive sensing and transmits the classification to the ECU for intelligent airbag control.
It differentiates adult occupants from a child or infant seat, enabling or suppressing airbag deployment accordingly.
It ensures the airbag system remains automatically deactivated whenever the front passenger seat is unoccupied.
For Users: Static Discomfort. Traditional seats offer static support, failing to adapt to posture changes, pressure shifts, or growing fatigue. This often leads to backaches, numbness, and poor circulation on long journeys, turning travel into a test of endurance.
For Makers: Data-Blind Design. Without access to real-time pressure data, seat design relies on assumptions and costly trial-and-error prototyping. This data-blind approach not only extends development cycles but also increases costs and limits innovation for manufacturers.
It uses a high-density sensor array and multi-zone airbags for real-time pressure mapping and posture analysis, automatically adjusting support to deliver an adaptive, health-conscious experience.
It provides precise pressure measurement, clear visualization, and intelligent insights for seat and back surfaces, enabling designers to reliably quantify seating performance with strong repeatability across key tests.
Fatigue is a silent safety risk. Continuous monitoring of the driver’s physical condition detects early signs of fatigue before reflexes decline, helping prevent avoidable incidents and enhance on-road safety.
It continuously monitors driver posture, micro-movements, and vital signs, including respiratory rate and fatigue levels.
It detects early signs of drowsiness and provides timely alerts to prompt immediate corrective driver action.
It automatically initiates countermeasures, such as adjusting seat support or recommending breaks, to restore alertness.
Maintains accuracy within ±10% full-scale error after tens of thousands of loading cycles.
Minimal thickness and high flexibility allow it to conform to complex surfaces with minimal intrusion.
Requires no calibration or zeroing at the vehicle assembly plant, enabling true plug-and-play installation.
Embeds invisibly and seamlessly into the seat surface.
Integrates simply with existing seat-heating systems via electrical connection—no redesign required.
Available in fully customized sensor designs and configurations to meet OEM-specific requirements.
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