Embedded conductive strands and a ceramic topcoat enable durable grip detection on barbells without exposed wires or surface deformation.
Weighted sample integration lowers the impact of electrode-transition noise, improving capacitive sensor clarity without slowing fast scans.
A compensator corrects resonant phase sensor drift from air gap and temperature changes, enabling reliable virtual button force detection.
Embedded conductive strands in insulated grip surfaces detect human grasp by capacitance without exposed wires or surface deformation.
Capacitance changes in a deformable elastomer sensor enable flexible textile controls with sensitive finger operation and event triggering.
A cable-unit resistor and memory automatically set sensor amplifier gain and enable calibration across displacement meters and load cells.
A locking member rapidly tensions an FBG fiber to separate slow open-close changes from temperature drift and false detection.
Clustered signal compression links new drifting sensor values to multiple states accurately in noise while cutting memory use.
A single capacitive electrode structure switches measurement modes to detect approach, contact, and pressure without separate sensors or interference.
A highly resistive coating links discrete electrodes across fabric to eliminate dead areas and improve touch position sensing over the full surface.
Periodic charge-discharge sensing with adjustable capacitance cancellation improves slight capacitance detection under initial offset and low-frequency noise.
A sensing plate with pressing structures concentrates force to deliver sensitive lighted touch input with simpler assembly and lower cost.
A nested three-electrode capacitive layout separates inner and outer detection regions to reject unintended non-contact operations.
A resistive button structure uses capacitive electrodes and shielding to measure press force while capturing fingerprint data in one input.
Packet windowing lowers gain at sample edges to suppress overlapping noise and preserve fast, accurate capacitive sensing.
Capacitance-based frame sensing replaces mechanical buttons, cutting cost and wear while keeping compact, intuitive input in portable electronics.
Composite transparent electrodes and elastic dielectric layers enable simultaneous fingerprint and pressure sensing with lower noise and display flexibility.
Side capacitive sensors beside an under-glass fingerprint sensor replace physical buttons, improving touch convenience and preserving cover glass integrity.