Abstract: The present invention discloses a drawable inductive faucet, including a faucet body, a spout, a drawing hose, an intelligent control apparatus, and an electric control valve box for controlling the on-off of a waterway of the faucet, wherein the drawing hose is disposed in the faucet body in a drawable manner; a water inlet end of the drawing hose is connected to the electric control valve box, and a water outlet end is connected to the spout; the intelligent control apparatus is disposed in the faucet body, and is located at one end of the faucet body adjacent to the spout; the intelligent control apparatus is electrically connected to the electric control valve box; the intelligent control apparatus includes a photoelectric induction apparatus and a drawable induction apparatus; the photoelectric induction apparatus is used to induct a human body and control the spout to turn on to discharge water or turn off to stop discharging water; when the spout is drawn out, the drawable induction apparatus is trigge

Abstract: The present disclosure discloses an acceleration sensor-based sensing faucet, including a faucet body, an automatic water outlet control unit, and a sensing module. The faucet body has a movable water outlet end, the sensing module includes a mounting seat, the acceleration sensor, a power source, and a communication unit. The acceleration sensor, the power source and the communication unit are all provided on the mounting seat, and the mounting seat is removably provided at the water outlet end. The power source supplies power to the acceleration sensor and the communication unit, the acceleration sensor is electrically connected to the communication unit. The communication unit is connected in communication with the automatic water outlet control unit, and the automatic water outlet control unit is configured for controlling water outlet states of the water outlet end. The present disclosure has a compact structure, it is convenient for production, assembly, and subsequent maintenance.

Abstract: The present disclosure discloses an acceleration sensor-based sensing faucet, including a faucet body, an automatic water outlet control unit, and a sensing module. The faucet body has a movable water outlet end, the sensing module includes a mounting seat, the acceleration sensor, a power source, and a communication unit. The acceleration sensor, the power source and the communication unit are all provided on the mounting seat, and the mounting seat is removably provided at the water outlet end. The power source supplies power to the acceleration sensor and the communication unit, the acceleration sensor is electrically connected to the communication unit. The communication unit is connected in communication with the automatic water outlet control unit, and the automatic water outlet control unit is configured for controlling water outlet states of the water outlet end. The present disclosure has a compact structure, it is convenient for production, assembly, and subsequent maintenance.

Abstract: A drawing faucet includes a drawing sensing structure. The drawing sensing structure includes sense marks and a sensor. The number of the sense marks is at least two, they are provided on the drawing hose at intervals along a length direction of the drawing hose. The sensor is configured to sense the movements of the sense marks. During a drawing process of the drawing hose, at least the sense marks at two ends along the length direction can follow the movement of the drawing hose and be sensed by the sensor. The automatic water discharge control unit correspondingly controls the water discharge to change the water discharge strategy according to the sensing signal of the sensor.

Abstract: A drawing-type faucet includes a drawing-type sensing structure. The drawing-type sensing structure includes sense marks and a sensor. The number of the sense marks is at least two, they are provided on the drawing-type hose at intervals along a length direction of the drawing-type hose. The sensor is configured to sense the movements of the sense marks. During a drawing process of the drawing-type hose, at least the sense marks at two ends along the length direction can follow the movement of the drawing-type hose and be sensed by the sensor. The automatic water discharge control unit correspondingly controls the water discharge to change the water discharge strategy according to the sensing signal of the sensor.

Abstract: A touch-sensitive device includes a cover plate, at least one touch-sensing electrode, a masking layer, at least one trace and a plurality of electrically-conductive interconnects. The touch-sensing electrode is disposed on the cover plate and extends in a specific direction. The mask layer is disposed on a periphery of the cover plate and covers part of the touch-sensing electrode. The trace is disposed on the masking layer opposite to the touch-sensing electrode. The electrically-conductive interconnects penetrate the masking layer and are spaced apart from one another. Each of the electrically-conductive interconnects interconnects the touch-sensing electrode and the trace.

Abstract: A touch-sensitive device includes a cover plate, at least one touch-sensing electrode, a masking layer, at least one trace and a plurality of electrically-conductive interconnects. The touch-sensing electrode is disposed on the cover plate and extends in a specific direction. The mask layer is disposed on a periphery of the cover plate and covers part of the touch-sensing electrode. The trace is disposed on the masking layer opposite to the touch-sensing electrode. The electrically-conductive interconnects penetrate the masking layer and are spaced apart from one another. Each of the electrically-conductive interconnects interconnects the touch-sensing electrode and the trace.

Abstract: A touch-sensitive device includes a cover plate, at least one touch-sensing electrode, a masking layer, at least one trace and a plurality of electrically-conductive interconnects. The touch-sensing electrode is disposed on the cover plate and extends in a specific direction. The mask layer is disposed on a periphery of the cover plate and covers part of the touch-sensing electrode. The trace is disposed on the masking layer opposite to the touch-sensing electrode. The electrically-conductive interconnects penetrate the masking layer and are spaced apart from one another. Each of the electrically-conductive interconnects interconnects the touch-sensing electrode and the trace.

Abstract: A touch-sensitive device includes a cover plate, a first electrode layer and a laminated electrode structure. The cover plate has opposite upper and lower surfaces. The first electrode layer is disposed on the lower surface of the cover plate. The laminated electrode structure includes an adhesive substrate and a second electrode layer. The adhesive substrate is electrically insulating and heat-activated adhesive. The second electrode layer is disposed on a surface of the adhesive substrate, where another surface of the adhesive substrate that is opposite to the surface on which the second electrode layer is disposed is laminated to the first electrode layer.

Abstract: A touch-sensitive device includes a cover plate, at least one touch-sensing electrode, a masking layer, at least one trace and a plurality of electrically-conductive interconnects. The touch-sensing electrode is disposed on the cover plate and extends in a specific direction. The mask layer is disposed on a periphery of the cover plate and covers part of the touch-sensing electrode. The trace is disposed on the masking layer opposite to the touch-sensing electrode. The electrically-conductive interconnects penetrate the masking layer and are spaced apart from one another. Each of the electrically-conductive interconnects interconnects the touch-sensing electrode and the trace.

Abstract: A touch-sensitive device includes a cover plate, a first electrode layer and a laminated electrode structure. The cover plate has opposite upper and lower surfaces. The first electrode layer is disposed on the lower surface of the cover plate. The laminated electrode structure includes an adhesive substrate and a second electrode layer. The adhesive substrate is electrically insulating and heat-activated adhesive. The second electrode layer is disposed on a surface of the adhesive substrate, where another surface of the adhesive substrate that is opposite to the surface on which the second electrode layer is disposed is laminated to the first electrode layer.