Abstract: A physiological signal detection device includes at least one electrode pad, a base layer, and at least one water absorption unit. The electrode pad is positioned on a top surface of the base layer. The electrode pad and the base layer form a first receiving compartment therebetween. The water absorption unit is positioned in the first receiving compartment. The water absorption unit has a top engaging the electrode pad, and the water absorption unit has a bottom engaging the base layer.

Abstract: A fabric pressure switch includes a first resilient conductive tissue, a second resilient conductive tissue, and a support tissue. The support tissue is arranged between and connects the first resilient conductive tissue and the second resilient conductive tissue. The first resilient conductive tissue, the second resilient conductive tissue, and the support tissue are unitarily combined through knitting to form the fabric pressure switch.

Abstract: The present invention relates to a textile structure, which includes two yarns, a radio frequency identification (RFID) chip, and two antennas. The antennas are each electrically connected with the RFID chip. The antennas are respectively combined with the yarns. As such, with the combination of the yarns with the antennas, no tactile perception of irregularity will be sensed when a user touches and also, the comfortableness of wearing can be enhanced.

Abstract: A fabric pressure switch includes a first resilient conductive tissue, a second resilient conductive tissue, and a support tissue. The support tissue is arranged between and connects the first resilient conductive tissue and the second resilient conductive tissue. The first resilient conductive tissue, the second resilient conductive tissue, and the support tissue are unitarily combined through knitting to form the fabric pressure switch.

Abstract: A light-emitting button module includes a power supply unit; a conductive transmission unit, which is electrically connected to the power supply unit; and at least one light-emitting button, which is connected to the conductive transmission unit and includes a button body, a substrate, and a light-emitting element. The button body includes a receiving chamber that extends through the button body and an engagement retention groove that is circumferentially formed in the button body and surrounds the receiving chamber. The substrate is arranged inside the button body and electrically connected to the conductive transmission unit. The light-emitting element is coupled to the substrate and received in the receiving chamber.

Abstract: A structure of a light-emitting clip button includes an upper body, a circuit board, a lower body, and a connection piece. The upper body has at least one first engagement section. The circuit board is arranged in the upper body and has at least one light-emitting element and two conductive pins. The light-emitting element is electrically connected to an end of each of the conductive pins. The lower body has two coupling troughs and at least one second engagement section. Each coupling trough is engageable with the respective conductive pin. The first engagement section is engageable with the second engagement section. The connection piece connects the upper body and the lower body.

Abstract: A structure of three-dimensional electrically conductive fabric includes a resilient conductive tissue, a foundation tissue, and a support tissue. The support tissue is arranged between and connects the resilient conductive tissue and the foundation tissue. The resilient conductive tissue, the foundation tissue, and the support tissue are unitarily combined through knitting to form the structure of three-dimensional electrically conductive fabric.

Abstract: A waterproof physiological signal detection device includes at least one electrode pad, a waterproof base layer, at least one water absorption unit, and a waterproof top layer. The electrode pad is positioned on a top surface of the waterproof base layer, and a first receiving compartment formed therebetween. The water absorption unit is positioned in the first receiving compartment. The water absorption unit has a top engaging the electrode pad and s a bottom engaging the waterproof base layer. The waterproof top layer overlaps the waterproof base layer and forms at least one top layer opening that corresponds to and exposes the at least one electrode pad. An undersurface of a circumference of the top layer opening overlaps a circumference of a top surface of the electrode pad with a central portion of the electrode pad projecting through the top layer opening.

Abstract: Disclosed is a control device for use in woven article, which includes a conductive fabric that includes conductive warps, conductive wefts, and insulation warps, which are arranged so as to form a plurality of conduction sites; a first woven flat cable, which includes a plurality of conductor lines, the first woven flat cable being set to overlap the conductive fabric, two of the conductor lines being electrically and respectively connected to the conductive warp and the conductive weft of one of the conduction sites; and a processor unit, to which the conductor lines of the first woven flat cable is electrically connected.

Abstract: Disclosed is a control device for use in woven article, which includes a conductive fabric that includes conductive warps, conductive wefts, and insulation warps, which are arranged so as to form a plurality of conduction sites; a first woven flat cable, which includes a plurality of conductor lines, the first woven flat cable being set to overlap the conductive fabric, two of the conductor lines being electrically and respectively connected to the conductive warp and the conductive weft of one of the conduction sites; and a processor unit, to which the conductor lines of the first woven flat cable is electrically connected.

Abstract: A waterproof physiological signal detection device includes at least one electrode pad, a waterproof base layer, at least one water absorption unit, and a waterproof top layer. The electrode pad is positioned on a top surface of the waterproof base layer, and a first receiving compartment formed therebetween. The water absorption unit is positioned in the first receiving compartment. The water absorption unit has a top engaging the electrode pad and s a bottom engaging the waterproof base layer. The waterproof top layer overlaps the waterproof base layer and forms at least one top layer opening that corresponds to and exposes the at least one electrode pad. An undersurface of a circumference of the top layer opening overlaps a circumference of a top surface of the electrode pad with a central portion of the electrode pad projecting through the top layer opening.

Abstract: A physiological signal detection device includes at least one electrode pad, a base layer, and at least one water absorption unit. The electrode pad is positioned on a top surface of the base layer. The electrode pad and the base layer form a first receiving compartment therebetween. The water absorption unit is positioned in the first receiving compartment. The water absorption unit has a top engaging the electrode pad, and the water absorption unit has a bottom engaging the base layer.

Abstract: A physiological signal detection device includes a base layer, at least one electrode pad, and at least one projection. The electrode pad is positioned on a top surface of the base layer. The electrode pad and the base layer form a first receiving compartment therebetween. The projection is retained in the first receiving compartment. The projection includes at least one raised surface, and the raised surface of the projection supports and raises the electrode pad.

Abstract: The present invention relates to a light bar-combined removable zipper, which includes a first tape, a second tape, a light bar, and a controller. The second tape has an edge joinable to an edge of the first tape to constitute a removable zipper structure. The light bar is combined to the second tape. The controller is connected to the light bar to supply electrical power to and selectively activate/deactivate the lighting of the light bar.

Abstract: A wearing structure for measuring a physiological signal is provided. The wearing structure includes a sensing layer, a liquid storing layer and a cover layer. The sensing layer has at least one sensor for sensing the physiological signal of a user. The liquid storing layer covers the sensing layer and stores an electrically conductive liquid. The cover layer covers the storing layer for preventing loss of the electrically conductive liquid. The liquid storing layer is disposed between the sensing layer and the cover layer. The electrically conductive liquid is used for enhancing the sensing of the physiological signal of the user by the at least one sensor.

Abstract: A light emitting glove is provided. The light emitting glove has a textile body and a light source device. The textile body has a first conductive portion and at least one second conductive portion, formed with a first conductive wire and at least one second conductive wire respectively. The light source device is disposed on a surface of the textile body. The light source device has a first end and a second end, electrically connected to the first conductive wire and the at least one second conductive wire respectively. When the first conductive wire of the first conductive portion contacts with the at least one second conductive wire of the at least one second conductive portion, the first end and the second end are conducted to enable the light source device to emit light.