Abstract: A conductive line stitching method is disclosed, wherein a metal line is arranged in a protection layer to form a conductive line, which is subjected to the steps of forming conductive line, laying cloth, performing stitching, combining a device, and connecting conductive line to have the conductive line located in a stitching area to carry out a subsequent operation for connection with a device, thereby achieving an effect of being processed with a one-time process and concealing the conductive line facilitated on smart clothes.

Abstract: A flexible device includes two devices and a flexible interface. The two devices each include electrical components assembled therein. The flexible interface is coupled to the two devices such that the flexible interface connects the two devices to each other. When the two devices are positionable on a human body, the flexible interface provides stretchability and extendability so that the two devices can be set on two opposite sides of a protrusion site of bones of the human body, allowing for stretching and contracting of the human body to provide an effect of suiting the ergonomic needs.

Abstract: A conductive line stitching method is disclosed, in which a metal line is arranged in a protection layer to form a conductive line, which is subjected to the steps of forming conductive line, disposing cloth, conducting stitching, combining device, and connecting conductive line to have the conductive line located in edging parts to facilitate a subsequent operation for connection with a device, thereby achieving effect of being processed with a one-time process and concealing the conductive line.

Abstract: A suction-attachment structure includes an electrically conducting unit and a suction-attaching member. The suction-attaching member includes a base. The base has an edge from which a wall extends. The wall has an upper end forming an attaching face. The electrically conducting unit is coupled to the base of the suction-attaching member. The attaching face formed at the upper end of the wall defines a suction-attaching configuration to allow the suction-attaching member to securely hold the electrically conducting unit in position. As such, the electrically conducting unit is prevented from displacing during an operation of detection and contact engagement with a surface layer of a human body can be securely maintained for carrying out detection of physiological signals.

Abstract: An improved plastic-cladding filament structure includes a combined arrangement of a base layer, thermosetting polymer glue, and at least one conductive filament. The thermosetting polymer glue is combined with the base layer. The at least one conductive filament is enclosed and housed in the thermosetting polymer glue to allow the conductive filament to be attached to the base layer through heating and setting of the thermosetting polymer glue. By means of the property the thermosetting polymer glue that the thermosetting polymer glue gets set after being heated to a predetermined temperature and melted and shaped and once heated to get set and shaped, further heating does not change the shape, the thermosetting polymer glue that encloses and houses the conductive filament can be set to form any desired shape to facilitate combination thereof with the base layer.

Abstract: A plastic-cladding filament structure includes a combined arrangement of a thermoplastic elastomer and at least one conductive filament. The thermoplastic elastomer includes a rigid chain segment and a flexible chain segment. The at least one conductive filament is enclosed and housed in the thermoplastic elastomer so that the conductive filament may be attachable, through heating, melting, and bonding of the thermoplastic elastomer, in which through the property that the thermoplastic elastomer is solid in room temperature and gets melted to become liquid when heated to a predetermined temperature and gets solidified and bonded after being cooled, the thermoplastic elastomer that encloses and houses the conductive filament is allowed to attached to a fabric article or a base layer through solidification and bonding resulting from cooling, thereby improving utilization thereof.

Abstract: A physiological detection structure includes a main body, a slidable member, and a detection module. The slidable member is combined to a surface of the main body. The main body includes at least one opening formed therein. The slidable member has an extra preserved length. The detection module is combined to the slidable member and exposed outside the opening of the main body. As such, the detection module is allowed to displace by means of the extra preserved length of the slidable member to provide the detection module with an effect of changing the site where detection is to be made for detecting physiological signals of different sites of the human body. Further, with such an operatively-disconnected arrangement, the stability of the detection module is ensured and discomfort of human body caused by the detection module being long retained on and depressing a fixed location of the skin is eliminated.

Abstract: An elastic physiological detection structure includes a fabric article, a main body, an elastic member, and a detection module. The main body is combined with an internal layer of the fabric article. The main body includes at least one opening formed therein. The elastic member is combined to a surface of the main body. The detection module is combined to the elastic member and exposed outside the opening of the main body. The elastic member helps the detection module to apply an increased force from the fabric article to a surface layer of a human body, allowing the detection module located outside the opening of the main body to tightly engage the surface layer of the human body at a site where detection is to be made thereby improving the attachability of the detection module to the surface layer of the human body and enhancing stability of dynamic detection.

Abstract: A detection module-included fabric includes an arranged combination of at least one detection module, a surface layer, and a fabric layer. The detection module includes a contact surface. The surface layer is combined with the at least one detection module. The detection module is below the surface layer. The surface layer includes at least one window opening. The contact surface of the detection module is exposed through the window opening of the surface layer. The fabric layer is combined with the surface layer. A gap is formed between the fabric layer and the surface layer. The detection module is located between the surface layer and the fabric layer. As such, the detection module mounted to the surface layer is hard to slide or shift in position so that the detection module is constantly kept in contact engagement with a surface of a human body for stabilization of signal detection.

Abstract: The present invention relates to a combination method of a multiple-layer conductive physiological detection structure, which includes conductive fabric in the form of a patch and a conductive woven band in the form of a strip-like band. The method includes: combining the conductive fabric and the conductive woven band together as a unitary device through a fusion operation. The fusion operation includes high frequency fusion or ultrasonic fusion.

Abstract: A physiological detection module includes a conductive transmission unit, a coupler, and an electrical connector. The coupler is arranged on a surface of the conductive transmission unit. The coupler includes a receiving chamber extending therethrough. The coupler includes a positioning groove circumferentially formed thereon for coupling and positioning. The electrical connector extends through the conductive transmission unit and the receiving chamber of the coupler to connect the conductive transmission unit and the coupler together. As such, a physiological detection module is provided, which can be manufactured separately, is easy to manufacture, can be efficiently assembled for use, is securely coupled, and can prevent short-circuiting.

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 physiological detection module includes a conductive transmission unit, a coupler, and an electrical connector. The coupler is arranged on a surface of the conductive transmission unit. The coupler includes a receiving chamber extending therethrough. The coupler includes a positioning groove circumferentially formed thereon for coupling and positioning. The electrical connector extends through the conductive transmission unit and the receiving chamber of the coupler to connect the conductive transmission unit and the coupler together. As such, a physiological detection module is provided, which can be manufactured separately, is easy to manufacture, can be efficiently assembled for use, is securely coupled, and can prevent short-circuiting.