Abstract: The present disclosure provides a shoe structure including a sole, an upper, and an auxiliary element. The sole has a first surface and a second surface opposite to the first surface. The first surface has a light source module. The upper has a light guide element. One end of the light guide element is disposed corresponding to the light source of the light source module. The light guide element has at least one bending point. The auxiliary element is disposed corresponding to the bending point.

Abstract: The invention provides a foamed fabric structure and a manufacturing method thereof. The foamed fabric structure includes a plurality of interwoven thermoplastic polyester elastomer yarns, wherein the plurality of thermoplastic polyester elastomer yarns are foamed. The manufacturing method of the foamed fabric structure of the invention includes the following steps: providing thermoplastic polyester elastomers; mixing a foaming agent into the thermoplastic polyester elastomers to form a thermoplastic polyester elastomer mixture; drawing yarns from the thermoplastic polyester elastomer mixture to obtain thermoplastic polyester elastomer mixture yarns; weaving the plurality of thermoplastic polyester elastomer mixture yarns to obtain thermoplastic polyester elastomer fabric; and foaming the thermoplastic polyester elastomer fabric to obtain the foamed fabric structure.

Abstract: A twist yarn and a textile structure having the same are provided. The twist yarn includes a light guide wire, a fluorescent yarn, a light-reflecting yarn, and a phosphorescent yarn. The fluorescent yarn, the light-reflecting yarn, and the phosphorescent yarn are twisted by using the light guide wire as the central axis. The surrounding surface of the light guide wire is at least partially exposed. The textile structure includes a textile and a twist yarn, wherein the twist yarn is embedded in the textile.

Abstract: A shoe having breathable design is provided. The shoe comprises a sole and an upper which is arranged on the sole and has an inner surface. An upright cotton layer is arranged on the inner surface. The upright cotton increases breathability and provides comfort.

Abstract: The present invention discloses a sock structure and a manufacturing method for the same. The sock structure includes a body and a waterproof layer. The body includes a first end having an opening, and a second end opposite to the first end. The waterproof layer is disposed in a partial area of the second end. After the first end is folded in a direction toward the second end, the waterproof layer is interposed between the first end and the second end.

Abstract: The present disclosure provides a product customization method based on a result of pressure detection, wherein, an operation chip of a capacitance pressure detection insole receives a plurality of capacitance variations from a plurality of capacitance sensing nodes and obtains pressure data of corresponding to detecting points of the user's foot based on a plurality of capacitance variations, so that sport physiological status information is decided; the sport physiological status information is received from the operational chip by a data reading device and the sport physiological status information is transmitted to a cloud database or a remote computing device through a network; corrective recommendation information is determined from the sport physiological information, afoot correction insole model corresponding to the corrective recommendation information is generated based on the corrective recommendation information; an insole corresponding to the foot correction insole model is produced and provided

Abstract: The present disclosure provides a shoe structure including a sole and an upper connected to the sole, a sensor and a display panel. The upper has an outer surface and an inner surface. The sensor is disposed on the sole or the upper. The display panel is connected to the sensor and disposed on the outer surface. Wherein the display panel is configured to display information according to data detected by the sensor.

Abstract: An electricity generating apparatus applied to footwear and an operating method thereof are disclosed. The electricity generating apparatus includes a stress plate, an electricity generating module and a charging circuit. The stress plate is disposed in footwear to bear a stress. The electricity generating apparatus generates magnetic field changes under the stress and induces the magnetic field changes to generate electricity. The charging circuit is coupled to the footwear and used to receive the electricity and selectively provide the electricity to the footwear.

Abstract: A waterproof and breathable upper comprises a fabric upper, a water-repellent structure, and a breathable waterproof film. The fabric upper has a first surface and a second surface, and the first surface is opposite to the second surface. The water-repellent structure is formed on the first surface of the fabric upper. The breathable waterproof film is formed on the second surface of the fabric upper.

Abstract: The fabric structure of the present invention includes a bottom layer, a middle layer disposed on the bottom layer, and a top layer disposed on the middle layer. A fabric layer is knitted by a plurality of yarns, wherein the outer surface of each yarn is at least covered by a first fusion part. A plurality of structure bodies disposed on the fabric layer, wherein the projection of any of the plurality of structure bodies on the fabric layer at least partially eclipses any of the grid cells of the fabric layer. Each of the plurality of the structure bodies includes a body and a second fusion part encapsulating the body. The first fusion part and the second fusion part fuse with each other to make the relative positions of the plurality of structure bodies and the plurality of yarns fixed.

Abstract: The present disclosure relates to a shoemaking method and a shoemaking system, wherein the shoe design data is obtained from a user through the Internet or Internet of Things, and the purchase data is provided to the user according to the shoe design data. When an order data is obtained from the user, at least one pair of designed shoes is produced according to the shoe design data. The present method provides a tracking tag for the designed shoes. The tracking tag corresponds to tracking information. When the tracking tag is scanned by the scanning device connected to the Internet or Internet of Things, the scanning device uploads the tracking information through the Internet or Internet of Things.

Abstract: A data processing apparatus and a data amount reducing method are disclosed. The data processing apparatus includes a receiving unit and a numerical transforming unit. The receiving unit is used to receive M original detection data, wherein M is a positive integer. The numerical transforming unit is coupled to the receiving unit and used to perform a numerical transforming process on the M original detection data to generate K numerical transformed data, wherein K is a positive integer smaller than M. Therefore, the amount of the K numerical transformed data can be smaller than the amount of the M original detection data to achieve the effect of reducing the amount of data.

Abstract: The present disclosure relates to a coating method and a coating device, configured to place a surface material on the surface of an object. The coating method includes: obtaining a three-dimensional image of the object by a scanning element providing a structured light, sequentially moving the nozzle according to the pixels of the three-dimensional image, and spraying the surface material on the surface of the object. The coating device includes a structured light scanning element, providing a scanning light beam to the object and capturing a three-dimensional image; a processing unit; and a nozzle. The processing unit is electrically connected to the structured light scanning element and the nozzle. The processing unit receives the three-dimensional image, moves the nozzle according to the pixels of the three-dimensional image, and sprays the surface material onto the surface of the object.

Abstract: The present disclosure relates to a shoemaking system, including a processing unit, a first conveying device, a first pickup device, a scanning device, a first coating device and a first applying device. The first conveying device comprises at least one support; the first pickup device picks up an upper and the upper is disposed on the first support of the first conveying device. The scanning device is connected to the processing unit and can scan a scanning area; the first conveying device moves the upper on the first support to the scanning area. The scanning device scans the upper in the scanning area and outputs three-dimensional structure data; the processing unit obtains the three-dimensional structure data from the scanning device and decides a first coating path and a first applying path.

Abstract: A capacitive pressure detection insole is disclosed. The capacitive pressure detection insole includes a plurality of capacitive sensing nodes and an operating chip. When the capacitive pressure detection insole is subjected to a pressure provided by a foot of a user, the capacitive pressure detection insole uses the plurality of capacitive sensing nodes to sense a plurality of capacitance variations corresponding to a plurality of detection positions of the foot respectively. The operating chip receives the plurality of capacitance variations from the plurality of capacitive sensing nodes and obtains a pressure distribution information corresponding to the plurality of detection positions of the foot to determine a motion physiological status information of the foot of the user.

Abstract: This invention provides a sole structure including an outsole, a carbon fiber sheet and a midsole. The outsole essentially comprises, from top to bottom, an upper rubber layer, an intermediate fabric and a lower rubber layer. The carbon fiber sheet is disposed on the outsole and comprises a base, a lateral bending portions, and a rear bending portion. The intermediate fabric is disposed on the carbon fiber sheet. Two sides of the lateral bending portions bend from the base towards the intermediate fabric and towards each other. The rear bending portion bends from the base towards the intermediate fabric and the lateral bending portions.

Abstract: The present disclosure provides a sole structure, comprising an outsole, a carbon filter sheet and a midsole. The carbon filter sheet is disposed on the outsole, and comprises at least one heel protection portion. The midsole is disposed on the carbon filter sheet.

Abstract: A footwear article includes a sole and a knitted shoe upper secured to the sole. The knitted shoe upper includes a knitted fabric including a plurality of portions knitted from at least one yarn and a plurality of inlaid strands. The plurality of portions include a front portion, an instep portion, an inner lateral portion, an outer lateral portion, and a heel portion together to enclose a three-dimensional space for receiving a foot. The plurality of inlaid strands are inlaid in the knitted fabric along different directions of the three-dimensional space, so as to restrict relative displacements of the knitted fabric toward the front portion, the heel portion, and the instep portion.

Abstract: The present invention discloses a sole structure to be combined with a shoe upper, comprising an outsole, a carbon fiber sheet and a thermoplastic elastic sheet. The outsole has a side wall to be adhered to the shoe upper. The carbon fiber sheet is disposed on the outsole. The thermoplastic elastic sheet adheres to the carbon fiber sheet to form an upper-layer structure, wherein the upper-layer structure is adhered to the shoe upper.

Abstract: A rubber composite includes a textile layer and a rubber layer. The textile layer has an upper surface and a lower surface. The textile layer has multiple meshes formed by weaving or knitting at least one yarn. The rubber layer covers the upper surface and the lower surface of the textile layer, and a portion of the rubber layer extends into the multiple meshes to be located between the upper surface and the lower surface of the textile layer.