A method of manufacturing a shoe upper according to the present invention includes: three-dimensionally forming an upper member; pre-heating the upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member; further heating the upper member to which the thermoplastic resin powder is adhered and melting the thermoplastic resin powder adhered to the upper member; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member.

There is provided a shoe including an upper 2 and a sole 3. The upper 2 is formed from a web 41 containing one or a plurality of randomly layered thermoplastic fine strands 5. The web 41 includes a first region in which the thermoplastic fine strand 5 is point-bonded to each other at contact portions and a second region in which the thermoplastic fine strand 5 is fused, the second region has an apparent density higher than an apparent density of the first region, and a diameter of the thermoplastic fine strand 5 in the first region ranges from 0.2 mm to 2 mm, and the apparent density of the first region ranges from 0.005 g/cm.sup.3 to 0.2 g/cm.sup.3.

The invention concerns an insole comprising a substrate and a printed layer, wherein the substrate comprises a first friction coefficient on a reference surface and the printed layer comprises a second friction coefficient on the reference surface, which is higher than the first friction coefficient.

The invention concerns an insole comprising a substrate and a printed layer, wherein the substrate comprises a first friction coefficient on a reference surface and the printed layer comprises a second friction coefficient on the reference surface, which is higher than the first friction coefficient.

A method for manufacturing a shoe body, comprising the following steps: overlap and fix a tensile film and a composite material film; move a vamp having a three-dimensional shape to make a surface of the vamp abutting against the composite material film, so that both of the tensile film and the composite material film have a predetermined tension; heat the composite material film in a contactless manner, so that the composite material film is joined to the surface of the vamp; move the tensile film away from the composite material film. An apparatus for utilizing such method includes a fixture which is adapted to fix the tensile film and the composite material film; a fixing member which is adapted to support the vamp; a driving device which is adapted to drive the fixing member or the fixture; a contactless heating device which is adapted to heat the composite material film.

A method for manufacturing a shoe body, comprising the following steps: overlap and fix a tensile film and a composite material film; move a vamp having a three-dimensional shape to make a surface of the vamp abutting against the composite material film, so that both of the tensile film and the composite material film have a predetermined tension; heat the composite material film in a contactless manner, so that the composite material film is joined to the surface of the vamp; move the tensile film away from the composite material film. An apparatus for utilizing such method includes a fixture which is adapted to fix the tensile film and the composite material film; a fixing member which is adapted to support the vamp; a driving device which is adapted to drive the fixing member or the fixture; a contactless heating device which is adapted to heat the composite material film.

A method for manufacturing a shoe body, comprising the following steps: overlap and fix a tensile film and a composite material film; move a vamp having a three-dimensional shape to make a surface of the vamp abutting against the composite material film, so that both of the tensile film and the composite material film have a predetermined tension; heat the composite material film in a contactless manner, so that the composite material film is joined to the surface of the vamp; move the tensile film away from the composite material film. An apparatus for utilizing such method includes a fixture which is adapted to fix the tensile film and the composite material film; a fixing member which is adapted to support the vamp; a driving device which is adapted to drive the fixing member or the fixture; a contactless heating device which is adapted to heat the composite material film.

The invention concerns an insole comprising a substrate and a printed layer, wherein the substrate comprises a first friction coefficient on a reference surface and the printed layer comprises a second friction coefficient on the reference surface, which is higher than the first friction coefficient.

The invention concerns an insole comprising a substrate and a printed layer, wherein the substrate comprises a first friction coefficient on a reference surface and the printed layer comprises a second friction coefficient on the reference surface, which is higher than the first friction coefficient.