Abstract: The present invention provides a cloth having different properties depending on regions, a cloth product comprising the cloth, and a method of producing the cloth product. The cloth of the present invention is characterized in that it includes a first region and a second region having a higher degree of fusion than the first region, wherein the first region includes a thermally fusible fiber and a fiber having a higher melting point than the thermally fusible fiber at a predetermined ratio. The cloth product of the present invention is characterized in that it includes the body made of the cloth, and the second region is positioned in a region requiring a greater strength than other regions.

Abstract: The present invention provides a cloth having different properties depending on regions, a cloth product comprising the cloth, and a method of producing the cloth product. The cloth of the present invention is characterized in that it includes a first region and a second region having a higher degree of fusion than the first region, wherein the first region includes a thermally fusible fiber and a fiber having a higher melting point than the thermally fusible fiber at a predetermined ratio. The cloth product of the present invention is characterized in that it includes the body made of the cloth, and the second region is positioned in a region requiring a greater strength than other regions.

Abstract: The present invention provides a cloth having different properties depending on regions, a cloth product comprising the cloth, and a method of producing the cloth product. The cloth of the present invention is characterized in that it includes a first region and a second region having a higher degree of fusion than the first region, wherein the first region includes a thermally fusible fiber and a fiber having a higher melting point than the thermally fusible fiber at a predetermined ratio. The cloth product of the present invention is characterized in that it includes the body made of the cloth, and the second region is positioned in a region requiring a greater strength than other regions.

Abstract: To provide a method of producing a processed cloth capable of forming various concave-convex patterns on a cloth material in a simple manner. A method of producing a processed cloth comprising the steps of: preparing a cloth; printing a first sizing agent containing a foaming agent on at least a portion of the cloth material; and pressing the printed cloth with a heated metal plate to foam the foaming agent. The method of producing a processed cloth may further include a step of printing a second sizing agent containing a coloring agent on the cloth material. The method of producing the processed cloth may further include a step of sublimation transfer to the cloth material.

Abstract: To provide a method of producing a processed cloth capable of forming various concave-convex patterns on a cloth material in a simple manner. A method of producing a processed cloth comprising the steps of: preparing a cloth; printing a first sizing agent containing a foaming agent on at least a portion of the cloth material; and pressing the printed cloth with a heated metal plate to foam the foaming agent. The method of producing a processed cloth may further include a step of printing a second sizing agent containing a coloring agent on the cloth material. The method of producing the processed cloth may further include a step of sublimation transfer to the cloth material.

Abstract: The present invention provides a cloth having different properties depending on regions, a cloth product comprising the cloth, and a method of producing the cloth product. The cloth of the present invention is characterized in that it includes a first region and a second region having a higher degree of fusion than the first region, wherein the first region includes a thermally fusible fiber and a fiber having a higher melting point than the thermally fusible fiber at a predetermined ratio. The cloth product of the present invention is characterized in that it includes the body made of the cloth, and the second region is positioned in a region requiring a greater strength than other regions.

Abstract: A resonant circuit having a circuit coil formed on each surface of a dielectric film. Each coil has a line-width and an outer periphery in which the line-width of each circuit is 1/50 or more of the length of the outermost periphery of that circuit. Each coil has at least three complete turns, and the coils are provided on the faces of a dielectric film in such a manner that the coils are faced to each other.

Abstract: A process for producing a resonant tag, wherein a metal foil having a thermal adhesion adhesive applied to at least one face thereof is stamped out into a circuit-like shape and is adhered to a base sheet, the process comprising: stamping out the metal foil into a predetermined shaped metal foil portion (4c) while being passed through a die roll (1) having thereon a stamping blade with a predetermined shape and a transfer roll (2) in contact with the die roll (1) which functions also as a die back-up roll; holding this metal foil portion obtained by the stamping-out operation onto the surface of the transfer roll by suction holes formed in the transfer roll; and thermally adhering the stamped metal foil portion to the base sheet (7) in contact with the transfer roll (2) at its another face by an adhesive roll (3) in contact with the transfer roll through the base sheet.

Abstract: A process for producing a resonant tag, wherein a metal foil having a thermal adhesion adhesive applied to at least one face thereof is stamped out into a circuit-like shape and is adhered to a base sheet, the process comprising: stamping out the metal foil into a predetermined shaped metal foil portion (4c) while being passed through a die roll (1) having thereon a stamping blade with a predetermined shape and a transfer roll (2) in contact with the die roll (1) which functions also as a die back-up roll; holding this metal foil portion obtained by the stamping-out operation onto the surface of the transfer roll by suction holes formed in the transfer roll; and thermally adhering the stamped metal foil portion to the base sheet (7) in contact with the transfer roll (2) at its another face by an adhesive roll (3) in contact with the transfer roll through the base sheet.

Abstract: A resonant tag is provided that comprises a circuit-like metallic foil pattern that is adhered to a dielectric film prepared from a liquid resin by a coating process. The circuit-like metal foil pattern on one side of the dielectric film may be so aligned with the circuit-like metal foil pattern on the other side of the dielectric film as to form a capacitor with the dielectric film. The dielectric film may have openings therein configured similarly to and aligned with openings in the circuit-like metal foil, and the configuration of the circuit-like metal foil pattern and dielectric film may be generally spiral in configuration. An adhesion adhesive may be coated on predetermined portions of a face of a resonant tag base so as to leave uncoated portions between the coated portions, and a release paper is applied to the adhesion adhesive, the width of the uncoated portions being such as to avoid the generation of static electricity when the release paper is peeled from the adhesion adhesive.

Abstract: A warp-knitted fabric from which garments can be obtained without accompanying any sewing process. The fabric is constructed by first and second layers 10 and 12, which construct first and second sides, respectively of garments and which are basically separated from each other. The first and second layers are connected with each other along an outline 14 of the garment. At locations corresponding to sleeves of the garment, the fabric is integrated with indicator lines CL1, CL2 and CL3 for effect a cutting of the garment at the sleeve portions. A wearer selects one of the indicator lines and uses the selected line as a guide for effecting a cutting at the sleeve portions so that a desired sleeve length which is best fitted to the wearer is obtained.

Abstract: A warp-knitted fabric from which garments can be obtained without accompanying any sewing process. The fabric is constructed by first and second layers 10 and 12, which construct first and second sides, respectively of garments and which are basically separated from each other. The first and second layers are connected with each other along an outline 14 of the garment. At locations corresponding to sleeves of the garment, the fabric is integrated with indicator lines CL1, CL2 and CL3 for effecting a cutting of the garment at the sleeve portions. A wearer selects one of the indicator lines and uses the selected line as a guide for effecting a cutting at the sleeve portions so that a desired sleeve length which is best fitted to the wearer is obtained.

Abstract: A fabric for cutting therefrom a garment having a first layer for a front body of the garment and a second layer for a back body of the garment, which layers are basically separated from each other. The first and second layers are knitted or woven or stitched along an outer profile 14 of a garment, which is unfinished or semi-finished at locations such as neck hole and sleeve where portions of a wearer are passed. A cutting of the fabric is done along the outline in such a manner that the unfinished or semi-finished garment is separated from the fabric. A cutting of the neck hole is done in such a manner that the size of the neck hole 40A, 40B or 40C is matched to a particular wearer's size and his or her preference.

Abstract: A resonant tag is provided that comprises a circuit-like metallic foil pattern that is adhered to a dielectric film prepared from a liquid resin by a coating process. The circuit-like metal foil pattern on one side of the dielectric film may be so aligned with the circuit-like metal foil pattern on the other side of the dielectric film as to form a capacitor with the dielectric film. The dielectric film may have openings therein configured similarly to and aligned with openings in the circuit-like metal foil, and the configuration of the circuit-like metal foil pattern and dielectric film may be generally spiral in configuration. An adhesion adhesive may be coated on predetermined portions of a face of a resonant tag base so as to leave uncoated portions between the coated portions, and a release paper is applied to the adhesion adhesive, the width of the uncoated portions being such as to avoid the generation of static electricity when the release paper is peeled from the adhesion adhesive.

Abstract: A fabric woven under a double weave by using a jacquard machine, which has a first layer for forming front bodies of garments and a second layer for forming back bodies of the garments. The first and second layers are connected with each other by interwoven portions along substantially closed contour lines (outlines) as repeated patterns. The fabric is subjected to a cutting along the contour lines, while the interwoven portions are at least partly left except at locations where openings for passage of parts of a human body are to be formed. As a result, a garment can be obtained without any substantial sewing process.

Abstract: A circular knitted double fabric having an inner and outer layers which are basically separated from each other. At first group of yarn feeder knitting only by dial needles is done, while at second group of yarn feeder knitting only by cylinder needles is done. A stitching between the inner and outer layers by using both of the dial and cylinder needles is done along a closed outline of a garment. A cutting of the fabric along the closed outline is done in such a manner that the stitched parts are, at least partially left. As a result, a cutting of the fabric along the closed outline allows a garment to be separated from the fabric, which fabric has a front and back bodies, which are along its outline firmly connected with each other by the stitched parts.

Abstract: A strip 10 for separating therefrom rain ponchos 1. The strip 10 has units 11 which is repeated along the length of the strip 10. The strip 10 has superimposed layers which are thermally welded along outlines of garments and has cut lines 2 which are adjacent to the respective outlines of the ponchos 1. For a supply to a customer, a unit 11 is separated from the strip along a notched line 3 between the units, and a separation of a poncho 1 is done by cutting along the cutting line 2.

Abstract: A resonant tag is provided that comprises a circuit-like metallic foil pattern that is adhered to a dielectric film prepared from a liquid resin by a coating process. The circuit-like metal foil pattern on one side of the dielectric film may be so aligned with the circuit-like metal foil pattern on the other side of the dielectric film as to form a capacitor with the dielectric film. The dielectric film may have openings therein configured similarly to and aligned with openings in the circuit-like metal foil, and the configuration of the circuit-like metal foil pattern and dielectric film may be generally spiral in configuration. An adhesion adhesive may be coated on predetermined portions of a face of a resonant tag base so as to leave uncoated portions between the coated portions, and a release paper is applied to the adhesion adhesive, the width of the uncoated portions being such as to avoid the generation of static electricity when the release paper is peeled from the adhesion adhesive.

Abstract: A circuit-like metallic foil sheet for resonant tags and the like, and a process for fabricating the same. The circuit-like metallic foil sheet is fabricated by a process comprising: fabricating a laminate by adhering, to a carrier sheet such as a paper or a plastic film, a metallic foil whose surface is coated with hot-melt adhesive resin film, using an adhesive whose adhesion force decreases by heating; stamping out the metallic foil of the laminate to provide thereto a predtermined circuit-like pattern using a stamping die; superposing the metallic foil side of the laminate on a support such as a plastic film: and trasnferring the circuit-like metallic foil to the surface of the support by heating the circuit-like pattern from the support side or the carrier sheet side.A circuit board comprising a resonant circuit or a printed wiring circuit can be obtained with high precision without employing an etching process in which chemicals are used.

Abstract: A method of pleating a garment, wherein an unfinished garment, prepared by sewing cloth parts together, is folded, rolled and twisted, and then attached to a holder. The holder holding the garment is placed in a heat-treatment apparatus, and the unfinished garment is heat-treated and pleated at the same time in the heat-treatment apparatus filled with saturated steam.