Abstract:
본 발명에 따른 의류생산 통합시스템은, 의류생산공정 설계데이터 및 의류생산공정 정보를 저장하는 DB; 작업자 및 공정정보를 인식하는 별도의 장치를 포함하는 스마트 재봉기;및 정보입력부 및 디스플레이부를 포함하는 관리자 단말;과 연동되고, 상기 의류생산공정 설계데이터를 통해 의류공정도를 생성하는 의류생산 공정설계부;및 상기 의류생산공정설계부를 통해 생성된 의류공정도에 따라 작업수행시, 각 공정별 작업자별 의류생산공정 정보를 수집하고, 의류생산공정 정보를 분석하여 등록된 의류생산 예상목표수량 대비 현재 달성가능수량을 분석하여 의류생산 밸런스를 관리하는 의류생산 관리부;를 포함하는 점이 그 특징이 있다.
Abstract:
The present invention relates to an anti-static processing method using an optimized plasma treatment on polypropylene fabric whereby a function is imposed on the polypropylene fabric. The method includes the steps of: treating the polypropylene fabric with plasma using electric currents having an intensity of 1A to modify the surface of the polypropylene fabric for three times; and treating the polypropylene fabric, treated with plasma, with an anti-static agent by a pad-dry-cure treatment method to prevent electrostatic.
Abstract:
A digital garment and manufacturing method thereof are provided, which enable to achieve communication path or antenna pattern by forming digital embroidery pattern. A manufacturing method of the digital garment using the embroidery technology comprises: a garment preparation step(S1) for preparing a garment which is made of fabric and has the back side surface and one side; a digital embroidery pattern formation step(S2) for forming the digital embroidery pattern along the outside or the inside of garment using embroidery machine to provide a communication path to the garment; and a device sticking step(S3) which adheres the device to the garment and electrically connects the device to the digital embroidery pattern.
Abstract:
A digital garment using a digital band and a manufacturing method thereof are provided, which enable to achieve high speed communication path using vertical thread and horizontal thread. A manufacturing method of the digital garment using a digital band comprises: a garment preparation step(S1) for preparing the garment which is manufactured by using fabric; a digital band preparation step(S2) for preparing a digital band including the tape and one or more digital yarn; a digital band sticking step(S3) in which digital band is attached to garment; and a device sticking step(S4) which electrically connects the device to the digital band after attaching the device to the garment.
Abstract:
An ultrasonic fusion apparatus is provided to facilitate the contact of a tool horn and a pattern roller with cubic portions of safety clothes, such as seam portions, sleeve ends, and trouser ends, thereby completely keeping the airtightness of the cubic portions of the safety clothes. A cloth support unit(20) has a pattern roller(15) for supporting cloth within a support lever(10), which is protruded to one side of a middle part of a frame(5). An ultrasonic generator(20) has a tool horn(42) disposed above the pattern roller, wherein the tool horn transmits ultrasonic waves to the cloth to fuse and bind the cloth. A height-controlling unit(40) has a driving cylinder(52) for moving the ultrasonic generator upwardly and downwardly. A step board(80) has switches for transmitting a driving force to the pattern roller of the cloth support unit and operating the tool horn of the ultrasonic generator and the driving cylinder of the height-controlling unit.
Abstract:
A manufacturing method of a three layer breathable fabric using a porous film is provided to improve the adhesion force between a porous film and a textile by passing the porous film having an adhesive applied thereon through a microwave generator. A manufacturing method of a three layer breathable fabric using a porous film includes the steps: applying thermosetting adhesive resin on both sides of a porous film in a dot shape through a dot screen having holes having a predetermined dimension; passing the porous film on which an adhesive is applied through a microwave generator; and laminating a textile on both sides of the porous film that passed the microwave generator by using compression rollers. The porous film is an e-PTFE(expanded polytetrafluoroethylene) film having a thickness of 20 ~ 25micrometers.
Abstract:
A method and an apparatus for fabricating digital yarn using metal filaments for information and communication and digital yarn fabricated by the same are provided to reduce yarn-cutting phenomenon generated during a yarn fabrication process, by improving strength and extension property of the digital yarn. In a method for fabricating digital yarn using metal filaments for information and communication, a number of metal filaments are supplied. The metal filaments are heated and become flexible. A sliver is formed by drafting and cutting the flexible metal filaments. Cotton yarn is formed by drawing and heating the sliver. The cotton yarn are wound around a bobbin(22). The cotton yarn is coated with water-proof material and electromagnetic interference shielding material while being untied from the bobbin. The coated cotton yarn is dried. The cotton yarn is covered by general fiber yarn.
Abstract:
The present invention relates to a manufacturing process of an interior material using a surface modification, including: a first process of scouring a polypropylene fiber with a ratio of 2 g/L of a refining agent and 1 g/L of NaOH at 95°C for 30min; a second process of dyeing the scoured fiber with a ratio of 1 g/L of a dispersing agent and 1g/L of CH_3COOH at 120°C for 40 min; a third process of drying the dyed fiber at a speed of 15 m/min at a temperature of 140°C; a fourth process of performing a plasma surface treatment on both surfaces of the dried fiber at a speed of 15 m/min using an output current strength of 2 A; and a fifth process of drying and final-setting the plasma surface treated fiber at a speed of 15 m/min at a temperature of 133°C by treating with a flame retardant at a concentration of 40.
Abstract:
A method and an apparatus for manufacturing a covered digital yarn are provided to cover the core part of the digital yarn by means of a general thread, thereby increasing the productivity at the next process. In the first process, the core portions of digital yarns are supplied constantly. In the core portion, 20-30 twisted metal filaments are coated by insulating resin. The diameter of a strand of the metal filament is 1-20 micrometer, preferably 5-12 micrometer. In the second process, before the covering, the core portions of the digital yarns are located at the center of an entire carrier orbit device. The digital yarn is supplied to the next stage through a nozzle with a speed of 1-100 m/hr. The ceramic nozzle is used at a high speed and the resin nozzle and ceramic nozzle are used all at a low speed. In the third process, the core portions are covered by the constant density. In the fourth process, the cover portion of the digital yarn is treated by heat in order to reduce the mechanical friction. In the fifth process, the digital yarn treated by heat is wound to a bobbin.