Abstract:
PURPOSE: A foam-complex material robot hand is provided to improve the carrying speed and the positional accuracy of a glass panel display by applying a sandwich structure. CONSTITUTION: A sandwich beam(20) comprises a foam and a complex material(24). A support pin(40) for a glass panel display, a vacuum pad(42) and a bolt combining portion(44) are formed in the sandwich beam. Many fine holes are punched in the foam for easily impregnating a resin. A reinforcing block is inserted in the bolt combining portion to support a compressive load. Thereby, the control characteristic of a robot hand is improved with the excellent vibration characteristic.
Abstract:
PURPOSE: A complex material wrist block used for a double arm robot for loading and unloading a liquid crystal display panel, and the double arm robot coupled with the same are provided to easily control position and increase speed of driving the robot by reducing droop amount due to the weight and improving vibration characteristic, thereby improving the productivity. CONSTITUTION: A complex material wrist block used for a double arm robot for loading and unloading a liquid crystal display panel includes an upper block(110) and a lower block each having a strip(111) made of metal having high compression stiffness or engineering plastic material, a honey comb or a hard rubber foam(112) inserted into the inside of the strip, a complex material plate(113) accumulated following the circumference of the strip and forming a space for passing a wire and a pneumatic line at the upper surface, and a complex material cover(115) coupled with the complex material plate; a connection block including a block made of metal having high compression stiffness or engineering plastic material to joint the upper and lower blocks, and a complex material plate accumulated following the circumference of the block.
Abstract:
PURPOSE: A hybrid bed structure for a machine tool and method for manufacturing the same is provided to improve rigidity and damping factor by using high-rigidity steel and high-damping polymer concrete. CONSTITUTION: A steel frame(210) includes a linear motion guide mount unit(211), at which a linear motion guide for guiding the straight-line motion of a tool unit is mounted, a motor mount unit(212), and a work table. Polymer concrete is filled into the steel frame, and fixes the linear motion guide and the motor mount unit to predetermined location. A plurality of support beams(230) are coupled with the polymer concrete, and support the work table.
Abstract:
본 발명은 충돌로 인한 작업자의 부상과 로봇의 파손을 방지하기 위하여 충격흡수구조를 갖는 로봇 팔로서, 로봇 팔의 양끝 모서리에 설치되어 골조를 이루는 강성재질의 빔과; 상기 빔과 빔 사이에 부착되어 로봇 팔의 형태를 이루고 외부충격을 흡수하는 탄성재질의 측면부재를 포함하며, 상기 측면부재는 폼 또는 벌집구조를 갖고 수지재질로 된 판재와 이 판재에 접합되는 섬유강화 복합재료를 구비한다. 이 로봇 팔은 충돌에 의한 충격을 흡수하여 몸체 주요부분의 파손현상을 방지할 수 있다.
Abstract:
본 발명은 자동차의 도어에 장착되어 충격 에너지 흡수 능력을 향상시키는 자동차 도어용 임팩트 빔을 제공하는데 그 목적이 있다. 본 발명에 따르면, 자동차의 도어에 장착되어 충격을 흡수하는 임팩트 빔에 있어서, 2 개의 양측단 빔이 1 개의 중앙 빔의 양 끝단에 결합되고, 충격 에너지 흡수 특성의 향상을 위하여 상기 양측단 빔과 중앙 빔의 연결을 볼트 또는 리벳으로 결합한 것을 특징으로 하는 자동차 도어용 임팩트 빔이 제공된다.
Abstract:
PURPOSE: A wire guide arm device is provided to increase machining speed and machining precision of an electric discharge machining wire cutter by constituting the wire cutter into fiber reinforced composite materials such as graphite or Kevlar. CONSTITUTION: A wire guide arm device(104) comprises a tube(203) fabricated from graphite fiber reinforced or Kevlar fiber reinforced composite materials, a first flange(201) and a second flange(202) coupled to the tube and composed of steel iron or aluminum. A wire outlet is fixed to the first flange and a wire cutter body is fixed to the second flange. The first and second flanges are fixed to the wire outlet and wire cutter body with many bolts. In the wire guide arm device, a coupling portion fixed to the wire cutter body is so weak that a fiber reinforced composite material is further installed to the second flange.
Abstract:
An impact beam for car doors is reinforced at its central portion. In an embodiment, the impact beam consists of a longitudinal beam stepped at two positions to allow its central portion to be thicker than its opposite end portions. In another embodiment, the impact beam consists of a longitudinal base beam body, and a hollow reinforcing beam body having a length shorter than that of the base beam body and a sectional size larger than that of the base beam body, and fitted over a central portion of the base beam body. The impact beam further comprises a beam bracketing structure for fastening the opposite ends of the impact beam on a door panel. This beam bracketing structure consists of two support brackets fixedly mounted to the door panel, and a locking mechanism for locking each end of the beam to an associated one of the two support brackets.
Abstract:
PURPOSE: A foam-complex material robot hand is provided to improve the carrying speed and the positional accuracy of a glass panel display by applying a sandwich structure. CONSTITUTION: A sandwich beam(20) comprises a foam and a complex material(24). A support pin(40) for a glass panel display, a vacuum pad(42) and a bolt combining portion(44) are formed in the sandwich beam. Many fine holes are punched in the foam for easily impregnating a resin. A reinforcing block is inserted in the bolt combining portion to support a compressive load. Thereby, the control characteristic of a robot hand is improved with the excellent vibration characteristic.
Abstract:
PURPOSE: An impact beam of a vehicle door is provided to improve bending stiffness and absorbing performance of impact energy by reinforcing the middle part of an impact beam and improving the structure coupling with a bracket. CONSTITUTION: An impact beam of a vehicle door is composed of a rectangular beam(10) having larger section in the middle part(12) than both side ends(11). The impact beam includes a pair of brackets installed to the panel of the door and a fixing device fixing both ends of the impact beam to the bracket. The impact beam of a vehicle door is composed of a rectangular base beam and a reinforcing beam, having shorter length and larger section than the base beam, inserted in the middle part of the base beam. Reinforcing caps are each inserted into the outside of both side ends of the reinforcing beam. The reinforcing caps are made of steel to prevent both ends of the reinforcing beam from early being broken.