Abstract: A cutting apparatus of membrane electrode assembly for a fuel cell may include a cutting press including a cutting die disposed on a lower side of the feeding path and a driving cutter configured to be upwardly and downwardly movable on the cutting die at an upper side of the feeding path, and the cutting press disposed to a facility frame, a plurality of gripper modules disposed on the facility frame through a base member along a feeding direction of the membrane-electrode assembly sheet, and gripping both side edges of the membrane-electrode assembly sheet and a gripper driving unit disposed in the facility frame and moving the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and along the feeding direction of the membrane-electrode assembly sheet.

Abstract: A heat treatment apparatus for a fuel cell membrane-electrode assembly is provided. The heat treatment apparatus includes a hot press installed on upper and lower sides of feeding path to move in the vertical direction on a frame and which presses the electrode catalyst layers on upper and lower surfaces of the membrane-electrode assembly sheet. A plurality of gripper modules are installed at set intervals in a base member along a feeding direction of the membrane-electrode assembly sheet, and selectively grip both side edges of the membrane-electrode assembly sheet. A driving unit reciprocally moves the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and in the feeding direction of the membrane-electrode assembly sheet.

Abstract: A cutting apparatus of membrane electrode assembly for a fuel cell may include a cutting press including a cutting die disposed on a lower side of the feeding path and a driving cutter configured to be upwardly and downwardly movable on the cutting die at an upper side of the feeding path, and the cutting press disposed to a facility frame, a plurality of gripper modules disposed on the facility frame through a base member along a feeding direction of the membrane-electrode assembly sheet, and gripping both side edges of the membrane-electrode assembly sheet and a gripper driving unit disposed in the facility frame and moving the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and along the feeding direction of the membrane-electrode assembly sheet.

Abstract: A heat treatment apparatus for a fuel cell membrane-electrode assembly is provided. The heat treatment apparatus includes a hot press installed on upper and lower sides of feeding path to move in the vertical direction on a frame and which presses the electrode catalyst layers on upper and lower surfaces of the membrane-electrode assembly sheet. A plurality of gripper modules are installed at set intervals in a base member along a feeding direction of the membrane-electrode assembly sheet, and selectively grip both side edges of the membrane-electrode assembly sheet. A driving unit reciprocally moves the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and in the feeding direction of the membrane-electrode assembly sheet.

Abstract: A heat treatment apparatus for a fuel cell membrane-electrode assembly is provided. The heat treatment apparatus includes a hot press installed on upper and lower sides of feeding path to move in the vertical direction on a frame and which presses the electrode catalyst layers on upper and lower surfaces of the membrane-electrode assembly sheet. A plurality of gripper modules are installed at set intervals in a base member along a feeding direction of the membrane-electrode assembly sheet, and selectively grip both side edges of the membrane-electrode assembly sheet. A driving unit reciprocally moves the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and in the feeding direction of the membrane-electrode assembly sheet.

Abstract: A heat treatment apparatus for a fuel cell membrane-electrode assembly is provided. The heat treatment apparatus includes a hot press installed on upper and lower sides of feeding path to move in the vertical direction on a frame and which presses the electrode catalyst layers on upper and lower surfaces of the membrane-electrode assembly sheet. A plurality of gripper modules are installed at set intervals in a base member along a feeding direction of the membrane-electrode assembly sheet, and selectively grip both side edges of the membrane-electrode assembly sheet. A driving unit reciprocally moves the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and in the feeding direction of the membrane-electrode assembly sheet.

Abstract: A cutting apparatus of membrane electrode assembly for a fuel cell may include a cutting press including a cutting die disposed on a lower side of the feeding path and a driving cutter configured to be upwardly and downwardly movable on the cutting die at an upper side of the feeding path, and the cutting press disposed to a facility frame, a plurality of gripper modules disposed on the facility frame through a base member along a feeding direction of the membrane-electrode assembly sheet, and gripping both side edges of the membrane-electrode assembly sheet and a gripper driving unit disposed in the facility frame and moving the base member in a direction perpendicular to the feeding direction of the membrane-electrode assembly sheet and along the feeding direction of the membrane-electrode assembly sheet.

Abstract: An auto splicing apparatus of roll to roll feeding equipment includes first and second supply rolls in which component fabric of a single layer is wound in roll form and the component fabric is unwound from the first supply roll or the second supply roll along a predetermined transfer path including a pair of feeding rollers that are disposed at upper and lower sides, respectively, of the transfer path; a first cutter assembly that is installed to perform a first vertical rotation based on the transfer path between the first supply roll and the feeding roller and including a first fabric cutter and a first fabric absorption portion; and a second cutter assembly that is installed to perform a second vertical rotation based on the transfer path between the second supply roll and the feeding roller and including a second fabric cutter and a second fabric absorption portion.