Abstract: An apparatus for unstacking plate-like parts with at least one supply station, in which at least one part stack of plate-like parts is located and with an unstacking device which is assigned to the supply station and is for the singularised unstacking of the part stack and for bringing an unstacked part along a run-through direction onto a function station which is arranged downstream. The unstacking device includes a carrier device with at least one runner rail which is aligned along the run-through direction and on which an unstacking slide is movably guided in the run-through direction between the supply station and the function station. The unstacking slide includes a carrier structure on which several gripping units are arranged. The gripping units each include at least one gripping head which can be moved in the height direction for lifting the parts out of the part stack.

Abstract: In a device for unstacking plate-shaped parts (12), in particular sheet metal blanks, comprising at least one supply station (13) in which at least one stack (14) of plate-shaped parts (12) is located and at least one conveyor station (15) on which the plate-shaped parts (12) are transported further in an unstacked manner, an unstacking unit (17) being provided for transferring the plate-shaped parts (12) between the supply station (13) and the conveyor station (15), said unstacking unit engaging the stack of parts (14) and removing individual plate-shaped parts (12) while unstacking the stack of parts (14) and depositing them in the conveyor station (15), the unstacking unit (17) comprises two robots (18a, 18b) working independently of each other, which alternately engage a common stack of parts (14) of the supply station (13) and are controlled by a control unit (19) in such a way that a first or a second robot (18a, 18b) removes a plate-shaped part (12) from the stack of parts (14) while the first robot (1

Abstract: A device is proposed for the positional orientation of plate-shaped parts (12), comprising continuous conveying equipment (13) for conveying plate-shaped parts (12), an optical measuring device (15) assigned to the continuous conveying equipment (13) for determining the actual position of at least one specific plate-shaped part (12) and for comparing this actual position to a stored set position and for determining the deviation of the actual position from the set position, and a control unit (20) coupled to the optical measuring device (15) for controlling a positioning unit (19) such that at least one specific plate-shaped part (12) the deviation of which from the set position was determined can be picked up by the positioning unit (19) in a pick-up region and deposited in a defined delivery region in the correct position corresponding to the set position for transfer on the continuous conveying equipment (13).

Abstract: An apparatus for the stacking of stackable parts with a conveyor station with at least one conveyor on which the parts may be transported separately, and at least one stacking container in which the parts may be stacked wherein, a stacking device is provided, which takes parts from the conveyor of the conveyor station and stacks them in the stacking container. The stacking device has at least one pair of stacking robots operating independently of one another, wherein the stacking robots alternately or simultaneously take up parts from the conveyor and are so controlled by a control unit that a first and/or second stacking robot takes up at least one part from the conveyor, while simultaneously the second and/or first stacking robot transfers to or stacks in the stacking container used by both stacking robots a part already picked up.

Abstract: In a device for unstacking plate-shaped parts (12), in particular sheet metal blanks, comprising at least one supply station (13) in which at least one stack (14) of plate-shaped parts (12) is located and at least one conveyor station (15) on which the plate-shaped parts (12) are transported further in an unstacked manner, an unstacking unit (17) being provided for transferring the plate-shaped parts (12) between the supply station (13) and the conveyor station (15), said unstacking unit engaging the stack of parts (14) and removing individual plate-shaped parts (12) while unstacking the stack of parts (14) and depositing them in the conveyor station (15), the unstacking unit (17) comprises two robots (18a, 18b) working independently of each other, which alternately engage a common stack of parts (14) of the supply station (13) and are controlled by a control unit (19) in such a way that a first or a second robot (18a, 18b) removes a plate-shaped part (12) from the stack of parts (14) while the first robot (1

Abstract: A device is proposed for the positional orientation of plate-shaped parts (12), comprising continuous conveying equipment (13) for conveying plate-shaped parts (12), an optical measuring device (15) assigned to the continuous conveying equipment (13) for determining the actual position of at least one specific plate-shaped part (12) and for comparing this actual position to a stored set position and for determining the deviation of the actual position from the set position, and a control unit (20) coupled to the optical measuring device (15) for controlling a positioning unit (19) such that at least one specific plate-shaped part (12) the deviation of which from the set position was determined can be picked up by the positioning unit (19) in a pick-up region and deposited in a defined delivery region in the correct position corresponding to the set position for transfer on the continuous conveying equipment (13).

Abstract: In a multi-axis articulated arm robot for transferring workpieces, there is a robot base, on which a movement unit is able to be pivoted about a first axis, which is vertical in an operational state. The movement unit has a pivoting part adjacent to the base, an articulated arm constituted by a top arm and a bottom arm, such top arm being connected for pivoting at one end about a horizontal second axis with the pivoting part at the other end is connected with the adjacent end of the bottom arm for pivoting about a horizontal third axis, a rotary member arranged at the bottom arm's end opposite to the top arm, such rotary member being able to be rotated about a fourth axis extending in the longitudinal direction of the bottom arm, a pivoting member connected with the rotary member for pivoting about a fifth axis extending athwart the fourth axis, and a supporting part rotatingly connected with the pivoting member, such supporting part extending athwart the fifth axis.

Abstract: In a multi-axis articulated arm robot for transferring workpieces, there is a robot base, on which a movement unit is able to be pivoted about a first axis, which is vertical in an operational state. The movement unit has a pivoting part adjacent to the base, an articulated arm constituted by a top arm and a bottom arm, such top arm being connected for pivoting at one end about a horizontal second axis with the pivoting part at the other end is connected with the adjacent end of the bottom arm for pivoting about a horizontal third axis, a rotary member arranged at the bottom arm's end opposite to the top arm, such rotary member being able to be rotated about a fourth axis extending in the longitudinal direction of the bottom arm, a pivoting member connected with the rotary member for pivoting about a fifth axis extending athwart the fourth axis, and a supporting part rotatingly connected with the pivoting member, such supporting part extending athwart the fifth axis.

Abstract: A device for transporting away work pieces (5) processed in a press (1) from an output station (4) that is disposed downstream from the press (1) in a work piece flow direction onto a conveyor device (6) that conveys the work pieces (5) away, incorporates a removal device (2) that removes the work pieces (5) from the press (1) and moves them into the output station (4), which has a transfer device (7) disposed downstream from it for the alternating transfer of the work pieces (5) from the output station (4) into one of two discharge stations (10, 11) that are disposed to both sides of the output station (4). Each discharge station (10, 11) has an assigned relocation device (8, 9) to relocate the work pieces (5) from the given discharge station (10, 11) onto the conveyor device (6). The conveyor device (6) is formed by two conveyors (12, 13) that are assigned to one of the two relocation devices (8, 9) in each case.

Abstract: A singling device and a singling method for singling sheet metal panels comprises two tendering positions arranged one after the other in the longitudinal direction to offer a respective sheet metal panel stack, said two tendering positions being provided with a lifting means able to be reciprocated in the longitudinal direction and for feeding the sheet metal panels in the longitudinal direction to a working site.

Abstract: A device for transporting away work pieces (5) processed in a press (1) from an output station (4) that is disposed downstream from the press (1) in a work piece flow direction onto a conveyor device (6) that conveys the work pieces (5) away, incorporates a removal device (2) that removes the work pieces (5) from the press (1) and moves them into the output station (4), which has a transfer device (7) disposed downstream from it for the alternating transfer of the work pieces (5) from the output station (4) into one of two discharge stations (10, 11) that are disposed to both sides of the output station (4). Each discharge station (10, 11) has an assigned relocation device (8, 9) to relocate the work pieces (5) from the given discharge station (10, 11) onto the conveyor device (6). The conveyor device (6) is formed by two conveyors (12, 13) that are assigned to one of the two relocation devices (8, 9) in each case.

Abstract: A holder device for workpieces in the form of even or flat metal sheets of a magnetically attractable material, which are to be welded together along a connecting path at edges thereof. The holder device forms a support face for the sheets to rest on. The support face is divided up into a plurality of face parts, which are respectively formed by a separate pole plate of magnetizable material. Each pole plate is provided with an independently magnetically activatable and de-activatable magnet apparatus, which is located underneath the respective pole plate on a support plate arrangement.