Abstract: The disclosure concerns a pivoting unit for a handling robot for opening a flap (e.g. door) of a motor vehicle body, comprising a mounting flange, a gripper arm and a first gripping tool for gripping an engagement on the flap to be opened, the first gripping tool being mounted on the gripper arm, and a pivoting head for pivoting the gripper arm between an initial position and an engaged position. The disclosure provides that a second gripping tool is also mounted on the gripper arm, and that the two gripping tools on the gripper arm are adapted to be inserted in different insertion directions into engagement with the openable flap of the motor vehicle body, in particular from top to bottom for the first gripping tool and from bottom to top for the second gripping tool. The disclosure further comprises an associated method.

Abstract: The disclosure relates to an operating method for a coating system, in particular for a painting system, for coating components (2), in particular motor vehicle body components (2), having the following steps: conveying, by means of a conveying device (3), the components (2) to be coated in a conveying direction through a coating booth (1), coating the components (2) in the coating booth (1) with a coating product by means of an application device (17-19) which applies a spray jet of the coating product, a portion of the applied coating product being deposited on the components (2) to be coated while another portion of the applied coating product floats into the interior of the coating booth (1) as an excess coating product mist (21), and reducing the excess coating product mist (21) from the interior of the booth by means in addition to or other than the downwardly directed air flow generated by a filter ceiling. In addition, the disclosure includes a correspondingly designed coating system.

Abstract: The disclosure concerns a pivoting unit for a handling robot for opening a flap (e.g. door) of a motor vehicle body, comprising a mounting flange, a gripper arm and a first gripping tool for gripping an engagement on the flap to be opened, the first gripping tool being mounted on the gripper arm, and a pivoting head for pivoting the gripper arm between an initial position and an engaged position. The disclosure provides that a second gripping tool is also mounted on the gripper arm, and that the two gripping tools on the gripper arm are adapted to be inserted in different insertion directions into engagement with the openable flap of the motor vehicle body, in particular from top to bottom for the first gripping tool and from bottom to top for the second gripping tool. The disclosure further comprises an associated method.

Abstract: The disclosure relates to a robot protecting jacket for a coating robot, in particular for a painting robot, comprising a connecting element for form-fittingly fastening the robot protecting jacket, especially for fastening the robot protecting jacket to the coating robot or connecting two adjacent portions of the robot protecting jacket to each other. The disclosure provides for the connecting element to be part of a beaded connection.

Abstract: The disclosure relates to an operating method for a coating system, in particular for a painting system, for coating components (2), in particular motor vehicle body components (2), having the following steps: conveying, by means of a conveying device (3), the components (2) to be coated in a conveying direction through a coating booth (1), coating the components (2) in the coating booth (1) with a coating product by means of an application device (17-19) which applies a spray jet of the coating product, a portion of the applied coating product being deposited on the components (2) to be coated while another portion of the applied coating product floats into the interior of the coating booth (1) as an excess coating product mist (21), and reducing the excess coating product mist (21) from the interior of the booth by means in addition to or other than the downwardly directed air flow generated by a filter ceiling. In addition, the disclosure includes a correspondingly designed coating system.

Abstract: The disclosure relates to an operating method for a coating system, in particular for a painting system, for coating components (2), in particular motor vehicle body components (2), having the following steps: conveying, by means of a conveying device (3), the components (2) to be coated in a conveying direction through a coating booth (1), coating the components (2) in the coating booth (1) with a coating product by means of an application device (17-19) which applies a spray jet of the coating product, a portion of the applied coating product being deposited on the components (2) to be coated while another portion of the applied coating product floats into the interior of the coating booth (1) as an excess coating product mist (21), and reducing the excess coating product mist (21) from the interior of the booth by means in addition to or other than the downwardly directed air flow generated by a filter ceiling. In addition, the disclosure includes a correspondingly designed coating system.

Abstract: A protective shield device for a travel rail is provided, the travel rail including at least one robot with an application element coupled thereon. The protective shield device comprises at least one protective shield component for protecting the travel rail from the application medium, e.g. paint, dispensed by the application element of the at least one robot. The protective shield device is configured to extend over a portion of the travel rail and to move relative to the travel rail.

Abstract: The disclosure relates to an operating method for a coating system, in particular for a painting system, for coating components (2), in particular motor vehicle body components (2), having the following steps: conveying, by means of a conveying device (3), the components (2) to be coated in a conveying direction through a coating booth (1), coating the components (2) in the coating booth (1) with a coating product by means of an application device (17-19) which applies a spray jet of the coating product, a portion of the applied coating product being deposited on the components (2) to be coated while another portion of the applied coating product floats into the interior of the coating booth (1) as an excess coating product mist (21), and reducing the excess coating product mist (21) from the interior of the booth by means in addition to or other than the downwardly directed air flow generated by a filter ceiling. In addition, the disclosure includes a correspondingly designed coating system.

Abstract: A protective shield device for a travel rail is provided, the travel rail including at least one robot with an application element coupled thereon. The protective shield device comprises at least one protective shield component for protecting the travel rail from the application medium, e.g. paint, dispensed by the application element of the at least one robot. The protective shield device is configured to extend over a portion of the travel rail and to move relative to the travel rail.

Abstract: A robot arrangement, for example for a painting booth, and exemplary methods associated with the same, are disclosed. An exemplary robot arrangement may comprise a displacement rail, a plurality of robots, such as painting robots or handling robots, which can be displaced along the displacement rail, and a plurality of energy supply chains. The energy supply chains may supply one of the robots each, and may be associated with said robot, and each of the energy supply chains may run along the displacement rail in a particular track. The energy supply chains which are associated with the robots on the same displacement rail may run in discrete tracks.

Abstract: A robot arrangement, for example for a painting booth, and exemplary methods associated with the same, are disclosed. An exemplary robot arrangement may comprise a displacement rail, a plurality of robots, such as painting robots or handling robots, which can be displaced along the displacement rail, and a plurality of energy supply chains. The energy supply chains may supply one of the robots each, and may be associated with said robot, and each of the energy supply chains may run along the displacement rail in a particular track. The energy supply chains which are associated with the robots on the same displacement rail may run in discrete tracks.