Abstract: A driverless transport system comprising a chassis (1), drive wheels (2) and jockey wheels (3), wherein, on each of a first side of the chassis (1) and a second side of the chassis (1) opposite the first side, a floating axle (4) arranged in the longitudinal direction is pivotably connected to the chassis (1) at a connection point (5) assigned in each case, a drive wheel (2) being arranged at one end of each of the floating axles (4) and a jockey wheel (3) being arranged at the opposite end of each of the floating axles (4), the driverless transport system additionally having a floating axle (6) arranged in the transverse direction which is aligned transversely to the two floating axles (4) arranged in the longitudinal direction and is pivotably or fixedly connected to the chassis (1) at an assigned connection point (5), a jockey wheel (3) being arranged at each end of the floating axle (6) arranged in the transverse direction.

Abstract: The invention relates to a computer system for providing a treatment proposal for a dentition of a patient. The computer system is configured to provide an current state model of the dentition and a target state model of the dentition; to provide a set of treatment options for treating the dentition, to check the provided treatment options, wherein the checking comprises determining whether the dentition of the patient is meeting the feasibility requirements assigned to the treatment option being checked; in case the dentition is determined to meet the feasibility requirements assigned to the treatment option being checked, to provide the treatment proposal identifying the respective treatment option and implementation parameters determined for the measures of the identified treatment option for modifying the current state model such that one or more discrepancies of the current state model relative to the target state model are compensated.

Abstract: A driverless transport system comprising a chassis (1), drive wheels (2) and jockey wheels (3), wherein, on each of a first side of the chassis (1) and a second side of the chassis (1) opposite the first side, a floating axle (4) arranged in the longitudinal direction is pivotably connected to the chassis (1) at a connection point (5) assigned in each case, a drive wheel (2) being arranged at one end of each of the floating axles (4) and a jockey wheel (3) being arranged at the opposite end of each of the floating axles (4), the driverless transport system additionally having a floating axle (6) arranged in the transverse direction which is aligned transversely to the two floating axles (4) arranged in the longitudinal direction and is pivotably or fixedly connected to the chassis (1) at an assigned connection point (5), a jockey wheel (3) being arranged at each end of the floating axle (6) arranged in the transverse direction.

Abstract: A shelving system for sequencing goods from a high-bay warehouse into sequencing racks. The shelving system includes the high-bay warehouse with at least one sequencing level at a floor level and a plurality of storage levels operable to store large load carriers at storage locations thereof during normal operation of the shelving system, the large load carriers being operable to store goods of one type. At least one lift is operable for a vertical transport of the large load carriers is arranged in the high-bay warehouse. At least one transverse transfer carriage is arranged in each storage level for a horizontal transport of the large load carriers. A control unit is operable to process sequencing orders for a transfer of large load carriers in a sequencing order from the storage levels to at least one second sequencing area in the at least one sequencing level.

Abstract: A dispensing outlet includes a housing with a first end of the housing having a first outlet and a second end of the housing having a mixing or reception space. The mixing or reception space is configured to receive a further component, and a pre-determined breaking point is formed between the first outlet and the mixing or reception space.

Abstract: A cap for an applicator includes an inlet, a base having a connection portion embodied for connecting the cap to the applicator or a container formed therein, a head that receives an application part of the applicator within the head, and a projection formed at a top part of the cap. The top part formed at an opposite end to the inlet, and the projection cooperating with an outlet of the applicator. The head includes a cylindrical or conical inner or outer shape and the connection portion has a round inner or outer shape, that is an oval, round or square shape.

Abstract: A cap for an applicator includes an inlet, a base having a connection portion embodied for connecting the cap to the applicator or a container formed therein, a head that receives an application part of the applicator within the head, and a projection formed at a top part of the cap. The top part formed at an opposite end to the inlet, and the projection cooperating with an outlet of the applicator. The head includes a cylindrical or conical inner or outer shape and the connection portion has a round inner or outer shape, that is an oval, round or square shape.

Abstract: The invention relates to a computer system for providing a treatment proposal for a dentition of a patient. The computer system is configured to provide an current state model of the dentition and a target state model of the dentition; to provide a set of treatment options for treating the dentition, to check the provided treatment options, wherein the checking comprises determining whether the dentition of the patient is meeting the feasibility requirements assigned to the treatment option being checked; in case the dentition is determined to meet the feasibility requirements assigned to the treatment option being checked, to provide the treatment proposal identifying the respective treatment option and implementation parameters determined for the measures of the identified treatment option for modifying the current state model such that one or more discrepancies of the current state model relative to the target state model are compensated.

Abstract: A driverless transport system comprising a chassis (1), drive wheels (2) and jockey wheels (3), wherein, on each of a first side of the chassis (1) and a second side of the chassis (1) opposite the first side, a floating axle (4) arranged in the longitudinal direction is pivotably connected to the chassis (1) at a connection point (5) assigned in each case, a drive wheel (2) being arranged at one end of each of the floating axles (4) and a jockey wheel (3) being arranged at the opposite end of each of the floating axles (4), the driverless transport system additionally having a floating axle (6) arranged in the transverse direction which is aligned transversely to the two floating axles (4) arranged in the longitudinal direction and is pivotably or fixedly connected to the chassis (1) at an assigned connection point (5), a jockey wheel (3) being arranged at each end of the floating axle (6) arranged in the transverse direction.

Abstract: A dispensing outlet includes a housing with a first end of the housing having a first outlet and a second end of the housing having a mixing or reception space. The mixing or reception space is configured to receive a further component, and a pre-determined breaking point is formed between the first outlet and the mixing or reception space.

Abstract: The invention relates to a method for correcting the zoom setting and/or the vertical offset in an image assembled from two sub-frames of a stereo film, wherein the one sub-frame is provided by a first camera of a camera rig and the second sub-frame is provided by a second camera of the camera rig, wherein a vertical offset is changed via a change in the pitch setting, wherein, during the operation when recording the stereo film, a difference between the present zoom-results in the first sub-frame relative to the second sub-frame is measured and/or a vertical offset of the image points present in the first sub-frame in relation to those corresponding image points in the second sub-frame is measured and, on the basis of this information, correction values are calculated, with which the zoom difference and/or the vertical offset is reduced, given appropriate application to the zoom and/or pitch setting.

Abstract: A method of aligning the optical axes of two cameras, wherein the cameras are parts of a camera apparatus and the two cameras can be used for producing 3D films, wherein plural steps are automatically run through. The invention also relates to a method of controlling a camera rig comprising two cameras for producing 3D films according to the table of values according to such method, wherein during shooting upon zooming at least one camera is automatically moved via camera motors. The invention also relates to a camera rig comprising two cameras that are preferably juxtaposed or superimposed having a control which realizes a method as explained.

Abstract: The invention relates to a method for correcting the zoom setting and/or the vertical offset in an image assembled from two sub-frames of a stereo film, wherein the one sub-frame is provided by a first camera of a camera rig and the second sub-frame is provided by a second camera of the camera rig, wherein a vertical offset is changed via a change in the pitch setting, wherein, during the operation when recording the stereo film, a difference between the present zoom-results in the first sub-frame relative to the second sub-frame is measured and/or a vertical offset of the image points present in the first sub-frame in relation to those corresponding image points in the second sub-frame is measured and, on the basis of this information, correction values are calculated, with which the zoom difference and/or the vertical offset is reduced, given appropriate application to the zoom and/or pitch setting.

Abstract: A method of aligning the optical axes of two cameras, wherein the cameras are parts of a camera apparatus and the two cameras can be used for producing 3D films, wherein plural steps are automatically run through. The invention also relates to a method of controlling a camera rig comprising two cameras for producing 3D films according to the table of values according to such method, wherein during shooting upon zooming at least one camera is automatically moved via camera motors. The invention also relates to a camera rig comprising two cameras that are preferably juxtaposed or superimposed having a control which realizes a method as explained.

Abstract: The invention relates to a method for controlling two cameras of a camera rig for shooting 3D films, wherein optimum values for the specific instant are used for a distance of the cameras from a point at which the optical axes of the cameras intersect, i.e. CVDopt, and for a distance of the optical axes of the two cameras from each other in the area of the cameras, i.e. IAopt. The invention further relates to a camera rig comprising two cameras for shooting a 3D film including a control for realizing such method.