Abstract: A container treatment apparatus includes a transport apparatus for transporting containers along a predetermined transport path, wherein the transport apparatus has at least one transport device (100) for transporting the containers (100) and at least one container treatment device (150) for treating the container in a predetermined manner, wherein the transport devices include a rotatable carrier on which a plurality of holding elements (40) for holding at least one container is arranged. The container treatment device is arranged to treat the containers transported by the transport device and the holding element is rotatable such that the container held by the holding element is rotatable with respect to its longitudinal direction and the container treatment apparatus includes a monitoring device for monitoring the rotational movement of the containers.

Abstract: Disclosed is a container treatment apparatus and treatment method, in particular a container sterilisation apparatus, having a plurality of transport devices for transporting a container along a predetermined transport path, at least one of the transport devices having at least one holding device for holding at least one container during container treatment and/or transport along the transport path, the transport device having a rotatable carrier and a plurality of holding elements arranged on this carrier, wherein a holding element in a first sector, in which a container is received, having a height with respect to a perpendicular projection of the transport path which is different from that in a second sector in which a container is dispensed, and wherein a sector in which an at least partial compensation of the height difference of the holding elements takes place lies along a direction of rotation of the carrier after the second sector and before the first sector.

Abstract: A container treatment apparatus for transporting plastic preforms along a predetermined transport path includes several transport devices, each of which has at least one holding element for holding a plastic container and guiding the plastic container along a portion of the transport path, wherein a second transport device immediately follows a first transport device along the transport path, and containers are transferred from a holding device of the first transport device to a holding device of the second transport device. The transport path along which the containers can be guided by the first transport device is arranged at least in portions outside a clean room, and the transport path along which the containers can be guided by the first transport device is surrounded at least in part by a radiation shielding device.

Abstract: A method for obtaining dissectates from a microscopic sample using a laser microdissection system having a laser unit includes: a) at least partially circumcising and releasing from the sample dissectate regions of the sample as the dissectates using laser pulses provided by the laser unit; b) transferring the dissectates, by being released from the sample, along dissectate trajectories into receptacles of a dissectate collection unit; and c) positioning the receptacles of a dissectate collection unit using a positioning unit to collect the dissectates. The positioning of the receptacles of the dissectate collection unit using the positioning unit is automatically performed based on estimates of the dissectate trajectories, the estimates of the dissectate trajectories being obtained in a learning mode, the learning mode including obtaining dissectates by repeatedly performing at least steps a) and b). Parameters of the dissectate trajectories are determined for a plurality of dissectates.

Abstract: A method for laser microdissection includes: processing a microscopic examination object by a laser beam using tuples of coordinate values which respectively indicate positions of target points on the examination object at least in a first spatial direction and a second spatial direction orthogonal to the first spatial direction, positions of at least three reference points being ascertained beforehand in each case in the first and second spatial directions and also in a third spatial direction orthogonal to the first and second spatial directions; defining a reference plane based on the positions of the reference points; and determining, for the target points, further coordinate values indicating an expected position of the target points on the examination object in the third spatial direction in each case, as determined further coordinate values, the determining of the further coordinate values being performed depending on the defined reference plane.

Abstract: A sample manipulation device includes a manipulation light source configured to emit manipulation light, an objective configured to focus the manipulating light onto the sample to form a manipulation light beam, a scanning unit configured to move the manipulation light beam within a field of view of the objective, a sample positioning unit configured to move the sample relative to an optical axis of the objective, and a controller configured to receive manipulation data comprising at least one manipulation path, upon determining that the manipulation path is entirely outside the predetermined area, control the manipulation light source and the scanning unit such that the sample is manipulated along the manipulation path, and upon determining that at least a part of the manipulation path is inside the predetermined area, control the sample positioning unit to move the sample such that the manipulation path is entirely outside the predetermined area.

Abstract: Disclosed is a container treatment apparatus and treatment method, in particular a container sterilisation apparatus, having a plurality of transport devices for transporting a container along a predetermined transport path, at least one of the transport devices having at least one holding device for holding at least one container during container treatment and/or transport along the transport path, the transport device having a rotatable carrier and a plurality of holding elements arranged on this carrier, wherein a holding element in a first sector, in which a container is received, having a height with respect to a perpendicular projection of the transport path which is different from that in a second sector in which a container is dispensed, and wherein a sector in which an at least partial compensation of the height difference of the holding elements takes place lies along a direction of rotation of the carrier after the second sector and before the first sector.

Abstract: Disclosed is a container treatment device with a transport device for transporting containers along a predetermined transport path, wherein the transport device has at least one transport device for transporting the containers and at least one container treatment device for treating the containers in a predetermined manner, wherein this transport device includes a preferably rotatable carrier, on which a plurality of holding devices for holding at least one container are arranged, these holding devices being movable relative to the carrier in such a way that a distance between two containers immediately following one another on the transport path can be varied, wherein the container-handling device is arranged in such a way that it can handle the containers transported by the transport device.

Abstract: A container treatment apparatus includes a transport apparatus for transporting containers along a predetermined transport path, wherein the transport apparatus has at least one transport device (100) for transporting the containers (100) and at least one container treatment device (150) for treating the container in a predetermined manner, wherein the transport devices include a rotatable carrier on which a plurality of holding elements (40) for holding at least one container is arranged. The container treatment device is arranged to treat the containers transported by the transport device and the holding element is rotatable such that the container held by the holding element is rotatable with respect to its longitudinal direction and the container treatment apparatus includes a monitoring device for monitoring the rotational movement of the containers.

Abstract: Disclosed is a container treatment apparatus for transporting plastic containers and in particular plastic preforms along a predetermined transport path, wherein the container treatment apparatus has at least one transport device having a plurality of holding elements, wherein the transport device is a pitch distribution starwheel having a movement device configured to allow movement of the holding elements in at least two planes.

Abstract: Disclosed is a container treatment apparatus, in particular a container sterilisation apparatus, having a plurality of transport devices for transporting a container along a predetermined transport path, at least one of the transport devices having at least one holding device for holding at least one container during container treatment and/or transport along the transport path , the transport device having a rotatable carrier and a plurality of holding elements arranged on this carrier, wherein a holding element in a first sector, in which a container is received, having a height with respect to a perpendicular projection of the transport path which is different from that in a second sector in which a container is dispensed, and wherein a sector in which an at least partial compensation of the height difference of the holding elements takes place lies along a direction of rotation of the carrier after the second sector and before the first sector.

Abstract: A device (1) for producing a photoactive system (10), in particular a deactivated photoactive system (10), characterised by: an imaging device (2) having at least one imaging arrangement (20), wherein the at least one imaging arrangement (20) has a beam passage plane (SE) and an optical axis (O), and the at least one imaging arrangement (20) is designed to generate electromagnetic beams which extend along a beam path and pass through the imaging arrangement (20) on the beam passage plane (SE) and to reflect the electromagnetic beams along the beam path at the photoactive arrangement (11) in order to image, on a first focal plane (B1) of the imaging arrangement (20), an evaluation image of a photoactive arrangement (11) of the photoactive system (10) to be produced, and the electromagnetic beams of the beam path are captured on the first focal plane (B1) in order to capture the evaluation image of the photoactive arrangement (11); and a first holding device (3a) having a first holding plane (Ha), on the first

Abstract: A method for obtaining dissectates from a microscopic sample using a laser microdissection system having a laser unit includes: a) at least partially circumcising and releasing from the sample dissectate regions of the sample as the dissectates using laser pulses provided by the laser unit; b) transferring the dissectates, by being released from the sample, along dissectate trajectories into receptacles of a dissectate collection unit; and c) positioning the receptacles of a dissectate collection unit using a positioning unit to collect the dissectates. The positioning of the receptacles of the dissectate collection unit using the positioning unit is automatically performed based on estimates of the dissectate trajectories, the estimates of the dissectate trajectories being obtained in a learning mode, the learning mode including obtaining dissectates by repeatedly performing at least steps a) and b). Parameters of the dissectate trajectories are determined for a plurality of dissectates.

Abstract: A method for laser microdissection includes: processing a microscopic examination object by a laser beam using tuples of coordinate values which respectively indicate positions of target points on the examination object at least in a first spatial direction and a second spatial direction orthogonal to the first spatial direction, positions of at least three reference points being ascertained beforehand in each case in the first and second spatial directions and also in a third spatial direction orthogonal to the first and second spatial directions; defining a reference plane based on the positions of the reference points; and determining, for the target points, further coordinate values indicating an expected position of the target points on the examination object in the third spatial direction in each case, as determined further coordinate values, the determining of the further coordinate values being performed depending on the defined reference plane.

Abstract: The invention relates to a seal device for hydraulically sealing off sealing faces of components which are movable relative to each other in a translational or rotational relative movement, said device having a tough, elastic sealing device seal body (1) with at least one sliding face (10) which is assigned to at least one sealing face of one of the components, a plurality of cavities (2; 2a, 2b; 22) being formed in the at least one sliding face (10), said cavities having closed contours which are delimited from one another towards the sliding face (10). The contours of the cavities (2; 2a, 2b; 22) have a longer dimension (x) in a contour longitudinal direction (X) and a shorter dimension (y) in a contour transverse direction (Y).

Abstract: A method for laser microdissection includes detecting at least a portion of an object to be dissected in an image-producing manner in a laser microdissection system and generating a first digital object image. A first processing specification is defined based on the first digital object image. In a first processing step, the object is processed using a laser beam of the laser microdissection system in accordance with the first processing specification. At least a portion of the object is detected in an image-producing manner and a second digital object image is generated. A second processing specification is defined during execution of the first processing step based on the second digital object image. In a second processing step, the object is processed using the laser beam of the laser microdissection system in accordance with the second processing specification.

Abstract: Disclosed is an improved system for performing intelligent text reduction on text strings for optimal display in a variety of user interface display elements. The system includes a smart text reduction algorithm that can shorten text strings as necessary in response to resizing the user interface or elements therein. The system also includes a design time user interface for application developers (or other users) to design graphical user interfaces in a collaborative workspace. The design time user interface incorporates the smart text reduction algorithm to enable designers to modify user interface display elements and run the text reduction algorithm on any text strings that no longer fit within the modified display elements. The described embodiments can also translate text strings of user interface display elements and can execute the smart text shortening algorithm on the translated text strings accordingly.

Abstract: Systems and methods are provided herein for multi-pass duplicate identification using sorted neighborhoods. Data comprising a plurality of data records is received. Neighborhood records are generated by merging the plurality of data records with reference records stored in a remote data store. A resource identification field is assigned to each reference record. A pair distance, for each pair of neighborhood records having different resource identification fields, is determined by calculating a standard deviation of distances between each attribute of the pair scaled by a filled pairs quote value. Possible duplicate records are identified by evaluating each pair distance against a threshold, each possible duplicate having grouped attributes. Final duplicate records are identified by matching each group to a key.

Abstract: Disclosed is an improved system for performing intelligent text reduction on text strings for optimal display in a variety of user interface display elements. The system includes a smart text reduction algorithm that can shorten text strings as necessary in response to resizing the user interface or elements therein. The system also includes a design time user interface for application developers (or other users) to design graphical user interfaces in a collaborative workspace. The design time user interface incorporates the smart text reduction algorithm to enable designers to modify user interface display elements and run the text reduction algorithm on any text strings that no longer fit within the modified display elements. The described embodiments can also translate text strings of user interface display elements and can execute the smart text shortening algorithm on the translated text strings accordingly.

Abstract: According to some embodiments, an event query to an item supply chain event database is processed such that a trace extraction algorithm will be executed to determine extracted trace data. A plurality of location nodes may then be graphically represented on an interactive user display based on the extracted trace data. Similarly, a plurality of item flow edges connecting location nodes may be graphically represented on the interactive user display based on the extracted trace data. According to some embodiments, a selection from a user is received via the interactive user display, the selection being associated with at least some of the graphically represented information. Responsive to the received selection, the graphical representation may be adjusted in accordance with the extracted trace data.