Abstract: Disclosed is a method and laboratory instrument aimed at reducing the loss of time of liquid level determination each time a liquid container is loaded into an instrument and at the same time reducing waste of liquid containers due to unforeseen changes in the liquid levels by combining a fast liquid level check at an expected liquid level with a liquid level search if no liquid level is found at the expected level, while also ensuring proper liquid aspiration as the liquid level is always verified (expected level is not blindly relied upon).

Abstract: The present invention describes a laboratory system for automatically processing at least one sample container containing a biological sample, the laboratory system comprising a housing; laboratory instrument units for executing processing steps on the biological sample; an input station configured to receive the sample container; a transport means for transport of the sample container from the input station to the laboratory instrument units, and further to an output station; a control unit for determining whether the sample and/or the container is in a condition to be processed by the laboratory instrument units; an input-output station providing an interface between the inside and the outside of the housing; and a workbench on the outside of the housing in front of the input-output station for an operator to be in the position to manipulate the sample and/or the container.

Abstract: A device comprising a support part is disclosed. The support part is configured to receive a tip holder, a liquid waste container and a multiwell plate. The multiwell plate comprises at least one row of vessels which comprise a closed bottom and an open top. A method of removing liquid waste during magnetic separation using such a device is also disclosed.

Abstract: The present invention relates to an automated analytical system and an automated method for separating and detecting an analyte, as well as an automated analytical instrument.

Abstract: An analytical apparatus and a method for isolating and analyzing at least one analyte are described, comprising at least one module for receiving and dispensing a sample to be analyzed, at least one module for isolating said analyte to be analyzed, at least one module for analyzing said analyte, wherein said modules (i) to (iii) are arranged along an axis.

Abstract: A processing head (1) for surface processing by means of a laser beam is disclosed. The processing head (1) comprises a through passage (2) for a laser having a longitudinal axis (A), at least one powder supply passage (3) and a cooling passage (4) for cooling the processing head (1). The processing head (1) is at least configured of two parts and comprises a body (5) and a sleeve (6). The sleeve (6) is suitable for the arrangement at the body (5). The through passage (2) of the laser and the powder feed channel (3) are configured in the body (5). The body (5) at least partly forms a first sidewall of the cooling passage (4). The sleeve (6) at least partly forms a second sidewall of the cooling passage (4).

Abstract: An automated analyzer with an on-board fridge for long-term cooling of reagents, and a method for isolating and analyzing an analyte comprising long-term cooling of reagents.

Abstract: An automated analyzer with an on-board fridge for long-term cooling of reagents, and a method for isolating and analyzing an analyte comprising long-term cooling of reagents.

Abstract: The present invention relates to an automated analytical system and an automated method for separating and detecting an analyte, as well as an automated analytical instrument.

Abstract: A device comprising a support part is disclosed. The support part is configured to receive a tip holder, a liquid waste container and a multiwell plate. The multiwell plate comprises at least one row of vessels which comprise a closed bottom and an open top. A method of removing liquid waste during magnetic separation using such a device is also disclosed.

Abstract: The invention relates to a method of isolating and analyzing an analyte using an analytical apparatus which comprises modules of different types, wherein any one module of one type has a specific, pre-defined timing for carrying out its workflow.

Abstract: A processing head (1) for surface processing by means of a laser beam is disclosed. The processing head (1) comprises a through passage (2) for a laser having a longitudinal axis (A), at least one powder supply passage (3) and a cooling passage (4) for cooling the processing head (1). The processing head (1) is at least configured of two parts and comprises a body (5) and a sleeve (6). The sleeve (6) is suitable for the arrangement at the body (5). The through passage (2) of the laser and the powder feed channel (3) are configured in the body (5). The body (5) at least partly forms a first sidewall of the cooling passage (4). The sleeve (6) at least partly forms a second sidewall of the cooling passage (4).

Abstract: The invention relates to a powder flow nozzle, to a receiver unit and to a processing head for an apparatus for a processing of material with a laser. In order to enable a simple exchange of the powder flow nozzle it is suggested in accordance with the invention that an outer contour of a mounting spigot (11) of the powder flow nozzle (10) monotonously tapers in a plug-in region (16) in the plug-in direction (14).

Abstract: An analytical apparatus and a method for isolating and analyzing at least one analyte are described, comprising at least one module for receiving and dispensing a sample to be analyzed, at least one module for isolating said analyte to be analyzed, at least one module for analyzing said analyte, wherein said modules (i) to (iii) are arranged along an axis.

Abstract: A method is described for distributing samples within an automated analyzer from a linear arrangement of sample vessels to a processing plate in a two-dimensional n×m arrangement wherein samples are sorted, followed by transfer with a pipetting device with a linear arrangement to a processing vessel in a two-dimensional n×m arrangement and subsequent processing of samples using a second pipetting device which has a two-dimensional n×m arrangement.

Abstract: A method is described for distributing samples within an automated analyzer from a linear arrangement of sample vessels to a processing plate in a two-dimensional n×m arrangement wherein samples are sorted, followed by transfer with a pipetting device with a linear arrangement to a processing vessel in a two-dimensional n×m arrangement and subsequent processing of samples using a second pipetting device which has a two-dimensional n×m arrangement.

Abstract: An automated nucleic acid analysis method and analytical system are described comprising separate modules, wherein the air flow of any one of said modules is controlled and wherein at least the air flow between the module for isolation and purification of the analyte and the module for analysis of the analyte are separated.

Abstract: The invention relates to a method of isolating and analyzing an analyte using an analytical apparatus which comprises modules of different types, wherein any one module of one type has a specific, pre-defined timing for carrying out its workflow.

Abstract: An analyzer for detecting or quantitating an analyte comprising a temporary storage unit for storing a reagent cassette and a method for presenting a reagent cassette present in a temporary storage unit to a pipetting device are described.

Abstract: A method of wasting tips in an automated processing module is disclosed, which includes at least three positions for holding sample racks. One of the positions is a tip waste rack position holding a tip waste rack, which includes tip receiving openings. Furthermore, it includes a SWAP rack holding mechanism for temporarily holding a sample rack. The method includes transferring the tip waste rack from the tip waste rack position to an adjacent sample rack position. Once the tip waste rack is placed in the adjacent sample rack position, the error pipette tip is discarded into one of the tip receiving openings of the tip waste rack. Following this, the tip waste rack is transferred back to the tip waste rack position. The sample rack temporarily placed in the SWAP rack holding mechanism is transferred from the SWAP rack holding mechanism to the adjacent sample rack position.