Abstract: The present disclosure relates to a computer implemented method of managing sample processing priorities in a diagnostic laboratory comprising at least one sample processing device connected to a host system. The method comprises generating a communication message between the host system and the at least one sample processing device related to a sample processing order received in association with a sample, the message comprising one of at least two priority identifiers (R, S) indicative of respective sample processing priorities from lower priority to higher priority according to the received sample processing order. The method further comprises identifying the sample by the at least one sample processing device and processing the sample by the at least one sample processing device according to the sample processing priority (S, R) in the message.

Abstract: The automatic analyzer is capable of performing other operations concurrently with a maintenance operation and notifying a user when a user action is required in executing maintenance and displaying guidance. Automatic analyzer includes analysis modules and that analyze a sample, a display device that displays information related to maintenance in the analyzer including the analysis modules and, and an overall management computer that controls a constant display area to be displayed on a display screen of the display device, in which when there is a need to notify a user of a maintenance status at a timing when the maintenance in the analyzer is executed in a background and a screen other than a maintenance screen is displayed on the display device, the overall management computer displays notification information on the screen including global areas and of the display device.

Abstract: An automatic analyzer has a transport device which includes a specimen rack gripping mechanism that grips the specimen rack on a first transport path on which the specimen racks are transported by the specimen rack being sandwiched between gripping plates from both sides of flanks in the transport direction to transport the specimen rack along the first transport path and a gripping width controller that controls a distance between the gripping plates of the specimen rack gripping mechanism in accordance with a width of the specimen rack. Accordingly, an automatic analyzer capable of transporting a plurality of types of the specimen racks while suppressing an increase in size of the apparatus and also an increase in cost can be provided.

Abstract: An automatic analyzer has a transport device which includes a specimen rack gripping mechanism that grips the specimen rack on a first transport path on which the specimen racks are transported by the specimen rack being sandwiched between gripping plates from both sides of flanks in the transport direction to transport the specimen rack along the first transport path and a gripping width controller that controls a distance between the gripping plates of the specimen rack gripping mechanism in accordance with a width of the specimen rack. Accordingly, an automatic analyzer capable of transporting a plurality of types of the specimen racks while suppressing an increase in size of the apparatus and also an increase in cost can be provided.

Abstract: The present invention provides an automatic analyzer, in which when a specimen that cannot be analyzed due to an abnormality or needs to be remeasured exists, the automatic analyzer can swiftly reload the specimen that cannot be analyzed due to the abnormality or needs to be remeasured without waiting for completion of a measurement of another specimen held by a rack holding the specimen that cannot be analyzed or needs to be remeasured. The automatic analyzer has means for storing information of a rack loaded in the analyzer and specimen information, displaying identification information of the rack loaded in the analyzer to a user, specifying a specimen that needs to be reanalyzed due to an abnormality or needs to be collected for a remeasurement, interrupting analysis of a specimen rack holding the specimen, and collecting the specimen rack. The automatic analyzer can collect and reload the specified specimen.

Abstract: An antenna device can be placed on an insulation substrate having a wiring pattern and has an antenna member including an antenna radiation element, a mounting terminal, a power supply terminal formed continuously to the antenna radiation element, and the antenna member is formed by an insert molding with resin. The antenna device includes; a top surface portion that is parallel with respect to the surface of the insulation substrate when the device is placed on the insulation substrate, and a leg portion that is orthogonal with respect to the surface of the insulation substrate when the device is placed on the insulation substrate. The antenna radiation element is disposed on the top surface portion, and the mounting terminal and the power supply terminal are disposed only on the leg portion.

Abstract: The present invention provides an automatic analyzer, in which when a specimen that cannot be analyzed due to an abnormality or needs to be remeasured exists, the automatic analyzer can swiftly reload the specimen that cannot be analyzed due to the abnormality or needs to be remeasured without waiting for completion of a measurement of another specimen held by a rack holding the specimen that cannot be analyzed or needs to be remeasured. The automatic analyzer has means for storing information of a rack loaded in the analyzer and specimen information, displaying identification information of the rack loaded in the analyzer to a user, specifying a specimen that needs to be reanalyzed due to an abnormality or needs to be collected for a remeasurement, interrupting analysis of a specimen rack holding the specimen, and collecting the specimen rack. The automatic analyzer can collect and reload the specified specimen.