In one embodiment, a cartridge includes at least one compartment and a reagent in the at least one compartment. The reagent is a chemical composition for testing at least one of soil and vegetation for a chemical contained in the soil or vegetation. The reagent can be used in a soil and/or vegetation analysis test. The cartridge can contain an authentication chip to ensure that the reagent is the correct reagent for the analysis test.

A laboratory sample container carrier cleaning apparatus is provided comprising a revolving device, being adapted to move a sample container carrier supplied to the revolving device along a circular path, and a cleaning device, being adapted to clean the sample container carrier being moved along the circular path.

In an automatic analysis device, it is possible during specimen analysis to add/deposit one rack at a time without stopping the analysis, and it is easy to ascertain the analysis sequence. The analyzer has an analysis module, a rack transport module for transporting a specimen rack in which a specimen container storing a specimen is loaded, and a control device. The rack transport module includes a rack supply part for supplying a specimen rack, a rack accommodating part for accommodating a specimen rack, a rack transport line for transporting a specimen rack supplied from the rack supply part, a dispensing line for transporting a specimen rack to the analysis module, and a rack rotor for transferring a specimen rack between the rack transport line and the dispensing line. Operation of the rack supply part for supplying a specimen rack can be stopped independently of the operation of the analysis module.

A feeding system (2) for feeding disc-shaped objects such as sample cups (4) to an analyzer. The system (2) includes as infeed trade (22) angled downward from horizontal and the outfeed track (24) angled downward, plus a reject chute. The disc feeding system (2) uses two RFID readers/writers, one (32) a standalone desktop and a second (190) proximate the sample bay of the analyzer for more comprehensive track-and-trace capability. The information read from the cup (4) tag as it is scanned is also stored with the resultant spectra so that predictive processing is applied properly and without error. For post scan (after the sample scan is completed) the scan information itself may be written directly to the sample cup RFID tag including, reflection/transmission, characteristics, constituent results etc.

A sample feed device is provided, including: a body; a sample tray provided on the body; a moving part provided on the body and capable of reciprocating on the body, and the moving part provided with a transfer chamber, the transfer chamber capable of receiving a sample from the sample tray and transferring the sample to an analyzer with the movement of the moving part; a processing system provided on the body, and capable of performing helium gas purging and vacuum processing to the sample. The sample feed device may feed the sample automatically through relay transfer of the sample by the sample tray and the moving part. The processing system may perform the helium gas purging and vacuuming to the sample, which strips adsorbate on the surface of the sample by the helium gas purging, and removes the stripped adsorbate on the surface of the sample by vacuuming.

Provided is an automatic analysis system in which a conveying line 104 and a plurality of dispensation lines 209, 309 are disposed not to be parallel, and a device layout of analysis modules 200, 300 disposed with a specimen rack distribution module 100 therebetween is line-symmetric with respect to a straight line 100A passing through the rotation center of a standby disc 106. Accordingly, even when the automatic analysis system has a configuration for providing specimens from a common specimen rack distribution module to a plurality of analysis modules, the conveyance efficiency of a specimen rack is raised and user accessibility is good.

The present invention relates to a heat preservation shell (4) for an analyzer. At least one liquid passage (402) for conveying the liquid is embedded in a shell wall of the heat preservation shell. The liquid passage (402) is embedded in the shell wall of the heat preservation shell (4), on one hand, the liquid transported or preserved in the liquid passage is subjected to the heat preservation function of the heat preservation shell, so that the liquid transported or preserved in the liquid passage (402) maintains the preset temperature, thereby avoiding the influence of the external environment temperature on the transported liquid; and on the other hand, the space of the shell wall of the heat preservation shell is effectively utilized, the situation that various liquid pipelines are intricately distributed inside or outside the heat preservation shell (4) is avoided, thereby increasing the space utilization rate.

The automatic analysis device includes: a reagent tank that holds a reagent container that contains a reagent; and a lid opening/closing device including a lid opening/closing member configured to be movable in a first direction parallel to a vertical direction and a second direction perpendicular to the first direction. The lid opening/closing member having a first member for opening a lid of the reagent container and a second member for closing the lid and configured to be movable between a first position and a second position, the first position located above the reagent container and the second position located below the first position in the first direction such that the bottom surface of the lid opening/closing member comes into contact with the reagent container and configured to be movable between the second position and a third position that is away from the second position in the second direction.

Systems and methods are described for integrated sample container cover removal and sample probe positioning. In an example implementation, an autosampler system includes, but is not limited to, a z-axis support rotatable about a z-axis of an autosampler deck; a sample probe support structure coupled to the z-axis support, the sample probe support structure configured to hold a sample probe to withdraw a fluid-containing sample held within a sample container supported by the autosampler deck; and a sample cap remover coupled to the z-axis support in an orientation that is rotationally offset from the z-axis support with respect to the sample probe support structure, the sample cap remover configured to lift a cap from the sample container to provide access to an interior of the sample container by the sample probe supported by the sample probe support structure.

An automated carousel and system configured for translationally moving a plurality of biological production units in unison along a vertical frame while maintaining a precise alignment of each of the biological production units relative to gravity, and simultaneously providing independent dynamic adjustment of the axial orientation of each of the plurality of biological production units relative to gravity. The automated carousel may be adapted for use with a variety of biological production units supporting cell culture and/or tissue engineering systems in various clinical and laboratory settings and provides for ergonomic use thereof.