A system for preserving a surgically explanted tissue sample has a first packing station for placing the tissue sample in a selected container among a plurality of containers of different sizes. Each container has a hermetic lid (50) with an opening (33) equipped with a non-return valve (51). The system also has a final packing station equipped with a filling system for filling the selected container with a preservative substance, including a nozzle-holding head (28) mounted movable on a vertical guide (29). A method is also described which provides for the selection of the container based on the evaluation of the volume of the tissue sample, the hermetic closure of the container immediately after the insertion of the tissue sample. and the filling of the container by means of a nozzle (31) of a filling system inserted in the non-return valve (51) of the hermetic lid (50).

The invention provides an apparatus including a reactionware and an analytical device for analysing a reaction, the analytical device including at least a plurality of reaction sensors and the analytical device is configured for placement of a plurality of sensors in the reaction space of the reactionware, and optionally the reaction headspace of the reactionware, and the reactionware is a reaction flask having one or more necks, and the analytical device is held in a neck of the reaction flask.

The storage device is adapted to store a plurality of objects, such as sample tube holders, at low temperatures, e.g. at 80 C. It comprises a storage chamber with a plurality of storage cassettes arranged in its bottom section. A cassette lift in its top section can be used to lift individual storage cassettes up and to move them to an access opening, where the contents of the storage cassette can be accessed.

Provided herein are devices and methods suitable for sequencing, detecting, amplifying, analyzing, and performing sample preparation procedures for nucleic acids and other molecules. In some cases, the devices and methods provided herein are used for computation.

A cell culture container includes, in sequence from above in the gravity direction: a culture-medium holding container; a cell holding container that holds cells and a culture medium supplied from the culture-medium holding container through a supply port provided in the top surface thereof; a waste-liquid holding container that holds the culture medium discharged from the cell holding container; and a discharge mechanism for discharging the culture medium that has exceeded a predetermined level from the cell holding container to the waste-liquid holding container.

A system and method for managing a microfluidics device. The system includes a microfluidics device; a controller with a first processor which receives outputs from the microfluidics device and provides inputs to the microfluidics device; and a computing device with a second processor and an application program interface (API). The computing device provides instructions to the controller using the API. The instructions are executed by the first processor to produce real-time outputs to the microfluidics device.

A mobile terminal device includes: a display operation unit configured to display, simultaneously on a screen, a setting including a dispense volume setting of a dispensing device for aspirating and dispensing fluid by driving of an actuator, and a numeric key pad for entering the setting; a second wireless communicating unit configured to transmit information on the setting to a first wireless communicating unit included in the dispensing device; and a control unit configured to control the display operation unit and the second wireless communicating unit.

Provided are devices, systems and methods for evaluation of hemostasis. In some embodiments, an apparatus is disclosed comprising a housing; a plurality of test chambers located in the housing, the plurality of test chambers including chambers configured for measurements via a system that interrogates one or more viscoelastic properties of test samples in the test chambers, wherein the one or more viscoelastic properties is used to characterize dynamics of coagulation and/or fibrinolysis.

An analyzer control product provided with a sealed rack tube containing a preconfigured volume of analyzer control fluid is described. In particular, the rack tube is provided with a base portion; a top portion; and a sidewall extending from the base portion to the top portion, the sidewall having an inner peripheral surface and an outer peripheral surface, at least one of the inner peripheral surface and the outer peripheral surface in contact with the base portion to form a control fluid void. The analyzer control fluid is within the control fluid void. The analyzer control fluid has a preconfigured volume. A sealing member is attached to the top portion to seal the control void.

A method for classifying an identification tag on a sample tube containing a sample to be processed in an automated laboratory system having a plurality of laboratory devices, the method comprising providing a sample tube having an identification tag and containing a sample to be analyzed. Each of the plurality of laboratory devices is assigned a tag reader device configured to read the identification tag for recognizing identification tag information. Further, an automated laboratory system for processing a sample tube containing a sample for at least one of pre-analytics and sample analysis is provided.