A system and method facilitates transfers of specimen containers (e.g., vials with caps) between storage cassettes and carrier cassettes. The storage cassettes are designed to be stored in cryogenic refrigerators while the carrier cassettes are designed to be temporarily stored in a portable carrier. Identification information is read from wireless transponders carried by the specimen containers. Visual mappings of the positions of the specimen container in the cassettes is provided. Presence and position of the specimen containers in the cassettes is verified, and alerts of inconsistencies provided along with corrective commands. Inventories of specimen container and even specific specimen holders are provided.

An incubation cassette for reducing liquid evaporation from wells of a microplate with a frame for receiving a microplate with wells, the frame having a central first opening surrounded by an inner wall, the dimensions are designed for inserting a microplate, and the frame having an outer wall that runs essentially parallel to the inner wall and which is attached to the inner wall connects so that a liquid reservoir surrounding the first central opening for receiving a liquid is formed by the two walls and the intermediate base is disclosed. The incubation cassette also includes a float provided in the liquid reservoir that can be brought into fluid contact with the liquid held in the liquid reservoir in such a way that the float is in relation to the liquid level of the liquid in the liquid reservoir absorbed liquid experiences buoyancy.

A chip for biochemical reactions comprising: a first body including a plurality of first through openings arranged according to an arrangement pattern; a second body, having a hydrophilic surface, coupled to the first body on the hydrophilic surface; and an intermediate layer, which extends over the hydrophilic surface and forms a coupling interface between the first and the second bodies. The intermediate layer is of hydrophobic material, extends continuously over the hydrophilic surface, and has a plurality of second through openings through which respective regions of the hydrophilic surface are exposed. The hydrophilic regions may be functionalized for carrying out a PCR.

A sonicator assembly, including: a microplate defining a plurality of wells; a manifold for containing a transducer fluid that is thermally coupled to the plurality of wells of the microplate; an ultrasonic generator operable for applying an ultrasonic excitation to the wells of the microplate; one or more of a heating module thermally coupled to and operable for selectively heating the transducer fluid and a cooling module thermally coupled to and operable for selectively cooling the transducer fluid; and a controller operable for controlling operation of the ultrasonic generator and the one or more of the heating module and the cooling module. The controller is further operable for monitoring a temperature and a pressure within the manifold. A temperature of the plurality of wells is controllable over a temperature range from 4° C. to 95° C. Optionally, the plurality of wells include a plurality of heat-resistant round-bottom hydrophilic wells.

A fluidic chip comprising: a sealing layer having an upper surface and a lower surface; and a formed part comprising a generally planar body having a lower surface sealed with the upper surface of the sealing layer, the generally planar body having a number of through holes and a number of wells in fluid communication with the number of through holes, wherein together with the upper surface of the sealing layer, the number of through holes and the number of wells respectively define a number of fluid inlets and a number of fluid chambers in fluid connection with each other in the fluidic chip.

An exothermic composite, comprising: a reactive material (RM) that undergoes an exothermic reaction upon contact with an oxidizer, and a phase-changing thermal storage material (PCM) having a phase change temperature, wherein (1) RM and PCM are intermixed with one another or (2) one of RM and PCM is interpenetrated with the other. Devices, comprising (1) a sample container that defines a sample volume therein or (2) a receptacle configured to accept a sample container defining a sample volume therein, and the device configured such that the sample container is in thermal communication with a composite according to the present disclosure. Also provided are related methods.

Aspects of the present disclosure relate to a method and/or a device for carrying out chemical, biochemical and/or immunochemical analyses of liquid samples, which are present in a sample store of an automatic analyzer, with the aid of liquid reagents which are present in at least one reagent store of the analyzer. In one example embodiment, the automatic analyzer includes cuvettes, a first pipettor, a device with an optical measurement unit, a device for heterogenous immunoassays, a cuvette washing unit, a needle washing unit, a temperature control unit.

An assay plate assembly comprising a plurality of microfluidic modules arranged in a rectilinear matrix of rows and columns microfluidic channels. Each microfluidic module has an inlet well leading to a serpentine microfluidic channel that is set at a cant angle. The well is laterally offset from the detection area to avoid optical interference. The geometric center of each detection area is positioned according to ANSI/SLAS standards for well-centers. A drain from each microfluidic channel is located so that it does not interfere with any detection areas. An array of micro-posts are disposed within each microfluidic channel. The micro-posts extend perpendicularly from the top surface of the top plate toward the underside and are equally distributed throughout the entire detection area. The plate assembly provides reduced assay time and sample volume, and increased sensitivity and specificity in biological and chemical assays.

Embodiments include a reaction vessel having a reaction chamber defined by opposing first and second interior-facing surfaces of the housing; a first light absorbing layer conforming to the first interior-facing surface of the housing component; and a second light absorbing layer conforming to the second interior-facing surface of the housing component; a first energy source configured to direct light through the housing at the first light absorbing layer; and a second energy source configured to direct light through the housing at the second light absorbing layer.

A multi-module sample preparation device for use with a DNA sequencer is provided. The device includes several modules that are operatively connected in a manner such that a liquid sample containing DNA for analysis can be charged into the device and automatically prepared for sequencing with little or no user interaction. The device enables targeted amplification, purification, and library preparation for a liquid sample prior to being injected into a DNA sequencer.