To suppress generation of dew condensation in temperature control space when heating temperature control is performed. In an apparatus, an air temperature control part for cooling or heating air in temperature control space has a first temperature control element for performing at least cooling of air, and a second temperature control element for performing at least heating of air downstream of the first temperature control element. In this manner, when heating temperature control is performed, cooling and dehumidification of air taken in from an air intake portion can be performed by the first temperature control element, and then heating of the dehumidified air can be performed by the second temperature control element.

A diagnostic laboratory distribution system, wherein the distribution system comprises a number of carriers adapted to carry one or more goods. The distribution system comprises a transport plane adapted to support the carriers and a drive device, wherein the drive device is adapted to move the carriers on the transport plane, and a control device to control the drive device. The distribution system comprises a cover for the transport plane, and humidity sensors connected to the control device and airflow generating devices connected to the control device. The airflow generating devices are distributed over the distribution system to generate an airflow between the cover and the transport plane. The control device is configured to start the airflow generating devices if the humidity sensors measure a humidity above a predefined threshold value.

An automatic analyzer keeps the inside of a reagent cooler that stores a reagent vessel clean. The automatic analyzer includes: a reagent cooler that stores a reagent vessel containing a reagent to be reacted with a sample at a predetermined temperature. A reagent vessel replacement unit includes an opening configured to put the reagent vessel into and take the regent vessel out of the reagent cooler, wherein the opening is opened and closed to replace the reagent vessel. A positive pressure unit positively pressurizes the inside of the reagent cooler with respect to a periphery of the reagent cooler when the opening is opened.

A method, apparatus and system that includes an environmentally controlled accurate and sensitive general purpose lateral flow assay instrument that can be used throughout the world, in homes, and make-shift emergency centers, including while connected to the internet to receive reference Transmission Raman Spectroscopy signature data, and to transmit test results.

Apparatuses and methods for generating trace vapors are provided. The apparatus includes a controller and an oven. The controller includes: a processor, a memory storing at least one control program, a clean solution supply port constructed to output a clean solution, an analyte solution supply port constructed to output an analyte solution, a carrier gas inlet port constructed to receive a carrier gas, and a plurality of carrier gas supply controllers constructed to output the carrier gas. The oven includes a clean manifold, an analyte manifold, a clean solution nebulizer constructed to: receive the clean solution from the clean solution supply port, and the carrier gas from one of the plurality of carrier gas supply controllers, and output a clean solution vapor stream comprising the clean solution and the carrier gas to the clean manifold, an analyte solution nebulizer constructed to: receive the analyte solution from the analyte solution supply port and the carrier gas from another one of the plurality of carrier gas supply controllers, and output an analyte solution vapor stream comprising the analyte solution and the carrier gas to the analyte manifold, a pneumatic valve controllably connected to the processor and communicatively connected to the clean manifold and the analyte manifold, and an output supply port communicatively connected to the pneumatic valve. The controller is configured to operate the pneumatic valve to allow the clean vapor solution or the analyte vapor solution to enter the chamber and be provided to the output supply port.

A storage and incubation device is provided. The device is configured to accommodate a plurality of assay chips, each assay chip including a unique identifier. The device comprises: a plurality of berths each sized to accommodate an assay chip; a communication module configured to receive information about the identifier of each assay chip; a clock timer configured to monitor the timing of the assay within each assay chip; a completion module to manage each assay chip when the assay is complete.

The purpose of the present invention is to provide an automatic analysis device with excellent workability while removing dew condensation water that is generated on an inner wall of a reagent storage cabinet. To this end, the present invention comprises a reagent storage cabinet for storing a plurality of reagent containers, wherein the reagent storage cabinet has: a reagent jacket that rotates while holding the reagent containers; a housing that accommodates the reagent jacket; and a lid part that covers the housing from above and that has formed therein a dispensing hole for dispensing the reagent inside the reagent containers, and a sliding contact mechanism, which is capable of switching between a state of being in contact with an inner wall surface of the housing and a state of being spaced away from the inner wall surface of the housing, is provided to the reagent jacket.

Flow cytometers having an enclosed particle sorting module are provided. Aspects of the flow cytometers include, in addition to the enclosed particle sorting modules, a sample input module fluidically coupled to an inlet of the enclosed particle sorting module, a waste reservoir fluidically coupled to first outlet of the enclosed particle sorting module and a first sorted particle collection system fluidically coupled to a second outlet of the enclosed particle sorting module. Flow cytometers as described herein are configured to control aerosol content in the enclosed particle sorting modules, including the sort chambers of such modules. Also provided are methods of using the flow cytometers, as well as kits that include one or more components of the flow cytometers are consumables for use therewith.

Flow cytometers having an enclosed particle sorting module are provided. Aspects of the flow cytometers include, in addition to the enclosed particle sorting modules, a sample input module fluidically coupled to an inlet of the enclosed particle sorting module, a waste reservoir fluidically coupled to first outlet of the enclosed particle sorting module and a first sorted particle collection system fluidically coupled to a second outlet of the enclosed particle sorting module. Flow cytometers as described herein are configured to control aerosol content in the enclosed particle sorting modules, including the sort chambers of such modules. Also provided are methods of using the flow cytometers, as well as kits that include one or more components of the flow cytometers are consumables for use therewith.

A container containing unit includes a housing and a lid member. The lid member has a probe insertion hole and a droplet guide portion. The droplet guide portion is formed at an edge of an opening end of the probe insertion hole and has a plurality of groove portions. The plurality of groove portions extend from the edge of the opening end to an outside of a locus through which the mouth of the container is moved.