A portable nucleic acid extraction kit includes a portable nucleic acid extraction apparatus, at least one lysis buffer, at least one binding buffer, at least one washing buffer, at least one elution buffer, and at least three kit sample tubes. The portable nucleic acid extraction apparatus includes a handle, a rod, a tip, and may include a nucleic acid binding medium. The method of using the portable nucleic acid extraction apparatus includes, treating a biological sample having a nucleic acid, binding the nucleic acid in the treated biological sample to the tip of the portable nucleic acid extraction apparatus, incubating the tip of the portable nucleic acid extraction apparatus bound with the nucleic acid, washing the tip of the portable nucleic acid apparatus bound with the nucleic acid, eluting the bound nucleic acid, and analyzing the eluted nucleic acid.

A hatch that can be connected to a compartment such as the workstation or transfer airlock of a containment chamber, the hatch (17) comprising a wall (21), a seal (22) and a lighting device (23), the seal (22) allowing the passage of at least part of the radiation of the lighting device (23), the lighting device being arranged so as to omit the light in a direction at least partly opposite to the wall (21) and through the seal (22). The invention also relates to a containment chamber provided with such a hatch (17).

A sustainable system for removing and concentrating per- and polyfluoroalkyl substances (PFAS) from water. The system includes an anion exchange vessel having a selected anion exchange resin therein configured to remove PFAS from the water. A line coupled to the vessel introduces a flow of water contaminated with PFAS such that the PFAS bind to the selected anion exchange resin and are thereby removed from the water. A regenerant solution line is coupled to the anion exchange vessel to introduce an optimized regenerant solution to the anion exchange vessel to remove the PFAS from the anion exchange resin, thereby regenerating the anion exchange resin and generating a spent regenerate solution comprised of the removed PFAS and the optimized regenerant solution. A separation and recovery subsystem recovers the optimized regenerant solution for reuse and separates and concentrates the removed PFAS.

A nucleic acid amplification and detection device includes an amplification cartridge with a plurality of reaction chambers for containing an amplification reagent and a visual detection reagent, and a plurality of optically transparent view ports for viewing inside the reaction chambers. The cartridge also includes a sample receiving port which is adapted to receive a fluid sample and fluidically connected to distribute the fluid sample to the reaction chamber, and in one embodiment, a plunger is carried by the cartridge for occluding fluidic communication to the reaction chambers. The device also includes a heating apparatus having a heating element which is activated by controller to generate heat when a trigger event is detected. The heating apparatus includes a cartridge-mounting section which positioned a cartridge in thermal communication with the heating element so that visual changes to the contents of the reaction chambers are viewable through the view ports.

A sustainable system for removing and concentrating per- and polyfluoroallcyl substances (PFAS) from water. The system includes an anion exchange vessel having a selected anion exchange resin therein configured to remove PFAS from the water. A line coupled to the vessel introduces a flow of water contaminated with PFAS such that the PFAS bind to the selected anion exchange resin and are thereby removed from the water. A regenerant solution line is coupled to the anion exchange vessel to introduce an optimized regenerant solution to the anion exchange vessel to remove the PFAS from the anion exchange resin, thereby regenerating the anion exchange resin and generating a spent regenerant solution comprised of the removed PFAS and the optimized regenerant solution. A separation and recovery subsystem recovers the optimized regenerant solution for reuse and separates and concentrates the removed PFAS.

A storage arrangement (1) has a chamber (3). Several Dewar flasks (5) are arranged in the chamber (3) and above them a picking device (8). The picking device has at least one cassette lift (60), with which storage cassettes (20) can be removed from above from the Dewar flasks (5). This arrangement is suitable for storing laboratory objects even at very low temperatures. Each storage cassette (20) is preferably made from a single piece of sheet metal. The piece of sheet metal is bent such that it forms the side walls (30), the back wall (32), the top part (34) and the base part (38) of the storage cassette (20), as well as angles (40, 42) to accommodate the laboratory objects.

An assembly for selectively performing a clinical chemical test or an ELISA assay including a reagent cartridge with a housing 11 having at least one cavity 12, 13, 14 that contains a reaction or diluting component and having a recess 15 in which a solid phase 20 to which an antigen or antibody can be coupled is inserted into the recess 15 of the housing 11. The assembly also includes at least one measuring cell, wherein a measuring cell is assigned to each reagent cartridge and wherein the reagent cartridge and the measuring cell assigned to it are in a linear assembly in an analytical device.

A screw cap lidded container for laboratory use includes a container body defining a chamber, a tubular section of the container body that is connected at the rear to the chamber and has a container opening in the front and an external thread on the outer periphery of the tubular section. There is a circumferential first sealing surface on the tubular section and at least one first projection, which projects from the container body at a peripheral position of the tubular section, and a screw cap having an internal thread on the inner periphery that can be screwed onto the external thread with thread play, a second sealing surface on the screw cap can be brought into sealing contact with the first sealing surface, and at least one second projection, which projects at a peripheral position of the screw cap.

A sensor is provided for detecting and characterizing particles in a fluid. The sensor has a microfluidic channel for receiving the fluid sample, an acoustic transducer module configured to generate a standing wave for concentrating the particles in a region of the microfluidic channel; an optical detection module configured to detect optical signals scattered by the particles upon illuminating the region of the fluid sample with a light source; and a data processing module configured to characterize the particles of the fluid sample based on the optical signals using a classifier.

The invention relates to a connection system for connecting an inside environment of a compartment to an environment outside said compartment, said compartment being isolated relative to the outside environment and said connection system, said connection system comprising a blocking device.