A storage device (20) stores a gas measuring device (10). The gas measuring device (10) has at least one electrochemical sensor (11) for measuring the concentration of a gas. The storage device (20) has a temperature control device (21) for controlling the temperature of the electrochemical sensor (11). A system (40) includes such a storage device (20) and a gas measuring device (10) that is stored therein. The temperature control device (21) is arranged at the storage device (20) such that the temperature control device (21) is located opposite the electrochemical sensor (11) of the gas measuring device (10) during the temperature control. A process for storing a gas measuring device (10) in such a storage device (20) includes controlling the temperature of the electrochemical sensor (11) of the gas measuring device (10) by the temperature control device (21) during the storage.

A collection system including a storage tray and a swab positioned in the storage tray, wherein the swab is configured to collect a sample comprising one or more microorganisms. The system further includes a generally elongate storage device positioned in the tray. The storage device is configured to contain a culture medium therein and configured to receive therein at least part of the one or more microorganisms collected by the swab. The storage tray includes a first recess configured to receive the storage device in a longitudinal configuration, and a second recess configured to receive the storage device in an axial configuration oriented generally perpendicular to the longitudinal configuration.

An aseptic sampling apparatus includes an isolator, a liquid delivery port that is disposed in the isolator, a sampling section that is disposed inside the isolator, a first flow path that communicates with a discharge flow path of the sampling section, and that connects an inside and outside of the isolator to each other through the liquid delivery port, a fluid supplying unit that supplies a fluid to the sampling section, a gas supplying unit that communicates with the fluid supplying unit, and a seal member that prevents the fluid supplied from fluid supplying unit to the discharge flow path from leaking.

An incubator assembly includes an incubator enclosure having an internal chamber in which a controlled environment is maintained and which is defined by one or more walls. The incubator assembly further includes a jacket assembly mounted adjacent to at least one of the walls and having an internal airspace in which an internal fluid is enclosed for maintaining a homogenous temperature within the internal chamber. The jacket assembly further has a vent movable between a plurality of positions including an open position in which the internal fluid is allowed to exit the internal airspace into an ambient environment.

The present invention relates to an apparatus (1) and method (2) for automatically preparing liquid-based cytology (LBC) slides (107) by means of filtration comprising of at least one substrate (101) for holding a vial (103) containing specimen, a filter (105) and a slide (107) wherein said substrate (101) is located at a first station (FS); at least one working station (WS) comprises of a working platform (109) connected to said first station (FS) wherein said first station (FS) includes a vertical rotary conveyor system (121) which is flexible, user friendly and capable of providing uniformity of the cell distribution in the homogenous thin-layer LBC slides (107) as well as increase system throughput.

Disclosed are embodiments for an engineered feature formed as a part of or on a chamber component. In one embodiment, a chamber component for a processing chamber includes a component part body having unitary monolithic construction. The component part body has an outer surface. An engineered complex surface is formed on the outer surface. The engineered complex surface has a first lattice framework formed from a plurality of first interconnected laths and a plurality of first openings are bounded by three or more laths of the plurality of laths.

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.

In various embodiments a capture surface for capturing high velocity and hypervelocity dust and ice particles is provided. In certain embodiments the capture surface is comprised of a soft metal that is chosen to optimize particle capture efficiency, to minimize thermal degradation of chemicals and biochemical in the particles, and to present the captured particles to an analyzer for chemical and biochemical analysis of the particles and their contents. In various embodiments capture chambers comprising one or more such capture surfaces are provided as well as methods of use thereof.

In various embodiments a capture surface for capturing high velocity and hypervelocity dust and ice particles is provided. In certain embodiments the capture surface is comprised of a soft metal that is chosen to optimize particle capture efficiency, to minimize thermal degradation of chemicals and biochemical in the particles, and to present the captured particles to an analyzer for chemical and biochemical analysis of the particles and their contents. In various embodiments capture chambers comprising one or more such capture surfaces are provided as well as methods of use thereof.

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 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.