Abstract: A rack has a frame and a plurality of shelves. Each shelf has an enclosing frame member that has two first sides connected by two second sides, a connecting bar that connects the first sides at about the center of the first sides, a plurality of slots provided on the inner surfaces of the second sides, and a plurality of slats, each slat having opposing ends that are fitted into opposing slots at the second sides, and with each slat being connected to the connecting bar. At least one connector is provided for removably connecting each shelf to a portion of the frame.

Abstract: A rack has a frame and a plurality of shelves. Each shelf has an enclosing frame member that has two first sides connected by two second sides, a connecting bar that connects the first sides at about the center of the first sides, a plurality of slots provided on the inner surfaces of the second sides, and a plurality of slats, each slat having opposing ends that are fitted into opposing slots at the second sides, and with each slat being connected to the connecting bar. At least one connector is provided for removably connecting each shelf to a portion of the frame.

Abstract: A sample loader for loading a liquid sample into a plurality of reaction sites within a substrate is provided. The sample loader includes a first blade, and a second blade coupled to the first blade. The sample loader further comprises a flow path between the first blade and second blade configured to dispense a liquid sample to a substrate including a plurality of reaction sites. Further, in various embodiments the liquid sample has an advancing contact angle of 85+/?15 degrees with the first and second blade. Furthermore, loading of the liquid sample dispensed from the flow path to the plurality of reaction sites may be based on capillary action. The first and second blade may dispense the liquid by laterally moving over the plurality of reaction sites, where a motor laterally moves the first and second blade.

Abstract: A case for containing a plurality of biological samples contains a base, a substrate and a cover. The substrate is attached to the base and comprises a plurality of reaction regions configured to receive one or more biological samples. The cover comprises an inner surface and is configured to be attached to the base such that the base and cover together provide a cavity containing the substrate. The inner surface includes a central area and a recessed area disposed about the central area. The central area is configured to cover the reaction regions, while the recessed area is offset from the central area in a direction normal to the inner surface.

Abstract: Microfluidic devices, assemblies, and systems are provided, as are methods of manipulating micro-sized samples of fluids. Microfluidic devices having a plurality of specialized processing features are also provided.

Abstract: A rack has a frame and a plurality of shelves. Each shelf has an enclosing frame member that has two first sides connected by two second sides, a connecting bar that connects the first sides at about the center of the first sides, a plurality of slots provided on the inner surfaces of the second sides, and a plurality of slats, each slat having opposing ends that are fitted into opposing slots at the second sides, and with each slat being connected to the connecting bar. At least one connector is provided for removably connecting each shelf to a portion of the frame.

Abstract: A case for containing a plurality of biological samples contains a base, a substrate and a cover. The substrate is attached to the base and comprises a plurality of reaction regions configured to receive one or more biological samples. The cover comprises an inner surface and is configured to be attached to the base such that the base and cover together provide a cavity containing the substrate. The inner surface includes a central area and a recessed area disposed about the central area. The central area is configured to cover the reaction regions, while the recessed area is offset from the central area in a direction normal to the inner surface.

Abstract: Devices, systems, and methods for battery monitoring are disclosed. An example method performs a first measurement on a battery cell installed in a location to determine a first charging capacity and determines a set of values for a permitted charging capacity trace region based on the first charging capacity and a number of charge/discharge cycles subsequent to performing the first measurement. The example method performs a second measurement on a battery cell installed in the location to determine a second charging capacity and compares the second charging capacity to the permitted charging capacity trace region and determines that the battery cell installed in the location at a time of the second measurement is not the same battery cell installed in the location at the time of the first measurement when the second charging capacity is not a value within the set of permitted values of the charging capacity trace region.

Abstract: A rack has a frame and a plurality of shelves. Each shelf has an enclosing frame member that has two first sides connected by two second sides, a connecting bar that connects the first sides at about the center of the first sides, a plurality of slots provided on the inner surfaces of the second sides, and a plurality of slats, each slat having opposing ends that are fitted into opposing slots at the second sides, and with each slat being connected to the connecting bar. At least one connector is provided for removably connecting each shelf to a portion of the frame.

Abstract: A method of producing a silicon-on-insulator article, the method including: forming a first aluminum nitride layer thermally coupled to a first silicon substrate; forming a second aluminum nitride layer thermally coupled to a second substrate, the second substrate including at least a surface layer of silicon; bonding the first and second aluminum nitride layers of the first and second substrates together so that the first and second aluminum nitride layers are disposed between the first and second substrates; and removing most of the second substrate to leave a layer of silicon that is electrically insulated from but thermally coupled to the first silicon substrate by the first and second aluminum nitride layers.

Abstract: A picker assembly includes a plurality of pickers in selective variable spaced relation, a shaft having a plurality of cam plates, the cam plates co-axial with said shaft and having a variable thickness. The cam plates are in engagement with the pickers and positioned in interstitial spaces between the pickers. The selective variability in spacing is provided by rotation of the shaft such that thickness variation of the cam plates move the respective pickers along an axis parallel to the shaft.

Abstract: A system for performing biological reactions is provided. The system includes a chip including a substrate and a plurality of reaction sites. The plurality of reaction sites are each configured to include a liquid sample of at most one nanoliter. Further, the system includes a control system configured to initiate biological reactions within the liquid samples. The system further includes a detection system configured to detect biological reactions on the chip. According to various embodiments, the chip includes at least 20000 reaction sites. In other embodiments, the chip includes at least 30000 reaction sites.

Abstract: A sample loader for loading a liquid sample into a plurality of reaction sites within a substrate is provided. The sample loader includes a first blade, and a second blade coupled to the first blade. The sample loader further comprises a flow path between the first blade and second blade configured to dispense a liquid sample to a substrate including a plurality of reaction sites. Further, in various embodiments the liquid sample has an advancing contact angle of 85+/?15 degrees with the first and second blade. Furthermore, loading of the liquid sample dispensed from the flow path to the plurality of reaction sites may be based on capillary action.

Abstract: A method of producing a silicon-on-insulator article, the method including: forming a first aluminium nitride layer thermally coupled to a first silicon substrate; forming a second aluminium nitride layer thermally coupled to a second substrate, the second substrate including at least a surface layer of silicon; bonding the first and second aluminium nitride layers of the first and second substrates together so that the first and second aluminium nitride layers are disposed between the first and second substrates; and removing most of the second substrate to leave a layer of silicon that is electrically insulated from but thermally coupled to the first silicon substrate by the first and second aluminium nitride layers.

Abstract: A case for containing a plurality of biological samples contains a base, a substrate and a cover. The substrate is attached to the base and comprises a plurality of reaction regions configured to receive one or more biological samples. The cover comprises an inner surface and is configured to be attached to the base such that the base and cover together provide a cavity containing the substrate. The inner surface includes a central area and a recessed area disposed about the central area. The central area is configured to cover the reaction regions, while the recessed area is offset from the central area in a direction normal to the inner surface.

Abstract: A biological analysis system is provided. The system comprises an interchangeable assembly configured to accommodate any one of a plurality of sample holders, each respective sample holder configured to receive a plurality of samples. The system also includes a control system configured to cycle the plurality of samples through a series of temperatures. The system further includes an optical system configured to detect fluorescent signals emitted from the plurality of samples. The optical system, in particular, can comprise a single field lens, an excitation source, an optical sensor, and a plurality of filter components. The excitation source can be one or more light emitting diodes. The field lens can be a bi-convex lens.

Abstract: A rack has a frame and a plurality of shelves. Each shelf has an enclosing frame member that has two first sides connected by two second sides, a connecting bar that connects the first sides at about the center of the first sides, a plurality of slots provided on the inner surfaces of the second sides, and a plurality of slats, each slat having opposing ends that are fitted into opposing slots at the second sides, and with each slat being connected to the connecting bar. At least one connector is provided for removably connecting each shelf to a portion of the frame.

Abstract: Microfluidic devices, assemblies, and systems are provided, as are methods of manipulating micro-sized samples of fluids. Microfluidic devices having a plurality of specialized processing features are also provided.

Abstract: Microfluidic devices, assemblies, and systems are provided, as are methods of manipulating micro-sized samples of fluids. Microfluidic devices having a plurality of specialized processing features are also provided.