Abstract: A fluid container holder includes a body having a receptacle configured to receive a container. The body has a conductive outer surface for connection to an electrical ground or voltage source, and the holder is not formed solely of an electrically conductive metal. A fluid container handling assembly includes a drawer having a holder supporting a fluid container, and a frame supporting the holder. The frame is movable between a first position providing access to the holder and a second position positioning the holder within the instrument. The assembly also includes a first lock securing the holder to the frame when the frame is at the first frame position and unlocking the holder from the frame when the frame is at the second frame position. The assembly also includes a holder transporter configured to move the holder between a first holder position and a second holder position within the instrument.

Abstract: A method for performing a nucleic acid amplification assay employs a thermally-conductive receptacle holder with one or more receptacle wells, each conforming to an outer surface of a lower portion of a vial. A through-hole extends from an inner surface of each well to an outer surface of the holder. A thermal element is positioned proximal to the holder for altering a temperature of the holder. A signal detection module is configured to generate an excitation signal directed through the through-hole of the well and detect an optical emission from a fluid contained in the vial supported by the well. At least one well supports a capped vial containing a reagent for a nucleic acid amplification assay and including an opaque cap sealing an open end of the vial. The lower portion of the vial is contained within a well, and the cap is situated above a top surface of the holder.

Abstract: A method for controlling a printing process by which a print head prints an image onto predetermined printable area of a label.

Abstract: A cover assembly may include a tray assembly frame, a first cover supported by the tray assembly frame, the first cover extending in a first plane and defining one or more first openings; a second cover supported by the tray assembly frame, the second cover extending in a second plane and defining one or more second openings, wherein the first and second planes are different planes, and wherein the second cover is disposed above the first cover. The cover assembly may include one or more tray holders, each tray holder being configured to hold at least one tray in an upright orientation, wherein each tray holder is moveable between an open position and a closed position, the tray holders being accessible for loading or removing the trays in the open position, and the tray holders being positioned beneath the first and second covers in the closed position.

Abstract: A system for performing a nucleic acid amplification assay that includes a receptacle holder formed from a thermally conductive material and having a receptacle well for receiving a lower portion of a vial; a thermal element for cycling the temperature of the receptacle holder; a signal detection module in optical communication with the receptacle well; and a robotic pipettor. The receptacle holder supports a capped vial having a plastic, opaque cap in a snap-fit with a single plastic vial containing a nucleic acid amplification reagent. An upper portion of the cap includes a probe recess that is configured to be removably engaged by an end of a probe of the robotic pipettor. A lower portion of the vial is contained within the receptacle well, and the cap is situated above a top surface of the receptacle holder.

Abstract: Receptacles containing a reaction mixture are transported to receptacle wells of a thermally conductive receptacle holder, and the temperature of the holder is cycled with a thermoelectric device situated between a support and a first side of the holder while a first force is applied onto a second side of the holder. Optical communication between each well and an excitation signal source and an emission signal detector is established to determine whether an emission signal is emitted from any of the receptacles during temperature cycling as an indication of the presence of a target nucleic acid. The thermoelectric device may be situated between an upright portion of the support and the first side of the holder. A second force may be applied onto a top end of each receptacle in the holder by a cover moveable with respect to the receptacles between an open position and a closed position.

Abstract: A diagnostic system is configured to perform first and second, different nucleic acid amplification reactions. The system includes a bulk reagent container compartment configured to store first bulk reagent container containing a first bulk reagent for performing sample preparation processes with a first subset and a second subset of a plurality of samples and a second bulk reagent container containing a second bulk reagent for performing the first nucleic acid amplification reaction. The system includes a unit-dose reagent compartment storing a unit-dose reagent pack including unit-dose reagents for performing the second nucleic acid amplification reaction.

Abstract: A cap that is securable to a vial includes a plug configured for insertion into an open end of the vial. An upper portion of the cap defines a probe recess with an open top end and configured to receive a distal end of a probe of a pipettor inserted into the open top end, to frictionally secure the cap to an end of the probe. The cap includes a radially-oriented annular surface with one or more locking members depending from a periphery of the annular surface. The locking members are spaced from the plug and each locking member includes a radial locking groove and a radial locking ridge beneath the radial locking groove. A lip of the vial snaps into the radial locking groove above the radial locking ridge to secure the cap to the vial when the plug is inserted into the open end of the vial.

Abstract: A container includes a base with a top wall, a vessel depending from a top wall aperture in the top wall, a fluid retainer projecting above the top wall and surrounding the top wall aperture, and a skirt surrounding the vessel and including opposed grooves for gripping the container. A lid is disposed on a top end of the base and includes a cover wall with a lid aperture generally aligned with the top wall aperture of the base. A septum is disposed between the top wall of the base and the cover wall with a portion of the septum disposed between the lid aperture and the top wall aperture. Fluid retainer/return structure is configured to prevent fluid deposited on the septum from dripping off the container and to allow at least a portion of the fluid deposited on the septum to run off the septum and into the vessel.

Abstract: A processing module is configured to extend the capabilities of an analyzer configured to process substances within each of a plurality of receptacles. The module includes a container transport configured to transport a container from a location within the processing module to a location within the analyzer that is accessible to a substance transfer device of the analyzer. A receptacle distribution system is configured to receive a receptacle from the analyzer, transfer the receptacle into the processing module, and to move the receptacle between different locations within the analyzer. A substance transfer device of the module is configured to dispense substances into or remove substances from the receptacle within the processing module. A reagent card exchanger provides an input device for inserting reagent cards into and removing reagent cards from the module, stores reagent cards within the module, and transfers reagent cards to different location within the module.

Abstract: A printing module configured to print a label on a curved surface of an article includes an expandable printing mechanism configured to be expanded to an open configuration for receiving the article or contracted to a closed configuration placing the curved surface in an operative position with respect to a print head and an article moving assembly configured to grasp and hold the article and effect relative movement between the curved surface and the print head. The printing mechanism includes contact elements, such as rollers, that contact or otherwise engage the article when the printing mechanism is in the closed configuration and maintain the curved surface in the operative position with respect to the print head during relative movement between the curved surface and the print head.

Abstract: A printing module configured to print a label on a curved surface of an article includes an expandable printing mechanism configured to be expanded to an open configuration for receiving the article or contracted to a closed configuration placing the curved surface in an operative position with respect to a print head and an article moving assembly configured to grasp and hold the article and effect relative movement between the curved surface and the print head. The printing mechanism includes contact elements, such as rollers, that contact or otherwise engage the article when the printing mechanism is in the closed configuration and maintain the curved surface in the operative position with respect to the print head during relative movement between the curved surface and the print head.

Abstract: A printing module configured to print a label on a curved surface of an article includes an expandable printing mechanism configured to be expanded to an open configuration for receiving the article or contracted to a closed configuration placing the curved surface in an operative position with respect to a print head and an article moving assembly configured to grasp and hold the article and effect relative movement between the curved surface and the print head. The printing mechanism includes contact elements, such as rollers, that contact or otherwise engage the article when the printing mechanism is in the closed configuration and maintain the curved surface in the operative position with respect to the print head during relative movement between the curved surface and the print head.

Abstract: A receptacle holder for supporting at least one fluid-containing receptacle includes a body and an RFID transponder. The body includes an electrically conductive portion defining a first recess configured to receive at least a first fluid-containing receptacle, and an electrically non-conductive portion attached to the electrically conductive portion. The RFID transponder is disposed on the electrically non-conductive portion of the body, and stores information about the receptacle holder. The receptacle holder can also include the first fluid-containing receptacle received within the first recess.

Abstract: One or more temperature cycles are applied to the contents of a processing vial closed by an interlocked cap within a thermal cycler. The processing vial and the interlocked cap are transferred from the thermal cycler to a storage compartment within the instrument with a transfer mechanism with a probe engaged with the cap. In the storage compartment, the processing vial and interlocked cap are moved to an access opening in the instrument and are removed from the instrument through the access opening.

Abstract: A thermally conductive receptacle holder includes a plurality of wells that each receive a receptacle. A cross-brace is mounted to a support to exert a force onto an outer surface of a compressive housing such that the compressive housing exerts a force onto the receptacle holder. An optical fiber associated with each well provides optical communication between the receptacle well and an excitation signal source and/or an emission signal detector.

Abstract: A receptacle cap includes a probe recess configured to receive a probe inserted therein to thereby frictionally secure the receptacle cap to the probe, and a closed lower end of the receptacle is insertable into an open end of a reaction receptacle to close the reaction receptacle. The receptacle cap and the reaction receptacle include interlocking features for securing the receptacle cap to the reaction receptacle.

Abstract: An apparatus for performing nucleic acid amplification reactions includes a thermally-conductive receptacle holder that includes multiple receptacle wells. Each well can receive a receptacle and has a through-hole extending from an inner surface of the well to an outer surface of the holder. The apparatus includes multiple optical fibers, and each optical fiber has a first end in optical communication with an associated well and a second end in optical communication with an excitation signal source and/or an emission signal detector. The first end of each optical fiber is moveable with respect to the through-hole. A cover is movable between an open position and a closed position relative to the receptacle holder, and the first end of each optical fiber moves with respect to the through-hole of the associated well as the cover moves to the open or closed position or when the cover moves into or out of contact with any receptacles within the wells.