Abstract: A method and system are provided for a fastening system comprising: an electrically conductive continuous unitary structure, such as an electrically conductive stud, overmolded into an enclosure, the electrically conductive stud extending from an interior of the enclosure to an exterior of the enclosure. The fastening system may act as a structural member transferring mechanical forces away from the battery enclosure, secure the battery enclosure to a mount, aid in sealing the battery enclosure, and act as an electrical grounding path for the battery through an enclosure formed of a non-electrically conductive composite material.

Abstract: A method and system are provided for a fastening system comprising: an electrically conductive continuous unitary structure, such as an electrically conductive stud, overmolded into an enclosure, the electrically conductive stud extending from an interior of the enclosure to an exterior of the enclosure. The fastening system may act as a structural member transferring mechanical forces away from the battery enclosure, secure the battery enclosure to a mount, aid in sealing the battery enclosure, and act as an electrical grounding path for the battery through an enclosure formed of a non-electrically conductive composite material.

Abstract: An instrument includes a reagent management system. The reagent management system includes a plurality of reagent wells, each reagent well operable to contain a reagent of a plurality of reagents positioned therein. The reagent management system is operable to select a flow of reagent from one of the plurality of reagents. A flexible connection includes a laminate stack and includes a first flexible channel in fluid communication with the reagent management system. The first flexible channel is operable to route the flow of reagent therethrough. A flow cell includes a flow channel in fluid communication with the first flexible channel. The flow channel is operable to route the flow of reagent over analytes positioned in the flow channel. The flexible connection enables the flow cell to be moved by the instrument relative to a fixed reference point in the instrument.

Abstract: The present invention relates to devices, systems, and methods for cutting tissues. In some embodiments, the devices, systems, and methods of the invention relate to cutting tissues into fragments that find use in tissue culture and drug testing applications.

Abstract: An instrument includes a reagent management system. The reagent management system includes a plurality of reagent wells, each reagent well operable to contain a reagent of a plurality of reagents positioned therein. The reagent management system is operable to select a flow of reagent from one of the plurality of reagents. A flexible connection includes a laminate stack and includes a first flexible channel in fluid communication with the reagent management system. The first flexible channel is operable to route the flow of reagent therethrough. A flow cell includes a flow channel in fluid communication with the first flexible channel. The flow channel is operable to route the flow of reagent over analytes positioned in the flow channel. The flexible connection enables the flow cell to be moved by the instrument relative to a fixed reference point in the instrument.

Abstract: Methods and systems are provided for a battery system which comprises a plurality of battery cells housed inside a battery enclosure of a battery pack, a venting system, and a suppressing agent. The venting system comprises a dual-staged venting valve that equalizes pressure during normal operation of the battery system and a vent valve that opens to relieve pressure during a high pressure or temperature event. The suppressing agent is released into the enclosure of the battery pack to reduce further reactions by removing or limiting oxidants within the battery pack. A solenoid is coupled to the dual-staged venting valve and seals the dual-staged venting valve following release of the suppressing agent, allowing for the suppressing agent to remain in the enclosure for a longer period of time in order to provide increased mitigation of future thermal events in the battery enclosure.

Abstract: Methods and systems are provided for a battery system which comprises a plurality of battery cells housed inside a battery enclosure of a battery pack, a venting system, and a suppressing agent. The venting system comprises a dual-staged venting valve that equalizes pressure during normal operation of the battery system and a vent valve that opens to relieve pressure during a high pressure or temperature event. The suppressing agent is released into the enclosure of the battery pack to reduce further reactions by removing or limiting oxidants within the battery pack. A solenoid is coupled to the dual-staged venting valve and seals the dual-staged venting valve following release of the suppressing agent, allowing for the suppressing agent to remain in the enclosure for a longer period of time in order to provide increased mitigation of future thermal events in the battery enclosure.

Abstract: A therapeutic orthopedic device is described. The orthopedic device serves to restrain and limit movement of a human arm and shoulder. The device comprises a torso pillow, a padded forearm support attached to the pillow and a shoulder strap that traverses the clavicle region of the opposite shoulder. The pillow is positioned to rest against the torso of a user and the strap is positioned over the opposite shoulder. The forearm support acts as a shelf upon which the user's forearm may rest in a natural position. Flexible straps extend from the forearm support, over the user's forearm, and engage with the pillow to secure the forearm.

Abstract: An example method includes connecting a flow cell to an instrument. The flow cell includes a flow channel including a manifold section having a manifold section swept volume and a detection section having a detection section swept volume. A ratio of the detection section swept volume to manifold section swept volume is at least 10 to 1. A first reagent is pumped through the flow channel. A first chemical reaction is performed between the first reagent and analytes positioned in the detection section. A subsequent reagent is pumped through the flow channel to flush out the remaining reagent. A concentration of at least 99.95 percent of reagent positioned in the detection section is the subsequent reagent, after pumping a total volume of the subsequent reagent through the flow channel that is equal to or less than 2.5 times a total swept volume of the manifold section plus the detection section.

Abstract: Systems and methods for electric motor cooling. The cooling system, in one example, includes a sealing ring coupled to or formed in a stator and including a flange that axially extends outward from an axial side of the stator. The cooling system further includes a first sealing sleeve with a first sealing interface that is formed between the sealing sleeve and a motor housing and a second sealing interface that is formed between the sealing sleeve and the flange, where a cavity is formed between the sealing sleeve and the sealing ring in which a stator end winding is at least partially immersed in a coolant.

Abstract: A cable support assembly comprising a grommet, a clamp, and a single or a plurality of fasteners. Wherein, the grommet is an elastic grommet comprising clamp section and strain-relief section, and the clamp is a rigid clamp comprising an upper clamp half and a lower clamp half. Wherein, the at least one fastener may tighten the clamp halves together and affix the cable support assembly to a surface.

Abstract: A method and system are provided for a fastening system comprising: an electrically conductive continuous unitary structure, such as an electrically conductive stud, overmolded into an enclosure, the electrically conductive stud extending from an interior of the enclosure to an exterior of the enclosure. The fastening system may act as a structural member transferring mechanical forces away from the battery enclosure, secure the battery enclosure to a mount, aid in sealing the battery enclosure, and act as an electrical grounding path for the battery through an enclosure formed of a non-electrically conductive composite material.

Abstract: A therapeutic orthopedic device is described. The orthopedic device serves to restrain and limit movement of a human arm and shoulder. The device comprises a torso pillow, a padded forearm support attached to the pillow and a shoulder strap that traverses the clavicle region of the opposite shoulder. The pillow is positioned to rest against the torso of a user and the strap is positioned over the opposite shoulder. The forearm support acts as a shelf upon which the user’s forearm may rest in a natural position. Flexible straps extend from the forearm support, over the user’s forearm, and engage with the pillow to secure the forearm.

Abstract: Dry reagent cup assemblies and methods are disclosed. In accordance with an implementation, an apparatus includes a liquid reservoir and dry reagent cup assembly. The liquid reservoir has a base, side wall that extends from the base, and distal opening. The dry reagent cup assembly coupled to the liquid reservoir includes a dry reagent cup and liquid impermeable barrier. The dry reagent cup has a cup base, cup side wall that extends from the cup base, and cup opening. The distal opening of the liquid reservoir faces the cup opening. The liquid impermeable barrier covers the cup opening and separates the liquid reservoir and the dry reagent cup. The dry reagent cup moves between an initial position outside the liquid reservoir and a rehydrating position where the dry reagent cup pierces and passes through an opening in the liquid impermeable barrier and is received within the liquid reservoir.

Abstract: A therapeutic orthopedic device is described. The orthopedic device serves to restrain and limit movement of a human arm and shoulder. The device comprises a torso pillow, a padded forearm support attached to the pillow and a shoulder strap that traverses the clavicle region of the opposite shoulder. The pillow is positioned to rest against the torso of a user and the strap is positioned over the opposite shoulder. The forearm support acts as a shelf upon which the user's forearm may rest in a natural position. Flexible straps extend from the forearm support, over the user's forearm, and engage with the pillow to secure the forearm.

Abstract: A therapeutic pressure band for applying pressure across a muscle or muscle groups on a mammalian limb is described. The band is particularly well suited for treating “shin splints.” The band includes a plurality of straps that are connected together via a connecting material. Ends of each of the straps have adjustable fasteners for securing and tightening the band around a limb. The band also possesses a plurality of pressure members (e.g., elongated rubber tubes) that apply separate and discrete areas or points of pressure in a line across a muscle, tendon, bone, or muscle group and generally perpendicular to a longitudinal axis of the limb.

Abstract: An example method includes connecting a flow cell to an instrument. The flow cell includes a flow channel including a manifold section having a manifold section swept volume and a detection section having a detection section swept volume. A ratio of the detection section swept volume to manifold section swept volume is at least 10 to 1. A first reagent is pumped through the flow channel. A first chemical reaction is performed between the first reagent and analytes positioned in the detection section. A subsequent reagent is pumped through the flow channel to flush out the remaining reagent. A concentration of at least 99.95 percent of reagent positioned in the detection section is the subsequent reagent, after pumping a total volume of the subsequent reagent through the flow channel that is equal to or less than 2.5 times a total swept volume of the manifold section plus the detection section.

Abstract: In one example, a flow cell includes a plurality of inlet ports sized to receive a flow of reagent from one of a plurality of reagents into the flow cell. An outlet port of the flow cell is sized to pass each flow of reagent out of the flow cell. A flow channel of the flow cell is positioned between, and in fluid communication with, each inlet port and the outlet port. The flow channel includes a manifold section and a detection section. The manifold section has a plurality of manifold branches in fluid communication with a common line, wherein each branch is connected to one of each inlet port. The detection section is in fluid communication with the common line and the outlet port. The detection section is operable to perform a plurality of different chemical reactions between the plurality of reagents and analytes positioned in the detection section.