Abstract: A container is disclosed that has a housing and a lid. The lid has a planar portion and a latch that is freely movable parallel to the planar portion of the lid. The latch has a retention feature and a first reference surface that is perpendicular to the planar portion of the lid. There is a latch mechanism coupled to the housing that has an engagement element configured to engage the retention feature of the latch and a first alignment feature having a first alignment surface. The first alignment feature is configured to laterally displace the latch in a first direction such that the first reference surface aligns with the first alignment surface when the lid is brought together with the housing with the fastener laterally displaced away from the engagement element in a second direction that is opposite to the first direction.

Abstract: A drawer assembly is disclosed that includes a removable container ad a receiving tray. The container has a housing having at least one shaped surface and at least one horizontal alignment element coupled to and projecting from the housing. The receiving tray has a base having a redirection feature and at least one horizontal alignment hole in the base that is configured to accept the horizontal alignment element. The container and receiving tray are configured such that downward motion of the container with the shaped surface of the housing in contact with the redirection feature of the base induces a lateral motion of the container according to the engagement of the shaped surface and the redirection feature that causes the horizontal alignment element to slide into the horizontal alignment hole.

Abstract: A drawer assembly has a removable container and a receiving tray. The container has a housing having at least one shaped surface and at least one horizontal alignment element coupled to and projecting from the housing. The receiving tray has a base having a redirection feature and at least one horizontal alignment hole in the base that is configured to accept the horizontal alignment element. The container and receiving tray are configured such that downward motion of the container with the shaped surface of the housing in contact with the redirection feature of the base induces a lateral motion of the container according to the engagement of the shaped surface and the redirection feature that causes the horizontal alignment element to slide into the horizontal alignment hole.

Abstract: A preload mechanism for a memory alloy wire actuator is disclosed that includes a rotating element configured to rotate about a pivot. The rotating element has a first contact point that is configured to couple to the memory alloy wire actuator such that contraction of the memory alloy wire actuator displaces the first contact point such that the rotating element rotates from a first position to a second position. The preload mechanism also includes a bias element with a first end that is coupled to a second contact point of the rotating element and a second end configured to be pinned relative to the pivot. The bias element has a line of action extending from the second end through the first end. The line of action has an offset distance that is the minimum distance between the line of action and the pivot.

Abstract: A preload mechanism for a memory alloy wire actuator is disclosed that includes a rotating element configured to rotate about a pivot. The rotating element has a first contact point that is configured to couple to the memory alloy wire actuator such that contraction of the memory alloy wire actuator displaces the first contact point such that the rotating element rotates from a first position to a second position. The preload mechanism also includes a bias element with a first end that is coupled to a second contact point of the rotating element and a second end configured to be pinned relative to the pivot. The bias element has a line of action extending from the second end through the first end. The line of action has an offset distance that is the minimum distance between the line of action and the pivot.

Abstract: A self-aligning memory alloy wire actuator has a memory alloy wire having first and second ends with at least one terminal coupled to one end of the memory alloy wire. The terminal includes two wings and an extended piece connected in the shape of a T. The two wings are disposed on opposite sides of the extended piece and perpendicular to the extended piece. Each wing comprises top and bottom surfaces, a front surface, and an outside end. The top surfaces of the two wings lie on a common top plane and the front surfaces of the two wings lie on a common front plane. The memory alloy wire is coupled to the extended piece of the terminal.

Abstract: A dispensing system has a cartridge with a body having a plurality of bins and a plurality of attached lids that cover the respective bins when the lids are closed. The body has an external connector and the lids are opened by receipt of a command signal through the connector. The system also includes a cabinet with a docking location configured to accept a cartridge. The cabinet has a docking connector that connects to the cartridge connector when the cartridge is placed on the docking location. The cabinet also has a controller that sends the command signal through the docking connector to the cartridge to open one or more of the lids.

Abstract: A system and method are disclosed for applying multi-layered identification techniques to associate live fireground Asset information (e.g., handheld radio messages, breathing apparatus status data) to identify incident personnel and provide graphical, prioritized Rollcall, personnel accountability, and emergency alert reporting to incident commanders and other personnel. In one aspect, the system may capture, display, and store routine and emergency alerting messages and data received at incidents from handheld radios and other Assets, associate that information with other data to specifically identify first responder personnel, and provide an automated and prioritized Rollcall and personnel accountability report based on received transmissions. The system has applicability for fire departments and fireground usage, as well as other first responders, military personnel operations, and other organizations needing to account for on-scene personnel.

Abstract: A self-aligning memory alloy wire actuator has a memory alloy wire having first and second ends with at least one terminal coupled to one end of the memory alloy wire. The terminal includes two wings and an extended piece connected in the shape of a T. The two wings are disposed on opposite sides of the extended piece and perpendicular to the extended piece. Each wing comprises top and bottom surfaces, a front surface, and an outside end. The top surfaces of the two wings lie on a common top plane and the front surfaces of the two wings lie on a common front plane. The memory alloy wire is coupled to the extended piece of the terminal.

Abstract: A tilt control for a tiltable mount and a mount including a tilt control are provided. The mount has first and second brackets mounted for rotation or tilting, such as about a shaft. The second bracket might be a monitor mount tiltable relative to an arm bracket. The tilt control includes a friction brake and an over-running clutch configured to disengage the friction brake to permit upward rotation or tilting, but engage the friction brake for controlling the downward rotation or tilting. The friction brake is engaged by the over-running clutch to control downward tilting. The friction brake generates a counter-acting force to retain a mounted device such as a video monitor and/or keyboard in fixed position against drooping, but to permit downward tilting upon application by a user of an adjustment force.

Abstract: A container for use in a dispensing system is disclosed. The container comprises a body, a linkage element movably attached to the body, a control module, and an actuator comprising a memory wire having a length and a terminator that is attached to the memory wire. The linkage element has a first position and a second position, and the actuator is mechanically coupled to the linkage element. The control module is attached to the body and comprises a contact element. The terminator is attached to the body and electrically coupled to the contact element, wherein the electrical coupling between the memory wire and the contact element is mechanically compliant such that the position of the terminator relative to the body is invariant when the position of the control module relative to the body varies.

Abstract: Reconstituted bacterial replication assemblies and methods for their use are provided.

Abstract: A container is described. The container includes a receptacle, lid, and fastener. The receptacle includes a latch. The lid is coupled to the receptacle and moves between an open and a closed position. The fastener is coupled to the lid and fastens the lid to the receptacle. The fastener includes first, second, third, and fourth portions. The first portion is coupled to the lid and extends along a first axis that is perpendicular to a plane of the lid when the lid is in the closed position. The second portion is coupled to the first portion and extends along a second axis that is perpendicular to the first axis. The third portion is coupled to the second portion and extends along an axis that is parallel to the first axis. The fourth portion is coupled to the third portion and includes a contact member that couples to the latch.

Abstract: A cartridge for use in a dispensing system is disclosed. The cartridge includes a body having an exterior and a plurality of bins. A plurality of lids are movably attached to the body and are configured to cover a bin. A release mechanism is movable along an axis. A plurality of latches are movably attached to the body. Each latch is configured to secure the respective lid when in a first position and to release the respective lid when in a second position. The release mechanism will not cause a latch to move to the second position when the release mechanism is moving along the axis in a first direction. The release mechanism will cause a single latch to move to the second position while leaving the remaining latches in the first position when the release mechanism is moving along the axis in a second direction.

Abstract: A medication cabinet that includes at least one drawer, a drive mechanism, and a drawer latching mechanism, is disclosed. The drawer includes a slider, and a container that includes a receptacle and a lid that moves between an open position and a closed position. The container also includes a fastener to fasten the lid to the receptacle. The slider maintains the lid in the closed position when at least a portion of the wall is coupled with the fastener, and actuates the lid from the closed position to the open position when the fastener passes through an opening in the wall. The drive mechanism controls longitudinal movement of the slider, and is mounted to the chassis, allowing the drawer to be free of electrical connections with the chassis. When the drive mechanism is not used to move the lid into the open position, longitudinal movement of the slider is inhibited.

Abstract: A drawer assembly is disclosed that includes a removable container ad a receiving tray. The container has a housing having at least one shaped surface and at least one horizontal alignment element coupled to and projecting from the housing. The receiving tray has a base having a redirection feature and at least one horizontal alignment hole in the base that is configured to accept the horizontal alignment element. The container and receiving tray are configured such that downward motion of the container with the shaped surface of the housing in contact with the redirection feature of the base induces a lateral motion of the container according to the engagement of the shaped surface and the redirection feature that causes the horizontal alignment element to slide into the horizontal alignment hole.

Abstract: A container for use in a dispensing system is disclosed. The container comprises a body, a linkage element movably attached to the body, a control module, and an actuator comprising a memory wire having a length and a terminator that is attached to the memory wire. The linkage element has a first position and a second position, and the actuator is mechanically coupled to the linkage element. The control module is attached to the body and comprises a contact element. The terminator is attached to the body and electrically coupled to the contact element, wherein the electrical coupling between the memory wire and the contact element is mechanically compliant such that the position of the terminator relative to the body is invariant when the position of the control module relative to the body varies.

Abstract: A preload mechanism for a memory alloy wire actuator is disclosed that includes a rotating element configured to rotate about a pivot. The rotating element has a first contact point that is configured to couple to the memory alloy wire actuator such that contraction of the memory alloy wire actuator displaces the first contact point such that the rotating element rotates from a first position to a second position. The preload mechanism also includes a bias element with a first end that is coupled to a second contact point of the rotating element and a second end configured to be pinned relative to the pivot. The bias element has a line of action extending from the second end through the first end. The line of action has an offset distance that is the minimum distance between the line of action and the pivot.

Abstract: A container is disclosed that has a housing and a lid. The lid has a planar portion and a latch that is freely movable parallel to the planar portion of the lid. The latch has a retention feature and a first reference surface that is perpendicular to the planar portion of the lid. There is a latch mechanism coupled to the housing that has an engagement element configured to engage the retention feature of the latch and a first alignment feature having a first alignment surface. The first alignment feature is configured to laterally displace the latch in a first direction such that the first reference surface aligns with the first alignment surface when the lid is brought together with the housing with the fastener laterally displaced away from the engagement element in a second direction that is opposite to the first direction.

Abstract: A self-aligning memory alloy wire actuator has a memory alloy wire having first and second ends with at least one terminal coupled to one end of the memory alloy wire. The terminal includes two wings and an extended piece connected in the shape of a T. The two wings are disposed on opposite sides of the extended piece and perpendicular to the extended piece. Each wing comprises top and bottom surfaces, a front surface, and an outside end. The top surfaces of the two wings lie on a common top plane and the front surfaces of the two wings lie on a common front plane. The memory alloy wire is coupled to the extended piece of the terminal.