Abstract: Methods, apparatuses, and testing devices comprising a fluid management layer including a fluid management body, a sample port defined in the fluid management body, an assay strip encased in the fluid management body along a fluid path, a valve defined on the assay strip, and a first internal vent having a first vent inlet, a first vent outlet, and a first venting channel connecting the first vent inlet to the first vent outlet, wherein the first vent inlet is arranged at a first location in the fluid management body along the fluid path downstream of the valve, and the first vent outlet is at a second location in the fluid management body upstream of the valve.

Abstract: Provided are methods and associated apparatus for determining the integrity of a hermetically sealed electronic component. The method and associated apparatus includes the use of an evacuation chamber configured to placing the hermetically sealed electronic component within. The evacuation chamber is then evacuated of atmosphere to then determine an atmospheric pressure evacuation relationship or curve occurring inside the chamber that is, in turn, used to determine the integrity of the hermetically sealed electronic component. Further aspects may include evacuating the chamber through a mass spectrometer coupled to the evacuation chamber for chemical analysis of at least one of the evacuated atmosphere for making further determinations of the integrity of the hermetically sealed electronic component.

Abstract: An electrical feedthrough assembly may include a lower assembly and an upper assembly coupled together. The lower assembly may include an outer body with a lower housing and an upper housing disposed within a bore of the outer body, and a first conductor extending from the lower housing to the upper housing. Additionally, the upper assembly may include an outer body with a pin end, the pin end is inserted into an opening of the lower assembly, a main body connected to the outer body, a second conductor disposed within the main body, a channel in the outer body open to an outside of the outer body and a chamber within the outer body, a piston disposed within the channel and configured to fluidly isolate the chamber from the outside of the outer body, and a dielectric fluid provided within the chamber.

Abstract: An electrical feedthrough assembly has a lower assembly having a first end and a second end. The lower assembly includes an outer body with a lower housing and an upper housing disposed within a bore of the outer body and a first conductor extending from the lower housing to the upper housing. Additionally, the lower housing extends axial outward from the outer body to form the first end and the upper housing extends axial outward from the outer body to form the second end. Further, the electrical feedthrough assembly has an upper assembly having body extending from a first end to a second end. The second body includes a pin end at the first end and the pin end is inserted into an opening of the second end of the lower assembly. A second conductor is disposed within the body. A chamber within the body holds the first conductor.

Abstract: An electrical feedthrough assembly has a lower assembly having a first end and a second end. The lower assembly includes an outer body with a lower housing and an upper housing disposed within a bore of the outer body and a first conductor extending from the lower housing to the upper housing. Additionally, the lower housing extends axial outward from the outer body to form the first end and the upper housing extends axial outward from the outer body to form the second end. Further, the electrical feedthrough assembly has an upper assembly having body extending from a first end to a second end. The second body includes a pin end at the first end inserted into an opening of the second end of the lower assembly. A second conductor is disposed within the body. A piston is disposed within the body configured to move the second conductor.

Abstract: An electrical feedthrough assembly may include a lower assembly and an upper assembly coupled together. The lower assembly may include an outer body with a lower housing and an upper housing disposed within a bore of the outer body, and a first conductor extending from the lower housing to the upper housing. Additionally, the upper assembly may include an outer body with a pin end, the pin end is inserted into an opening of the lower assembly, a main body connected to the outer body, a second conductor disposed within the main body, a channel in the outer body open to an outside of the outer body and a chamber within the outer body, a piston disposed within the channel and configured to fluidly isolate the chamber from the outside of the outer body, and a dielectric fluid provided within the chamber.

Abstract: An electrical feedthrough assembly has a lower assembly having a first end and a second end. The lower assembly includes an outer body with a lower housing and an upper housing disposed within a bore of the outer body and a first conductor extending from the lower housing to the upper housing. Additionally, the lower housing extends axial outward from the outer body to form the first end and the upper housing extends axial outward from the outer body to form the second end. Further, the electrical feedthrough assembly has an upper assembly having body extending from a first end to a second end. The second body includes a pin end at the first end and the pin end is inserted into an opening of the second end of the lower assembly. A second conductor is disposed within the body. A chamber within the body holds the first conductor.

Abstract: An electrical feedthrough assembly has a lower assembly having a first end and a second end. The lower assembly includes an outer body with a lower housing and an upper housing disposed within a bore of the outer body and a first conductor extending from the lower housing to the upper housing. Additionally, the lower housing extends axial outward from the outer body to form the first end and the upper housing extends axial outward from the outer body to form the second end. Further, the electrical feedthrough assembly has an upper assembly having body extending from a first end to a second end. The second body includes a pin end at the first end inserted into an opening of the second end of the lower assembly. A second conductor is disposed within the body. A piston is disposed within the body configured to move the second conductor.

Abstract: According to an implementation, a host computing device receives, from a first computing device, a data collection request of a first user. The data collection request indicates a data point (whose characteristics are defined in a mark-up language schema) that is to be the subject of the data collection and identifies a second user as provider of a value for the data point. The host computing device notifies the second user of the data collection request and receives, from a second computing device, a request of the second user for the data point to be assigned a plurality of categories. In response to the request of the second user, the host computing device extends the mark-up language schema to characterize the plurality of categories within the mark-up language schema.

Abstract: A gravity-based angle sensor apparatus includes an outer housing (which may be incorporated into a carpenter's level or other reference frame) that contacts or is fastened to a workpiece, and a sensor assembly rotatably mounted within the outer housing. The sensor assembly includes a frame having internal cavities for supporting a LED light module and a sensor responsive to the orientation of the sensor assembly. The sensor electrically bridges two terminals of the LED light module to activate an LED indicator lamp when the sensor assembly has a reference horizontal orientation.

Abstract: According to an implementation, a host computing device receives, from a first computing device, a data collection request of a first user. The data collection request indicates a data point (whose characteristics are defined in a mark-up language schema) that is to be the subject of the data collection and identifies a second user as provider of a value for the data point. The host computing device notifies the second user of the data collection request and receives, from a second computing device, a request of the second user for the data point to be assigned a plurality of categories. In response to the request of the second user, the host computing device extends the mark-up language schema to characterize the plurality of categories within the mark-up language schema.

Abstract: According to an implementation, a host computing device receives, from a first computing device, a data collection request of a first user. The data collection request indicates a data point (whose characteristics are defined in a mark-up language schema) that is to be the subject of the data collection and identifies a second user as provider of a value for the data point. The host computing device notifies the second user of the data collection request and receives, from a second computing device, a request of the second user for the data point to be assigned a plurality of categories. In response to the request of the second user, the host computing device extends the mark-up language schema to characterize the plurality of categories within the mark-up language schema.

Abstract: In a communications system having at least one service entity and a plurality of endpoints each including a logical entity and a terminal, a method facilitates a session between at least two of the endpoints in the system. The method includes: receiving a first message having information that includes a request for a session between a first endpoint that includes a non-dispatch terminal and at least one other endpoint; detecting that the first endpoint includes a non-dispatch terminal as a function of the first endpoint being unable to perform at least one function; and causing the at least one function to be performed on behalf of the first endpoint by the at least one service entity to facilitate the session between the first endpoint and the at least one other endpoint.

Abstract: A method and system for group communications is described. The system includes a plurality of endpoints and at least one group entity that receives from an initiating endpoint, using a transactional protocol, a first message requesting an initiation of a session between a plurality of endpoints affiliated with a group that correlates to the group entity. The group entity further: causes the session to be accepted in order to start the session; upon the acceptance and start of the session causes the presence of the session to be communicated, using a broadcast protocol, to the plurality of endpoints affiliated with the group; and communicates to the initiating endpoint, using the transactional protocol, the acceptance of the session.

Abstract: In a communications system having at least one service entity and a plurality of endpoints each including a logical entity and a terminal, a method facilitates a session between at least two of the endpoints in the system. The method includes: receiving a first message having information that includes a request for a session between a first endpoint that includes a non-dispatch terminal and at least one other endpoint; detecting that the first endpoint includes a non-dispatch terminal as a function of the first endpoint being unable to perform at least one function; and causing the at least one function to be performed on behalf of the first endpoint by the at least one service entity to facilitate the session between the first endpoint and the at least one other endpoint.

Abstract: In a communications system having a plurality of endpoints each including a logical entity and its physical counterpart, a method for group affiliation. The method including the steps of: receiving a first message from a requestor via application layer routing that includes an affiliation request; generating a response to the affiliation request as a function of the type of affiliation request received; and communicating the response to the affiliation request to the requestor via application layer routing.

Abstract: In a communications system having a plurality of endpoints (240,242,246) each including a logical entity and its physical counterpart, a system for controlling and managing session between at least two endpoints. The system including a registration manager (202), an application layer router (204), a session controller (206), a group database manager (208), and at least one group entity (210).

Abstract: The present invention allows a subscriber to dynamically select one or more call processing options while an attempt to terminate an incoming call to an associated terminal is being made. As such, the terminal is either ringing or providing some other indication that an incoming call is being received. Throughout the process, the incoming call may be answered via the terminal. While the attempt to terminate the call is being made, an incoming call message is sent to a computing device associated with the subscriber. The computing device, upon receiving the incoming call message, will provide one or more call processing options to the subscriber. If the subscriber selects one of the call processing options, the computing device will send a subscriber response message identifying the selected call processing option. Based on the selected call processing option, the incoming call will be processed accordingly.

Abstract: A method of network operation provides reliable session communication within a communication network. A communication session is initiated by an endpoint using a transactional protocol to send a communication session request to a server. The server sends a second communication session request to the at least one other endpoint. An announcement is generated and sent using a broadcast protocol from the server to the at least one other endpoint. The communication session is thereafter started by the at least one other endpoint in response to receiving the broadcast protocol announcement.

Abstract: A method for managing floor control in a network is disclosed. The method includes beginning a ballot timer when at least one of a) a first node packet is created at the node and b) a second node packet is received at the node from a second node. The first node packet comprises a first timestamp and the second node packet comprises a second timestamp. The ballot timer runs for a first predefined time interval. The method further includes determining a floor holder upon expiration of the first predefined time interval based upon an earliest time of the first timestamp and the second timestamp. Further, the node and the second node have a same absolute timing reference.