Abstract: A remote monitoring system for monitoring inventory, process, and product life-cycle data is disclosed. Data may be collected from the remote monitoring system. The data can include information on raw material components, source information, production or storage location and movement, production or storage temperature, production or storage barometric pressure, packaging, distribution, sales, or combinations thereof.

Abstract: A remote monitoring system for monitoring inventory, process, and product life-cycle data is disclosed. Data may be collected from the remote monitoring system. The data can include information on raw material components, source information, production or storage location and movement, production or storage temperature, production or storage barometric pressure, packaging, distribution, sales, or combinations thereof.

Abstract: A remote monitoring system for monitoring inventory, process, and product life-cycle data is disclosed. Data may be collected from the remote monitoring system. The data can include information on raw material components, source information, production or storage location and movement, production or storage temperature, production or storage barometric pressure, packaging, distribution, sales, or combinations thereof.

Abstract: Systems and methods for remotely monitoring liquids that are stored in containers are provided. Various aspects of the liquid can be monitored, such as volume level, pressure level, and temperature. Liquid monitoring systems can be installed into each container, with each liquid monitoring system collecting information and wirelessly providing it to a centralized monitoring system.

Abstract: Apparatus and associated methods relate to a marker-buoy deployment system having a launching module that becomes armed by inserting a marker buoy, then laterally launches a loaded marker buoy in response to a user command. In an illustrative embodiment, launching module may be spring operated. In some embodiments, the release device may be foot operated. In an exemplary embodiment, a safety device may prevent an accidental launch, for example, from a trailered boat. In some embodiments, a visual indicator may indicate whether the safety is on, or the buoy has been loaded or launched. In some embodiments, a deployed-buoy location system may record the location coordinates of one or more deployed marker buoys. In an exemplary embodiment, marker buoys may be loaded automatically from a magazine each time a marker buoy is deployed. In some embodiments, marker-buoys may advantageously be deployed by a boater whose hands are otherwise occupied.

Abstract: Apparatus and associated methods relate to a marker-buoy deployment system having a launching module that becomes armed by inserting a marker buoy, then laterally launches a loaded marker buoy in response to a user command. In an illustrative embodiment, launching module may be spring operated. In some embodiments, the release device may be foot operated. In an exemplary embodiment, a safety device may prevent an accidental launch, for example, from a trailered boat. In some embodiments, a visual indicator may indicate whether the safety is on, or the buoy has been loaded or launched. In some embodiments, a deployed-buoy location system may record the location coordinates of one or more deployed marker buoys. In an exemplary embodiment, marker buoys may be loaded automatically from a magazine each time a marker buoy is deployed. In some embodiments, marker-buoys may advantageously be deployed by a boater whose hands are otherwise occupied.

Abstract: An implantable lead comprises a lead body extending from a lead proximal end portion to a lead distal end portion. The lead body includes one or more longitudinally extending lumens. A conductor is received in, and extends along, a lumen. In varying examples, the implantable lead further comprises a tubular electrode co-axial with, and overlying portions of, the lead body. In one example, a lumen wall is sized and shaped to urge an electrically conductive interposer coupled with the conductor toward an inner surface of the electrode. In another example, a ring member is disposed within a lumen and the conductor is drawn and coupled thereto. In yet another example, an electrically conductive connector couples a first and a second conductor via grooves or threads. In a further example, an axial support member couples a distal end electrode and the lead body. Methods associated with the foregoing are also discussed.

Abstract: An implantable lead comprises a lead body extending from a lead proximal end portion to a lead distal end portion. The lead body includes one or more longitudinally extending lumens. A conductor is received in, and extends along, a lumen. In varying examples, the implantable lead further comprises a tubular electrode co-axial with, and overlying portions of, the lead body. In one example, a lumen wall is sized and shaped to urge an electrically conductive interposer coupled with the conductor toward an inner surface of the electrode. In another example, a ring member is disposed within a lumen and the conductor is drawn and coupled thereto. In yet another example, an electrically conductive connector couples a first and a second conductor via grooves or threads. In a further example, an axial support member couples a distal end electrode and the lead body. Methods associated with the foregoing are also discussed.

Abstract: An implantable lead comprises a lead body extending from a lead proximal end portion to a lead distal end portion. The lead body includes one or more longitudinally extending lumens. A conductor is received in, and extends along, a lumen. In varying examples, the implantable lead further comprises a tubular electrode co-axial with, and overlying portions of, the lead body. In one example, a lumen wall is sized and shaped to urge an electrically conductive interposer coupled with the conductor toward an inner surface of the electrode. In another example, a ring member is disposed within a lumen and the conductor is drawn and coupled thereto. In yet another example, an electrically conductive connector couples a first and a second conductor via grooves or threads. In a further example, an axial support member couples a distal end electrode and the lead body. Methods associated with the foregoing are also discussed.

Abstract: An implantable lead comprises a lead body extending from a lead proximal end portion to a lead distal end portion. In one example, the lead body may comprise a heat-formed bias portion. In another example, an outer insulator is fused to the lead body. In such an example, a lead body fusable plug may be disposed distal to at least one conductor. In another example, the lead comprises an inner boot and an outer boot fused to one another. In another example, the lead includes an atraumatic tip fused to the lead distal end portion. In another example, the lead body is reducable in size using heat shrink tubing. In yet another example, two or more lead sections may be interconnected using an outer insulator fused to the respective lead bodies. In a further example, a stiffener member is fused to the lead body adjacent a lead component.

Abstract: An implantable lead comprises a lead body extending from a lead proximal end portion to a lead distal end portion. The lead body includes one or more longitudinally extending lumens. A conductor is received in, and extends along, a lumen. In varying examples, the implantable lead further comprises a tubular electrode co-axial with, and overlying portions of, the lead body. In one example, a lumen wall is sized and shaped to urge an electrically conductive interposer coupled with the conductor toward an inner surface of the electrode. In another example, a ring member is disposed within a lumen and the conductor is drawn and coupled thereto. In yet another example, an electrically conductive connector couples a first and a second conductor via grooves or threads. In a further example, an axial support member couples a distal end electrode and the lead body. Methods associated with the foregoing are also discussed.

Abstract: The present invention relates to a telecommunications termination panel with a housing including a front opening and a rear opening. Pivotably mounted within the housing is a tray within the front opening, pivoting about a vertical axis located adjacent a first side of the housing. A cable path is defined along a bottom of the housing along the first side between the cable entry of the tray and the rear opening. A movable plate is positioned adjacent the first side and is movable between a first position defining an upper limit of the cable path when the tray is closed and a second position allowing access to the cable path when the tray is open. The movement of the plate between the first and second positions is actuated by the movement of the tray between the closed and open positions. The present invention further relates to a telecommunications termination panel with a housing including a front opening.

Abstract: The present invention relates to a telecommunications termination panel with a housing including a front opening and a rear opening. Pivotably mounted within the housing is a tray within the front opening, pivoting about a vertical axis located adjacent a first side of the housing. A cable path is defined along a bottom of the housing along the first side between the cable entry of the tray and the rear opening. A movable plate is positioned adjacent the first side and is movable between a first position defining an upper limit of the cable path when the tray is closed and a second position allowing access to the cable path when the tray is open. The movement of the plate between the first and second positions is actuated by the movement of the tray between the closed and open positions. The present invention further relates to a telecommunications termination panel with a housing including a front opening.

Abstract: A motor vehicle trunk door articulated to the ends of a first arm mounted pivoting, at its other end, about a vertical lateral pin integral with a body. The truck door moves from a closing position towards an opening position, substantially perpendicular to the closing position, by the first arm having a curved shape, and a second arm. One of the ends of the second arm is secured to the trunk door and the other end is mounted pivoting on a sliding sleeve mounted on a guide rail.

Abstract: The invention concerns a motor vehicle boot lid (3) articulated (in 6) to the ends of a first arm (7) mounted pivoting, at its other end, about a vertical lateral pin (8) integral with the body. Said lid moves from a closing position towards an opening position, substantially perpendicular to said closing position, via the first arm (7) having a curved shape, and a second arm (9) whereof one of the ends is secured to said lid and the other end is mounted pivoting on a sliding sleeve (11) mounted on a guide rail (12).

Abstract: A polymer lead-frame is made from a flexible substrate with flexible conductive traces. The generally square lead-frame has diagonal cutouts partially extending from the corners towards the center, as well as a central hole that lies within a footprint of the die. The die is bonded directly to the lead frame, preferably with anisotropic, electrically conductive adhesive. The die is placed with the lead frame in a fixture. A holding force is applied to secure the die and, if necessary, a curing force is applied during a cure cycle. The fixture allows transport of the assembly to a curing oven and allows application of the curing force. The die has contact pads characterized by a non-planar, non-bump-like surface with concavities having depths of at least about one-seventh the diameter of conductive particles in the anisotropic conductive adhesive.

Abstract: A method of making a planar, subsurface electronic circuit having at least one electronic circuit component assembled therewith is disclosed. First, three dimensional, essentially square channels interspersed with lands are formed within a dielectric material on a substrate. The channels are then filled in one pass with a curable polymeric material containing a conductive metal filler so that the upper surfaces of the circuit trace formed by this conductive material are at essentially the same level as the upper surface of the lands. Circuit components are place to engage the conductive material. The curable material is then cured after placing the electronic component(s).

Abstract: A polymer lead frame is made from a flexible substrate with flexible conductive traces. The generally square lead frame has diagonal cutouts partially extending from the corners towards the center, as well as a central hole that lies within a footprint of the die. The die is bonded directly to the lead frame, preferably with anisotropic, electrically conductive adhesive. The die is placed with the lead frame in a fixture. A holding force is applied to secure the die and, if necessary, a curing force is applied during a cure cycle. The fixture allows transport of the assembly to a curing oven and allows application of the curing force. The die has contact pads characterized by a non-planar, non-bump-like surface with concavities having depths of at least about one-seventh the diameter of conductive particles in the anisotropic conductive adhesive.

Abstract: An electrically conductive cement having substantially stable conductivity and resistance characteristics under high humidity conditions comprises a mixture of two epoxy resins with the proportion of each epoxy resin adjusted to provide a volumetric shrinkage in the mixture in the 4 to 16% and a conductive silver particular filler including agglomerates having size and surface characteristics that maintain stable electrical contact with an electrical component lead. The epoxy mixture is preferably a combination of a high-shrinkage epoxy resin and a lower-shrinkage epoxy resin in the appropriate amounts of each so as to produce the desired volumetric shrinkage characteristic. The conductive particle filler is preferably an admixture of silver flakes, silver powder, and an effective amount of silver agglomerates.

Abstract: An electrically conductive cement which when used to bond electrically conductive mating surfaces provides substantially stable conductivity characteristics under high humidity conditions; comprised of a carrier that provides a volumetric shrinkage of more than about 6.8% (vol.) and a conductive filler including agglomerates, particles, powders, flakes, coated nickel particles, and coated glass spheres, having size and surface characteristics that maintain stable electrical contact by forming a moisture resistant contact with an electrical component lead. The carrier having a volumetric shrinkage between the uncured and cured states of greater than about 6.8% (vol) appears to effect a compaction of the filler particles causing the particles to be forced into enhanced electrical contact with the surfaces to be connected and to provide a measure of compaction between the particles themselves to enhance particle-to-particle conduction.