Abstract: A technology for a wireless transfer station that is operable to detect interference during a wireless transfer of energy or data between wireless transfer stations. A transfer load on a wireless transfer coil of a wireless transfer station can be monitored during a wireless transfer of energy or data from the wireless transfer station to another wireless transfer station. A change in the transfer load that exceeds a threshold value can be detected. The wireless transfer of energy or data by the wireless transfer station can be adjusted using the wireless transfer coil based on the detected change in the transfer load.

Abstract: A technology for a wireless transfer station that is operable to wirelessly transfer energy. Energy can be wirelessly transferred with a device or another wireless transfer station using an energy transfer platform having at least one surface. The energy transfer platform can comprise a plurality of wireless transfer coils, wherein the plurality of wireless transfer coils include at least one resonant charging coil and at least one inductive charging coil. Controlling a plurality of wireless transfer coils using a power management module.

Abstract: A well barrier for sealing a downhole conduit is described. The well barrier comprises a housing defining a throughbore having a longitudinal axis, a valve actuator and a flapper valve. The flapper valve includes a flapper attached to the valve actuator. The flapper valve and the valve actuator are axially movable with respect to the housing in a direction parallel to the longitudinal axis. The flapper is adapted to move from one of a throughbore open and throughbore closed positions to the other of said open and closed positions when the actuator and flapper valve move a predetermined axial distance.

Abstract: A bidirectional power converter circuit is controlled via a hysteresis loop such that the bidirectional power converter circuit can compensate in near real time for variations and even changes in transmit and receive coil locations without damaging components of the system. Because the bidirectional power converter is capable of both transmitting and receiving power (at different times), one circuit and board may be used as the main component in multiple wireless power converter designs. The bidirectional power converter circuit is used in a proximity wireless power transmitter and a proximity wireless power receiver, such that the transmitter and receiver may be misaligned in any direction while providing power from the transmitter to the receiver without damaging any circuitry of either the bidirectional power converter transmitter or the bidirectional power converter receiver.

Abstract: A bidirectional power converter circuit is controlled via a hysteresis loop such that the bidirectional power converter circuit can compensate in near real time for variations and even changes in transmit and receive coil locations without damaging components of the system. Because the bidirectional power converter is capable of both transmitting and receiving power (at different times), one circuit and board may be used as the main component in multiple wireless power converter designs.

Abstract: A bidirectional power converter circuit is controlled via a hysteresis loop such that the bidirectional power converter circuit can compensate for variations and even changes in transmit and receive coil locations without damaging components of the system. Because the bidirectional power converter is capable of both transmitting and receiving power (at different times), one circuit and board may be used as the main component in multiple wireless power converter designs. A first bidirectional power converter is employed in a sealed battery unit having no external electrical contacts. A second bidirectional power converter is employed in a corresponding cart bidirectional power converter assembly. The battery unit and the cart bidirectional power converter assembly cooperate to wirelessly transmit power from the battery unit to a load of the cart bidirectional power converter assembly and from a power source to the battery unit via the cart bidirectional power converter assembly.

Abstract: A technology for a wireless transfer station that is operable to wirelessly transfer data or energy. Energy or data can be wirelessly transferred to another wireless transfer station using one or more wireless transfer coils. An amount of energy or data transferred to the other wireless transfer station can be dynamically adjusted by adjusting the one or more wireless transfer coils. Data can be communicated to the other wireless transfer station using a communication module.

Abstract: A bidirectional power converter circuit is controlled via a hysteresis loop such that the bidirectional power converter circuit can compensate for variations and even changes in transmit and receive coil locations without damaging components of the system. Because the bidirectional power converter is capable of both transmitting and receiving power (at different times), one circuit and board may be used as the main component in multiple wireless power converter designs. A first bidirectional power converter is employed in a sealed battery unit having no external electrical contacts. A second bidirectional power converter is employed in a corresponding cart bidirectional power converter assembly. The battery unit and the cart bidirectional power converter assembly cooperate to wirelessly transmit power from the battery unit to a load of the cart bidirectional power converter assembly and from a power source to the battery unit via the cart bidirectional power converter assembly.

Abstract: A battery pack for a rechargeable battery is disclosed that includes a battery pack housing with an inner cavity. A shielding receptacle is located within the inner cavity, the shielding receptacle including a plurality of cell pockets that are sized and shaped to receive a plurality of battery cells. The shielding receptacle has a first side and a second side opposite the first side. A first heat shield is positioned between the first side of the shielding receptacle and the battery pack housing. A second heat shield is positioned between the second side of the shielding receptacle and the batter pack housing.

Abstract: A bidirectional power converter circuit is controlled via a hysteresis loop such that the bidirectional power converter circuit can compensate in near real time for variations and even changes in transmit and receive coil locations without damaging components of the system. Because the bidirectional power converter is capable of both transmitting and receiving power (at different times), one circuit and board may be used as the main component in multiple wireless power converter designs.

Abstract: A bidirectional power converter circuit is controlled via a hysteresis loop such that the bidirectional power converter circuit can compensate in near real time for variations and even changes in transmit and receive coil locations without damaging components of the system. Because the bidirectional power converter is capable of both transmitting and receiving power (at different times), one circuit and board may be used as the main component in multiple wireless power converter designs. The bidirectional power converter circuit is used in a proximity wireless power transmitter and a proximity wireless power receiver, such that the transmitter and receiver may be misaligned in any direction while providing power from the transmitter to the receiver without damaging any circuitry of either the bidirectional power converter transmitter or the bidirectional power converter receiver.

Abstract: A technology is discussed for a wireless transfer station that is operable to communicate management information. Measurement information can be received from one or more other wireless transfer stations. The measurement information can be aggregated from the one or more other wireless transfer stations. The measurement information can be analyzed to determine a status of the one or more wireless transfer stations using the aggregated energy measurement information.

Abstract: A thermally shielded receptacle for a rechargeable battery. The thermally shielded receptacle can include a material having a heat deflection rate of greater than 50 degrees Celsius to contain a catastrophic runaway of one or more of a plurality of individual battery cells. The thermally shielded receptacle can include material sized and shaped to receive the plurality of individual battery cells and separate each of the plurality of individual battery cells from adjacent individual battery cells.

Abstract: A technology for a wireless transfer station that is operable to wirelessly provide energy to other wireless transfer stations. A wireless transfer request can be received from one or more of the other wireless transfer stations to receive wireless energy from the wireless transfer station. A transferring of wireless energy to the one or more of the other wireless transfer stations can be prioritized using selected energy transfer priority criteria. Wireless energy can be provided to the one or more of the other wireless transfer stations based on the prioritization.

Abstract: A method and apparatus for scanning, by an asset tag manager during a scanning window, for wireless broadcasts from beacon devices. The method further filters the wireless broadcasts to generate a subset of the wireless broadcasts. The method continues by identifying, within the subset of the wireless broadcasts, a first wireless broadcast with a first data packet in view of an indication that a first beacon device is within a specified distance from the asset tag manager. The method proceeds by parsing the first data packet to locate a first beacon identifier associated with a first beacon device. The method also creates a second data packet with the first beacon identifier and an asset tag identifier associated with the asset. The method transmits a second wireless broadcast comprising the second data packet, the second wireless broadcast to be received by a hub.

Abstract: A thermally shielded receptacle for a rechargeable battery. The thermally shielded receptacle can include a material having a heat deflection rate of greater than 50 degrees Celsius to contain a catastrophic runaway of one or more of a plurality of individual battery cells. The thermally shielded receptacle can include material sized and shaped to receive the plurality of individual battery cells and separate each of the plurality of individual battery cells from adjacent individual battery cells.

Abstract: Disclosed herein is synergistic herbal composition comprising extracts of herbal ingredients of Tribulus terrestris, Withania somnifera, Curculigo orchioides, Mucuna pruriens, Asparagus adscendens, Asteracantha longifolia, Asphaltum, and optionally the extracts of Piper longum and Anacyclus pyrethrum for the treatment of disorders associated with Male Sexual Dysfunction.

Abstract: A bore selection device for use with a dual bore subsea system is disclosed. The bore selector (18) can be remotely actuated to provide selection between a production bore (12) and an annulus bore (16) without a rotating mechanism or flapper valve. Embodiments of the invention are disclosed. In one embodiment a pair of rams (20) having a ram head (20a, 20b) defining parts of a guide funnel (30a, 30b) are hydraulically actuatable so that when the rams are actuated and closed the guide funnel (30) is formed which couples a part of the production bore (126) to the annulus bore (16a).

Abstract: Technology for dispensing medication from a wheeled medical cart is disclosed. A method comprises placing the medication in a medication storage compartment of a storage container of the wheeled medical cart. A method can further comprise entering medication data into a computing device operating on the wheeled medical cart. A method can further comprise electronically securing the medication stored in the medication storage compartment. A method further comprises repositioning the wheeled medical cart a patient location The method can further comprise electronically identifying at least one predetermined user of the wheeled medical cart at the patient location to enable the predetermined user to gain access to the medication in the medication storage compartment for a patient to enable the predetermined user to provide medication from the wheeled medical cart to the patient.

Abstract: A well barrier for sealing a downhole conduit is described. The well barrier includes a housing defining a throughbore having a longitudinal axis, a valve actuator and a flapper valve. The flapper valve includes a flapper attached to the valve actuator. The flapper valve and the valve actuator are axially movable with respect to the housing in a direction parallel to the longitudinal axis. The flapper is adapted to move from one of a throughbore open and throughbore closed positions to the other of said open and closed positions when the actuator and flapper valve move a predetermined axial distance.