mhurhangee/ep-ind-claims huggingface dataset:
A power supply system comprising a main management unit intended to be connected to a main power source and a reserve management unit intended to be connected to energy storage means, the main management unit and the reserve management unit being arranged to be connected to each other by a high voltage wire, a low voltage wire and a control wire, the main management unit comprising application means suitable for selectively applying a high voltage to the control wire or a low voltage to the control wire in order to transmit a discharge activation signal or a discharge deactivation signal to the reserve management unit, the reserve management unit comprising charge means suitable for charging the energy storage means through the high voltage wire and the low voltage wire, and discharge means suitable for discharging the energy storage means through the high voltage wire and the low voltage wire when the reserve management unit receives the discharge activation signal and for stopping the discharge when the reserve management unit receives the discharge deactivation signal.
A fluid management assembly comprising: a connector having at least one inlet and at least one outlet and a lumen extending there between, wherein the connector comprises a plastic material comprising one of polyethylene, polypropylene, polyvinylidene fluoride (PVDF), perfluoroalkoxy, polytetrafluoroethylene (PTFE), or polycarbonate; a first silicone tubing connected to the at least one inlet at a first interface; a second silicone tubing (14, 16) connected to the at least one outlet at a second interface; a silicone overmolding surrounding the connector, the first interface, and the second interface, wherein the silicone overmolding comprises a UV-cured silicone cured at ambient or slightly above temperatures. a connector having at least one inlet and at least one outlet and a lumen extending there between, wherein the connector comprises a plastic material comprising one of polyethylene, polypropylene, polyvinylidene fluoride (PVDF), perfluoroalkoxy, polytetrafluoroethylene (PTFE), or polycarbonate; a first silicone tubing connected to the at least one inlet at a first interface; a second silicone tubing (14, 16) connected to the at least one outlet at a second interface; a silicone overmolding surrounding the connector, the first interface, and the second interface, wherein the silicone overmolding comprises a UV-cured silicone cured at ambient or slightly above temperatures.
A control method for a fuel cell system including a solid oxide fuel cell, an anode gas and a cathode gas being supplied to the fuel cell, the fuel cell performing electric generation corresponding to a load, the fuel cell system controlling gas supply to the fuel cell and the electric generation, the control method comprising: an electric generating operation step of controlling flow rates of the anode gas and the cathode gas that flow into the fuel cell depending on a magnitude of the load; and a self-sustained operation step of causing the fuel cell to perform self-sustained operation when the load is equal to or less than a predetermined value, wherein: the self-sustained operation step includes a gas supply step of supplying the anode gas with a predetermined flow rate and the cathode gas with a predetermined flow rate to the fuel cell, the control method supplies the cathode gas to the fuel cell with a flow rate that maintains an electric potential of a cathode electrode of the fuel cell and does not cause a decrease in a voltage output from the fuel cell due to a shortage of the cathode gas, in the gas supply step, and the self-sustained operation step further includes a voltage maintenance step of changing only the flow rate of the anode gas resulting in a corresponding change of a voltage output from the fuel cell. an electric generating operation step of controlling flow rates of the anode gas and the cathode gas that flow into the fuel cell depending on a magnitude of the load; and a self-sustained operation step of causing the fuel cell to perform self-sustained operation when the load is equal to or less than a predetermined value, wherein: the self-sustained operation step includes a gas supply step of supplying the anode gas with a predetermined flow rate and the cathode gas with a predetermined flow rate to the fuel cell, the control method supplies the cathode gas to the fuel cell with a flow rate that maintains an electric potential of a cathode electrode of the fuel cell and does not cause a decrease in a voltage output from the fuel cell due to a shortage of the cathode gas, in the gas supply step, and the self-sustained operation step further includes a voltage maintenance step of changing only the flow rate of the anode gas resulting in a corresponding change of a voltage output from the fuel cell. the self-sustained operation step includes a gas supply step of supplying the anode gas with a predetermined flow rate and the cathode gas with a predetermined flow rate to the fuel cell, the control method supplies the cathode gas to the fuel cell with a flow rate that maintains an electric potential of a cathode electrode of the fuel cell and does not cause a decrease in a voltage output from the fuel cell due to a shortage of the cathode gas, in the gas supply step, and the self-sustained operation step further includes a voltage maintenance step of changing only the flow rate of the anode gas resulting in a corresponding change of a voltage output from the fuel cell.
A mixing unit (2; 202) for a mixer tap, the mixing unit comprising: - a first inlet for a first incoming stream of fluid having a first temperature (Tf), - a second inlet (50; 250) for a second incoming stream of fluid having a second temperature (Tc) higher than the first temperature, - mixing means (34; 234) for mixing the first incoming stream with the second incoming stream to form an outgoing stream of fluid having an outlet temperature (Tm), - a main outlet (52; 252) for the outgoing stream, and - a heat-sensitive actuator (70; 270; 470), comprising: ∘ a first part (72; 272; 472), which is heat-sensitive and which is arranged, at least in part, at the main outlet, and ∘ a second part (76; 276; 476), actuated in translation by the first part along a closing axis (X60; X260), characterized in that the mixing unit (2; 202) comprises a shutter (72, 73; 272, 275; 475), which is actuated by the heat-sensitive actuator (70; 270; 470), so as to move between a closed position, at least partial, of the main outlet (52; 252) and an open position of the main outlet, based on the relative position of the first part (72; 272; 472) and the second part (76; 276; 476) of the heat-sensitive actuator along the closing axis (X60; X260). - a first inlet for a first incoming stream of fluid having a first temperature (Tf), - a second inlet (50; 250) for a second incoming stream of fluid having a second temperature (Tc) higher than the first temperature, - mixing means (34; 234) for mixing the first incoming stream with the second incoming stream to form an outgoing stream of fluid having an outlet temperature (Tm), - a main outlet (52; 252) for the outgoing stream, and - a heat-sensitive actuator (70; 270; 470), comprising: ∘ a first part (72; 272; 472), which is heat-sensitive and which is arranged, at least in part, at the main outlet, and ∘ a second part (76; 276; 476), actuated in translation by the first part along a closing axis (X60; X260), characterized in that the mixing unit (2; 202) comprises a shutter (72, 73; 272, 275; 475), which is actuated by the heat-sensitive actuator (70; 270; 470), so as to move between a closed position, at least partial, of the main outlet (52; 252) and an open position of the main outlet, based on the relative position of the first part (72; 272; 472) and the second part (76; 276; 476) of the heat-sensitive actuator along the closing axis (X60; X260). ∘ a first part (72; 272; 472), which is heat-sensitive and which is arranged, at least in part, at the main outlet, and ∘ a second part (76; 276; 476), actuated in translation by the first part along a closing axis (X60; X260),
A system comprising: a first element implantable via a first implant-access incision in a first patient body region comprising a head-and-neck region, and a second element implantable via the first implant-access incision in the head-and-neck region and comprising a stimulation electrode and a microstimulator which is electrically connected to the stimulation electrode, wherein the first element is electrically connected to the microstimulator, wherein the first element is configured to sense, via sensing electroencephalography information, first physiologic information in the head-and-neck region comprising respiratory information, wherein the respiratory information comprises respiratory cycle information including inspiratory phase information and expiratory phase information; and wherein the second element is configured to stimulate tissue comprising an upper airway patency-related nerve to treat obstructive sleep apnea, via the electrode, in the first patient body region, wherein the upper airway patency-related nerve comprises a hypoglossal nerve, and wherein the second element is configured to perform the delivery of stimulation in a closed loop manner synchronized relative to the sensed inspiratory phase information or the sensed expiratory phase information. a first element implantable via a first implant-access incision in a first patient body region comprising a head-and-neck region, and a second element implantable via the first implant-access incision in the head-and-neck region and comprising a stimulation electrode and a microstimulator which is electrically connected to the stimulation electrode, wherein the first element is configured to sense, via sensing electroencephalography information, first physiologic information in the head-and-neck region comprising respiratory information, wherein the respiratory information comprises respiratory cycle information including inspiratory phase information and expiratory phase information; and wherein the second element is configured to stimulate tissue comprising an upper airway patency-related nerve to treat obstructive sleep apnea, via the electrode, in the first patient body region, wherein the upper airway patency-related nerve comprises a hypoglossal nerve, and wherein the second element is configured to perform the delivery of stimulation in a closed loop manner synchronized relative to the sensed inspiratory phase information or the sensed expiratory phase information.
Device for identifying a trajectory of each blade of a rotor, the rotor comprising a plurality of rotating blades, said device comprising an image sensor and a computer connected to the image sensor, said device comprising at least one target configured to be attached to a said blade and to be visible to the image sensor in a field of view of the image sensor, said target comprising at least one elongated coloured strip, said image sensor being configured to continuously acquire images over a measurement period according to a refresh rate of the image sensor and independently of a rotational frequency of the rotor, characterised in that the at least one target comprises at least two parallel said coloured strips.
A dry-type cleaning chassis for cleaning a cleaning target by colliding cleaning media with the cleaning target, the cleaning media being blown by an air flow, the dry-type cleaning chassis comprising: an internal space where the cleaning media are to fly; an opening part configured to be in contact with the cleaning target so that the cleaning media collide with the cleaning target; an air inlet duct configured to introduce external air into the internal space; and a porous unit configured to pass objects removed from the cleaning target to a suction port side; characterised by: a suction port configured to generate a first air flow caused by a circulating air flow in the internal space by suctioning the introduced external air such that the cleaning media are flown by the circulating air flow; and an injection port configured to generate at least a second air flow increasing a speed of the cleaning media flown by the circulating air flow. an internal space where the cleaning media are to fly; an opening part configured to be in contact with the cleaning target so that the cleaning media collide with the cleaning target; an air inlet duct configured to introduce external air into the internal space; and a porous unit configured to pass objects removed from the cleaning target to a suction port side; characterised by: a suction port configured to generate a first air flow caused by a circulating air flow in the internal space by suctioning the introduced external air such that the cleaning media are flown by the circulating air flow; and an injection port configured to generate at least a second air flow increasing a speed of the cleaning media flown by the circulating air flow. a suction port configured to generate a first air flow caused by a circulating air flow in the internal space by suctioning the introduced external air such that the cleaning media are flown by the circulating air flow; and an injection port configured to generate at least a second air flow increasing a speed of the cleaning media flown by the circulating air flow.
A method, comprising: storing, by a network node, at least one parameter per internet protocol multimedia subsystem subscription, wherein the at least one parameter comprises at least one identity of any web real-time communication web server function (WWSF) that is authorized to authenticate an internet protocol multimedia subsystem subscriber in web real-time communication (WebRTC); receiving a web real-time communication web server function (WWSF) identity from a call state control function; comparing the received web real-time communication web server function (WWSF) identity with the at least one parameter associated with the internet protocol multimedia subsystem subscription; and rejecting an internet protocol multimedia subsystem communication when there is not a match between the received web real-time communication web server function (WWSF) identity and the at least one parameter associated with the internet protocol multimedia subsystem subscription. storing, by a network node, at least one parameter per internet protocol multimedia subsystem subscription, wherein the at least one parameter comprises at least one identity of any web real-time communication web server function (WWSF) that is authorized to authenticate an internet protocol multimedia subsystem subscriber in web real-time communication (WebRTC); receiving a web real-time communication web server function (WWSF) identity from a call state control function; comparing the received web real-time communication web server function (WWSF) identity with the at least one parameter associated with the internet protocol multimedia subsystem subscription; and rejecting an internet protocol multimedia subsystem communication when there is not a match between the received web real-time communication web server function (WWSF) identity and the at least one parameter associated with the internet protocol multimedia subsystem subscription.
A face protective optical element for a surgical operation or a dental treatment comprising a flexible transparent substrate having, on opposite surfaces thereof, a plurality of structures (12; 32) disposed at a pitch equal to or less than a wavelength of visible light, wherein the structures (12; 32) are formed from a cured product of a resin having a hydrophilic functional group, and the optical element has hydrophilic surfaces, the face protective optical element having a transmittance of light (at a wavelength of 550 nm) of 98.5% or higher and wherein the surfaces of the optical element have a contact angle of water of 40 degrees or less.
A battery-powered portable cutting tool, comprising: a housing, a cutting element supported by the housing, an electric motor coupled to the cutting element so as to drive the cutting element to cut, a battery electrically coupled to the motor so as to supply electric current to the motor and a control circuit arranged to control the supply of electric current to the motor from the battery, in which the control circuit comprises a main switch operable by a user and an auxiliary switch (10, 110) also operable by a user; in which the control circuit has: an active state in which operation of the main switch by the user allows electric current to flow to the motor so as to cause the cutting element to be driven; and an inactive state in which operation of the main switch does not allow electric current to flow to the motor and so the motor does not drive the cutting element; in which operation of the auxiliary switch (10, 110) causes the control circuit to change between the active and inactive states; characterised in that the auxiliary switch comprises a hook (12, 112) from which the tool can be suspended, the auxiliary switch (10, 110) being arranged such that suspension of the tool from the hook (12, 112) causes the control circuit to change to the inactive state. an active state in which operation of the main switch by the user allows electric current to flow to the motor so as to cause the cutting element to be driven; and an inactive state in which operation of the main switch does not allow electric current to flow to the motor and so the motor does not drive the cutting element; in which operation of the auxiliary switch (10, 110) causes the control circuit to change between the active and inactive states; characterised in that the auxiliary switch comprises a hook (12, 112) from which the tool can be suspended, the auxiliary switch (10, 110) being arranged such that suspension of the tool from the hook (12, 112) causes the control circuit to change to the inactive state.
A divider for separating stalls for large cattle, in particular cows, the divider comprising: a) a divider bar that extends in a vertical plane; b) a support device that is fixed relative to a ground and that supports the at least one divider bar, wherein c) the at least one divider bar is pivotable within limits from a normal position relative to the support device about a vertical pivot axis upon lateral, primarily horizontal force loading, d) a reset device is provided for resetting the at least one pivoted divider bar into the normal position, e) a force resetting into the normal position is applied in the reset device by an element that is elastic in this direction, f) the reset device includes a tube in tube arrangement including tubes that are inserted into each other with a radial gap and wherein the elastic element is arranged in the radial gap so that the inner tube is pivotable relative to the outer tube deforming the elastic element, g) either tube forms a component of the support device, characterized in that h) the inner tube is pivotable relative to the outer tube relative a transversal pivot axis, i) the inner tube forms a part of the divider bar, k) the outer tube and the inner tube extend horizontally and the at least one elastic element is arranged laterally and on top and at a bottom between the outer tube and the inner tube, l) the radial gap between the inner tube and the outer tube is covered by a cover at a face of the outer tube. a) a divider bar that extends in a vertical plane; b) a support device that is fixed relative to a ground and that supports the at least one divider bar, wherein c) the at least one divider bar is pivotable within limits from a normal position relative to the support device about a vertical pivot axis upon lateral, primarily horizontal force loading, d) a reset device is provided for resetting the at least one pivoted divider bar into the normal position, e) a force resetting into the normal position is applied in the reset device by an element that is elastic in this direction, f) the reset device includes a tube in tube arrangement including tubes that are inserted into each other with a radial gap and wherein the elastic element is arranged in the radial gap so that the inner tube is pivotable relative to the outer tube deforming the elastic element, g) either tube forms a component of the support device, characterized in that h) the inner tube is pivotable relative to the outer tube relative a transversal pivot axis, i) the inner tube forms a part of the divider bar, k) the outer tube and the inner tube extend horizontally and the at least one elastic element is arranged laterally and on top and at a bottom between the outer tube and the inner tube, l) the radial gap between the inner tube and the outer tube is covered by a cover at a face of the outer tube.
A method for fabricating polymeric sheets containing microwires comprising: providing a plurality of microwires, individual microwires of the plurality being attached at an end to a substrate, having an independent length, being approximately perpendicular to the substrate, and containing magnetic ferrite, encapsulating at least a portion of individual lengths of the microwires in a non-conductive polymeric sheet while the microwires are attached to the substrate; detaching the microwires from the substrate without removing the microwires from the polymeric sheet, the detaching forming a separated polymeric sheet containing the detached microwires and individual detached microwires of the plurality of microwires being approximately perpendicular to the separated polymeric sheet, characterised in that the microwires comprise MFe 2 O 4, where M is Ni, Co, Zn, or combinations thereof. providing a plurality of microwires, individual microwires of the plurality being attached at an end to a substrate, having an independent length, being approximately perpendicular to the substrate, and containing magnetic ferrite, encapsulating at least a portion of individual lengths of the microwires in a non-conductive polymeric sheet while the microwires are attached to the substrate; detaching the microwires from the substrate without removing the microwires from the polymeric sheet, the detaching forming a separated polymeric sheet containing the detached microwires and individual detached microwires of the plurality of microwires being approximately perpendicular to the separated polymeric sheet, characterised in that the microwires comprise MFe 2 O 4, where M is Ni, Co, Zn, or combinations thereof.
A bus short-circuit detection method, comprising: starting a weak electricity charge circuit in a case that a strong electricity voltage detection circuit has detected that a bus voltage of a unit is abnormal before the bus voltage is charged, wherein the weak electricity charge circuit is configured to charge the bus; detecting a charge current variation of the weak electricity charge circuit; and starting a pre-charge circuit in a case that the charge current variation indicates that the bus is not in a short-circuited state. starting a weak electricity charge circuit in a case that a strong electricity voltage detection circuit has detected that a bus voltage of a unit is abnormal before the bus voltage is charged, wherein the weak electricity charge circuit is configured to charge the bus; detecting a charge current variation of the weak electricity charge circuit; and starting a pre-charge circuit in a case that the charge current variation indicates that the bus is not in a short-circuited state.
A method of manufacturing a semiconductor chip for a direct X-ray conversion detector, the method comprising: a step of pressure charging (3, 4, 4a) a powder of a polycrystalline semiconductor material that is based on PbI 2, HgI 2 and/or PbO; and a step of heating during a certain period of time, characterized in that: the purity level of the powder of the polycrystalline semiconductor material is greater than or equal to 99% and less than or equal to 99.8%. a step of pressure charging (3, 4, 4a) a powder of a polycrystalline semiconductor material that is based on PbI 2, HgI 2 and/or PbO; and a step of heating during a certain period of time, characterized in that: the purity level of the powder of the polycrystalline semiconductor material is greater than or equal to 99% and less than or equal to 99.8%.