mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: measuring a wind speed (305, 310) for a location upwind of a wind turbine; damping, based on a first average ( v 1) from the measured wind speed, oscillations of the structure relative to a first steady-state deflection T d ( v 1); determining a second average wind speed ( v 2) from the measured wind speed; predicting, using the measured wind speed, a changed steady-state deflection T d ( v 2) of a structure of the wind turbine once wind from the location is incident on the wind turbine; wherein predicting the changed steady-state deflection is responsive to the second average wind speed differing from the first average wind speed; and damping oscillations of the structure relative to the changed steady-state deflection; wherein the method comprises: estimating, using the measured wind speed, a time series of values for a control signal of the wind turbine; optimizing the time series of values according to a cost function that penalizes deflections of the structure relative to the changed steady-state deflection, wherein damping oscillations of the structure comprises generating the control signal with the optimized time series of values. measuring a wind speed (305, 310) for a location upwind of a wind turbine; damping, based on a first average ( v 1) from the measured wind speed, oscillations of the structure relative to a first steady-state deflection T d ( v 1); determining a second average wind speed ( v 2) from the measured wind speed; predicting, using the measured wind speed, a changed steady-state deflection T d ( v 2) of a structure of the wind turbine once wind from the location is incident on the wind turbine; wherein predicting the changed steady-state deflection is responsive to the second average wind speed differing from the first average wind speed; and damping oscillations of the structure relative to the changed steady-state deflection; wherein the method comprises: estimating, using the measured wind speed, a time series of values for a control signal of the wind turbine; optimizing the time series of values according to a cost function that penalizes deflections of the structure relative to the changed steady-state deflection, wherein damping oscillations of the structure comprises generating the control signal with the optimized time series of values. estimating, using the measured wind speed, a time series of values for a control signal of the wind turbine; optimizing the time series of values according to a cost function that penalizes deflections of the structure relative to the changed steady-state deflection, wherein damping oscillations of the structure comprises generating the control signal with the optimized time series of values.
Gas generator for an airbag comprising a storage enclosure including at least one chamber comprising a metallic wall and containing at least gaseous hydrogen, characterized by that this chamber comprises a covering layer of iron oxide arranged on at least a part of the surface of the metallic wall in such a manner as to prevent a diffusion of hydrogen atoms through the metallic wall.
Cardiac assistance system, comprising an inlet tube that extends in a longitudinal direction, and comprising a pump housing portion that is attached to the inlet tube and extends in the longitudinal direction, the inlet tube having an introduction opening for introducing blood to be pumped, which blood flows via the inlet tube in the pump housing portion into a pump housing in which there is an impeller, which impeller has an axis of rotation parallel to the longitudinal direction of the pump housing portion and can be driven by means of a drive device arranged on a side of the impeller facing away from the inlet tube, the pump housing having a lateral surface that is arranged coaxially with the axis of rotation of the impeller and has an outlet opening for discharging the blood from the pump housing, characterized in that the pump housing comprises a stator vane apparatus that is arranged in the region of the outlet opening and has a stator vane which, when the inlet tube and the pump housing portion are inserted into the blood vessel by means of a catheter, can be unfolded from a folded-in state into a flow state in which it protrudes radially or obliquely from the lateral surface of the pump housing.
A riser assembly comprising a riser having a longitudinal axis and comprising a first riser joint with an end, and a second riser joint with an end which is adjacent to the end of the first riser joint, the riser assembly further comprising an auxiliary line (120, 120') having a first auxiliary line section (122, 122') and a second auxiliary line section (124, 124') which are connected via an auxiliary line joint (126, 126') comprising a first joint assembly (130, 130') connected to the first auxiliary line section (122, 122') and having a bearing surface (130a, 130a') and a second joint assembly (132, 132') connected to the second auxiliary line section (124, 124') and having a bearing surface (132a, 132a'), the riser assembly further comprising a first flange which extends radially outwardly from an exterior surface of the first riser joint adjacent to the end thereof and a second flange which extends radially outwardly from an exterior surface of the second riser joint adjacent to the end thereof, the first and second flange (134, 136) each having a bearing surface, the bearing surface of the first flange engaging with the bearing surface (130a, 130a') of the first joint assembly (130, 130') and the bearing surface of the second flange engaging with the bearing surface (132a, 132a') of the second joint assembly (132, 132'), characterised in that one of the bearing surfaces of the first flange and the first joint assembly (130, 130') has a rocker formation which is shaped to provide a point or area of contact between the two bearing surfaces whilst permitting relative angular movement between the two bearing surfaces.
Method of producing a layered structure at a surface region of a component, comprising: providing powder particles within a process area, each powder particle comprising one or more particles completely surrounded by sheathing material, activating the powder particles within the process area by using physico-thermal plasma so as to cause a change in the state of aggregation or a reduction in the viscosity of at least part of the sheathing material of the powder particles, the sheathing material comprising a supplementary material, the supplementary material present within the sheathing material being active as an antioxidant and/or catalyst for the material of the particle and/or of the sheathing during the activation process, and applying the activated powder particles onto the surface region of the component so as to obtain the layered structure on the surface region of the component, wherein the step of activating comprises at least partially liquefying the sheathing material, and the step of applying comprises resolidifying the sheathing material on the surface region of the component, or wherein the step of activating comprises separating the sheathing material from the particle or evaporating it, and the step of applying comprises connecting the particles with the surface region of the component. providing powder particles within a process area, each powder particle comprising one or more particles completely surrounded by sheathing material, activating the powder particles within the process area by using physico-thermal plasma so as to cause a change in the state of aggregation or a reduction in the viscosity of at least part of the sheathing material of the powder particles, the sheathing material comprising a supplementary material, the supplementary material present within the sheathing material being active as an antioxidant and/or catalyst for the material of the particle and/or of the sheathing during the activation process, and applying the activated powder particles onto the surface region of the component so as to obtain the layered structure on the surface region of the component, wherein the step of activating comprises at least partially liquefying the sheathing material, and the step of applying comprises resolidifying the sheathing material on the surface region of the component, or wherein the step of activating comprises separating the sheathing material from the particle or evaporating it, and the step of applying comprises connecting the particles with the surface region of the component.
A compound of Formula III: or a pharmaceutically acceptable salt thereof, wherein: R 1 is H; and R 2 is furan-3-yl, tetrahydrofuran-3-yl, furan-2-yl, tetrahydrofuran-2-yl, 5-ethylfuran-2-yl or pyridin-3-yl. R 1 is H; and R 2 is furan-3-yl, tetrahydrofuran-3-yl, furan-2-yl, tetrahydrofuran-2-yl, 5-ethylfuran-2-yl or pyridin-3-yl.
An energy harvester, wherein it comprises: a flat plate-like energy harvesting part having a power generation region which generates electric power by utilizing an energy in the external environment and an internal wiring (15A, 15B) to which the electric power thus generated is supplied; a connector part (40A, 40B) connectable to an external device; a diode of which anode is electrically connected with the internal wiring; and a flexible wiring substrate on which the diode and a connection part (24A, 24B) for electrically connecting a cathode of the diode to the connector part (40A, 40B) are provided, wherein the internal wiring (15A, 15B) extends from the power generation region to a side edge portion of the energy harvesting part, and at least a portion of the flexible wiring substrate is provided in the side edge portion so as to overlap a portion of the internal wiring (15A, 15B), characterized in that, the flexible wiring substrate is bent to extend from one surface of the side edge portion to the other surface thereof, the diode is located on the one surface side of the side edge portion, and the connection part (24A, 24B) is located on the other surface side of the side edge portion. a flat plate-like energy harvesting part having a power generation region which generates electric power by utilizing an energy in the external environment and an internal wiring (15A, 15B) to which the electric power thus generated is supplied; a connector part (40A, 40B) connectable to an external device; a diode of which anode is electrically connected with the internal wiring; and a flexible wiring substrate on which the diode and a connection part (24A, 24B) for electrically connecting a cathode of the diode to the connector part (40A, 40B) are provided, wherein the internal wiring (15A, 15B) extends from the power generation region to a side edge portion of the energy harvesting part, and at least a portion of the flexible wiring substrate is provided in the side edge portion so as to overlap a portion of the internal wiring (15A, 15B), a connector part (40A, 40B) connectable to an external device; a diode of which anode is electrically connected with the internal wiring; and a flexible wiring substrate on which the diode and a connection part (24A, 24B) for electrically connecting a cathode of the diode to the connector part (40A, 40B) are provided, wherein the internal wiring (15A, 15B) extends from the power generation region to a side edge portion of the energy harvesting part, and at least a portion of the flexible wiring substrate is provided in the side edge portion so as to overlap a portion of the internal wiring (15A, 15B), characterized in that, the flexible wiring substrate is bent to extend from one surface of the side edge portion to the other surface thereof, the diode is located on the one surface side of the side edge portion, and the connection part (24A, 24B) is located on the other surface side of the side edge portion.
An electric work machine capable of being powered through a power supply cable having a power-supply side end to be connected to an external power supply and a machine side end opposite to the power-supply side end, the electric work machine comprising: a machine body including an electric motor; a power receiving device connectable to the machine side end of the power supply cable to be supplied with power by the external power supply through the power supply cable, the power receiving device including a plurality of conductive rings and a plurality of brushes that are attached to the conductive rings so that they are capable of sliding in a circumferential direction of the conductive rings while keeping contact with respective outer peripheral surfaces of the conductive rings; and connection wires connected to the power receiving device to extend from the power receiving device, and a power feed cable connected to the machine body to allow the machine body to be fed with power through the power feed cable; a connection unit that connects the connection wires extending from the power receiving device and the power feed cable extending from the machine body to each other, the connection unit being disposed outside the power receiving device; characterized by a connection box that accommodates the connection unit, the connection box having an opening capable of being selectively opened and closed outside the power receiving device to allow the connection unit to be exposed to the outside of the connection box through the opening. a machine body including an electric motor; a power receiving device connectable to the machine side end of the power supply cable to be supplied with power by the external power supply through the power supply cable, the power receiving device including a plurality of conductive rings and a plurality of brushes that are attached to the conductive rings so that they are capable of sliding in a circumferential direction of the conductive rings while keeping contact with respective outer peripheral surfaces of the conductive rings; and connection wires connected to the power receiving device to extend from the power receiving device, and a power feed cable connected to the machine body to allow the machine body to be fed with power through the power feed cable; a connection unit that connects the connection wires extending from the power receiving device and the power feed cable extending from the machine body to each other, the connection unit being disposed outside the power receiving device; characterized by a connection box that accommodates the connection unit, the connection box having an opening capable of being selectively opened and closed outside the power receiving device to allow the connection unit to be exposed to the outside of the connection box through the opening.
A superconductor device, comprising: a substrate (202, 302, 402, 502); a first metal layer (204, 304, 404, 504) on top of the substrate (202, 302, 402, 502); a second metal layer (208, 308, 408, 508) on top of the first metal layer (204, 304, 404, 504); a superconducting alloy (206, 306, 406, 506) of the first metal layer (204, 304, 404, 504) and the second metal layer (208, 308, 408, 508) between the first metal layer (204, 304, 404, 504) and the second metal layer (208, 308, 408, 508), wherein there is no oxide layer between the superconducting alloy (206, 306, 406, 506) and the first metal layer (204, 304, 404, 504), wherein: the first metal layer (204, 304, 404, 504) is Niobium, Nb; the second metal layer (208, 308, 408, 508) is Aluminum, Al; and the superconducting alloy (206, 306, 406, 506) is Al 3 Nb. a substrate (202, 302, 402, 502); a first metal layer (204, 304, 404, 504) on top of the substrate (202, 302, 402, 502); a second metal layer (208, 308, 408, 508) on top of the first metal layer (204, 304, 404, 504); a superconducting alloy (206, 306, 406, 506) of the first metal layer (204, 304, 404, 504) and the second metal layer (208, 308, 408, 508) between the first metal layer (204, 304, 404, 504) and the second metal layer (208, 308, 408, 508), wherein there is no oxide layer between the superconducting alloy (206, 306, 406, 506) and the first metal layer (204, 304, 404, 504), wherein: the first metal layer (204, 304, 404, 504) is Niobium, Nb; the second metal layer (208, 308, 408, 508) is Aluminum, Al; and the superconducting alloy (206, 306, 406, 506) is Al 3 Nb. the first metal layer (204, 304, 404, 504) is Niobium, Nb; the second metal layer (208, 308, 408, 508) is Aluminum, Al; and the superconducting alloy (206, 306, 406, 506) is Al 3 Nb.
A method, comprising: receiving, at a response computer, an assistance request message from a requester mobile device associated with a requester, the assistance request message including at least one input parameter; comparing the at least one input parameter with comparable potential responder data associated with a plurality of responders stored in a potential responder database; determining a responder, from the plurality of responders, to respond to the assistance request message based on the comparison of the at least one input parameter to the responder data, the determined responder being associated with responder data corresponding to the at least one input parameter; characterized by transmitting an availability inquiry message to a responder mobile device associated with the responder; the availability inquiry message being an invitation to the potential responder to respond to the assistance request message; receiving a response to the availability inquiry message from the responder mobile device, the response indicating whether the responder has accepted or rejected the invitation to assist the requester associated with the assistance request message; and when the response to the availability inquiry message indicates that the responder is available to respond to the assistance request message and has accepted the invitation to assist the requester associated with the assistance request message, notifying the requester mobile device that the responder is available and will assist the requester associated with the assistance request message. receiving, at a response computer, an assistance request message from a requester mobile device associated with a requester, the assistance request message including at least one input parameter; comparing the at least one input parameter with comparable potential responder data associated with a plurality of responders stored in a potential responder database; determining a responder, from the plurality of responders, to respond to the assistance request message based on the comparison of the at least one input parameter to the responder data, the determined responder being associated with responder data corresponding to the at least one input parameter; characterized by transmitting an availability inquiry message to a responder mobile device associated with the responder; the availability inquiry message being an invitation to the potential responder to respond to the assistance request message; receiving a response to the availability inquiry message from the responder mobile device, the response indicating whether the responder has accepted or rejected the invitation to assist the requester associated with the assistance request message; and when the response to the availability inquiry message indicates that the responder is available to respond to the assistance request message and has accepted the invitation to assist the requester associated with the assistance request message, notifying the requester mobile device that the responder is available and will assist the requester associated with the assistance request message.
A method for accessing language-dependent data for a mobile electronic device using a multi-language user interface system, the MUI system including a localized data store containing localized language-dependent information for a plurality of languages and alternative resources including non-localized language-dependent information for various languages supported by the mobile electronic device, the method comprising: processing a request from an application to retrieve localized language-dependent information associated with a first language from the localized data store; providing requested localized language-dependent information from the localized data store to the application; and displaying the localized language-dependent information by the mobile electronic device. processing a request from an application to retrieve localized language-dependent information associated with a first language from the localized data store; providing requested localized language-dependent information from the localized data store to the application; and displaying the localized language-dependent information by the mobile electronic device.
A gas sensor comprising: a base member including, a semiconductor substrate formed with an opening portion extending in a thickness direction, an insulating layer (32, 33) which is formed on the semiconductor substrate and which includes a separating wall portion formed at a position confronting the opening portion, a heat generating resistor formed on the partition wall portion, and a protection layer formed on the insulating layer to cover the heat generating resistor; a gas sensing layer which is formed on the protection layer of the base member and which includes, as a main component, a metal oxide semiconductor having an electric characteristic varied in accordance with variation of a concentration of a specific gas in a measurement gas; a pair of sensing electrodes formed on the protection layer of the base member and arranged to sense variation of the electric characteristic of the gas sensing layer; and an adhesion layer which is formed on the protection layer of the base member and which contacts with the gas sensing layer; characterized in that the sensing electrodes are in contact with the gas sensing layer but not in contact with the adhesion layer, and the adhesion layer is formed continuously between the sensing electrodes and around the sensing electrodes. a base member including, a semiconductor substrate formed with an opening portion extending in a thickness direction, an insulating layer (32, 33) which is formed on the semiconductor substrate and which includes a separating wall portion formed at a position confronting the opening portion, a heat generating resistor formed on the partition wall portion, and a protection layer formed on the insulating layer to cover the heat generating resistor; a gas sensing layer which is formed on the protection layer of the base member and which includes, as a main component, a metal oxide semiconductor having an electric characteristic varied in accordance with variation of a concentration of a specific gas in a measurement gas; a pair of sensing electrodes formed on the protection layer of the base member and arranged to sense variation of the electric characteristic of the gas sensing layer; and an adhesion layer which is formed on the protection layer of the base member and which contacts with the gas sensing layer;