mhurhangee/ep-ind-claims huggingface dataset:
A blade pitch controller for a fixed foundation offshore wind turbine, the blade pitch controller comprising a nominal control system and a tower feedback loop, wherein the tower feedback loop comprises a filtering system and a feedback controller; the nominal control system is arranged to control a blade pitch of the wind turbine in order to optimise power production; the filtering system comprises a high-pass filter with a filter frequency of less than 0.2 Hz, the filtering system being arranged to receive at least one of position or velocity measurements or estimates of the wind turbine as input and to output at least one filtered position or velocity measurements or estimates of the wind turbine; and the feedback controller is arranged to receive at least one of the output filtered position or velocity measurements or estimates of the wind turbine from the filtering system and to output a blade pitch reference signal determined from at least one of the filtered position or velocity measurements or estimates of the wind turbine to the nominal control system, wherein the blade pitch reference signal is an adjustment which is added to a nominal blade pitch reference signal provided from a basic controller in the nominal control system, such that the tower feedback loop is arranged to control wind turbine blade pitch so as to provide additional effective stiffness to the wind turbine in response to motion of the wind turbine above the filter frequency of the high-pass filter of the filtering system. wherein the tower feedback loop comprises a filtering system and a feedback controller; the nominal control system is arranged to control a blade pitch of the wind turbine in order to optimise power production; the filtering system comprises a high-pass filter with a filter frequency of less than 0.2 Hz, the filtering system being arranged to receive at least one of position or velocity measurements or estimates of the wind turbine as input and to output at least one filtered position or velocity measurements or estimates of the wind turbine; and the feedback controller is arranged to receive at least one of the output filtered position or velocity measurements or estimates of the wind turbine from the filtering system and to output a blade pitch reference signal determined from at least one of the filtered position or velocity measurements or estimates of the wind turbine to the nominal control system, wherein the blade pitch reference signal is an adjustment which is added to a nominal blade pitch reference signal provided from a basic controller in the nominal control system, such that the tower feedback loop is arranged to control wind turbine blade pitch so as to provide additional effective stiffness to the wind turbine in response to motion of the wind turbine above the filter frequency of the high-pass filter of the filtering system.
An implant, the implant comprising: a body exhibiting a longitudinal axis; a pair of proximal arms extending from said body, each of said pair of proximal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of proximal arms; a pair of distal arms extending from said body, each of said pair of distal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said respective directions of extension of said pair of distal arms generally opposing said respective directions of extension of said pair of proximal arms, said body positioned between said pair of distal arms; and a pair of intermediate arm assemblies extending from said body, each of said pair of intermediate arm assemblies extending in a respective direction rotated about said longitudinal axis from said respective extension directions of said pair of proximal arms and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of intermediate arm assemblies. a body exhibiting a longitudinal axis; a pair of proximal arms extending from said body, each of said pair of proximal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of proximal arms; a pair of distal arms extending from said body, each of said pair of distal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said respective directions of extension of said pair of distal arms generally opposing said respective directions of extension of said pair of proximal arms, said body positioned between said pair of distal arms; and a pair of intermediate arm assemblies extending from said body, each of said pair of intermediate arm assemblies extending in a respective direction rotated about said longitudinal axis from said respective extension directions of said pair of proximal arms and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of intermediate arm assemblies.
A vehicle tailgate assembly, the tailgate assembly comprising: a sill flap having a first end for connection to a vehicle bed, a second end opposite the first end, and one or more rollers rotatably coupled to the second end; and a tailgate configured for coupling to the vehicle bed, characterised in that: the sill flap and the tailgate are configured to pivot between a closed vehicle bed configuration having the sill flap oriented substantially parallel to the tailgate with the one or more rollers positioned between the sill flap and the tailgate, and an open vehicle bed configuration in which upper surfaces of both the sill flap and the tailgate are oriented substantially parallel with an upper surface of the vehicle bed with at least a portion of the sill flap positioned upon the tailgate. a sill flap having a first end for connection to a vehicle bed, a second end opposite the first end, and one or more rollers rotatably coupled to the second end; and a tailgate configured for coupling to the vehicle bed, characterised in that: the sill flap and the tailgate are configured to pivot between a closed vehicle bed configuration having the sill flap oriented substantially parallel to the tailgate with the one or more rollers positioned between the sill flap and the tailgate, and an open vehicle bed configuration in which upper surfaces of both the sill flap and the tailgate are oriented substantially parallel with an upper surface of the vehicle bed with at least a portion of the sill flap positioned upon the tailgate.
A cosmetic composition, comprising: (a) at least two phenolic compounds that are baicalin and resveratrol; (b) at least two hydrotropes that are nicotinamide and caffeine; (c) at least one emulsifier; (d) a lipid-soluble antioxidantthat is Vitamin E; and (e) water. (a) at least two phenolic compounds that are baicalin and resveratrol; (b) at least two hydrotropes that are nicotinamide and caffeine; (c) at least one emulsifier; (d) a lipid-soluble antioxidantthat is Vitamin E; and (e) water.
Mounting element for a fixed sliding door leaf - having a main body with at least one first part body which can be inserted into a mounting groove (111, 121) in a frame and/or leaf profile (110, 120) and the width of which is smaller than that of the main body, - at least one second part body being arranged on a side of the main body which faces away from the first part body, - having a bolt channel which extends through the mounting element, - at least one spacer element being attached to the first part body in an articulated manner, which spacer element extends in a starting position as far as the opening of the bolt channel and can be erected by way of a bolt to be introduced into the bolt channel, characterized in that the spacer element can be folded up from the second part body by way of the introduction of a bolt into the bolt channel, and a height difference ΔH is set between the upper edge of the raised spacer element and the upper edge of the first part body; and in that the spacer element can be folded into the bolt channel by way of the introduction of a bolt into the bolt channel from the first part body. - having a main body with at least one first part body which can be inserted into a mounting groove (111, 121) in a frame and/or leaf profile (110, 120) and the width of which is smaller than that of the main body, - at least one second part body being arranged on a side of the main body which faces away from the first part body, - having a bolt channel which extends through the mounting element, - at least one spacer element being attached to the first part body in an articulated manner, which spacer element extends in a starting position as far as the opening of the bolt channel and can be erected by way of a bolt to be introduced into the bolt channel,
A control method for an air-conditioner indoor unit, the air-conditioner indoor unit comprising a housing, a drain pan, an air deflector, a movable cover plate, and a sweeping strip, the housing having an air outlet, the air deflector being rotatably arranged at the air outlet, the air deflector being provided with micro holes, the movable cover plate being movably arranged at a front side of the housing to open or close the air outlet, the sweeping strip being arranged to the movable cover plate and configured to sweep condensate water on the air deflector, the drain pan being arranged at a bottom of the air outlet and configured to receive the condensate water from the air deflector, and an orthographic projection of the air deflector on the drain pan being located in the drain pan in a windless feeling mode; the control method comprising: S10: starting the windless feeling mode by the air-conditioner indoor unit; S20: when the air-conditioner indoor unit receives an instruction of ending the windless feeling mode, controlling the movable cover plate to move back and forth between closing the air outlet and opening the air outlet for n times, so as to drive the sweeping strip to move to sweep the condensate water on a surface of the air deflector, wherein n>0; S30: ending the windless feeling mode. S10: starting the windless feeling mode by the air-conditioner indoor unit; S20: when the air-conditioner indoor unit receives an instruction of ending the windless feeling mode, controlling the movable cover plate to move back and forth between closing the air outlet and opening the air outlet for n times, so as to drive the sweeping strip to move to sweep the condensate water on a surface of the air deflector, wherein n>0; S30: ending the windless feeling mode.
A method of providing a vapor layer over a material processed within a container, the method comprising: delivering a fluid as a liquid into a housing disposed proximate an opening in the container, wherein the housing is configured to facilitate vaporization of the liquid to form a continuous flow of vapor from the housing into the container; and facilitating a downward flow of the vapor within the container toward the material being processed within the container; wherein the vapor formed from the fluid in the housing is inert with respect to the material being processed within the container. delivering a fluid as a liquid into a housing disposed proximate an opening in the container, wherein the housing is configured to facilitate vaporization of the liquid to form a continuous flow of vapor from the housing into the container; and facilitating a downward flow of the vapor within the container toward the material being processed within the container; wherein the vapor formed from the fluid in the housing is inert with respect to the material being processed within the container.
A motor, the motor including a rotation shaft, a rotor including a magnet formed on the rotation shaft and a stator including a coil wound thereon to generate an electromagnetic force in response to an applied current, wherein the rotation shaft includes an alignment groove (6c, 6d) at a distal end thereof, and a sensing magnet (7, 8) is mounted in the alignment groove (6c, 6d) of the rotation shaft characterized in that the alignment groove (6c, 6d) is concavely formed from an upper surface of the rotation shaft and a depth of the alignment groove is greater than a height of the sensing magnet, a center of the alignment groove (6c, 6d) is formed as same as a rotation center of the rotation shaft, the sensing magnet takes a shape corresponding to that of the alignment groove and the sensing magnet is completely press-fitted within the alignment groove via an adhesive, such that a rotation center of the sensing magnet matches a rotation center of the rotation shaft and the sensing magnet is prevented from being disengaged from the rotation shaft, and the rotation shaft takes a shape of a cylinder and is formed with a set of teeth for transmitting a power at a bottom periphery thereof.
A device for sensing the position of a contact carrier of a contact, comprising: a housing; a transmissive optical sensor supported by the housing; and a latch being movable by the contact carrier and comprising a latch member located in proximity to the transmissive optical sensor and wherein the latch member is generally non-reflective; wherein the transmissive optical sensor is configured to sense a presence or an absence of the latch member at one particular location depending upon the position of the contact carrier; wherein the latch comprises a latch protrusion that is biased into engagement with the contact carrier; and wherein the housing comprises a pair of support structures and a stop structure and wherein the latch is slidable between the support structures. a housing; a transmissive optical sensor supported by the housing; and a latch being movable by the contact carrier and comprising a latch member located in proximity to the transmissive optical sensor and wherein the latch member is generally non-reflective; wherein the transmissive optical sensor is configured to sense a presence or an absence of the latch member at one particular location depending upon the position of the contact carrier; wherein the latch comprises a latch protrusion that is biased into engagement with the contact carrier; and wherein the housing comprises a pair of support structures and a stop structure and wherein the latch is slidable between the support structures.
A method for fabricating a semiconductor device, comprising: providing a plurality of fins on a surface of the semiconductor substrate; forming an isolation flowable layer covering the plurality of fins over the semiconductor substrate; performing a first annealing process to turn the isolation flowable layer into an isolation film; and forming first well regions and second well regions in the fins and the semiconductor substrate, the second well regions being at two sides of the first well regions and contacting with the first well regions, the first well regions having a first type of well ions, the second well regions having a second type of well ions, and the first type being opposite to the second type, characterized in that the first annealing process is performed before forming the first well regions and the second well regions, wherein an environment of the first annealing process includes oxygen, ozone and water vapor, a temperature of the first annealing process is in a range of 350°C-750°C, and a time duration of the first annealing process is in a range of 25 mins-35 mins. providing a plurality of fins on a surface of the semiconductor substrate; forming an isolation flowable layer covering the plurality of fins over the semiconductor substrate; performing a first annealing process to turn the isolation flowable layer into an isolation film; and forming first well regions and second well regions in the fins and the semiconductor substrate, the second well regions being at two sides of the first well regions and contacting with the first well regions, the first well regions having a first type of well ions, the second well regions having a second type of well ions, and the first type being opposite to the second type,
An integrated circuit die comprising: a semiconductor substrate; a plurality of active components disposed on a first side of the semiconductor substrate; a plurality of passive components disposed on a second side of the semiconductor substrate, wherein the second side is disposed opposite the first side, and wherein the plurality of passive components are selected from the group consisting of: capacitors or resistors, characterized in that the plurality of passive components comprises a plurality of trench capacitors (1032, 1132), wherein each of the plurality of trench capacitors (1032, 1132) include a first metal layer (318, 618) disposed on one or more trenches (612a, 612b, 612c) formed in the semiconductor substrate (301, 602), a capacitor dielectric layer (322, 622) disposed on the first metal layer (318, 618), and a second metal layer (324, 624) disposed on the capacitor dielectric layer (322, 622). a semiconductor substrate; a plurality of active components disposed on a first side of the semiconductor substrate; a plurality of passive components disposed on a second side of the semiconductor substrate, wherein the second side is disposed opposite the first side, and wherein the plurality of passive components are selected from the group consisting of: capacitors or resistors, characterized in that the plurality of passive components comprises a plurality of trench capacitors (1032, 1132), wherein each of the plurality of trench capacitors (1032, 1132) include a first metal layer (318, 618) disposed on one or more trenches (612a, 612b, 612c) formed in the semiconductor substrate (301, 602), a capacitor dielectric layer (322, 622) disposed on the first metal layer (318, 618), and a second metal layer (324, 624) disposed on the capacitor dielectric layer (322, 622).
A drive device for a solid bowl screw centrifuge, with a. at least one motor for rotating a drum of the solid bowl screw centrifuge, b. a transmission connected between motor and drum, c. a cooling device for cooling the transmission in operation during rotations of the drum, d. wherein the cooling device is designed as an annular body, which has at least one air guiding device (14, 15, 16, 25) which is designed for the purpose of directing air radially inward onto a surface of the transmission, characterized in that e. the annular body is mounted on the transmission and fastened on the transmission. a. at least one motor for rotating a drum of the solid bowl screw centrifuge, b. a transmission connected between motor and drum, c. a cooling device for cooling the transmission in operation during rotations of the drum, d. wherein the cooling device is designed as an annular body, which has at least one air guiding device (14, 15, 16, 25) which is designed for the purpose of directing air radially inward onto a surface of the transmission, characterized in that e. the annular body is mounted on the transmission and fastened on the transmission.
A method for processing an emergency call in a PoC service, comprising: receiving, by a PoC server, a request for establishing an emergency call group, wherein the request for establishing the emergency call group is sent by a dispatcher; establishing, by the PoC server, the emergency call group, and adding the dispatcher to the emergency call group as a first party; receiving, by the PoC server, an emergency call request sent by an initiator; adding, by the PoC server, a mobile terminal as one party to the established emergency call group according to the emergency call request; and forwarding, by the PoC server, a two-way session between the mobile terminal and the dispatcher. receiving, by a PoC server, a request for establishing an emergency call group, wherein the request for establishing the emergency call group is sent by a dispatcher; establishing, by the PoC server, the emergency call group, and adding the dispatcher to the emergency call group as a first party; receiving, by the PoC server, an emergency call request sent by an initiator; adding, by the PoC server, a mobile terminal as one party to the established emergency call group according to the emergency call request; and forwarding, by the PoC server, a two-way session between the mobile terminal and the dispatcher.
An integrated circuit, IC, device comprising: a circuit configured to perform a function; a fault management component configured to manage fault monitoring of the circuit; at least one user register connected to receive control signals from the fault management component and connected to provide register values to the circuit to control an aspect of the circuit; an analog test bus component configured to establish connections to nodes in the circuit to convey analog signals to the nodes and to communicate digital signals with the fault management component, wherein the analog test bus component includes at least one of a digital-to-analog converter, DAC, to convert digital signals from the fault management component to analog signals for injection into the circuit, and an analog-to-digital converter, ADC, to convert analog signals from the circuit to digital signal for the fault management component; a built-in self-test component connected to the circuit to test the circuit and to communicate digital signals with the fault management component; a safety monitor component connected to the circuit to receive a signal from the circuit and to output a safety monitor signal in response to the signal received from the circuit; and gating logic configured to gate signals from the circuit and/or from the safety monitor in response to signals from the fault management component; wherein the circuit is separated from the fault management component, the at least one user register, the analog test bus component, the built-in self-test component, the safety monitor, and the gating logic. a circuit configured to perform a function; a fault management component configured to manage fault monitoring of the circuit; at least one user register connected to receive control signals from the fault management component and connected to provide register values to the circuit to control an aspect of the circuit; an analog test bus component configured to establish connections to nodes in the circuit to convey analog signals to the nodes and to communicate digital signals with the fault management component, wherein the analog test bus component includes at least one of a digital-to-analog converter, DAC, to convert digital signals from the fault management component to analog signals for injection into the circuit, and an analog-to-digital converter, ADC, to convert analog signals from the circuit to digital signal for the fault management component; a built-in self-test component connected to the circuit to test the circuit and to communicate digital signals with the fault management component; a safety monitor component connected to the circuit to receive a signal from the circuit and to output a safety monitor signal in response to the signal received from the circuit; and gating logic configured to gate signals from the circuit and/or from the safety monitor in response to signals from the fault management component; wherein the circuit is separated from the fault management component, the at least one user register, the analog test bus component, the built-in self-test component, the safety monitor, and the gating logic.