mhurhangee/patent-ind-claim-en huggingface dataset:
A method for receiving an acknowledgement/negative acknowledgement, ACK/NACK, comprising: configuring, by a network-side device, at least two carriers for a user equipment, UE, wherein the at least two carriers include a primary carrier and a secondary carrier; transmitting, by the network-side device, physical downlink control channel information to the UE in a first downlink subframe, wherein the physical downlink control channel information indicates scheduling information of a physical downlink shared channel carried in a second downlink subframe; selecting by the network-side device, a first carrier used for the UE to transmit the ACK/NACK corresponding to the physical downlink shared channel, wherein the first carrier is one of the at least two carriers and the first carrier corresponds to a first timing relationship between the second downlink subframe and a subframe carrying the ACK/NACK; determining, by the network-side device, a third uplink subframe corresponding to the first timing relationship and used for the UE to transmit the ACK/NACK corresponding to the physical downlink shared channel; indicating, by the network-side device, information related to the first carrier and the third uplink subframe to the UE; determining, by the network-side device, in the third uplink subframe of the first carrier, a first channel resource used for the UE to feed back the ACK/NACK; indicating, by the network-side device, the first channel resource to the UE; and receiving, by the network-side device, the ACK/NACK from the UE on the first channel resource in the third subframe of the first carrier. configuring, by a network-side device, at least two carriers for a user equipment, UE, wherein the at least two carriers include a primary carrier and a secondary carrier; transmitting, by the network-side device, physical downlink control channel information to the UE in a first downlink subframe, wherein the physical downlink control channel information indicates scheduling information of a physical downlink shared channel carried in a second downlink subframe; selecting by the network-side device, a first carrier used for the UE to transmit the ACK/NACK corresponding to the physical downlink shared channel, wherein the first carrier is one of the at least two carriers and the first carrier corresponds to a first timing relationship between the second downlink subframe and a subframe carrying the ACK/NACK; determining, by the network-side device, a third uplink subframe corresponding to the first timing relationship and used for the UE to transmit the ACK/NACK corresponding to the physical downlink shared channel; indicating, by the network-side device, information related to the first carrier and the third uplink subframe to the UE; determining, by the network-side device, in the third uplink subframe of the first carrier, a first channel resource used for the UE to feed back the ACK/NACK; indicating, by the network-side device, the first channel resource to the UE; and receiving, by the network-side device, the ACK/NACK from the UE on the first channel resource in the third subframe of the first carrier.
A method for operating a wind power plant in a weak grid environment, the wind power plant being coupled to an electrical grid and comprising a power plant controller for controlling a plurality of wind turbine generators of the wind power plant , the method comprising: controlling each wind turbine generator of the plurality of wind turbine generators to generate an amount of active power according to an active power reference; determining whether the electrical grid fulfils a weak grid criterion; and when the weak grid criterion is fulfilled, setting the power plant controller to operate in a weak grid mode, the weak grid mode comprising: when a grid voltage deviates from a normal operating voltage beyond a threshold voltage, and prior to entering a fault ride-through mode, controlling the power plant controller to provide to the plurality of wind turbine generators a reduced active power reference according to which the plurality of wind turbine generators are controlled, the reduced active power reference being less than the active power reference; and when the electrical grid recovers from the voltage deviation, controlling each wind turbine generator of the plurality of wind turbine generators to generate a reduced amount of active power according to the provided reduced active power reference. controlling each wind turbine generator of the plurality of wind turbine generators to generate an amount of active power according to an active power reference; determining whether the electrical grid fulfils a weak grid criterion; and when the weak grid criterion is fulfilled, setting the power plant controller to operate in a weak grid mode, the weak grid mode comprising: when a grid voltage deviates from a normal operating voltage beyond a threshold voltage, and prior to entering a fault ride-through mode, controlling the power plant controller to provide to the plurality of wind turbine generators a reduced active power reference according to which the plurality of wind turbine generators are controlled, the reduced active power reference being less than the active power reference; and when the electrical grid recovers from the voltage deviation, controlling each wind turbine generator of the plurality of wind turbine generators to generate a reduced amount of active power according to the provided reduced active power reference. when a grid voltage deviates from a normal operating voltage beyond a threshold voltage, and prior to entering a fault ride-through mode, controlling the power plant controller to provide to the plurality of wind turbine generators a reduced active power reference according to which the plurality of wind turbine generators are controlled, the reduced active power reference being less than the active power reference; and when the electrical grid recovers from the voltage deviation, controlling each wind turbine generator of the plurality of wind turbine generators to generate a reduced amount of active power according to the provided reduced active power reference.
A busbar power supply apparatus comprising at a rear side of its housing an AC interface with electrical contacts configured to establish an electrical connection with AC busbars of a busbar system to receive AC mains voltages (L) converted by an integrated AC/DC power conversion unit into a DC power supply voltage applied to at least one DC interface of said busbar power supply apparatus , wherein the electrical contacts of said AC interface are configured to be guided through guide openings of a touch-safe protection cover including the AC busbars and to be inserted into matching contact slots within the AC busbars to establish the electric connection with the AC busbars .
An imaging device comprising a photoelectric conversion unit in which a first electrode, a photoelectric conversion layer, and a second electrode are stacked, wherein an inorganic oxide semiconductor material layer is formed between the first electrode and the photoelectric conversion layer , and the inorganic oxide semiconductor material layer contains zinc atoms and tin atoms, forming a composition expressed by Zn a Sn b O c , characterized by the following conditions: a + b + c = 1.00 b > a. a photoelectric conversion unit in which a first electrode, a photoelectric conversion layer, and a second electrode are stacked, wherein an inorganic oxide semiconductor material layer is formed between the first electrode and the photoelectric conversion layer , and the inorganic oxide semiconductor material layer contains zinc atoms and tin atoms, forming a composition expressed by Zn a Sn b O c , characterized by the following conditions: a + b + c = 1.00 b > a.
An apparatus, comprising: at least one Faraday optic (10; 32; 42, 44, 52, 54; 71, 72, 73, 74) having opposing optical faces through which there is a beam propagation axis that is orthogonal to said opposing optical faces; means (16; 30 ;62, 64; 82, 84) for heating a portion of said at least one Faraday optic (10; 32; 42, 44, 52, 54; 71, 72, 73, 74); a gas cooling system (12, 13, 14; 36; 46, 48, 56, 58; 75, 76, 77, 78) configured to provide gas to cool each face of said opposing faces; and a magnetic field source configured to induce a desired Faraday rotation of a laser beam (24; 38; 60; 80) propagating on said beam propagation axis through said at least one Faraday optic (10; 32; 42, 44, 52, 54; 71, 72, 73, 74). at least one Faraday optic (10; 32; 42, 44, 52, 54; 71, 72, 73, 74) having opposing optical faces through which there is a beam propagation axis that is orthogonal to said opposing optical faces; means (16; 30 ;62, 64; 82, 84) for heating a portion of said at least one Faraday optic (10; 32; 42, 44, 52, 54; 71, 72, 73, 74); a gas cooling system (12, 13, 14; 36; 46, 48, 56, 58; 75, 76, 77, 78) configured to provide gas to cool each face of said opposing faces; and a magnetic field source configured to induce a desired Faraday rotation of a laser beam (24; 38; 60; 80) propagating on said beam propagation axis through said at least one Faraday optic (10; 32; 42, 44, 52, 54; 71, 72, 73, 74).
A sheet stacking device comprising: a hopper unit that stacks box making sheets (B) ; an ejection unit that ejects each of the box making sheets (B) to the hopper unit ; and a guide device that is disposed between the ejection unit and the hopper unit and has a first guide part that guides a lower surface of the box making sheet in a horizontal direction, and a second guide part that guides a rear end of the box making sheet in a vertical direction characterized in that , the ejection unit has an upper ejection roll and a lower ejection roll in which a circumferential groove is formed, the guide device has a third guide part of which a base end is coupled to the first guide part , and the third guide part has a distal end disposed within the circumferential groove . a hopper unit that stacks box making sheets (B) ; an ejection unit that ejects each of the box making sheets (B) to the hopper unit ; and a guide device that is disposed between the ejection unit and the hopper unit and has a first guide part that guides a lower surface of the box making sheet in a horizontal direction, and a second guide part that guides a rear end of the box making sheet in a vertical direction characterized in that , the ejection unit has an upper ejection roll and a lower ejection roll in which a circumferential groove is formed, the guide device has a third guide part of which a base end is coupled to the first guide part , and the third guide part has a distal end disposed within the circumferential groove .
A pile system, comprising: - a pile that comprises a first elongated hollow body having a first end and a second end, the first end being closed by an end member provided with an opening , and a second elongated hollow body having a first end and a second end, the second elongated hollow body being arranged inside the first elongated hollow body so that the first end of the second elongated hollow body extends through the opening and is attached to the end member , - a dredge pump attached to the first end of the second elongated hollow body for dredging soil, and - a riser pipe arranged inside the second elongated hollow body for carrying the dredged soil, a first end of the riser pipe being attached to the dredge pump , characterised in that the dredge pump comprises a cutter unit for loosening the soil and a water spraying unit for fluidising the soil. - a pile that comprises a first elongated hollow body having a first end and a second end, the first end being closed by an end member provided with an opening , and a second elongated hollow body having a first end and a second end, the second elongated hollow body being arranged inside the first elongated hollow body so that the first end of the second elongated hollow body extends through the opening and is attached to the end member , - a dredge pump attached to the first end of the second elongated hollow body for dredging soil, and - a riser pipe arranged inside the second elongated hollow body for carrying the dredged soil, a first end of the riser pipe being attached to the dredge pump ,
A split-type electromagnet, wherein the split-type electromagnet comprises a housing and an iron core , and a coil is wound around the iron core , wherein the housing and the iron core are of a split type, the housing is provided with a fixed position for the iron core wound with coil, the housing is a cylindrical body, the iron core is a cylindrical body that is concentric with the housing , characterized in that an inner wall of the housing and the outer wall of the iron core are circumferentially provided with clipping grooves , and positions of the clipping grooves correspond to a top end of the coil, and after the iron core has been wound by the coil and fixed within the housing, the top end of the coil is infused with a glue or a molten rubber, plastic or nylon, and the glue, rubber, plastic or nylon after being solidified engages with the clipping grooves to fix the coil between the housing and the iron core.
Hand-held cyclone vacuum cleaner comprising a separation unit for collecting suctioned material, which separation unit comprises a drive assembly for generating a suction flow, a first filter stage , a second filter stage and a third filter stage , wherein the drive assembly is arranged downstream of the second filter stage and the third filter stage in a drive assembly housing , wherein the drive assembly is arranged spatially between the second filter stage and the third filter stage in the drive assembly housing , wherein the suction flow generated during operation of the drive assembly flows around the drive assembly .
An aerosol generation system for generation of an aerosol from an aerosol-forming precursor, the system comprising: - an electrically operated heating system to heat said precursor to generate the aerosol; - a flow path for transmission of flow, including the aerosol, to a user; wherein the heating system is arranged in fluid communication with the flow path ; and - electrical circuitry arranged to: - measure a change in a property associated with the heating system due to a cooling effect on the heating system from a user inhalation through the flow path ; - determine a characteristic of the inhalation based on the measured property associated with the heating system ; and - identify the user based on the determined characteristic. - an electrically operated heating system to heat said precursor to generate the aerosol; - a flow path for transmission of flow, including the aerosol, to a user; wherein the heating system is arranged in fluid communication with the flow path ; and - electrical circuitry arranged to: - measure a change in a property associated with the heating system due to a cooling effect on the heating system from a user inhalation through the flow path ; - determine a characteristic of the inhalation based on the measured property associated with the heating system ; and - identify the user based on the determined characteristic. - measure a change in a property associated with the heating system due to a cooling effect on the heating system from a user inhalation through the flow path ; - determine a characteristic of the inhalation based on the measured property associated with the heating system ; and - identify the user based on the determined characteristic.
A mounting system for pressure vessels , having a first supporting member on which at least one first mount for a first end of the pressure vessel is arranged, and having a second supporting member on which at least one second mount for a second end of the pressure vessel is arranged, the first mount having an inner ring in which the first end of the pressure vessel is accommodated in a rotationally fixed manner, characterized in that the inner ring is fastened pivotably about a first pivot axis in an outer ring which in turn is fastened pivotably in the mount about a second pivot axis extending at right angles to the first pivot axis.
An apparatus for selectively opening up a portion of a cable , the apparatus comprising: a first guide arranged to receive a core of the cable ; a second guide spaced laterally apart from the first guide and arranged to receive one or more outer wires of the cable ; and a plurality of first support members coupling the first guide to the second guide , wherein the second guide is arranged to draw a portion of the one or more outer wires of the cable away from the core of the cable as the cable is passed through the apparatus when in use, and wherein a lateral displacement (D 1 , D 2 ) between the first guide and the second guide is variable, characterised in that each of the first support members is moveable between a first position and a second position and a lateral displacement (D 1 , D 2 ) between the first guide and the second guide is greater when the first support members are in the first position than when in the second position. a first guide arranged to receive a core of the cable ; a second guide spaced laterally apart from the first guide and arranged to receive one or more outer wires of the cable ; and a plurality of first support members coupling the first guide to the second guide , wherein the second guide is arranged to draw a portion of the one or more outer wires of the cable away from the core of the cable as the cable is passed through the apparatus when in use, and wherein a lateral displacement (D 1 , D 2 ) between the first guide and the second guide is variable, characterised in that each of the first support members is moveable between a first position and a second position and a lateral displacement (D 1 , D 2 ) between the first guide and the second guide is greater when the first support members are in the first position than when in the second position.
A therapeutic nanoparticle, comprising clevidipine, or a pharmaceutically acceptable salt thereof, and at least one excipient, wherein said nanoparticles comprise a core comprising clevidipine or a pharmaceutically acceptable salt thereof, an outer portion surrounding said core comprising at least one excipient, wherein said at least one excipient is water soluble, water insoluble or combinations thereof, wherein said water soluble excipient is PEG 200, sodium deoxycholate and vitamin E TPGS or combinations thereof and said water insoluble excipient is vitamin E, deoxycholic acid and phosphotidylcholine, and wherein clevidipine, or a pharmaceutically acceptable salt thereof, is in an amount of from 0.5 to 10.0 mg/mL.
An electrically isolated driving device comprising: a driven body made of first metallic material and having a driven end configured to interface with a fastener; a drive body made of a second metallic material and having a drive end configured to interface with a driving tool; and a body portion over-molding substantially all portions of the drive body and the driven body other than the drive end and the driven end, respectively, wherein the drive end of the drive body and the driven end of the driven body face away from each other, and the drive body and driven body each include axial grooves , wherein the axial grooves of the driven body and the axial grooves of the drive body each extend parallel to each other, characterized in that the axial grooves of the drive body are offset from the axial grooves of the driven body. a driven body made of first metallic material and having a driven end configured to interface with a fastener; a drive body made of a second metallic material and having a drive end configured to interface with a driving tool; and a body portion over-molding substantially all portions of the drive body and the driven body other than the drive end and the driven end, respectively, wherein the drive end of the drive body and the driven end of the driven body face away from each other, and the drive body and driven body each include axial grooves , wherein the axial grooves of the driven body and the axial grooves of the drive body each extend parallel to each other, characterized in that the axial grooves of the drive body are offset from the axial grooves of the driven body.
A method for 3D printing an object on a support , the object being a collimator or a reflector with at least one wall having a first surface and a second, opposite surface , the wall forming a contour wall surrounding a hollow interior , wherein said first surface faces the hollow interior and is intended to serve as an optical functional surface for light collimation or for light reflection, wherein said method comprises the steps of: moving a printing head along a predefined path in an x-y plane extending parallel to said support , extruding and depositing a track of printing material from a nozzle of said printing head during movement of the printing head along the predefined path , to print one layer of said object , and printing consecutive layers onto each other, thereby forming said wall by printing one track on top of another track , wherein said method further comprises the step of selecting an orientation of the object during printing by defining the predefined path of each layer such that at least a portion of said wall has a tangent non-parallel to a normal of the x-y plane, and wherein, in said portion, said first surface faces away from the support and said second surface faces the support , and wherein a surface smoothness of said first surface intended to serve as an optical functional surface is greater than a surface smoothness of said second surface . moving a printing head along a predefined path in an x-y plane extending parallel to said support , extruding and depositing a track of printing material from a nozzle of said printing head during movement of the printing head along the predefined path , to print one layer of said object , and printing consecutive layers onto each other, thereby forming said wall by printing one track on top of another track , wherein said method further comprises the step of selecting an orientation of the object during printing by defining the predefined path of each layer such that at least a portion of said wall has a tangent non-parallel to a normal of the x-y plane, and wherein, in said portion, said first surface faces away from the support and said second surface faces the support , and wherein a surface smoothness of said first surface intended to serve as an optical functional surface is greater than a surface smoothness of said second surface .