mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a first base station performing interference control in a wireless communication system, the method comprising: receiving (S210) a signal from at least one second base station; identifying (S220) a second base station of the at least one second base station corresponding to the signal; estimating (S230) a channel for the identified second base station , based on the signal; and controlling (S240) a beam in a direction corresponding to the identified second base station , based on a result of the estimated channel, wherein the signal includes at least two sequences connected to each other, the at least two sequences being mapped to at least two adjacent symbols , and characterized in that the length of a cyclic postfix inserted to the last symbol of the at least two adjacent symbols increases as the number of connected symbols increases. receiving (S210) a signal from at least one second base station; identifying (S220) a second base station of the at least one second base station corresponding to the signal; estimating (S230) a channel for the identified second base station , based on the signal; and controlling (S240) a beam in a direction corresponding to the identified second base station , based on a result of the estimated channel, wherein the signal includes at least two sequences connected to each other, the at least two sequences being mapped to at least two adjacent symbols , and characterized in that the length of a cyclic postfix inserted to the last symbol of the at least two adjacent symbols increases as the number of connected symbols increases.
A content deployment method, comprising: receiving (S602), by a delivery controller, a content deployment request from an application server controller, wherein the content deployment request comprises identification information of requested content and address information of an application server storing the requested content; sending (S606), by the delivery controller, a first deployment cache request to a first cache server, wherein the first deployment cache request comprises the identification information of the requested content and the address information of the application server, and the first deployment cache request is used to request the first cache server to obtain the requested content from the application server and cache the requested content; and sending (S614), by the delivery controller, a second deployment cache request to a second cache server, wherein the second deployment cache request comprises the identification information of the first cache server and the identification information of the requested content, and the second deployment cache request is used to request the second cache server to obtain the requested content from the first cache server and cache the requested content. receiving (S602), by a delivery controller, a content deployment request from an application server controller, wherein the content deployment request comprises identification information of requested content and address information of an application server storing the requested content; sending (S606), by the delivery controller, a first deployment cache request to a first cache server, wherein the first deployment cache request comprises the identification information of the requested content and the address information of the application server, and the first deployment cache request is used to request the first cache server to obtain the requested content from the application server and cache the requested content; and sending (S614), by the delivery controller, a second deployment cache request to a second cache server, wherein the second deployment cache request comprises the identification information of the first cache server and the identification information of the requested content, and the second deployment cache request is used to request the second cache server to obtain the requested content from the first cache server and cache the requested content.
A qubit coupling device for coupling a superconducting qubit to an adjustable coupler network, comprising: a dielectric substrate comprising a trench wherein an electric permittivity of the trench is less than an electric permittivity of the dielectric substrate; and a first superconductor layer (202-2) on a surface of the dielectric substrate, wherein: an edge of the first superconductor layer extends along a first direction; at least a portion of the first superconductor layer is in contact with the surface of the dielectric substrate; the first superconductor layer is formed from a superconductor material that exhibits superconductor properties at or below a corresponding critical temperature; a length of the trench within the dielectric substrate is adjacent to and extends along the edge of the first superconductor layer in the first direction; a width of the trench spans a width of the first superconducting layer; and the dielectric substrate comprises one or more pillars within the trench and supporting the first superconductor layer; and a second superconductor layer (202-1) on the surface of the dielectric substrate, wherein: at least a portion of the second superconductor layer is in contact with the surface of the dielectric substrate and adjacent to the trench within the dielectric substrate; and the second superconducting layer comprises a superconducting material, wherein the first superconductor layer is inductively coupled to the second superconducting layer to provide coupling between the superconducting qubit and the adjustable coupler network. a dielectric substrate comprising a trench wherein an electric permittivity of the trench is less than an electric permittivity of the dielectric substrate; and a first superconductor layer (202-2) on a surface of the dielectric substrate, wherein: an edge of the first superconductor layer extends along a first direction; at least a portion of the first superconductor layer is in contact with the surface of the dielectric substrate; the first superconductor layer is formed from a superconductor material that exhibits superconductor properties at or below a corresponding critical temperature; a length of the trench within the dielectric substrate is adjacent to and extends along the edge of the first superconductor layer in the first direction; a width of the trench spans a width of the first superconducting layer; and the dielectric substrate comprises one or more pillars within the trench and supporting the first superconductor layer; and
An impeller assembly for a solid-liquid mixing device, the impeller assembly comprising an impeller body , a plurality of mixing blades which are evenly distributed being located on an inner side of the impeller body and extended outwards from a shaft of the impeller body, and at least two baffle plates being disposed on an outer side of the impeller body along a radial direction of the impeller body outwards and disposed in a circumferential direction of the impeller body, wherein one of every adjacent two baffle plates is fixedly connected to a cavity of the mixing device, an other of the every adjacent two baffle plates is fixedly connected to the impeller body, characterized in that at least one pair of adjacent two baffle plates satisfies following conditions: curves projected by two opposite surfaces of each of adj acent baffle plates on a cross section of the impeller at any height are smooth curves, and at least one of the curves is not fully included in a circle with a center of the shaft as its center.
A computer-implemented method comprising the steps of: receiving data wherein the data comprise data for a plurality of factors associated with a plurality of wells; cleansing the data by fitting a log curve to well production versus time data and including the well production versus time data or excluding the well production versus time data based at least in part on the fitting; training a plurality of regression models based at least in part on the cleansed data and the plurality of factors; outputting a plurality of trained regression models; predicting production of a well via the plurality of trained regression models; fitting a decline curve to the predicted production of the well; predicting production of the well based on the fit decline curve; and outputting one or more control signals for controlling one or more field processes based at least in part on the predicted production. receiving data wherein the data comprise data for a plurality of factors associated with a plurality of wells; cleansing the data by fitting a log curve to well production versus time data and including the well production versus time data or excluding the well production versus time data based at least in part on the fitting; training a plurality of regression models based at least in part on the cleansed data and the plurality of factors; outputting a plurality of trained regression models; predicting production of a well via the plurality of trained regression models; fitting a decline curve to the predicted production of the well; predicting production of the well based on the fit decline curve; and outputting one or more control signals for controlling one or more field processes based at least in part on the predicted production.
Arrangement for determining the moisture content of an object , comprising an electrically insulating carrier layer , on which the following entities are applied - at least two electrodes that are arranged on a first side of the carrier layer , - a digital capacitance measuring device , to which the electrodes are connected, - an NFC transponder having an antenna , to which NFC transponder the measurement results of the capacitance measuring device are fed for forwarding by means of radio via the antenna , - a shield that lies on the side of the carrier layer opposite to the first side, characterised in that - a strain relief element is provided on the side of the carrier layer opposite the electrodes , which strain relief element projects from the carrier layer and is arranged within a border region around the electrodes , which border region has a width greater than 15% of the longest dimension of the surface region encompassed by the electrodes and - the strain relief element has a thickness of between 0.5mm and 2mm. - at least two electrodes that are arranged on a first side of the carrier layer , - a digital capacitance measuring device , to which the electrodes are connected, - an NFC transponder having an antenna , to which NFC transponder the measurement results of the capacitance measuring device are fed for forwarding by means of radio via the antenna , - a shield that lies on the side of the carrier layer opposite to the first side, characterised in that - a strain relief element is provided on the side of the carrier layer opposite the electrodes , which strain relief element projects from the carrier layer and is arranged within a border region around the electrodes , which border region has a width greater than 15% of the longest dimension of the surface region encompassed by the electrodes and - the strain relief element has a thickness of between 0.5mm and 2mm.
Bucket for a work machine , comprising a plurality of walls defining a volume for handling material, said bucket comprising an extension plate carried in a sliding manner by said bucket configured to increase said volume from a first value to a second value while the width (W) of said bucket remains constant, said bucket is characterized in that said sliding of said extension plate with respect to said bucket is achieved by gravity.
An injectable pharmaceutical formulation comprising: (a) about 1% to 20% linezolid Form II by weight of the formulation, (b) a thermosensitive hydrogel comprising about 10.8% to 12.8% poloxamer 407 by weight of the formulation and about 17% to 30% iohexol by weight of the formulation, and optionally (c) at least one pharmaceutically acceptable excipient, wherein linezolid Form II forms a suspension in the thermosensitive hydrogel. (a) about 1% to 20% linezolid Form II by weight of the formulation, (b) a thermosensitive hydrogel comprising about 10.8% to 12.8% poloxamer 407 by weight of the formulation and about 17% to 30% iohexol by weight of the formulation, and optionally (c) at least one pharmaceutically acceptable excipient,
An air distributing device for an air conditioning unit of a motor vehicle, adapted to distribute air to rear seats of a cabin of the motor vehicle, the device comprising a housing defining an air intake chamber , on the housing there being formed an air inlet by means of which the air intake chamber may be supplied with an air flow, a central air outlet located in front of the air inlet and two side air outlets arranged on opposing sides of the housing , and obturating and deflecting means for distributing the air flow to said air outlets; wherein said obturating and deflecting means comprise a drum flap rotatably mounted about an axis (z) orthogonal to a direction running from the air inlet to the central air outlet to control the distribution of the air flow to the central air outlet and to the side air outlets , said flap comprising two flat side flap portions parallel to each other, and a circular arch-shaped central flap portion interconnecting the two side flap portions , characterized in that the flap is movable between a first position, wherein the air inlet is closed by the central portion of the flap ; a second position, wherein the two lateral air outlets are closed by the flap , the air intake chamber is entirely in fluid communication with the air inlet and with the central air outlet and an air flow between the air inlet and the central air outlet is allowed; and a third position, wherein the central air outlet is closed by the central portion of the flap , the air intake chamber is entirely in fluid communication with the air inlet and the side air outlets and an air flow between the air inlet and the side air outlets is allowed. a housing defining an air intake chamber , on the housing there being formed an air inlet by means of which the air intake chamber may be supplied with an air flow, a central air outlet located in front of the air inlet and two side air outlets arranged on opposing sides of the housing , and obturating and deflecting means for distributing the air flow to said air outlets; wherein said obturating and deflecting means comprise a drum flap rotatably mounted about an axis (z) orthogonal to a direction running from the air inlet to the central air outlet to control the distribution of the air flow to the central air outlet and to the side air outlets , said flap comprising two flat side flap portions parallel to each other, and a circular arch-shaped central flap portion interconnecting the two side flap portions , characterized in that the flap is movable between a first position, wherein the air inlet is closed by the central portion of the flap ; a second position, wherein the two lateral air outlets are closed by the flap , the air intake chamber is entirely in fluid communication with the air inlet and with the central air outlet and an air flow between the air inlet and the central air outlet is allowed; and a third position, wherein the central air outlet is closed by the central portion of the flap , the air intake chamber is entirely in fluid communication with the air inlet and the side air outlets and an air flow between the air inlet and the side air outlets is allowed.
A palladium(II) complex of formula : wherein: R 1 and R 2 are independently organic groups having 1-20 carbon atoms, or R 1 and R 2 are linked to form a ring structure with E; R 12 is an organic group having 1-20 carbon atoms; R 20 , R 21 , R 22 , R 23 and R 24 are independently -H or organic groups having 1-20 carbon atoms; or one or more pairs selected from R 1 /R 20 , R 2 /R 20 , R 20 /R 21 or R 22 /R 23 may independently form a ring structure with the atoms to which they are attached; m is 0, 1, 2, 3, 4 or 5; and X Θ is a non-coordinated anionic ligand. R 1 and R 2 are independently organic groups having 1-20 carbon atoms, or R 1 and R 2 are linked to form a ring structure with E; R 12 is an organic group having 1-20 carbon atoms; R 20 , R 21 , R 22 , R 23 and R 24 are independently -H or organic groups having 1-20 carbon atoms; or one or more pairs selected from R 1 /R 20 , R 2 /R 20 , R 20 /R 21 or R 22 /R 23 may independently form a ring structure with the atoms to which they are attached; m is 0, 1, 2, 3, 4 or 5; and X Θ is a non-coordinated anionic ligand.
An industrial machine comprising: a pressure generating device , wherein the pressure generating device includes a motor that drives a pressure generating mechanism , and a servo driver that is configured to control the motor such that the pressure generating mechanism generates a desired pressure, characterized in that the servo driver is configured to reduce supply electric power to the motor not instantaneously but gently over time, if a stop event to cut off energization of the motor occurs in a state where rotation of the motor is substantially stopped and the torque of the motor is generated. a pressure generating device , wherein the pressure generating device includes a motor that drives a pressure generating mechanism , and a servo driver that is configured to control the motor such that the pressure generating mechanism generates a desired pressure, characterized in that the servo driver is configured to reduce supply electric power to the motor not instantaneously but gently over time, if a stop event to cut off energization of the motor occurs in a state where rotation of the motor is substantially stopped and the torque of the motor is generated.
A magnesium-lithium alloy that contains not less than 10.50 mass% and not more than 16.00 mass% lithium, not less than 5.00 mass% and not more than 12.00 mass% aluminum, and not less than 2.00 mass% and not more than 8.00 mass% calcium, and as an additive element more than 0 mass% and not more than 5.00 mass% rare earth element selected from La and Ce, and impurities, the balance being magnesium.
A ram air turbine (RAT) restow system and a ram air turbine, "RAT", said RAT restow system being configured to restow said RAT, said system comprising: an actuator assembly including a piston interposed between an upper fluid compartment and a lower fluid compartment , the actuator assembly configured to selectively move the piston between a deployed position and a stowed position; and a hydraulic restow circuit interposed between the actuator assembly and a hydraulic fluid system configured to output fluid, the hydraulic restow circuit including a manually actuated restow valve configured to rotate between a first position and a second position wherein the first position establishes a first fluid path to deliver the fluid to the upper fluid compartment and the second position establishes a second fluid path to deliver the fluid to the lower fluid compartment , and wherein the manually actuated restow valve includes a valve spring that is elastically biased according to the first position, wherein the valve spring is elastically loaded in response to transitioning the manually actuated restow valve from the first position to the second position, and the valve spring automatically returns the manually actuated restow valve to the first operating position in response to releasing the manually actuated restow valve from the second position. an actuator assembly including a piston interposed between an upper fluid compartment and a lower fluid compartment , the actuator assembly configured to selectively move the piston between a deployed position and a stowed position; and a hydraulic restow circuit interposed between the actuator assembly and a hydraulic fluid system configured to output fluid, the hydraulic restow circuit including a manually actuated restow valve configured to rotate between a first position and a second position wherein the first position establishes a first fluid path to deliver the fluid to the upper fluid compartment and the second position establishes a second fluid path to deliver the fluid to the lower fluid compartment , and wherein the manually actuated restow valve includes a valve spring that is elastically biased according to the first position, wherein the valve spring is elastically loaded in response to transitioning the manually actuated restow valve from the first position to the second position, and the valve spring automatically returns the manually actuated restow valve to the first operating position in response to releasing the manually actuated restow valve from the second position.
A container comprising: a base , an upper rim , and at least one upstanding sidewall therebetween, a flexible retention arm attached to the at least one upstanding sidewall and/or upper rim , said flexible retention arms configured to secure a pH sensitive indicator ; and at least one transparent surface through which the pH sensitive indicator can be observed from a location external to the container , wherein said flexible retention arms exert a force directed towards the transparent surface. a base , an upper rim , and at least one upstanding sidewall therebetween, a flexible retention arm attached to the at least one upstanding sidewall and/or upper rim , said flexible retention arms configured to secure a pH sensitive indicator ; and at least one transparent surface through which the pH sensitive indicator can be observed from a location external to the container , wherein said flexible retention arms exert a force directed towards the transparent surface.