mhurhangee/patent-ind-claim-en huggingface dataset:
A molding apparatus for molding a fiber reinforced resin material, the apparatus comprising: a fiber feeder configured to feed fibers to a lamination area ; a resin feeder configured to feed a resin to the lamination area ; a curing accelerator configured to accelerate curing of the resin to which the fibers are being fed while the fed fibers are being tensioned; an impregnator configured to impregnate the fed fibers with the resin to which the fibers are being fed; and a transporter configured to relatively change a feeding position of the fibers , a feeding position of the resin , an accelerating position of the curing, and a position of impregnating, wherein the impregnator includes a pressing roller configured to apply pressure to the fibers and the resin that are fed to the lamination area and the pressing roller is movable in a direction in which the pressure is applied; and wherein the pressing roller includes a roller and an actuator . a fiber feeder configured to feed fibers to a lamination area ; a resin feeder configured to feed a resin to the lamination area ; a curing accelerator configured to accelerate curing of the resin to which the fibers are being fed while the fed fibers are being tensioned; an impregnator configured to impregnate the fed fibers with the resin to which the fibers are being fed; and a transporter configured to relatively change a feeding position of the fibers , a feeding position of the resin , an accelerating position of the curing, and a position of impregnating, wherein the impregnator includes a pressing roller configured to apply pressure to the fibers and the resin that are fed to the lamination area and the pressing roller is movable in a direction in which the pressure is applied; and wherein the pressing roller includes a roller and an actuator .
A distributed query processing system for determining multiple distinct counts for values based on a key, the system comprising: a processing system that includes one or more processors; and a memory configured to store program code to be executed by the processing system, the program code being configured to: on receipt at the system of a query which specifies a dataset, access the dataset, the dataset including a first field, a second field, and a third field; combine the first field with the second field to generate a fourth field; generate a set of compound keys that includes two or more compound keys each comprised of a different combination of one of at least two identifiers for the first field and the second field with one of at least two values for the third field; assign a corresponding compound key of the set of compound keys to each value of the fourth field; determine a total number of unique values of the fourth field for each value in the third field, based at least in part on the set of compound keys, as the multiple distinct counts; and perform the query based on the multiple distinct counts. a processing system that includes one or more processors; and a memory configured to store program code to be executed by the processing system, the program code being configured to: on receipt at the system of a query which specifies a dataset, access the dataset, the dataset including a first field, a second field, and a third field; combine the first field with the second field to generate a fourth field; generate a set of compound keys that includes two or more compound keys each comprised of a different combination of one of at least two identifiers for the first field and the second field with one of at least two values for the third field; assign a corresponding compound key of the set of compound keys to each value of the fourth field; determine a total number of unique values of the fourth field for each value in the third field, based at least in part on the set of compound keys, as the multiple distinct counts; and perform the query based on the multiple distinct counts. on receipt at the system of a query which specifies a dataset, access the dataset, the dataset including a first field, a second field, and a third field; combine the first field with the second field to generate a fourth field; generate a set of compound keys that includes two or more compound keys each comprised of a different combination of one of at least two identifiers for the first field and the second field with one of at least two values for the third field; assign a corresponding compound key of the set of compound keys to each value of the fourth field; determine a total number of unique values of the fourth field for each value in the third field, based at least in part on the set of compound keys, as the multiple distinct counts; and perform the query based on the multiple distinct counts.
A device for fitting and removal of brake calipers , comprising a frame portion , a fastening portion for fastening the device on the brake caliper , the frame portion and the fastening portion being connected to one another and the frame portion being provided with lifting means for connecting a lifting device , wherein in that the fastening portion comprises connecting portions adapted to engaging with at least one fastening point for a component which cooperates with the brake caliper , characterized in that the component cooperating with the brake caliper is a brake caliper bracket and that the connecting portions of the fastening portion are of substantially the same geometrical shape as the brake caliper bracket's connecting portions which connect with the brake caliper .
A dispersant composition for an electrochemical device comprising a polymer A and a substituted phenol, wherein the polymer A includes a nitrile group-containing monomer unit, the polymer A has an intrinsic viscosity, measured in accordance with the method defined in the example section of the description, of not less than 0.15 dL/g and less than 1.20 dL/g when dissolved in N-methyl-2-pyrrolidone and measured at a temperature of 25°C, proportional content of the nitrile group-containing monomer unit in the polymer A is not less than 15 mass% and not more than 50 mass% when all repeating units in the polymer A are taken to be 100 mass%, and not less than 0.01 mass% and not more than 0.2 mass% of the substituted phenol is included relative to the polymer A. the polymer A includes a nitrile group-containing monomer unit, the polymer A has an intrinsic viscosity, measured in accordance with the method defined in the example section of the description, of not less than 0.15 dL/g and less than 1.20 dL/g when dissolved in N-methyl-2-pyrrolidone and measured at a temperature of 25°C, proportional content of the nitrile group-containing monomer unit in the polymer A is not less than 15 mass% and not more than 50 mass% when all repeating units in the polymer A are taken to be 100 mass%, and not less than 0.01 mass% and not more than 0.2 mass% of the substituted phenol is included relative to the polymer A.
A hydraulic damper , in particular a motor vehicle hydraulic suspension damper, comprising a tube filled with working liquid, a main piston assembly disposed slidably inside the main section of the tube , attached to a piston rod led outside the damper and dividing the tube into a rebound chamber and a compression chamber , rebound and compression valve assemblies to control the flow of working liquid within the tube during a rebound and compression stroke of the damper , wherein at least one end of the tube is provided with a narrower section of a smaller diameter provided at least partially with axial grooves and the damper is further provided with at least one additional piston assembly having diameter (D3) smaller than diameter (D1) of the main section of the tube , displaceable along with the main piston assembly and apt to be introduced in said narrower section of the tube to generate additional damping force, wherein said narrower section extends through a conical section into the main section of the tube , characterized in that , said conical section is internally shaped to form a number of axial bridges defining said axial grooves extending along the length of said conical section , each bridge comprising a cylindrical section , and a conical section , wherein said cylindrical sections of said bridges define a semi-cylindrical section to provide guidance for said at least one additional piston assembly , and said conical sections of said axial bridges define a semi-conical section , wherein said bridges comprise annular sections at both sides of respective cylindrical and conical sections defining cross-sectional areas of the grooves between said bridges in a plane perpendicular to the damper axis.
A method for controlling a rotary wing aircraft , the method comprising: receiving probe data from an airspeed probe ; receiving control inputs from one or more cockpit controls and determine commanded actuator positions; the method being characterised by the following steps: determining a measured airspeed of the rotary wing aircraft based on the probe data; determining an estimated airspeed of the rotary wing aircraft based on the commanded actuator positions; determining a first fade value based on the measured airspeed; determining a second fade value based on the estimated airspeed; determining a blended airspeed based on the measured airspeed, the estimated airspeed, the first fade value, and the second fade value; and controlling the rotary wing aircraft based at least in part on the blended airspeed. receiving probe data from an airspeed probe ; receiving control inputs from one or more cockpit controls and determine commanded actuator positions; the method being characterised by the following steps: determining a measured airspeed of the rotary wing aircraft based on the probe data; determining an estimated airspeed of the rotary wing aircraft based on the commanded actuator positions; determining a first fade value based on the measured airspeed; determining a second fade value based on the estimated airspeed; determining a blended airspeed based on the measured airspeed, the estimated airspeed, the first fade value, and the second fade value; and controlling the rotary wing aircraft based at least in part on the blended airspeed. determining a measured airspeed of the rotary wing aircraft based on the probe data; determining an estimated airspeed of the rotary wing aircraft based on the commanded actuator positions; determining a first fade value based on the measured airspeed; determining a second fade value based on the estimated airspeed; determining a blended airspeed based on the measured airspeed, the estimated airspeed, the first fade value, and the second fade value; and controlling the rotary wing aircraft based at least in part on the blended airspeed.
Sealed and thermally insulating tank for the storage or transport of a cold fluid, the tank comprising supporting walls defining a supporting structure and tank walls attached on an inner surface of the supporting walls, in which each tank wall comprises a sealed membrane and a thermally insulating barrier fitted between the sealed membrane and the supporting wall, in which the supporting structure comprises a bottom supporting wall presenting a drain hole passing through the bottom supporting wall to enable draining of the supporting structure, characterized in that the bottom supporting wall carries a projecting flange to guide a flow of liquid to the drain hole , the projecting flange extending along the edges of the bottom supporting wall at a distance from the edges of the bottom supporting wall continuously on the whole periphery of the bottom supporting wall, the projecting flange being covered by the thermally insulating barrier of the tank wall attached on the bottom supporting wall .
A method for sending security information (IS) implemented by an electronic device , said method comprising the following steps: - detecting (S2) an event encountered by the electronic device; - recording (S6), in a secure memory of the device, security information (IS) representative of said event; - starting (S8), before or after said recording, a transaction (TR) with an outer terminal ; and - sending (S10), to the outer terminal, the security information (IS) in a transaction message (E20a; E20b; E34c) during said transaction (TR) wherein the transaction (TR) and the transaction message including the security information (IS) comply with the EMV, Europay Mastercard Visa, protocol, wherein the event detected by the electronic device comprises at least one of: - an anomaly encountered by the electronic device; and - an attack on the electronic device. - detecting (S2) an event encountered by the electronic device; - recording (S6), in a secure memory of the device, security information (IS) representative of said event; - starting (S8), before or after said recording, a transaction (TR) with an outer terminal ; and - sending (S10), to the outer terminal, the security information (IS) in a transaction message (E20a; E20b; E34c) during said transaction (TR) - an anomaly encountered by the electronic device; and - an attack on the electronic device.
A method, comprising: enabling, by a processor of a non-access point, in the following also referred to as non-AP, multi-link device, in the following also referred to as MLD, an enhanced multi-link single-radio, in the following also referred to as EMLSR, mode ; characterized by : establishing, by the processor, one or more target wake time, in the following also referred to as TWT, agreements with an access point, in the following also referred to as AP, MLD on a first link and a second link of multiple links such that data exchange between a first station, in the following also referred to as STA, affiliated with the non-AP MLD and a first AP affiliated with the AP MLD occurs on the first link during a TWT service period, in the following also referred to as SP, while an EMLSR mode operation is performed on the second link , with the one or more TWT agreements comprising concurrent TWT agreements on the multiple links. enabling, by a processor of a non-access point, in the following also referred to as non-AP, multi-link device, in the following also referred to as MLD, an enhanced multi-link single-radio, in the following also referred to as EMLSR, mode ; characterized by : establishing, by the processor, one or more target wake time, in the following also referred to as TWT, agreements with an access point, in the following also referred to as AP, MLD on a first link and a second link of multiple links such that data exchange between a first station, in the following also referred to as STA, affiliated with the non-AP MLD and a first AP affiliated with the AP MLD occurs on the first link during a TWT service period, in the following also referred to as SP, while an EMLSR mode operation is performed on the second link , with the one or more TWT agreements comprising concurrent TWT agreements on the multiple links.
A cell access method, characterized by comprising steps of: measuring , by a User Equipment, UE, pilot signals for each of a plurality of cells that has been found by a searching operation conducted by the UE, the pilot signals transmitted on a pilot resource for each cell being beam-formed using a set of beam-forming vectors configured for the cell; and selecting , by the UE, a cell corresponding to an optimum pilot signal measurement result from the plurality of cells that has been found by the searching operation conducted by the UE and accessing the selected cell. measuring , by a User Equipment, UE, pilot signals for each of a plurality of cells that has been found by a searching operation conducted by the UE, the pilot signals transmitted on a pilot resource for each cell being beam-formed using a set of beam-forming vectors configured for the cell; and selecting , by the UE, a cell corresponding to an optimum pilot signal measurement result from the plurality of cells that has been found by the searching operation conducted by the UE and accessing the selected cell.
A cleaning control method, applied to be executed by a cleaning robot when cleans an unknown area to be cleaned, wherein the cleaning robot is used in conjunction with a base station, the base station is a cleaning device used by the cleaning robot, the area to be cleaned includes an entrance edge, the cleaning robot is configured to perform a cleaning operation according to a set cleaning direction, and the set cleaning direction is a direction pointing from inside of the area to be cleaned to the entrance edge, and characterized in that the cleaning control method comprises: operation S1, acquiring an area map, wherein the area map is configured to represent the area to be cleaned or a sub-area to be cleaned in the area to be cleaned, and the sub-area to be cleaned is an uncleaned area in the area to be cleaned; operation S2, determining a first cleaning starting point of the area to be cleaned or the sub-area to be cleaned based on the area map, wherein the first cleaning starting point is a point on an edge of the area to be cleaned or the sub-area to be cleaned opposite to the cleaning direction; and operation S3, performing a cleaning operation on the area to be cleaned or the sub-area to be cleaned from the first cleaning starting point after moving to the first cleaning starting point. operation S1, acquiring an area map, wherein the area map is configured to represent the area to be cleaned or a sub-area to be cleaned in the area to be cleaned, and the sub-area to be cleaned is an uncleaned area in the area to be cleaned; operation S2, determining a first cleaning starting point of the area to be cleaned or the sub-area to be cleaned based on the area map, wherein the first cleaning starting point is a point on an edge of the area to be cleaned or the sub-area to be cleaned opposite to the cleaning direction; and operation S3, performing a cleaning operation on the area to be cleaned or the sub-area to be cleaned from the first cleaning starting point after moving to the first cleaning starting point.
A method for controlling a power generation system , the method comprising: visually monitoring, with a camera, a thermal output of a component of the power generation system ; detecting a heat distribution across the component of the power generation system from the visually monitored thermal output of the component , during operation of the power generation system ; calculating a projected heat distribution across the component based on a library of modeling data for the power generation system ; calculating whether a difference between the heat distribution and the projected heat distribution exceeds a thermal threshold; adjusting, by a system controller in communication with the camera and the power generation system , the power generation system in response to the difference exceeding the thermal threshold, wherein the adjusting includes modifying an operating setting of the power generation system ; wherein the power generation system is positioned at a first geographic location, the system controller is positioned at least partially at a second geographic location different from the first geographic location, and wherein the power generation system is one of a plurality of power generation systems, each of the plurality of power generation systems being positioned at a different respective geographic location; and wherein the system controller is further configured to control one or more power generation systems of the plurality of power generation systems other than the power generation system . visually monitoring, with a camera, a thermal output of a component of the power generation system ; detecting a heat distribution across the component of the power generation system from the visually monitored thermal output of the component , during operation of the power generation system ; calculating a projected heat distribution across the component based on a library of modeling data for the power generation system ; calculating whether a difference between the heat distribution and the projected heat distribution exceeds a thermal threshold; adjusting, by a system controller in communication with the camera and the power generation system , the power generation system in response to the difference exceeding the thermal threshold, wherein the adjusting includes modifying an operating setting of the power generation system ; wherein the power generation system is positioned at a first geographic location, the system controller is positioned at least partially at a second geographic location different from the first geographic location, and wherein the power generation system is one of a plurality of power generation systems, each of the plurality of power generation systems being positioned at a different respective geographic location; and wherein the system controller is further configured to control one or more power generation systems of the plurality of power generation systems other than the power generation system .
An electrical power supplying device for supplying electrical power in a contact manner to a pair of power receiving elements of a charging arm that extends outwardly in a vehicle transverse direction from an electric vehicle , comprising: a pair of power lines configured to extend along a travel path of the electric vehicle in a state enabling contact with the pair of the power receiving elements , and electrical power being supplied to the power lines ; and a base member containing a pair of retaining plates being disposed on an opposite side from the travel path with respect to the pair of power lines ; wherein the base member is formed to ensure an insulating distance between the pair of power lines , and to orient a contact portion of one of the power lines with respect to the charging arm in an upwardly inclined manner toward the side of the travel path , and to orient a contact portion of another of the power lines with respect to the charging arm in a downwardly inclined manner toward the side of the travel path , characterized in that the electrical power supplying device further comprises a pair of insulators which are fixed to the base member and configured to retain the respective power lines , and the base member is spaced apart from the pair of power lines , and each of the insulators has a length along a longitudinal direction corresponding to the power lines , the length of the insulators being shorter than a length of the corresponding one of the power lines . a pair of power lines configured to extend along a travel path of the electric vehicle in a state enabling contact with the pair of the power receiving elements , and electrical power being supplied to the power lines ; and a base member containing a pair of retaining plates being disposed on an opposite side from the travel path with respect to the pair of power lines ; wherein the base member is formed to ensure an insulating distance between the pair of power lines , and to orient a contact portion of one of the power lines with respect to the charging arm in an upwardly inclined manner toward the side of the travel path , and to orient a contact portion of another of the power lines with respect to the charging arm in a downwardly inclined manner toward the side of the travel path , characterized in that the electrical power supplying device further comprises a pair of insulators which are fixed to the base member and configured to retain the respective power lines , and the base member is spaced apart from the pair of power lines , and each of the insulators has a length along a longitudinal direction corresponding to the power lines , the length of the insulators being shorter than a length of the corresponding one of the power lines .