mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a winding assembly for an electrical machine, the method comprising: selecting (S1) a function defining a spatial separation between adjacent turns of a winding path, the function dependent on one or more parameters of the electrical machine and/or an anticipated operating environment of the electrical machine; forming (S2), by three-dimensional, 3D, printing, an electrically insulating body comprising a channel defining a winding path following the function, the channel having an inlet and an outlet ; heating (S3) the electrically insulating body to a temperature above the melting point of an electrically conducting material ; flowing (S4) the electrically conducting material through the inlet to the outlet to fill the channel; and cooling the electrically insulating body to solidify the electrically conducting material within the channel, thereby forming said winding assembly. selecting (S1) a function defining a spatial separation between adjacent turns of a winding path, the function dependent on one or more parameters of the electrical machine and/or an anticipated operating environment of the electrical machine; forming (S2), by three-dimensional, 3D, printing, an electrically insulating body comprising a channel defining a winding path following the function, the channel having an inlet and an outlet ; heating (S3) the electrically insulating body to a temperature above the melting point of an electrically conducting material ; flowing (S4) the electrically conducting material through the inlet to the outlet to fill the channel; and cooling the electrically insulating body to solidify the electrically conducting material within the channel, thereby forming said winding assembly.
A system, comprising: a processing device configured to: determine a tripping operation to be undertaken; calculate a variable tripping speed for the tripping operation to vary a speed of the tripping operation; and generate an output to control operation of a portion of a continuous tripping system to implement the tripping operation at the variable tripping speed, wherein the tripping operation comprises movement of a first tubular segment and a second tubular segment towards a drill floor while being made up without halting or movement of the first tubular segment and the second tubular segment away from the drill floor while being broken out without halting, wherein the processing device is configured to calculate the variable tripping speed based on a depth of a well into which a tubular string comprising at least one of the first segment and the second segment is moving during the tripping operation to establish a speed of the tripping operation while maintaining a well pressure below a first threshold value and above a second threshold value less than the first threshold value at respective depths of the well, wherein the first threshold value corresponds to a fracture pressure and the second threshold value corresponds to a pore pressure. determine a tripping operation to be undertaken; calculate a variable tripping speed for the tripping operation to vary a speed of the tripping operation; and generate an output to control operation of a portion of a continuous tripping system to implement the tripping operation at the variable tripping speed, wherein the tripping operation comprises movement of a first tubular segment and a second tubular segment towards a drill floor while being made up without halting or movement of the first tubular segment and the second tubular segment away from the drill floor while being broken out without halting, wherein the processing device is configured to calculate the variable tripping speed based on a depth of a well into which a tubular string comprising at least one of the first segment and the second segment is moving during the tripping operation to establish a speed of the tripping operation while maintaining a well pressure below a first threshold value and above a second threshold value less than the first threshold value at respective depths of the well, wherein the first threshold value corresponds to a fracture pressure and the second threshold value corresponds to a pore pressure.
A bidirectional resonant conversion circuit, comprising: a primary capacitor , three primary side bridge arms , three three-port resonant cavities , three transformers , three secondary side bridge arms , and a secondary capacitor , wherein two ends of each primary side bridge arm are respectively connected to two ends of the primary capacitor , the three primary side bridge arms are in a one-to-one correspondence with the three three-port resonant cavities , and primary-side windings of the three transformers are in a one-to-one correspondence with the three three-port resonant cavities; each three-port resonant cavity has three ports, a first port of each three-port resonant cavity is connected to a corresponding primary side bridge arm , a second port of each three-port resonant cavity is connected to a ground terminal of a corresponding primary side bridge arm, and a third port of each three-port resonant cavity is connected to a corresponding transformer ; and two ends of each secondary side bridge arm are respectively connected to two ends of the secondary capacitor , secondary-side windings of the three transformers are in a one-to-one correspondence with the three secondary side bridge arms, and each transformer is connected to a corresponding secondary side bridge arm; wherein each three-port resonant cavity comprises a first group of inductor and capacitor, a second group of inductor and capacitor, and a third group of inductor and capacitor, wherein the first group of inductor and capacitor comprises a first inductor (LI a) and a first capacitor (C1a) that are connected in series, a first end of the first group of inductor and capacitor is used as the first port of the three-port resonant cavity , and the first end of the first group of inductor and capacitor is a first end of the first capacitor or a first end of the first inductor; the second group of inductor and capacitor comprises a second inductor (L2a) and a second capacitor (C2a) that are connected in series, a first end of the second group of inductor and capacitor is used as the second port of the three-port resonant cavity , and the first end of the second group of inductor and capacitor is a first end of the second capacitor (C2a) or a first end of the second inductor (L2a); the third group of inductor and capacitor comprises a third inductor (L3a) and a third capacitor (C3a) that are connected in series, a first end of the third group of inductor and capacitor is used as the third port of the three-port resonant cavity , and the first end of the third group of inductor and capacitor is a first end of the third capacitor or a first end of the third inductor; and a second end of the first group of inductor and capacitor, a second end of the second group of inductor and capacitor, and a second end of the third group of inductor and capacitor are connected to each other.
A coated article comprising a substrate; and a cured coating disposed on the substrate, wherein the cured coating is derived from a coating composition comprising: a binder resin component; a crosslinking component; an amine-functional texture-producing component having the general formula (I): NR 1 R 2 R 3 (I) wherein R 1 , R 2 , and R 3 are each independently -H; unsubstituted C1-C10 alkyl; substituted C1-C10 alkyl, wherein the substituents include C1-C10 alkyl, alkenyl, aryl, halide, and hydroxyl; unsubstituted and substituted C4-C10 branched alkyl; unsubstituted aryl; substituted aryl, wherein the substituents include C1-C10 alkyl, alkenyl, aryl, halide, and hydroxyl; C1-C10 ketone; C1-C10 aldehyde; C1-C10 ether; aryl ketone; aryl aldehyde; aryl ether; and mixtures or combinations thereof; and a light-scattering component, wherein the cured coating has reflectance of at least about 90%, and 60° gloss of about 5 or less, wherein the reflectance is measured using the CapY method on a Hunter Lab Scan instrument, and the gloss is measured at a 60° angle with a handheld gloss meter. a substrate; and a cured coating disposed on the substrate, wherein the cured coating is derived from a coating composition comprising: a binder resin component; a crosslinking component; an amine-functional texture-producing component having the general formula (I): NR 1 R 2 R 3 (I) wherein R 1 , R 2 , and R 3 are each independently -H; unsubstituted C1-C10 alkyl; substituted C1-C10 alkyl, wherein the substituents include C1-C10 alkyl, alkenyl, aryl, halide, and hydroxyl; unsubstituted and substituted C4-C10 branched alkyl; unsubstituted aryl; substituted aryl, wherein the substituents include C1-C10 alkyl, alkenyl, aryl, halide, and hydroxyl; C1-C10 ketone; C1-C10 aldehyde; C1-C10 ether; aryl ketone; aryl aldehyde; aryl ether; and mixtures or combinations thereof; and a light-scattering component, a binder resin component; a crosslinking component; an amine-functional texture-producing component having the general formula (I): NR 1 R 2 R 3 (I) wherein R 1 , R 2 , and R 3 are each independently -H; unsubstituted C1-C10 alkyl; substituted C1-C10 alkyl, wherein the substituents include C1-C10 alkyl, alkenyl, aryl, halide, and hydroxyl; unsubstituted and substituted C4-C10 branched alkyl; unsubstituted aryl; substituted aryl, wherein the substituents include C1-C10 alkyl, alkenyl, aryl, halide, and hydroxyl; C1-C10 ketone; C1-C10 aldehyde; C1-C10 ether; aryl ketone; aryl aldehyde; aryl ether; and mixtures or combinations thereof; and a light-scattering component, wherein the cured coating has reflectance of at least about 90%, and 60° gloss of about 5 or less, wherein the reflectance is measured using the CapY method on a Hunter Lab Scan instrument, and the gloss is measured at a 60° angle with a handheld gloss meter.
A compound having a structure of Formula II or a pharmaceutically acceptable salt thereof: wherein X 1 is N or CH, X 2 and X 3 are, independently for each occurrence, CR 5 or N; X 6 and X 7 are, independently for each occurrence, CR 7 or N; R 1a is H, halo, or -CN; R 1b is H, halo, or -CN; R 2 is H or halo; R 5 is H, or optionally substituted alkyl; R 7 is H, halo, or optionally substituted alkyl; and Z is optionally substituted amino, alkylamino, heteroalkylamino, cycloalkylamino, or heterocycloalkylamino. X 1 is N or CH, X 2 and X 3 are, independently for each occurrence, CR 5 or N; X 6 and X 7 are, independently for each occurrence, CR 7 or N; R 1a is H, halo, or -CN; R 1b is H, halo, or -CN; R 2 is H or halo; R 5 is H, or optionally substituted alkyl; R 7 is H, halo, or optionally substituted alkyl; and Z is optionally substituted amino, alkylamino, heteroalkylamino, cycloalkylamino, or heterocycloalkylamino.
A rubber composition, comprising, based on 100 parts by weight of rubber components comprising a first synthetic rubber and a second synthetic rubber: 30 parts by weight to 90 parts by weight of the first synthetic rubber, wherein the first synthetic rubber is a solution-polymerized conjugated diene-based rubber; 10 parts by weight to 70 parts by weight of the second synthetic rubber, wherein the second synthetic rubber is a butadiene-based rubber having a cis bond content of 96 wt% or more in a polymer, as measured by Fourier Transform Infrared Spectroscopy ; and 30 to 200 parts by weight of a filler, wherein a solubility parameter difference between the first synthetic rubber and the second synthetic rubber is greater than 0.82, wherein the solubility parameters are measured as disclosed in the specification, and the first synthetic rubber is a both-terminals modified rubber where being bonded functional groups at both terminals and having a styrene content of 38 wt% or more. 30 parts by weight to 90 parts by weight of the first synthetic rubber, wherein the first synthetic rubber is a solution-polymerized conjugated diene-based rubber; 10 parts by weight to 70 parts by weight of the second synthetic rubber, wherein the second synthetic rubber is a butadiene-based rubber having a cis bond content of 96 wt% or more in a polymer, as measured by Fourier Transform Infrared Spectroscopy ; and 30 to 200 parts by weight of a filler, wherein a solubility parameter difference between the first synthetic rubber and the second synthetic rubber is greater than 0.82, wherein the solubility parameters are measured as disclosed in the specification, and the first synthetic rubber is a both-terminals modified rubber where being bonded functional groups at both terminals and having a styrene content of 38 wt% or more.
A drive device comprising: a feed screw that is rotatable about a central axis (Z1); and a guided member guidable in an axial direction (Dz) along the central axis (Z1), wherein the guided member includes a nut member having a screw portion configured to be screwed with the feed screw , the screw portion is configured to move in both a direction toward the central axis (Z1) and a direction intersecting the direction in a transverse section orthogonal to the central axis (Z1), characterized in that the nut member has a bearing portion that is configured to turn the screw portion such that the screw portion moves in the direction toward the central axis (Z1) in the transverse section orthogonal to the central axis (Z1), and the bearing portion has a long hole shape that is long in a direction intersecting the direction in which the screw portion is directed toward the central axis (Z1) in the transverse section orthogonal to the central axis (Z1). a feed screw that is rotatable about a central axis (Z1); and a guided member guidable in an axial direction (Dz) along the central axis (Z1), wherein the guided member includes a nut member having a screw portion configured to be screwed with the feed screw , the screw portion is configured to move in both a direction toward the central axis (Z1) and a direction intersecting the direction in a transverse section orthogonal to the central axis (Z1), characterized in that the nut member has a bearing portion that is configured to turn the screw portion such that the screw portion moves in the direction toward the central axis (Z1) in the transverse section orthogonal to the central axis (Z1), and the bearing portion has a long hole shape that is long in a direction intersecting the direction in which the screw portion is directed toward the central axis (Z1) in the transverse section orthogonal to the central axis (Z1).
A compound for use in treating cancer, wherein the compound is of the formula wherein R is selected from the group consisting of X is CH or N; R 1 is hydrogen or fluoro; and R 2 is C 1 to C 3 alkyl; or a pharmaceutically acceptable salt thereof. R is selected from the group consisting of X is CH or N; R 1 is hydrogen or fluoro; and R 2 is C 1 to C 3 alkyl; or a pharmaceutically acceptable salt thereof.
An integrated circuit implementing a hardware masked substitution box comprising: a plurality of parallel substitution function components, each of the parallel substitution function components to receive a same input value and a different mask value and to generate a respective output mask value based on the same input value and respective different mask value; a decoder to receive an input mask value and to generate a decoded output value that is based on the received input mask value; and a logic component to select one of the output mask values from one of the plurality of parallel substitution function components based on the decoded output value, whereir the number of parallel substitution function components that receive the same input value and a respective different mask value correspond to the number of masks values that are used. a plurality of parallel substitution function components, each of the parallel substitution function components to receive a same input value and a different mask value and to generate a respective output mask value based on the same input value and respective different mask value; a decoder to receive an input mask value and to generate a decoded output value that is based on the received input mask value; and a logic component to select one of the output mask values from one of the plurality of parallel substitution function components based on the decoded output value, whereir the number of parallel substitution function components that receive the same input value and a respective different mask value correspond to the number of masks values that are used.
A catheter system , comprising: a catheter adapter comprising: a body ; a nose extending distally from the body , wherein the nose is generally cylindrical; a strain relief rib disposed on the nose , wherein the strain relief rib is constructed of a flexible material; and a bump disposed on the strain relief rib ; and a catheter secured within the catheter adapter and extending distally beyond the nose . a catheter adapter comprising: a body ; a nose extending distally from the body , wherein the nose is generally cylindrical; a strain relief rib disposed on the nose , wherein the strain relief rib is constructed of a flexible material; and a bump disposed on the strain relief rib ; and a body ; a nose extending distally from the body , wherein the nose is generally cylindrical; a strain relief rib disposed on the nose , wherein the strain relief rib is constructed of a flexible material; and a bump disposed on the strain relief rib ; and a catheter secured within the catheter adapter and extending distally beyond the nose .
Moulding for a tool for casting a part , wherein the moulding has as components at least one contour insert and at least one core , wherein the at least one contour insert has an outer wall , which at least partially forms a cavity for the part to be cast and has an inner wall formed as a boundary wall, wherein the at least one core has an outer wall formed as a boundary wall, wherein at least one support element is arranged at a boundary wall of at least one of the two components, and wherein boundary walls of two immediately adjacent components enclose at least one flat flow hollow for a fluid medium, wherein the at least one support element is arranged at the boundary wall formed as the inner wall of the at least one contour insert .
A heater device for heating by fermenting biomass, the device comprising a vessel and a pipe for conveying a flow of a fluid to be heated, at least part of the pipe being arranged so as to pass within the vessel in such a manner that, in service, it is surrounded by biomass arranged in the vessel, the device including support elements for supporting the pipe, the device being characterized in that the support elements for supporting the pipe pass through the vessel and protrude from the vessel.
An autonomous downhole flow control and isolation device for use in a production well, comprising: a flow control valve locatable within the well at a downhole location, wherein the flow control valve is controlled by an electronics module comprising an on board processor ; a sensor in communication with the flow control valve , wherein the sensor is configured to measure a local process parameter in the vicinity of the flow control and isolation device , the sensor being controlled by the electronics module; and wherein the flow control valve is configurable by the electronics module to a flow control configuration in which the flow control valve is adjusted, independently from external instruction, in response to the measured local parameter, measured at a location of the downhole flow control and isolation device , to control the fluid flow through the valve during production from the well to achieve a target local process parameter value selected to maintain a surface process parameter of the well within a desired range; and wherein the flow control and isolation device is reconfigurable by the electronics module to act as an isolation valve, wherein the flow control valve of the flow control and isolation device is configured to close the flow path through the flow control valve, independently of external instruction, in response to a pressure indicating a shut-in of the well, wherein when in the closed position the flow control and isolation device maintains a seal and isolates at least a portion of the well. a flow control valve locatable within the well at a downhole location, wherein the flow control valve is controlled by an electronics module comprising an on board processor ; a sensor in communication with the flow control valve , wherein the sensor is configured to measure a local process parameter in the vicinity of the flow control and isolation device , the sensor being controlled by the electronics module; and wherein the flow control valve is configurable by the electronics module to a flow control configuration in which the flow control valve is adjusted, independently from external instruction, in response to the measured local parameter, measured at a location of the downhole flow control and isolation device , to control the fluid flow through the valve during production from the well to achieve a target local process parameter value selected to maintain a surface process parameter of the well within a desired range; and wherein the flow control and isolation device is reconfigurable by the electronics module to act as an isolation valve, wherein the flow control valve of the flow control and isolation device is configured to close the flow path through the flow control valve, independently of external instruction, in response to a pressure indicating a shut-in of the well, wherein when in the closed position the flow control and isolation device maintains a seal and isolates at least a portion of the well.