mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement signal sending method, wherein the method comprises: receiving , by a first terminal device, first indication information and second indication information from a first network device, wherein the first indication information is used to indicate a first timing, and the second indication information is used to indicate a second timing; determining , by a first terminal device, the first timing based on the first indication information, wherein the first timing is a timing used by the first terminal device to send a first measurement signal to a second terminal device, wherein the first measurement signal is used by the second terminal device for interference measurement, and wherein the first network device serving the first terminal device is different from a network device serving the second terminal device; determining , by the first terminal device, a second timing based on the second indication information, wherein the second timing is a timing used by the first terminal device to send a second measurement signal to the first network device, wherein the second measurement signal is used by the first network device for uplink channel quality measurement; and sending , by the first terminal device, the first measurement signal and the second measurement signal based on the first timing and the second timing respectively. receiving , by a first terminal device, first indication information and second indication information from a first network device, wherein the first indication information is used to indicate a first timing, and the second indication information is used to indicate a second timing; determining , by a first terminal device, the first timing based on the first indication information, wherein the first timing is a timing used by the first terminal device to send a first measurement signal to a second terminal device, wherein the first measurement signal is used by the second terminal device for interference measurement, and wherein the first network device serving the first terminal device is different from a network device serving the second terminal device; determining , by the first terminal device, a second timing based on the second indication information, wherein the second timing is a timing used by the first terminal device to send a second measurement signal to the first network device, wherein the second measurement signal is used by the first network device for uplink channel quality measurement; and sending , by the first terminal device, the first measurement signal and the second measurement signal based on the first timing and the second timing respectively.
An attenuated bovine coronavirus (BCoV) that encodes one or more of the following: - a spike protein that comprises the amino acid sequence of SEQ ID NO: 2, - a hemagglutinin-esterase glycoprotein (HE) that comprises the amino acid sequence of SEQ ID NO: 4, - an integral membrane protein (M) that comprises the amino acid sequence of SEQ ID NO: 6, or - a nucleocapsid protein (N) that comprises the amino acid sequence of SEQ ID NO: 10. - a spike protein that comprises the amino acid sequence of SEQ ID NO: 2, - a hemagglutinin-esterase glycoprotein (HE) that comprises the amino acid sequence of SEQ ID NO: 4, - an integral membrane protein (M) that comprises the amino acid sequence of SEQ ID NO: 6, or - a nucleocapsid protein (N) that comprises the amino acid sequence of SEQ ID NO: 10.
A process fluid flow system comprising: a first pipe skin sensor disposed to measure an external temperature of a process fluid conduit at a first location on the process fluid conduit; a second pipe skin sensor disposed to measure an external temperature of the process fluid conduit at a second location on the process fluid conduit; measurement circuitry coupled to the first and second pipe skin sensors; and a controller coupled to the measurement circuitry and configured to identify a process fluid flow condition based on signals from the first and second pipe skin sensors and to output an indication of the process fluid flow condition, wherein the controller is configured to obtain a reference temperature measurement having a fixed thermal relationship relative to the first and second pipe skin sensor, the reference temperature measurement being different than the measured external temperature of the process fluid conduit, and wherein the controller is configured to use the process fluid flow condition output and a heat flow calculation to provide a process fluid temperature estimation output that is adjusted based on the process fluid flow condition output. a first pipe skin sensor disposed to measure an external temperature of a process fluid conduit at a first location on the process fluid conduit; a second pipe skin sensor disposed to measure an external temperature of the process fluid conduit at a second location on the process fluid conduit; measurement circuitry coupled to the first and second pipe skin sensors; and a controller coupled to the measurement circuitry and configured to identify a process fluid flow condition based on signals from the first and second pipe skin sensors and to output an indication of the process fluid flow condition, wherein the controller is configured to obtain a reference temperature measurement having a fixed thermal relationship relative to the first and second pipe skin sensor, the reference temperature measurement being different than the measured external temperature of the process fluid conduit, and wherein the controller is configured to use the process fluid flow condition output and a heat flow calculation to provide a process fluid temperature estimation output that is adjusted based on the process fluid flow condition output.
An antenna comprising: a dielectric wedge waveguide ; an artificial magnetic conductor , AMC, wall feed structure, wherein said AMC wall feed structure comprises: a pair of sidewalls, each of said sidewalls comprising a plurality of unit cells each having AMC portions provided therein and spaced apart by a predetermined distance with a region between the sidewall pairs ; a top conductive wall disposed over a top surface of said pair of sidewalls; a bottom conductive wall ; and a conductive end wall wherein said top, bottom, end and side walls form a waveguide being open on one end exposed to said transition ; and a transition coupled between said AMC wall feed structure and said dielectric wedge waveguide. a dielectric wedge waveguide ; an artificial magnetic conductor , AMC, wall feed structure, wherein said AMC wall feed structure comprises: a pair of sidewalls, each of said sidewalls comprising a plurality of unit cells each having AMC portions provided therein and spaced apart by a predetermined distance with a region between the sidewall pairs ; a top conductive wall disposed over a top surface of said pair of sidewalls; a bottom conductive wall ; and a conductive end wall wherein said top, bottom, end and side walls form a waveguide being open on one end exposed to said transition ; and a pair of sidewalls, each of said sidewalls comprising a plurality of unit cells each having AMC portions provided therein and spaced apart by a predetermined distance with a region between the sidewall pairs ; a top conductive wall disposed over a top surface of said pair of sidewalls; a bottom conductive wall ; and a conductive end wall wherein said top, bottom, end and side walls form a waveguide being open on one end exposed to said transition ; and a transition coupled between said AMC wall feed structure and said dielectric wedge waveguide.
A solid free flowing particulate laundry detergent composition comprising: (a) anionic detersive surfactant; (b) from 0wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 4wt% to 20wt% organic acid; and (g) carboxymethyl cellulose (CMC), wherein the composition at 1wt% dilution in deionized water at 20°C, has an equilibrium pH in the range of from 6.5 to 9.0, wherein the composition comprises from 30wt% to 90wt% base detergent particle, wherein the base detergent particle comprising (by weight of the base detergent particle): (a) from 4wt% to 35wt% anionic detersive surfactant; (b) optionally, from 1wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 1wt% to 10wt% organic acid; and (g) optionally, from 1wt% to 10wt% magnesium sulphate. (a) anionic detersive surfactant; (b) from 0wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 4wt% to 20wt% organic acid; and (g) carboxymethyl cellulose (CMC), (a) from 4wt% to 35wt% anionic detersive surfactant; (b) optionally, from 1wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 1wt% to 10wt% organic acid; and (g) optionally, from 1wt% to 10wt% magnesium sulphate.
Water transport system for transporting a user and/or an object along a closed loop path (P), said water transport system comprising: - a towing station and a transit station arranged at a distance from one another and separated by a stretch of water; - motion transmitting means arranged for enabling said user and/or said object to be towed along said loop path (P), said motion transmitting means being provided with: - a drive pulley arranged in said towing station and splined on a drive shaft ; - a driven pulley arranged in said transit station and splined on a driven shaft , said drive pulley and said driven pulley being separated by a distance (D); - a motion transmitting flexible element wound in a loop around said drive pulley and around said driven pulley and defining said path (P); - drive means arranged for rotating said drive pulley around an axis of said drive shaft so as to drag by friction said motion transmitting flexible element to move along said path (P), which in, turn, rotatingly drags said driven pulley ; - height adjusting means configured for varying a height of said drive pulley and/or of said driven pulley with respect to respective installation surfaces of said towing station and of said transit station , such that said motion transmitting flexible element is at a height corresponding to the surface of the water; said water transport system being characterised in that said height adjusting means comprises an actuator connected to said drive shaft and/or to said driven shaft , said actuator being provided with a stem, an end of which is connected to said drive shaft and/or to said driven shaft and is slidable inside a cylinder to move the height of said drive pulley and/or said driven pulley to which it is connected to vary a height thereof on the basis of a water level. - a towing station and a transit station arranged at a distance from one another and separated by a stretch of water; - motion transmitting means arranged for enabling said user and/or said object to be towed along said loop path (P), said motion transmitting means being provided with: - a drive pulley arranged in said towing station and splined on a drive shaft ; - a driven pulley arranged in said transit station and splined on a driven shaft , said drive pulley and said driven pulley being separated by a distance (D); - a motion transmitting flexible element wound in a loop around said drive pulley and around said driven pulley and defining said path (P); - drive means arranged for rotating said drive pulley around an axis of said drive shaft so as to drag by friction said motion transmitting flexible element to move along said path (P), which in, turn, rotatingly drags said driven pulley ; - height adjusting means configured for varying a height of said drive pulley and/or of said driven pulley with respect to respective installation surfaces of said towing station and of said transit station , such that said motion transmitting flexible element is at a height corresponding to the surface of the water;
A core for a plasmapheresis centrifuge bowl comprising: a cylindrical body defining the core and an interior of the core ; a ledge located within the interior of the core between a proximal end and a distal end of the cylindrical body , the ledge extending radially inward from an inner diameter of the core and having a top surface that defines, at least partially, a collection chamber within the plasmapheresis centrifuge bowl , the top surface of the ledge at least partially forming a bottom of the collection chamber ; and a plurality of ribs located on and spaced about a proximal portion of the cylindrical body , the plurality of ribs extending above the proximal end of the cylindrical body, thereby creating flow paths between each of the plurality of ribs , the flow paths allowing fluid to enter the interior of the cylindrical body and the collection chamber , wherein a proximal end of the cylindrical body defines an upper edge of the collection chamber . a cylindrical body defining the core and an interior of the core ; a ledge located within the interior of the core between a proximal end and a distal end of the cylindrical body , the ledge extending radially inward from an inner diameter of the core and having a top surface that defines, at least partially, a collection chamber within the plasmapheresis centrifuge bowl , the top surface of the ledge at least partially forming a bottom of the collection chamber ; and a plurality of ribs located on and spaced about a proximal portion of the cylindrical body , the plurality of ribs extending above the proximal end of the cylindrical body, thereby creating flow paths between each of the plurality of ribs , the flow paths allowing fluid to enter the interior of the cylindrical body and the collection chamber , wherein a proximal end of the cylindrical body defines an upper edge of the collection chamber .
An eyewear system comprising eyeglasses comprising: first and second lenses ; first and second nose pads , wherein the first and second nose pads each form a cantilever extending from a connector connecting the nose pad to its respective lens, the connector adapted to permit relative movement between the first and second nose pads and the first and second lenses, respectively; and a bridge operably connecting the first and second lenses, the bridge being bendable from a bridge rest position to permit relative movement between the first and second nose pads and providing a bridge pinch force of 50 g or less between the nose pads when the nose pads are moved 7 mm or less from the bridge rest position, characterized in that the bridge force is a spring force having a spring constant greater than a spring constant of the cantilever of the first nose pad and the second nose pad. first and second lenses ; first and second nose pads , wherein the first and second nose pads each form a cantilever extending from a connector connecting the nose pad to its respective lens, the connector adapted to permit relative movement between the first and second nose pads and the first and second lenses, respectively; and a bridge operably connecting the first and second lenses, the bridge being bendable from a bridge rest position to permit relative movement between the first and second nose pads and providing a bridge pinch force of 50 g or less between the nose pads when the nose pads are moved 7 mm or less from the bridge rest position, characterized in that the bridge force is a spring force having a spring constant greater than a spring constant of the cantilever of the first nose pad and the second nose pad.
A flange for a gas turbine engine comprising: a flange body annularly disposed about a longitudinal axis , the flange body comprising a first outer radial side and a second inner radial side radially opposite the first outer radial side , the flange body defining a first fastener hole and a circumferentially adjacent second fastener hole , each fastener hole formed through the flange body ; and at least one scallop feature formed through the flange body and disposed circumferentially between the first and second fastener holes , the at least one scallop feature extending radially from the first outer radial side through at least a portion of the flange body ; wherein the at least one scallop feature comprises a first side and a second side , parallel to the first side , wherein the first outer radial side has a contoured shape between adjacent scallop features of the at least one scallop feature , characterised in that the contoured shape is a generally rounded shape that is not parallel to the second inner radial side . a flange body annularly disposed about a longitudinal axis , the flange body comprising a first outer radial side and a second inner radial side radially opposite the first outer radial side , the flange body defining a first fastener hole and a circumferentially adjacent second fastener hole , each fastener hole formed through the flange body ; and at least one scallop feature formed through the flange body and disposed circumferentially between the first and second fastener holes , the at least one scallop feature extending radially from the first outer radial side through at least a portion of the flange body ; wherein the at least one scallop feature comprises a first side and a second side , parallel to the first side , wherein the first outer radial side has a contoured shape between adjacent scallop features of the at least one scallop feature , characterised in that the contoured shape is a generally rounded shape that is not parallel to the second inner radial side .
An actuation casing intended to provide a haptic feedback in a vehicle, the actuation casing including: - a container comprising a housing configured to house an oscillating actuator and an insertion opening emerging into the housing , - a cover configured to at least partially close the insertion opening of the container , the container and the cover being movably mounted in translation relative to each other and configured such that, when the oscillating actuator is housed in the housing , an oscillation of said oscillating actuator generates a relative translational movement of the cover vis-à-vis the container , generating a haptic vibration in a displacement direction (DX) in an extension plane of the cover , characterized in that the housing comprises a first bearing zone and a second bearing zone offset in a perpendicular direction (Dz) extending along the height of the housing and substantially perpendicular to an extension plane of the cover , the first bearing zone and the second bearing zone being configured to respectively receive as a bearing a movable part and a fixed part of an actuator oscillating in an offset manner in the perpendicular direction (Dz), so as to form an air gap (e) of a predetermined thickness between the fixed part and the movable part . - a container comprising a housing configured to house an oscillating actuator and an insertion opening emerging into the housing , - a cover configured to at least partially close the insertion opening of the container , the container and the cover being movably mounted in translation relative to each other and configured such that, when the oscillating actuator is housed in the housing , an oscillation of said oscillating actuator generates a relative translational movement of the cover vis-à-vis the container , generating a haptic vibration in a displacement direction (DX) in an extension plane of the cover , characterized in that the housing comprises a first bearing zone and a second bearing zone offset in a perpendicular direction (Dz) extending along the height of the housing and substantially perpendicular to an extension plane of the cover , the first bearing zone and the second bearing zone being configured to respectively receive as a bearing a movable part and a fixed part of an actuator oscillating in an offset manner in the perpendicular direction (Dz), so as to form an air gap (e) of a predetermined thickness between the fixed part and the movable part .
Method for repairing a rotor of a multi-stage axial compressor of a gas turbine, by replacing a given number of last bladed discs (14 N-2 , 14 N-1 , 14 N ) with new bladed discs (14 N-2 ", 14 N-1 ", 14 N "), wherein each of said last bladed discs (14 N-2 , 14 N-1 , 14 N ) comprises a hub having a central bore and is mounted by interference fit on a shaft of the rotor which is rotatable about an axis of rotation (x), wherein the method comprises the steps of: a) cutting the shaft at a section plane (P) perpendicular to the axis of rotation (x) of the shaft so as to separate a portion of the shaft on which the bladed discs (14 N-2 , 14 N-1 , 14 N ) to be replaced are mounted from a remaining portion of the shaft ; b) providing, for each bladed disc (14 N-2 , 14 N-1 , 14 N ) to be replaced, one respective new bladed disc (14 N-2 ", 14 N-1 ", 14 N ") having a respective hub (16") with a solid cross-section characterised in that the method further comprises the steps of: c) providing a new end portion (12") of the shaft with a solid cross-section; and d) clamping the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") between said remaining portion of the shaft and said new end portion of the shaft, and securing the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") to said remaining portion of the shaft by anchor bolts . a) cutting the shaft at a section plane (P) perpendicular to the axis of rotation (x) of the shaft so as to separate a portion of the shaft on which the bladed discs (14 N-2 , 14 N-1 , 14 N ) to be replaced are mounted from a remaining portion of the shaft ; b) providing, for each bladed disc (14 N-2 , 14 N-1 , 14 N ) to be replaced, one respective new bladed disc (14 N-2 ", 14 N-1 ", 14 N ") having a respective hub (16") with a solid cross-section characterised in that the method further comprises the steps of: c) providing a new end portion (12") of the shaft with a solid cross-section; and d) clamping the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") between said remaining portion of the shaft and said new end portion of the shaft, and securing the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") to said remaining portion of the shaft by anchor bolts .
Battery system having at least two modules which in each case comprise a multiplicity of battery cells , wherein each module has an associated cell voltage sensing unit which is connected to an evaluation unit by means of a communication bus ,and each module additionally comprises a module voltage sensing circuit , wherein each module voltage sensing circuit , separately from the corresponding cell voltage sensing unit , is connected to the evaluation unit , characterized in that the evaluation unit is configured to verify cell voltages measured using the cell voltage sensing unit by comparing the cell voltages with module voltages by virtue of the module voltages of the individual modules additionally being separately measured and transmitted to the evaluation unit separately.