mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter comprising a jacket providing a catheter wall and defining a lumen and comprising a jacket material and a helical support in said jacket material along at least some of the length of the jacket, the catheter comprising at least a proximal portion and a distal portion , said distal portion having for at least some of its length a corrugated outer surface of grooves between loops of said helical structure, characterized in that , the catheter comprises a transition portion between said proximal portion and said distal portion , said transition portion having a flexural stiffness which is more than that of the distal portion and less than that of the proximal portion, and the transition portion has a corrugated outer surface of grooves between loops of said helical structure in which at least some corrugations of the corrugated outer surface have a smaller depth (B) than depth (A) of corrugations of the surface of the distal portion.
A compound selected from: -1-(2-aminoacetyl)-4-benzoylamino-pyrrolidine-2-carboxylic acid; and Ac-DTyr-DPro-DHyp-Gly-DAla-Gly-NH 2 ; or a pharmaceutically acceptable salt or hydrate thereof, for use in a method for treating or preventing early stage diabetic retinopathy or diabetic macular edema in a human subject, the method comprising administering to the subject a therapeutically effective amount of the compound, or a pharmaceutically acceptable salt or hydrate thereof. -1-(2-aminoacetyl)-4-benzoylamino-pyrrolidine-2-carboxylic acid; and Ac-DTyr-DPro-DHyp-Gly-DAla-Gly-NH 2 ; or a pharmaceutically acceptable salt or hydrate thereof, for use in a method for treating or preventing early stage diabetic retinopathy or diabetic macular edema in a human subject, the method comprising administering to the subject a therapeutically effective amount of the compound, or a pharmaceutically acceptable salt or hydrate thereof.
A compound comprising at least one single-domain antibody which binds to human CD1d, wherein the single-domain antibody has complementarity determining regions CDR1, CDR2 and CDR3, wherein the CDR1 comprises an amino acid sequence of SEQ ID NO: 33, CDR2 comprises an amino acid sequence of SEQ ID NO: 54, and CDR3 comprises an amino acid sequence of SEQ ID NO: 75.
Method for compensating a temperature drift of a microwave filter , the method comprising: - measuring a first frequency response of a microwave filter comprising multiple resonant filter elements (F1-F6) at a first temperature to obtain a first measured frequency response, - optimizing an equivalent circuit (E) corresponding to the microwave filter such that a first modelled frequency response computed using the equivalent circuit (E) matches the first measured frequency response to obtain a first model modelling the microwave filter at the first temperature, - measuring a second frequency response of the microwave filter at a second temperature to obtain a second measured frequency response, - optimizing the equivalent circuit (E) corresponding to the microwave filter anew such that a second modelled frequency response computed using the equivalent circuit (E) matches the second measured frequency response to obtain a second model modelling the microwave filter at the second temperature, - determining a temperature drift of a resonant frequency for each of the multiple resonant filter elements (F1-F6) using the first model and the second model, and - compensating the overall temperature drift of the microwave filter by using tuning mechanisms on at least some of the multiple resonant filter elements (F1-F6) to separately compensate the temperature drifts of the resonant filter elements (F1-F6). - measuring a first frequency response of a microwave filter comprising multiple resonant filter elements (F1-F6) at a first temperature to obtain a first measured frequency response, - optimizing an equivalent circuit (E) corresponding to the microwave filter such that a first modelled frequency response computed using the equivalent circuit (E) matches the first measured frequency response to obtain a first model modelling the microwave filter at the first temperature, - measuring a second frequency response of the microwave filter at a second temperature to obtain a second measured frequency response, - optimizing the equivalent circuit (E) corresponding to the microwave filter anew such that a second modelled frequency response computed using the equivalent circuit (E) matches the second measured frequency response to obtain a second model modelling the microwave filter at the second temperature, - determining a temperature drift of a resonant frequency for each of the multiple resonant filter elements (F1-F6) using the first model and the second model, and - compensating the overall temperature drift of the microwave filter by using tuning mechanisms on at least some of the multiple resonant filter elements (F1-F6) to separately compensate the temperature drifts of the resonant filter elements (F1-F6).
An emitter adapted to emit a first radiation, the emitter comprising: - a substrate , - a mesa , the mesa being made of a first semiconductor material, the first semiconductor material having a first bandgap value, the mesa having a superior side and a lateral side , the lateral side surrounding the superior side and extending between the substrate and the superior side , - a covering layer comprising at least one radiation-emitting layer , the at least one radiation-emitting layer being made of a second semiconductor material, the second semiconductor material having a second bandgap value, the second bandgap value being strictly inferior to the first bandgap value, each radiation-emitting layer having a first portion corresponding to the superior side and a second portion corresponding to the lateral side , a first thickness (e1) being defined for the first portion and a second thickness (e2) being defined for the second portion , the second thickness (e2) being strictly inferior to the first thickness (e1), the ratio between the first thickness (e1) and the second thickness (e2) being comprised between 1.5 and 6, and the superior side having a surface comprised between 9 square micrometers and 900 square micrometers. - a substrate , - a mesa , the mesa being made of a first semiconductor material, the first semiconductor material having a first bandgap value, the mesa having a superior side and a lateral side , the lateral side surrounding the superior side and extending between the substrate and the superior side , - a covering layer comprising at least one radiation-emitting layer , the at least one radiation-emitting layer being made of a second semiconductor material, the second semiconductor material having a second bandgap value, the second bandgap value being strictly inferior to the first bandgap value, each radiation-emitting layer having a first portion corresponding to the superior side and a second portion corresponding to the lateral side , a first thickness (e1) being defined for the first portion and a second thickness (e2) being defined for the second portion , the second thickness (e2) being strictly inferior to the first thickness (e1), the ratio between the first thickness (e1) and the second thickness (e2) being comprised between 1.5 and 6, and the superior side having a surface comprised between 9 square micrometers and 900 square micrometers.
A method for charging a traction battery, the method being executed by a battery management system BMS for the traction battery, the method comprising: obtaining a battery parameter of the traction battery (S210), the battery parameter comprising a state of charge SOC and/or an open-circuit voltage OCV; and during a charging process of the traction battery, controlling the traction battery to discharge or stop being charged when the battery parameter of the traction battery changes by a parameter gap value (S220), characterized in that when the battery parameter of the traction battery is in a first parameter interval, the parameter gap value is a first preset parameter gap value; and when the battery parameter of the traction battery is in a second parameter interval, the parameter gap value is a second preset parameter gap value, wherein the first preset parameter gap value is greater than the second preset parameter gap value, and the battery parameter in the first parameter interval is less than that in the second parameter interval. obtaining a battery parameter of the traction battery (S210), the battery parameter comprising a state of charge SOC and/or an open-circuit voltage OCV; and during a charging process of the traction battery, controlling the traction battery to discharge or stop being charged when the battery parameter of the traction battery changes by a parameter gap value (S220), characterized in that when the battery parameter of the traction battery is in a first parameter interval, the parameter gap value is a first preset parameter gap value; and when the battery parameter of the traction battery is in a second parameter interval, the parameter gap value is a second preset parameter gap value, wherein the first preset parameter gap value is greater than the second preset parameter gap value, and the battery parameter in the first parameter interval is less than that in the second parameter interval.
An oral pharmaceutical composition for use in treating pain or inflammation in a companion animal in need thereof, comprising: a therapeutically effective amount of grapiprant and at least one excipient, wherein the grapiprant is administered in a dose of 1 to 10 mg per kilogram bodyweight of the companion animal per day, wherein the companion animal is a dog, cat or horse. a therapeutically effective amount of grapiprant and at least one excipient, wherein the grapiprant is administered in a dose of 1 to 10 mg per kilogram bodyweight of the companion animal per day, wherein the companion animal is a dog, cat or horse.
Sensor device for a towing vehicle coupling or forming part of a towing vehicle coupling with which a trailer vehicle (A), in particular a semi-trailer, can be coupled to a towing vehicle (Z), in particular a lorry, wherein the towing vehicle coupling has a coupling element for releasably coupling a coupling mating element , which elements are or can be secured to the towing vehicle (Z) and the trailer vehicle (A), and when coupled can rotate relative to each another about at least one joint rotational axis (GZ), forming a joint, wherein the sensor device has a follower which is mounted on a bearing body such that it can rotate relative to the coupling element about a follower rotational axis (M) and can be rotatably carried about the follower rotational axis (M) by the rotation of the coupling mating element about the at least one joint rotational axis (GZ) in order to sense a rotation of the coupling mating element relative to the coupling element about the at least one joint rotational axis (GZ), and wherein the sensor device has at least one sensor for sensing a respective rotational position of the follower relative to the bearing body in relation to the follower rotational axis (M), characterised in that it has an actuator for moving the bearing body , on which the follower is arranged, and the follower between a follower position closer to the coupling mating element and a release position further away from the coupling mating element , wherein the actuator can be controlled with the aid of a control device in order to move the follower .
A communication device comprising: a communication unit configured to perform communication of a data frame, after the communication of the data frame, transmit, by multicast, a block acknowledgment request frame, BAR frame, for a block acknowledgment frame, BA frame, including frequency allocation information specifying a transmission frequency of the BA frame, the BA frame acknowledging the data frame communicated from the communication device, and receive the BA frame which is frequency division multiplexed, on the basis of the frequency allocation information, wherein the BAR frame includes a receiver address field storing an identifier of a multicast group specifying destinations of the BAR frame and identification information fields specifying each of one or more destinations of the BAR frame, identification information being association identifiers of the one or more destinations selected from the multicast group, the frequency allocation information being specified for each of the association identifiers, and wherein the frequency allocation information includes, for each of the association identifiers, information specifying a bandwidth of the transmission frequency, the bandwidths being different between at least some of destinations of the BAR frame. a communication unit configured to perform communication of a data frame, after the communication of the data frame, transmit, by multicast, a block acknowledgment request frame, BAR frame, for a block acknowledgment frame, BA frame, including frequency allocation information specifying a transmission frequency of the BA frame, the BA frame acknowledging the data frame communicated from the communication device, and receive the BA frame which is frequency division multiplexed, on the basis of the frequency allocation information, perform communication of a data frame, after the communication of the data frame, transmit, by multicast, a block acknowledgment request frame, BAR frame, for a block acknowledgment frame, BA frame, including frequency allocation information specifying a transmission frequency of the BA frame, the BA frame acknowledging the data frame communicated from the communication device, and receive the BA frame which is frequency division multiplexed, on the basis of the frequency allocation information, wherein the BAR frame includes a receiver address field storing an identifier of a multicast group specifying destinations of the BAR frame and identification information fields specifying each of one or more destinations of the BAR frame, identification information being association identifiers of the one or more destinations selected from the multicast group, the frequency allocation information being specified for each of the association identifiers, and wherein the frequency allocation information includes, for each of the association identifiers, information specifying a bandwidth of the transmission frequency, the bandwidths being different between at least some of destinations of the BAR frame.
A method implemented by a computing device comprising one or more processors, the method comprising: executing a distributed application by a plurality of processor cores, each of which is associated with a respective atomic transaction engine instance, wherein the atomic transaction engine instances are arranged to communicate over an interconnect; wherein each of the plurality of processor cores controls a respective portion of a distributed shared memory, and wherein executing the application comprises: identifying, during execution of a portion of the distributed application on one of the plurality of processor cores, that an operation of the distributed application targets a location of the distributed shared memory determining that the target location of the distributed shared memory is controlled by a second processor core of the plurality of processor cores; generating, by the first atomic transaction engine instance associated with the first processor core, a remote procedure call, RPC, request frame, wherein the RPC request frame comprises a descriptor and an identifier of the targeted location in the distributed shared memory, and wherein the descriptor comprises an identifier of the operation's type; sending the RPC request frame over the interconnect to a second atomic transaction engine instance associated with the second processor core of the plurality of processor cores; performing the identified operation by the second atomic transaction engine instance associated with the second processor core. identifying, during execution of a portion of the distributed application on one of the plurality of processor cores, that an operation of the distributed application targets a location of the distributed shared memory determining that the target location of the distributed shared memory is controlled by a second processor core of the plurality of processor cores; generating, by the first atomic transaction engine instance associated with the first processor core, a remote procedure call, RPC, request frame, wherein the RPC request frame comprises a descriptor and an identifier of the targeted location in the distributed shared memory, and wherein the descriptor comprises an identifier of the operation's type; sending the RPC request frame over the interconnect to a second atomic transaction engine instance associated with the second processor core of the plurality of processor cores; performing the identified operation by the second atomic transaction engine instance associated with the second processor core.
Fixing device for fixing at least one shoring part to at least a part of a surface of formwork comprising: - a body comprising at least one first interaction interface with at least one part of a surface of a formwork of a construction element and a second interaction interface with at least one shoring part , the first interface incorporating at least one first magnetized structure for generating a first magnetic attraction force, the second interface comprising translation retaining means, the fixing device being characterized in that the retaining means comprise at least one second magnetized structure for generating a second magnetic attraction force. - a body comprising at least one first interaction interface with at least one part of a surface of a formwork of a construction element and a second interaction interface with at least one shoring part , the first interface incorporating at least one first magnetized structure for generating a first magnetic attraction force, the second interface comprising translation retaining means, the fixing device being characterized in that the retaining means comprise at least one second magnetized structure for generating a second magnetic attraction force.
A touch event processing method applied to a terminal device having a touchscreen, the method comprising: when a multi-point touch event exists and a key application program is running in a foreground, determining that the multi-point touch event is not processed and is to be discarded; determining (S120), in touch points in the multi-point touch event, a first touch point falling within a target control response area on a current display interface of the key application program and a second touch point not falling within the target control response area on the current display interface of the key application program; obtaining (S130) a new touch event according to the first touch point falling within the target control response area, wherein the new touch event does not comprise the second touch point; and transferring (S 140) the new touch event to the key application program; wherein the key application program is an application program that has been set by a system or preset by a user as key application program. when a multi-point touch event exists and a key application program is running in a foreground, determining that the multi-point touch event is not processed and is to be discarded; determining (S120), in touch points in the multi-point touch event, a first touch point falling within a target control response area on a current display interface of the key application program and a second touch point not falling within the target control response area on the current display interface of the key application program; obtaining (S130) a new touch event according to the first touch point falling within the target control response area, wherein the new touch event does not comprise the second touch point; and transferring (S 140) the new touch event to the key application program; wherein the key application program is an application program that has been set by a system or preset by a user as key application program.
Internal combustion engine starter head, comprising: - a casing which delimits a reduction chamber and which comprises a mounting face for mounting an electric motor M comprising a drive pinion , - a speed reducer which is arranged in the reduction chamber and which comprises an epicyclic geartrain comprising planet pinions , intended to be driven in rotation by the drive pinion of the electric motor (M), and an external ring gear of axis Δ, connected to the casing by rotational-connection means , - the reduction chamber comprises a bore, which is a cylinder of revolution of axis Δ, for receiving the external ring gear which has an exterior shape that is a cylinder of revolution complementary to that of the receiving bore, in which the ring gear is movable in rotation with respect to the casing - the rotational-connection means comprise torsion damping blocks which are mounted between the ring gear and the casing and are in contact with the casing and the ring gear to damp a torque between the casing and the external ring gear and which is engaged at least in part in a housing provided in the casing , the housing comprising at least one axial stop adapted to impede axial translation of the damping blocks away from the mounting face ; the torsion damping blocks are mounted in axial compression in the housing between the axial stop and the ring gear ; characterized in that the torque between the casing and the ring gear is damped by means of the damping blocks and in that the rotation is arrested by the damping blocks in compression, and in that said head further comprises at least one axial bearing surface forming an axial stop adapted to impede axial translation of the external ring gear away from the mounting face . - a casing which delimits a reduction chamber and which comprises a mounting face for mounting an electric motor M comprising a drive pinion , - a speed reducer which is arranged in the reduction chamber and which comprises an epicyclic geartrain comprising planet pinions , intended to be driven in rotation by the drive pinion of the electric motor (M), and an external ring gear of axis Δ, connected to the casing by rotational-connection means , - the reduction chamber comprises a bore, which is a cylinder of revolution of axis Δ, for receiving the external ring gear which has an exterior shape that is a cylinder of revolution complementary to that of the receiving bore, in which the ring gear is movable in rotation with respect to the casing - the rotational-connection means comprise torsion damping blocks which are mounted between the ring gear and the casing and are in contact with the casing and the ring gear to damp a torque between the casing and the external ring gear and which is engaged at least in part in a housing provided in the casing , the housing comprising at least one axial stop adapted to impede axial translation of the damping blocks away from the mounting face ;