mhurhangee/patent-ind-claim-en huggingface dataset:
A method of implementing hybrid automatically retransmission feedback in a UE in a carrier aggregation network according to the long term evolution, LTE, standard, wherein, the carrier aggregation network comprises a self-scheduling primary cell and a secondary cell, and the method comprises the following steps: i. determining a reference frame configuration of type 5; ii. determining a first quantity, M c , of downlink subframes , K c , of the secondary cell needing to be acknowledged in uplink subframes, according to a frame configuration of the secondary cell and the reference frame configuration ; iii. receiving from a base station a parameter , W DAI UL , and calculating a second quantity , N , of downlink subframes needing to be acknowledged in the uplink subframes, based on the parameter as N = W DAI UL + 4 ⌈ U − W DAI UL / 4 ⌉ wherein ┌ ┐ denotes the ceiling function and U denotes a maximum quantity in quantities of downlink subframes needing to be acknowledged for the primary cell and the secondary cell; iv. determining an actual quantity , B c DL , of downlink subframes actually needing to be acknowledged, based on the first quantity , M c , and the second quantity , N, by taking the smaller value of the first quantity, M c , and the second quantity , N, as the actual quantity , B c DL ; v. implementing automatically retransmission feedback for downlink frames of the actual quantity , B c DL , in a physical shared channel, adjusted by uplink grants, in the uplink subframes. i. determining a reference frame configuration of type 5; ii. determining a first quantity, M c , of downlink subframes , K c , of the secondary cell needing to be acknowledged in uplink subframes, according to a frame configuration of the secondary cell and the reference frame configuration ; iii. receiving from a base station a parameter , W DAI UL , and calculating a second quantity , N , of downlink subframes needing to be acknowledged in the uplink subframes, based on the parameter as N = W DAI UL + 4 ⌈ U − W DAI UL / 4 ⌉ wherein ┌ ┐ denotes the ceiling function and U denotes a maximum quantity in quantities of downlink subframes needing to be acknowledged for the primary cell and the secondary cell; iv. determining an actual quantity , B c DL , of downlink subframes actually needing to be acknowledged, based on the first quantity , M c , and the second quantity , N, by taking the smaller value of the first quantity, M c , and the second quantity , N, as the actual quantity , B c DL ; v. implementing automatically retransmission feedback for downlink frames of the actual quantity , B c DL , in a physical shared channel, adjusted by uplink grants, in the uplink subframes.
A composition for use in a method for treating a subject suffering from a pulmonary disease or disorder, wherein the composition comprises a poly (acetyl, arginyl) glucosamine (PAAG) comprising the following formula (I): wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are wherein the osmolality of the composition is between 150-550 mOsmol/kg; and wherein the method increases mucociliary transport or clearance, thereby treating the disease or disorder; wherein the disease or disorder is Acute Respiratory Distress Syndrome (ARDS). n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are wherein the osmolality of the composition is between 150-550 mOsmol/kg; and wherein the method increases mucociliary transport or clearance, thereby treating the disease or disorder; wherein the disease or disorder is Acute Respiratory Distress Syndrome (ARDS).
An assembly comprising: a leadless pacemaker; and a set of active fixation tines attached to the leadless pacemaker, wherein the active fixation tines in the set are deployable from a spring-loaded position in which distal ends of the active fixation tines point away from the leadless pacemaker to a hooked position in which the active fixation tines bend back towards the leadless pacemaker, wherein the active fixation tines are configured to secure the leadless pacemaker to a patient tissue when deployed while the distal ends of the active fixation tines are positioned adjacent to the patient tissue, wherein the set of active fixation tines consists of four active fixation tines, wherein the active fixation tines are positioned substantially equidistant from each other in a circular arrangement, and wherein the distal ends of the active fixation tines are rounded. a leadless pacemaker; and a set of active fixation tines attached to the leadless pacemaker, wherein the active fixation tines in the set are deployable from a spring-loaded position in which distal ends of the active fixation tines point away from the leadless pacemaker to a hooked position in which the active fixation tines bend back towards the leadless pacemaker, wherein the active fixation tines are configured to secure the leadless pacemaker to a patient tissue when deployed while the distal ends of the active fixation tines are positioned adjacent to the patient tissue, wherein the set of active fixation tines consists of four active fixation tines, wherein the active fixation tines are positioned substantially equidistant from each other in a circular arrangement, and wherein the distal ends of the active fixation tines are rounded.
A cartridge for use with a vaporizer body , the cartridge comprising: a cartridge memory encoding information about the cartridge, the information comprising a baseline resistance, wherein the cartridge memory is configured to store the baseline resistance and is configured to be readable by a controller of the vaporizer body , wherein the controller is configured to exchange data with the cartridge memory; a vaporizable material; a resistance heater configured to heat the vaporizable material, and having an electrical resistance characterized by the baseline resistance that is indicative of electrical resistance of the resistance heater , wherein the baseline resistance corresponds to an electrical resistance of the resistance heater at an ambient temperature, and wherein the cartridge memory is further configured to output the information stored therein as fluctuations in the baseline resistance; and a pair of cartridge contacts configured for engagement with a pair of vaporizer body contacts on the vaporizer body when the cartridge is coupled to the vaporizer body. a cartridge memory encoding information about the cartridge, the information comprising a baseline resistance, wherein the cartridge memory is configured to store the baseline resistance and is configured to be readable by a controller of the vaporizer body , wherein the controller is configured to exchange data with the cartridge memory; a vaporizable material; a resistance heater configured to heat the vaporizable material, and having an electrical resistance characterized by the baseline resistance that is indicative of electrical resistance of the resistance heater , wherein the baseline resistance corresponds to an electrical resistance of the resistance heater at an ambient temperature, and wherein the cartridge memory is further configured to output the information stored therein as fluctuations in the baseline resistance; and a pair of cartridge contacts configured for engagement with a pair of vaporizer body contacts on the vaporizer body when the cartridge is coupled to the vaporizer body.
Procedure for the production of pressure sensors, wherein: a sensor electronics unit mounted on a printed circuit board is connected to a ceramic pressure-sensitive sensor element , by means of solder joints, via several metal or metalized bolt-shaped connection elements , a solder joint is implemented, in each case, between a first contact surface of a connection element and a second contact surface of the sensor element to connect the bolt-shaped connection elements to the ceramic sensor element , the electrical contact of the sensor element is implemented simultaneously via the metal or metalized bolt-shaped connection elements and the solder joints, characterized in that at least one spacer is formed, as a one-piece unit, on the first contact surface of each of the connection elements to create space between the first contact surface of the connection element and the second contact surface of the sensor element , the spacers are designed in the form of a bolt, the spacers have a height between 100 micrometers and 300 micrometers, and the diameter of the spacer is between 10 and 40 percent of the diameter of the first contact surface of the connection element . a solder joint is implemented, in each case, between a first contact surface of a connection element and a second contact surface of the sensor element to connect the bolt-shaped connection elements to the ceramic sensor element , the electrical contact of the sensor element is implemented simultaneously via the metal or metalized bolt-shaped connection elements and the solder joints, characterized in that at least one spacer is formed, as a one-piece unit, on the first contact surface of each of the connection elements to create space between the first contact surface of the connection element and the second contact surface of the sensor element , the spacers are designed in the form of a bolt, the spacers have a height between 100 micrometers and 300 micrometers, and the diameter of the spacer is between 10 and 40 percent of the diameter of the first contact surface of the connection element .
A method of providing a covering element (10',10") with a connection element (20',20") for covering a hinge part of a roof window comprising the steps of: a) engraving an interior surface of the covering element to provide an engraved surface (11', 11") with at least one cavity by subjecting the covering element to a laser beam at a polar angle, α1; and b) attaching the connection element to the covering element by introducing an anchor portion (25,25',25") of the connection element into the least one cavity. a) engraving an interior surface of the covering element to provide an engraved surface (11', 11") with at least one cavity by subjecting the covering element to a laser beam at a polar angle, α1; and b) attaching the connection element to the covering element by introducing an anchor portion (25,25',25") of the connection element into the least one cavity.
A dynamic compaction process comprising: providing a container (22; 116) having a non-cylindrical shape; filling said container (22; 116) with a first powder material (18; 110, 114); sealing said container (22; 116); dynamically compacting said first powder material (18; 110, 114) by use of a compaction mat containing an explosive component to form a preform , then cutting a component (28; 132) from said preform of said first powder material (18; 110, 114), wherein said component (28; 132) comprises a blade having a tip portion , airfoil portion and root portion . providing a container (22; 116) having a non-cylindrical shape; filling said container (22; 116) with a first powder material (18; 110, 114); sealing said container (22; 116); dynamically compacting said first powder material (18; 110, 114) by use of a compaction mat containing an explosive component to form a preform , then cutting a component (28; 132) from said preform of said first powder material (18; 110, 114), wherein said component (28; 132) comprises a blade having a tip portion , airfoil portion and root portion .
Heat exchanger, in particular for a motor vehicle, comprising a protective device , mutually parallel tubes through which a first fluid circulates, and perpendicular fins connecting two successive tubes , a second fluid circulating between said tubes by passing through said fins , said protective device being apertured so as to allow the circulation of the second fluid through the fins , characterized in that said protective device comprises fixing spikes which are inserted forcibly between the fins , and wherein the fixing spikes have a width which is greater than the spacing between two fins .
An aircraft antenna fairing assembly comprising: a fairing shell ; and connection components for positionally fixing the fairing shell to an airframe structure of an aircraft, wherein the connection components comprise a latch assembly for latching the fairing shell to the airframe structure of the aircraft, wherein the connection components further comprise a guide assembly which includes a guide head and a receiver defining a generally C-shaped or generally U-shaped guide channel for slidably receiving the guide head therewithin, characterized in that the guide assembly includes a guide arm having a proximal end connected to the fairing shell and an upright guide support having a base configured to be positionally fixed to the airframe structure, wherein the guide head is provided at a distal end of the guide arm and the guide channel is provided at a distal end of the upright guide support . a fairing shell ; and connection components for positionally fixing the fairing shell to an airframe structure of an aircraft, wherein the connection components comprise a latch assembly for latching the fairing shell to the airframe structure of the aircraft, wherein the connection components further comprise a guide assembly which includes a guide head and a receiver defining a generally C-shaped or generally U-shaped guide channel for slidably receiving the guide head therewithin, characterized in that the guide assembly includes a guide arm having a proximal end connected to the fairing shell and an upright guide support having a base configured to be positionally fixed to the airframe structure, wherein the guide head is provided at a distal end of the guide arm and the guide channel is provided at a distal end of the upright guide support .
A mobile 3D printing device (TDPDO, TDPD1, TDPD2, TDPD3, TDPD4) by adding material intended to be attached to a lifting device (LD) with a single lifting cable or chain, the mobile 3D printing device (TDPDO, TDPD1, TDPD2, TDPD3, TDPD4) comprising : - a printing head adapted to receive material and depositing it; - fixing means adapted to link the printing head to the lifting device (LD), including in addition - stabilization means (MS) adapted to stabilize the position of the printing head by gyroscopic effect, characterised in that the stabilization means (MS) comprise at least three gyroscopes , adapted to stabilise the position of the printing head by gyroscopic effect, and in that the device further comprises - an actuator adapted to rotate the printing head about an axis of rotation, known as the vertical axis (V), perpendicular to the plane defined by the three gyroscopes , the stabilization means being further adapted to compensate for the disturbances generated by the rotation of the printing head and to ensure the stability of the printing head during the rotation. - a printing head adapted to receive material and depositing it; - fixing means adapted to link the printing head to the lifting device (LD), including in addition - stabilization means (MS) adapted to stabilize the position of the printing head by gyroscopic effect, characterised in that the stabilization means (MS) comprise at least three gyroscopes , adapted to stabilise the position of the printing head by gyroscopic effect, and in that the device further comprises - an actuator adapted to rotate the printing head about an axis of rotation, known as the vertical axis (V), perpendicular to the plane defined by the three gyroscopes , the stabilization means being further adapted to compensate for the disturbances generated by the rotation of the printing head and to ensure the stability of the printing head during the rotation. - stabilization means (MS) adapted to stabilize the position of the printing head by gyroscopic effect, characterised in that the stabilization means (MS) comprise at least three gyroscopes , adapted to stabilise the position of the printing head by gyroscopic effect, and in that the device further comprises - an actuator adapted to rotate the printing head about an axis of rotation, known as the vertical axis (V), perpendicular to the plane defined by the three gyroscopes , the stabilization means being further adapted to compensate for the disturbances generated by the rotation of the printing head and to ensure the stability of the printing head during the rotation.
A transfer member for transfer-type image formation comprising, in this order, a heat insulating layer , a heat storage layer and a top layer , wherein when the thickness (t1) of the heat insulating layer , the thickness (t2) of the heat storage layer , and the thickness (t3) of the top layer are represented by t1, t2 and t3, respectively, the thermal conductivity (λ1) of the heat insulating layer and the thermal conductivity (λ2) of the heat storage layer are represented by λ1 and λ2, respectively, and the volume specific heat (C2) of the heat storage layer is represented by C2, t1, t2, t3, λ1, λ2 and C2 satisfy Expressions 1 to 6 below: 0.5 mm ≤ t 1 ≤ 1.5 mm , 0.05 mm ≤ t 2 ≤ 0.50 mm , t 3 ≤ 0.020 mm , λ 1 ≤ 0.20 W / m ⋅ K , λ 2 ≥ 0.23 W / m ⋅ K , and C 2 ≥ 1.52 MJ / m 3 ⋅ K .
A composition for medical use in sedation, characterized in that the composition consists of MK-467, an α 2 -adrenoceptor agonist selected from medetomidine, dexmedetomidine, and detomidine, and one or more of physiologically acceptable aqueous media, pharmaceutically acceptable carriers and pharmaceutically acceptable excipients, and characterized in that the composition is administered using parenteral extravascular administration to a subject in need of sedation.
An adjustment device (1; 1'; 1") for a vehicle seat , comprising: - a base (10; 10'; 10"), - an adjusting part (11, 11', 11") shiftably mounted on the base (10; 10', 10"), - an actuating element (12; 12'; 12") mounted on the adjusting part (11; 11'; 11"), which can be actuated for shifting the adjusting part (11; 11'; 11") relative to the base (10; 10'; 10"), and - a spring (13; 13'; 13") which supports on the base (10; 10'; 10") and on the actuating element (12; 12'; 12"), characterized in that the spring (13; 13'; 13") pretensions the adjusting part (11; 11'; 11") into a position extended relative to the base (10; 10'; 10"). - a base (10; 10'; 10"), - an adjusting part (11, 11', 11") shiftably mounted on the base (10; 10', 10"), - an actuating element (12; 12'; 12") mounted on the adjusting part (11; 11'; 11"), which can be actuated for shifting the adjusting part (11; 11'; 11") relative to the base (10; 10'; 10"), and - a spring (13; 13'; 13") which supports on the base (10; 10'; 10") and on the actuating element (12; 12'; 12"),
A pharmaceutical composition for use in the treatment of hypoparathyroidism by administration of the composition to a subject in need thereof via oral administration, the composition comprising: teriparatide; at least one protease inhibitor; and SNAC (sodium 8-N-(2-hydroxybenzoyl)aminocaprylate), wherein said composition is for administration via oral administration at least three times per day, and said oral administration is effected at least 4 hours after the most recent food intake. teriparatide; at least one protease inhibitor; and SNAC (sodium 8-N-(2-hydroxybenzoyl)aminocaprylate), wherein said composition is for administration via oral administration at least three times per day, and said oral administration is effected at least 4 hours after the most recent food intake.
Fastening device for aligning and fixing a mullion profile of a mullion-transom construction having a base part and a retaining part for fastening the mullion profile , which retaining part can be adjusted in height relative to the base part and can be fixed in a selected position, wherein the retaining part is designed as an insertion part for reception in an inner space of the mullion profile and can be firmly connected to the base part via fastening elements , characterised in that corresponding openings for inserting a lifting element of an adjusting device are arranged in the mullion profile and the retaining part fastened in the mullion profile .
An endorectal cooling device (ECD) comprising: an elongated body having an insertable portion for insertion into a rectum of a patient and an external portion that remains external to the rectum, the insertable portion having an external cooling surface ; a gas bubble removal channel defined in the elongated body; a plurality of holes defined in the cooling surface, the holes extending from the cooling surface to the gas bubble removal channel; a low-pressure source fluidly coupled to the plurality of holes via the gas bubble removal channel; and a cooling fluid circuit defined in the elongated body, the cooling fluid circuit in thermal communication with the cooling surface , wherein the cooling fluid circuit comprises a cooling fluid channel that extends in a loop from a proximal end to a distal end of the elongated body, and wherein a portion of the cooling fluid channel is disposed between the cooling surface and the gas bubble removal channel . an elongated body having an insertable portion for insertion into a rectum of a patient and an external portion that remains external to the rectum, the insertable portion having an external cooling surface ; a gas bubble removal channel defined in the elongated body; a plurality of holes defined in the cooling surface, the holes extending from the cooling surface to the gas bubble removal channel; a low-pressure source fluidly coupled to the plurality of holes via the gas bubble removal channel; and a cooling fluid circuit defined in the elongated body, the cooling fluid circuit in thermal communication with the cooling surface ,
A blade for use in a gas turbine comprising at least a composite material part and at least an insert at least partially covering the composite material part , wherein the insert is made out of steel, and the insert is coated with an erosion protection layer , characterised in that the erosion protection layer has one of a dual layer structure with a Nickel-Phosphor layer and a Nickel-Phosphor/Silicon Carbide layer above the Nickel-Phosphor layer or a multi-layer structure with multiple couples of Nickel-Phosphor layers and Nickel-Phosphor/Silicon Carbide layers one above the other.