mhurhangee/patent-ind-claim-en huggingface dataset:
An data transmission method performed by a first terminal, comprising: mapping (S202), by the first terminal, a first-stage sidelink control information, SCI, onto a physical sidelink control channel, PSCCH; and transmitting (S204), by the first terminal, the PSCCH and associated physical sidelink shared channel, PSSCH; wherein the first-stage SCI comprises an indication information of a second-stage SCI for the associated PSSCH transmission that is mapped onto the associated PSSCH; wherein the first-stage SCI further comprises at least one of the following information duration of the associated PSSCH transmission; and aggregation level of the second-stage SCI; characterized in that the second-stage SCI is mapped to resource elements, REs, on demodulation reference signal, DMRS, for PSSCH symbols only, and the REs mapping of the second-stage SCI over the DMRS symbols is performed in frequency direction first, then time direction from low frequency and time index first. mapping (S202), by the first terminal, a first-stage sidelink control information, SCI, onto a physical sidelink control channel, PSCCH; and transmitting (S204), by the first terminal, the PSCCH and associated physical sidelink shared channel, PSSCH; wherein the first-stage SCI comprises an indication information of a second-stage SCI for the associated PSSCH transmission that is mapped onto the associated PSSCH; wherein the first-stage SCI further comprises at least one of the following information duration of the associated PSSCH transmission; and aggregation level of the second-stage SCI; characterized in that the second-stage SCI is mapped to resource elements, REs, on demodulation reference signal, DMRS, for PSSCH symbols only, and the REs mapping of the second-stage SCI over the DMRS symbols is performed in frequency direction first, then time direction from low frequency and time index first.
A method for determining a gas-specific parameter ( Hρ ; WI ; c p ρ ) of a gas using a sensor element defining first and second heat transfer structures for causing heat transfer through the gas, the first heat transfer structure having a first characteristic dimension (d1) across which the heat transfer is effected, the second heat transfer structure having a second characteristic dimension (d2) across which the heat transfer is effected, the first and second characteristic dimensions (d1, d2) being different, at least one of the first and second characteristic dimensions (d1, d2) being between 10 and 1'000 times a mean free path length (l) in the gas, the method comprising: operating the sensor element to cause heat transfer through the gas in contact with each of the first and second heat transfer structures; determining first and second heat transfer parameters ( q 1 , q 2 ) indicative of the heat transfer through the gas in contact with the first and second heat transfer structures; and determining the gas-specific parameter ( Hρ ; WI ; c p ρ ) based on the first and second heat transfer parameters ( q 1 , q 2 ), characterised in that the first heat transfer parameter ( q 1 ) is a temperature jump length parameter ( g ) that is indicative of a temperature jump length of the gas. operating the sensor element to cause heat transfer through the gas in contact with each of the first and second heat transfer structures; determining first and second heat transfer parameters ( q 1 , q 2 ) indicative of the heat transfer through the gas in contact with the first and second heat transfer structures; and determining the gas-specific parameter ( Hρ ; WI ; c p ρ ) based on the first and second heat transfer parameters ( q 1 , q 2 ), characterised in that the first heat transfer parameter ( q 1 ) is a temperature jump length parameter ( g ) that is indicative of a temperature jump length of the gas.
A printing apparatus comprising: a feeding roller configured to feed a printing sheet stacked on a stacking unit ; a conveyance roller configured to convey the printing sheet fed by the feeding roller ; printing means configured to print on the printing sheet conveyed by the conveyance roller ; conveyance control means configured to control conveyance of printing sheets to form an overlap state in which a marginal area on trailing edge side of a preceding sheet (1-A) as a printing sheet precedingly fed from the stacking unit and a marginal area on leading edge side of a succeeding sheet (1-B) as a printing sheet succeedingly fed from the stacking unit overlap each other; and determination means configured to determine whether to convey the succeeding sheet (1-B), while keeping the overlap state, to a printing start position at which a printing operation by the printing means is started based on information regarding a conveyed position of the leading edge of the succeeding sheet (1-B), the conveyed position being a position of the leading edge of the succeeding sheet (1-B) in a state where the succeeding sheet (1-B) is conveyed to the printing start position. a feeding roller configured to feed a printing sheet stacked on a stacking unit ; a conveyance roller configured to convey the printing sheet fed by the feeding roller ; printing means configured to print on the printing sheet conveyed by the conveyance roller ; conveyance control means configured to control conveyance of printing sheets to form an overlap state in which a marginal area on trailing edge side of a preceding sheet (1-A) as a printing sheet precedingly fed from the stacking unit and a marginal area on leading edge side of a succeeding sheet (1-B) as a printing sheet succeedingly fed from the stacking unit overlap each other; and determination means configured to determine whether to convey the succeeding sheet (1-B), while keeping the overlap state, to a printing start position at which a printing operation by the printing means is started based on information regarding a conveyed position of the leading edge of the succeeding sheet (1-B), the conveyed position being a position of the leading edge of the succeeding sheet (1-B) in a state where the succeeding sheet (1-B) is conveyed to the printing start position.
A hydrocarbon composition having reduced drag comprising: a liquid hydrocarbon selected from the group consisting of crude oil, heavy oil, gasoline, diesel fuel, fuel oil, naphtha, asphalt, and mixtures thereof; and an effective amount of a drag reducing composition to reduce the drag of the liquid hydrocarbon, the drag reducing composition comprising a drag reducing latex comprising a polymer having at least one monomer selected from the group consisting of acrylates, methacrylates, styrene, acrylic acid, and combinations thereof; and at least one plasticizer, wherein the weight ratio of the at least one plasticizer to drag reducing latex ranges from 1/99 to 10/90. a liquid hydrocarbon selected from the group consisting of crude oil, heavy oil, gasoline, diesel fuel, fuel oil, naphtha, asphalt, and mixtures thereof; and an effective amount of a drag reducing composition to reduce the drag of the liquid hydrocarbon, the drag reducing composition comprising a drag reducing latex comprising a polymer having at least one monomer selected from the group consisting of acrylates, methacrylates, styrene, acrylic acid, and combinations thereof; and at least one plasticizer, wherein the weight ratio of the at least one plasticizer to drag reducing latex ranges from 1/99 to 10/90. a polymer having at least one monomer selected from the group consisting of acrylates, methacrylates, styrene, acrylic acid, and combinations thereof; and at least one plasticizer, wherein the weight ratio of the at least one plasticizer to drag reducing latex ranges from 1/99 to 10/90.
Method for monitoring the energy supply of a motor vehicle with an automated driving function, having different operating modes (SSL) for putting the motor vehicle into a safe state, in particular into a standstill, wherein at least one energy storage unit supplies at least one consumer not required for the operating mode (SSL) and at least one consumer required for the operating mode (SSL), wherein the respective operating mode (SSL) is assigned in each case at least one load profile dependent on the consumer required for the operating mode (SSL), which load profile normally occurs in this operating mode (SSL), wherein at least one characteristic variable (U, 74, 199) of the energy storage unit is predicted on the basis of the load profile and the associated operating mode (SSL) and/or the automated driving function is enabled on the basis of the predicted characteristic variable of the energy storage unit , characterized in that the predicted characteristic variable (74, 199, U) is determined on the basis of a main load and/or a deactivation potential of the consumer not required for the operating mode (SSL).
Life cycle management of an electrically insulating fluid, which is to be arranged in a fluid-holding chamber of an electrical energy transmission device for the purpose of electrical insulation, wherein - atmospheric air is removed from the surroundings of the electrical energy transmission device, the air removed is treated, in particular cleaned, and is introduced into the fluid-holding chamber , - before the air removed is brought into the fluid-holding chamber , the chamber is evacuated, - air is sucked in from the surroundings through filter arrangements by means of a compressor , whereupon the treated atmospheric air removed from the surroundings is pumped into an intermediate store and is pressurized there, so that, during the evacuation of the fluid-holding chamber , cleaning of air removed from the surroundings of the electrical energy transmission device take places in parallel. - atmospheric air is removed from the surroundings of the electrical energy transmission device, the air removed is treated, in particular cleaned, and is introduced into the fluid-holding chamber , - before the air removed is brought into the fluid-holding chamber , the chamber is evacuated, - air is sucked in from the surroundings through filter arrangements by means of a compressor , whereupon the treated atmospheric air removed from the surroundings is pumped into an intermediate store and is pressurized there, so that, during the evacuation of the fluid-holding chamber , cleaning of air removed from the surroundings of the electrical energy transmission device take places in parallel.
Electrochemical cell having the following features: a. the cell comprises an electrode-separator composite having an anode , at least one separator and a cathode , and b. the anode comprises an anode current collector having a surface that consists of at least one metal and has been laden with at least one layer of a negative active electrode material, and c. the cathode comprises a cathode current collector having a surface that consists of at least one metal and has been laden with at least one layer of a positive active electrode material, and d. the surface of the anode current collector and/or the surface of the cathode current collector comprises at least one clear region (115c; 118c) not laden with the respective active electrode material, and the following additional feature: e. in the at least one clear region (115c; 118c) the surface of the anode current collector and/or the surface of the cathode current collector has been coated with a support material of greater thermal stability than the surface coated therewith, where the support material is a ceramic material, a glass-ceramic material or a glass. a. the cell comprises an electrode-separator composite having an anode , at least one separator and a cathode , and b. the anode comprises an anode current collector having a surface that consists of at least one metal and has been laden with at least one layer of a negative active electrode material, and c. the cathode comprises a cathode current collector having a surface that consists of at least one metal and has been laden with at least one layer of a positive active electrode material, and d. the surface of the anode current collector and/or the surface of the cathode current collector comprises at least one clear region (115c; 118c) not laden with the respective active electrode material,
Method to control the temperature of an electromagnetic pump in an apparatus wherein a liquid metal is supplied through a feed tube from a container adapted to contain a liquid metal to an evaporator device in a vacuum chamber, wherein the supply of the liquid metal is controlled by exerting a force on the liquid metal in the container, the pressure in the evaporator device and by the electromagnetic pump in the feed tube, characterised in that the method comprises: - providing an electromagnetic pump which is at least partially made of an electric conductive material, - supplying current for the electromagnetic pump through the electric conductive material, and controlling the temperature of the electromagnetic pump by controlling one or more of - the force exerted on the liquid metal in the container, - the current of the electromagnetic pump, and/or - the strength of the magnet field of the electromagnetic pump. - providing an electromagnetic pump which is at least partially made of an electric conductive material, - supplying current for the electromagnetic pump through the electric conductive material, and controlling the temperature of the electromagnetic pump by controlling one or more of - the force exerted on the liquid metal in the container, - the current of the electromagnetic pump, and/or - the strength of the magnet field of the electromagnetic pump.
A system for use in a subsea well application, comprising: a tubing head spool having a receptacle and a landing surface ; and a tubing hanger sized for receipt in the receptacle of the tubing head spool , the tubing hanger having: a poppet valve oriented for engagement with the landing surface ; and a pressure line routed to the poppet valve , characterized in that the poppet valve being biased to an open flow position to allow fluid flow along the pressure line and through the poppet valve prior to landing the poppet valve against the landing surface . a tubing head spool having a receptacle and a landing surface ; and a tubing hanger sized for receipt in the receptacle of the tubing head spool , the tubing hanger having: a poppet valve oriented for engagement with the landing surface ; and a pressure line routed to the poppet valve , characterized in that the poppet valve being biased to an open flow position to allow fluid flow along the pressure line and through the poppet valve prior to landing the poppet valve against the landing surface .
A shrink bag comprising: a. a first wall and a second wall opposing each other; b. a first edge , a second edge opposing the first edge, a third edge substantially perpendicular to the first edge and the second edge, and a fourth edge opposing the third edge; c. a first seal connecting the first and second walls wherein the first seal comprises a first part extending from the first edge to the second edge , a second part extending into a header and a third part extending into a product space ; and d. a tear initiator starting at a point within the header and extending to a point within the first seal ; wherein the header is located between the first part of the first seal and the fourth edge ; and wherein the product space is located between the first part of the first seal and the third edge . a. a first wall and a second wall opposing each other; b. a first edge , a second edge opposing the first edge, a third edge substantially perpendicular to the first edge and the second edge, and a fourth edge opposing the third edge; c. a first seal connecting the first and second walls wherein the first seal comprises a first part extending from the first edge to the second edge , a second part extending into a header and a third part extending into a product space ; and d. a tear initiator starting at a point within the header and extending to a point within the first seal ; wherein the header is located between the first part of the first seal and the fourth edge ; and wherein the product space is located between the first part of the first seal and the third edge .
A method for forming a carbon nanotube pellicle membrane for an extreme ultraviolet lithography reticle , the method comprising: bonding together overlapping carbon nanotubes of at least one carbon nanotube film by pressing the at least one carbon nanotube film between a first pressing surface and a second pressing surface , thereby forming a free-standing carbon nanotube pellicle membrane , the method further comprising, forming a coating on the at least one carbon nanotube film prior to pressing the at least one carbon nanotube film . bonding together overlapping carbon nanotubes of at least one carbon nanotube film by pressing the at least one carbon nanotube film between a first pressing surface and a second pressing surface , thereby forming a free-standing carbon nanotube pellicle membrane , the method further comprising, forming a coating on the at least one carbon nanotube film prior to pressing the at least one carbon nanotube film .
A pressure sensor configuration , comprising: a pressure sensor ; a switchable valve coupled to the pressure sensor , the switchable valve enabling the pressure sensor to measure pressure at multiple ports of a pressurized tank ; and a controller in communication with the pressure sensor , wherein the controller is configured to receive pressure measurements at the multiple ports from the pressure sensor and to calculate a differential pressure for the pressurized tank with the error in the differential pressure calculation cancelling out. a pressure sensor ; a switchable valve coupled to the pressure sensor , the switchable valve enabling the pressure sensor to measure pressure at multiple ports of a pressurized tank ; and a controller in communication with the pressure sensor , wherein the controller is configured to receive pressure measurements at the multiple ports from the pressure sensor and to calculate a differential pressure for the pressurized tank with the error in the differential pressure calculation cancelling out.
A power machine having a frame , a lift arm coupled to the frame, an engine , and a drive system powered by the engine and coupled to a track assembly for driving the power machine across a support surface, the track assembly comprising: a track frame ; a track carried by the track frame and driven under power about the track frame, the track having a plurality of reinforcement members extending transversely to a direction of travel of the power machine , the reinforcement members being evenly spaced from each other so that the track has an alternating pattern of reinforced sections separated by unreinforced sections; first, second, third and fourth rollers rotatably mounted to the track frame and positioned to engage the track along a bottom side of the track frame; and wherein when the second roller (316-2) is positioned above a first reinforced section of the track, the third roller (316-3) is positioned above a second reinforced section of the track. a track frame ; a track carried by the track frame and driven under power about the track frame, the track having a plurality of reinforcement members extending transversely to a direction of travel of the power machine , the reinforcement members being evenly spaced from each other so that the track has an alternating pattern of reinforced sections separated by unreinforced sections; first, second, third and fourth rollers rotatably mounted to the track frame and positioned to engage the track along a bottom side of the track frame; and wherein when the second roller (316-2) is positioned above a first reinforced section of the track, the third roller (316-3) is positioned above a second reinforced section of the track.
A method of estimating soil moisture at a GPS location of a planter in a field, comprising a monitor conducting the steps of: determining the GPS location of the planter ; obtaining near the GPS location a first soil reflectance measurement at a first depth at a first location in the field; obtaining near the GPS location a second soil reflectance measurement at a second depth at a second location in the field; determining a reflectance-based reflectance correction based on said second soil reflectance measurement by: identifying the soil type near the GPS location; selecting an expected value for the second soil reflectance measurement corresponding to the soil type from a memory of the monitor including expected values for the second soil reflectance measurement, each corresponding to a soil type; and computing the reflectance-based correction dividing the second soil reflectance measurement by the expected value for the second soil reflectance measurement; applying said reflectance-based reflectance correction to said first soil reflectance measurement to obtain a corrected first soil reflectance measurement; and estimating moisture using said corrected first soil reflectance measurement. determining the GPS location of the planter ; obtaining near the GPS location a first soil reflectance measurement at a first depth at a first location in the field; obtaining near the GPS location a second soil reflectance measurement at a second depth at a second location in the field; determining a reflectance-based reflectance correction based on said second soil reflectance measurement by: identifying the soil type near the GPS location; selecting an expected value for the second soil reflectance measurement corresponding to the soil type from a memory of the monitor including expected values for the second soil reflectance measurement, each corresponding to a soil type; and computing the reflectance-based correction dividing the second soil reflectance measurement by the expected value for the second soil reflectance measurement; identifying the soil type near the GPS location; selecting an expected value for the second soil reflectance measurement corresponding to the soil type from a memory of the monitor including expected values for the second soil reflectance measurement, each corresponding to a soil type; and computing the reflectance-based correction dividing the second soil reflectance measurement by the expected value for the second soil reflectance measurement; applying said reflectance-based reflectance correction to said first soil reflectance measurement to obtain a corrected first soil reflectance measurement; and estimating moisture using said corrected first soil reflectance measurement.
Geared fitting (100; 200; 300) for a vehicle seat , in particular motor vehicle seat, having a first gear ring (116; 216; 316), a gear wheel (118; 218; 318) meshing with the first gear ring (116; 216; 316), a further gear ring (182; 282; 382) in which the gear wheel (118; 218; 318) is meshed, and a rotatable eccentric for driving a relative rolling movement between the gear wheel (118; 218; 318) and the first gear ring (116; 216; 316), characterized by a means for eliminating play between the gear wheel (118; 218; 318) and the further gear ring (182; 282; 382), wherein the elastically prestressable means is a washer (140; 240; 340) which can be prestressed against the further gear ring (182; 282; 382), and the washer (140; 240; 340) comprises a more flexible material radially on the inside than radially on the outside.
A compound of formula (I) wherein R 1 is selected from the group consisting of and pharmaceutically acceptable salts thereof.