mhurhangee/patent-ind-claim-en huggingface dataset:
An operator station for a work vehicle comprising: a roof , wherein the roof defines a first conditioned air outlet; a floor disposed underneath the roof ; a plurality of windows extending between the floor and the roof and together with the floor and the roof defining an operator compartment that is enclosed on all sides; an operator seat supported on the floor and disposed within the operator compartment; an air-conditioning module disposed adjacent to the floor , wherein the air-conditioning module has a first air inlet and a first conditioned air outlet; a first air conduit extending between an outside air inlet adapted for receiving outside air and the air-conditioning module and configured to communicate outside air from the outside air inlet into the first air inlet of the air-conditioning module ; and a second air conduit extending between the first conditioned air outlet of the air-conditioning module and the first conditioned air outlet of the roof and configured to communicate conditioned air from the air-conditioning module to the first conditioned air outlet of the roof , the second air conduit including a second generally vertical conduit portion disposed behind the operator seat , characterized in that the roof defines the outside air inlet , and that the first air conduit includes a first generally vertical conduit portion disposed behind the operator seat . a roof , wherein the roof defines a first conditioned air outlet; a floor disposed underneath the roof ; a plurality of windows extending between the floor and the roof and together with the floor and the roof defining an operator compartment that is enclosed on all sides; an operator seat supported on the floor and disposed within the operator compartment; an air-conditioning module disposed adjacent to the floor , wherein the air-conditioning module has a first air inlet and a first conditioned air outlet; a first air conduit extending between an outside air inlet adapted for receiving outside air and the air-conditioning module and configured to communicate outside air from the outside air inlet into the first air inlet of the air-conditioning module ; and a second air conduit extending between the first conditioned air outlet of the air-conditioning module and the first conditioned air outlet of the roof and configured to communicate conditioned air from the air-conditioning module to the first conditioned air outlet of the roof , the second air conduit including a second generally vertical conduit portion disposed behind the operator seat , characterized in that the roof defines the outside air inlet , and that the first air conduit includes a first generally vertical conduit portion disposed behind the operator seat .
An apparatus to be implemented in a user equipment, UE, the apparatus comprising: signaling circuitry to establish a multi-access packet data network, PDN, connection with at least two radio access technologies to enable Internet Protocol, IP, flow mobility based on the at least two radio access technologies; and processing circuitry , coupled to the signaling circuitry, to control IP flow mobility based on a bidirectional signaling protocol between the UE and a PDN Gateway, PGW, that enables a coexistence of IP flow mobility initiated based on network policies and IP flow mobility initiated based on UE policies, and receive or send an IP Flow mobility Control Protocol, IFCP, capability request or response between the UE and the PGW to indicate a type of IP flow mobility, NB-IFOM, capability supported by the UE or the network, wherein the bidirectional signaling protocol is terminated at the UE and the PGW , and the processing circuitry is to negotiate routing rules between the UE and the PGW using the bidirectional signaling protocol over Transmission Control Protocol, TCP/IP, or User Datagram Protocol, UDP/IP, wherein the processing circuitry is further configured to: prioritize network-initiated routing rules, Policy and Charging Control, PCC, rules or Policy and Charging Rule Function, PCRF, rules, over UE-initiated routing rules. signaling circuitry to establish a multi-access packet data network, PDN, connection with at least two radio access technologies to enable Internet Protocol, IP, flow mobility based on the at least two radio access technologies; and processing circuitry , coupled to the signaling circuitry, to control IP flow mobility based on a bidirectional signaling protocol between the UE and a PDN Gateway, PGW, that enables a coexistence of IP flow mobility initiated based on network policies and IP flow mobility initiated based on UE policies, and receive or send an IP Flow mobility Control Protocol, IFCP, capability request or response between the UE and the PGW to indicate a type of IP flow mobility, NB-IFOM, capability supported by the UE or the network, wherein the bidirectional signaling protocol is terminated at the UE and the PGW , and the processing circuitry is to negotiate routing rules between the UE and the PGW using the bidirectional signaling protocol over Transmission Control Protocol, TCP/IP, or User Datagram Protocol, UDP/IP, wherein the processing circuitry is further configured to: prioritize network-initiated routing rules, Policy and Charging Control, PCC, rules or Policy and Charging Rule Function, PCRF, rules, over UE-initiated routing rules.
A power supply circuit of a power amplifier, comprising a direct current/direct current converter chip and a control circuit; wherein the direct current/direct current converter chip comprises an input pin (IN), an inductance pin (LX), and a feedback pin (FB), the input pin (IN) is connected to a power supply (V IN ) and the inductance pin (LX) is connected to a voltage input end of the power amplifier (PA) through an LC storage circuit; wherein the control circuit is connected between the voltage input end of the power amplifier (PA) and the feedback pin (FB), and the control circuit is configured to receive a control voltage (Vc) and adjust, through the control voltage (Vc), a voltage (V OUT ) at the voltage input end of the power amplifier (PA); and wherein the power amplifier has at least two operating frequencies and at least two power levels under each one of the at least two operating frequencies, wherein a corresponding relationship exists between the control voltage (Vc), the at least two power levels of the power amplifier (PA) and the at least two operating frequencies of the power amplifier (PA), and the control voltage (Vc) changes according to a change power level of the power amplifier, changes according to a change of operating frequency of the power amplifier (PA) and changes according to the corresponding relationship. wherein the direct current/direct current converter chip comprises an input pin (IN), an inductance pin (LX), and a feedback pin (FB), the input pin (IN) is connected to a power supply (V IN ) and the inductance pin (LX) is connected to a voltage input end of the power amplifier (PA) through an LC storage circuit; wherein the control circuit is connected between the voltage input end of the power amplifier (PA) and the feedback pin (FB), and the control circuit is configured to receive a control voltage (Vc) and adjust, through the control voltage (Vc), a voltage (V OUT ) at the voltage input end of the power amplifier (PA); and wherein the power amplifier has at least two operating frequencies and at least two power levels under each one of the at least two operating frequencies, wherein a corresponding relationship exists between the control voltage (Vc), the at least two power levels of the power amplifier (PA) and the at least two operating frequencies of the power amplifier (PA), and the control voltage (Vc) changes according to a change power level of the power amplifier, changes according to a change of operating frequency of the power amplifier (PA) and changes according to the corresponding relationship.
An acoustic sensor configured to non-invasively detect acoustic vibrations indicative of one or more physiological parameters of a patient, the acoustic sensor comprising: a frame defining an acoustic cavity ; a sensing element supported by the frame, the sensing element configured to output a signal responsive to acoustic vibrations associated with a patient when the acoustic sensor is attached to the patient; and an acoustic coupler supported by the frame and configured to be coupled with an area of the skin of the patient, the acoustic coupler comprising a bottom surface and side walls , the bottom surface comprising a dielectric material that electrically decouples the area of the skin of the patient from the sensing element when the acoustic sensor is attached to the patient; wherein at least one of the side walls comprises an air vent hole and wherein the frame comprises at least one corresponding pressure equalizing pathway aligned with the at least one air vent hole and providing an air communication between the acoustic cavity and ambient air pressure; and wherein the acoustic coupler comprises a top hole configured to be stretched open to receive the frame and the sensing element . a frame defining an acoustic cavity ; a sensing element supported by the frame, the sensing element configured to output a signal responsive to acoustic vibrations associated with a patient when the acoustic sensor is attached to the patient; and an acoustic coupler supported by the frame and configured to be coupled with an area of the skin of the patient, the acoustic coupler comprising a bottom surface and side walls , the bottom surface comprising a dielectric material that electrically decouples the area of the skin of the patient from the sensing element when the acoustic sensor is attached to the patient; wherein at least one of the side walls comprises an air vent hole and wherein the frame comprises at least one corresponding pressure equalizing pathway aligned with the at least one air vent hole and providing an air communication between the acoustic cavity and ambient air pressure; and wherein the acoustic coupler comprises a top hole configured to be stretched open to receive the frame and the sensing element .
An herbal hematophagous parasite control composition which comprises 0.5 to 1.5 parts w/w Picraena excelsa (Quassia), 0.5 to 1.5 parts w/w Foeniculum vulgare (fennel) and 1.5 to 2.5 parts w/w Azadirachta indica folium (Neem) 0.1 to 1.0 parts w/w Glycyrrhiza glabra (liquorice) and 0.1 to 1.0 parts w/w Zingiber officinale (ginger) provided that the composition is substantially free of Juglans nigra folia (black walnut) and/or Allium sativum (garlic) for use in the control of hematophagous parasites in one or more of dogs, ponies, deer, sheep and grouse.
A cleaner comprising: a suction motor that generates suction force and including an impeller ; a dust separation unit that separates dust from air suctioned by the suction force; a motor housing that surrounds the suction motor ; a flow guide that surrounds an outer side of the motor housing and guides air discharged from the dust separation unit to the suction motor ; and a body that surrounds the flow guide and guides air discharged from the suction motor together with the flow guide ; characterized in that the cleaner further comprises a battery for supplying power to the suction motor ; and a pre-filter for filtering air flowing into the suction motor and for covering the impeller . a suction motor that generates suction force and including an impeller ; a dust separation unit that separates dust from air suctioned by the suction force; a motor housing that surrounds the suction motor ; a flow guide that surrounds an outer side of the motor housing and guides air discharged from the dust separation unit to the suction motor ; and a body that surrounds the flow guide and guides air discharged from the suction motor together with the flow guide ; characterized in that the cleaner further comprises a battery for supplying power to the suction motor ; and a pre-filter for filtering air flowing into the suction motor and for covering the impeller .
A kit for building a modular structure that allows easy attachment of finishing components that comprises: - a plurality of coplanar plates interconnectable by shape which are configured to be assembled together to form the base of the modular structure, - a first system of metal profiles with lower strength structure configured to be fixed to the base plate through fastening means, - a plurality of vertical walls configured to be arranged perpendicular to the basic structure and fixable in the first system of metal profiles with lower strength structure at their lower part wherein the vertical walls are provided with a layer with ferromagnetic properties on at least one of the outer surfaces, - a second system of metal profiles with upper strength structure configured to be fixed to the top of the vertical walls to ensure the stability and rigidity of the structure, characterised in that - a plurality of coplanar plates interconnectable by shape, which are configured to be assembled together to form a support layer with ferromagnetic properties which are configured to be fixed over the base of the modular structure, - at least one multilayer magnetic support configured to be arranged over the support layer with ferromagnetic properties and on at least a portion of the surface of the vertical walls wherein the multilayer magnetic support is formed at the bottom facing the support layer with ferromagnetic properties of a magnetic film and a means of attachment to the opposite side of the support with ferromagnetic properties for attaching said finishing components. - a plurality of coplanar plates interconnectable by shape which are configured to be assembled together to form the base of the modular structure, - a first system of metal profiles with lower strength structure configured to be fixed to the base plate through fastening means, - a plurality of vertical walls configured to be arranged perpendicular to the basic structure and fixable in the first system of metal profiles with lower strength structure at their lower part wherein the vertical walls are provided with a layer with ferromagnetic properties on at least one of the outer surfaces, - a second system of metal profiles with upper strength structure configured to be fixed to the top of the vertical walls to ensure the stability and rigidity of the structure, characterised in that - a plurality of coplanar plates interconnectable by shape, which are configured to be assembled together to form a support layer with ferromagnetic properties which are configured to be fixed over the base of the modular structure, - at least one multilayer magnetic support configured to be arranged over the support layer with ferromagnetic properties and on at least a portion of the surface of the vertical walls
A computer-implemented method of generating a four-dimensional seismic signal based on multiple sets of seismic data representing a subterranean formation, the method comprising: receiving a first set of raw seismic data, the first set of raw seismic data being generated at a first time by performing a seismic survey in the subterranean formation; generating a tomographic velocity model based on the first set of raw seismic data; determining at least one Green's function at a desired grid spacing based on the tomographic velocity model; generating a first image of a target region based on the first set of raw seismic data and the at least one Green's function, wherein generating the first image comprises generating a first amplitude map; receiving a second set of raw seismic data, the second set of raw seismic data being generated by performing a seismic survey in the subterranean formation at a second time after the first time, wherein the second set of raw seismic data comprises less data from the target region than the first set of raw seismic data; generating a second image of the target region based on the second set of raw seismic data and the at least one Green's function, wherein generating the second image comprises generating a second amplitude map; comparing the first image with the second image; and determining a four-dimensional seismic signal based on the comparison. receiving a first set of raw seismic data, the first set of raw seismic data being generated at a first time by performing a seismic survey in the subterranean formation; generating a tomographic velocity model based on the first set of raw seismic data; determining at least one Green's function at a desired grid spacing based on the tomographic velocity model; generating a first image of a target region based on the first set of raw seismic data and the at least one Green's function, wherein generating the first image comprises generating a first amplitude map; receiving a second set of raw seismic data, the second set of raw seismic data being generated by performing a seismic survey in the subterranean formation at a second time after the first time, wherein the second set of raw seismic data comprises less data from the target region than the first set of raw seismic data; generating a second image of the target region based on the second set of raw seismic data and the at least one Green's function, wherein generating the second image comprises generating a second amplitude map; comparing the first image with the second image; and determining a four-dimensional seismic signal based on the comparison.
Method for fastening a gas nozzle to a gas valve for a heater, comprising at least the following steps: a) introducing a connecting region of the gas nozzle into a gas outlet region of the gas valve in a second joining direction , b) inserting a fastening element in a fastening region of the gas nozzle into the gas valve in a first joining direction , which differs from the second joining direction , wherein the gas nozzle at least partially encloses an edge of the gas valve and the connecting region of the gas nozzle and the fastening element are inserted into different sides of the gas valve adjacent to the edge . a) introducing a connecting region of the gas nozzle into a gas outlet region of the gas valve in a second joining direction , b) inserting a fastening element in a fastening region of the gas nozzle into the gas valve in a first joining direction , which differs from the second joining direction , wherein the gas nozzle at least partially encloses an edge of the gas valve and the connecting region of the gas nozzle and the fastening element are inserted into different sides of the gas valve adjacent to the edge .
Use of a base comprising a polyvinyl alcohol-based resin with a carboxylic acid metal salt content of 0.8% by weight or less, for solid dispersion, wherein a saponification degree of the polyvinyl alcohol-based resin is 80-95% by mole and an average degree of polymerization of the polyvinyl alcohol-based resin is 200-2,500.
A method performed by a wireless device configured with multiple power control closed loops for a serving cell, the method comprising: receiving, via higher layer signaling, an indication of a bitfield location for a downlink control message; receiving the downlink control message, the downlink control message comprising a plurality of Transmit Power Control, TPC commands and a plurality of closed loop indications, each closed loop indication of the plurality of closed loop indications being associated with a respective TPC command of the plurality of TPC commands and comprising one or more closed loop indication bits indicating the power control closed loop to which the associated TPC command applies; determining a TPC command of the plurality of TPC commands using the indicated bitfield location; determining a power control closed loop of the multiple power control closed loops to which the determined TPC command should be applied, the power control closed loop determined using the one or more closed loop indication bits of the closed loop indication associated with the determined TPC command; and updating the determined power control closed loop using the determined TPC command. receiving, via higher layer signaling, an indication of a bitfield location for a downlink control message; receiving the downlink control message, the downlink control message comprising a plurality of Transmit Power Control, TPC commands and a plurality of closed loop indications, each closed loop indication of the plurality of closed loop indications being associated with a respective TPC command of the plurality of TPC commands and comprising one or more closed loop indication bits indicating the power control closed loop to which the associated TPC command applies; determining a TPC command of the plurality of TPC commands using the indicated bitfield location; determining a power control closed loop of the multiple power control closed loops to which the determined TPC command should be applied, the power control closed loop determined using the one or more closed loop indication bits of the closed loop indication associated with the determined TPC command; and updating the determined power control closed loop using the determined TPC command.
A curved display device comprising: a display module which receives an image signal from an outside source and displays an image corresponding to the image signal, wherein the display module is curved; and a stand in which a curved groove is defined; characterized in that the stand transmits the image signal (ES), a portion of the curved display module is accommodated in the curved groove, the curved groove has a variable curvature radius which corresponds to a curvature radius of the curved display module, and the shape of the stand is changeable so as to change the curvature radius of the curved groove. a display module which receives an image signal from an outside source and displays an image corresponding to the image signal, wherein the display module is curved; and a stand in which a curved groove is defined; characterized in that the stand transmits the image signal (ES), a portion of the curved display module is accommodated in the curved groove, the curved groove has a variable curvature radius which corresponds to a curvature radius of the curved display module, and the shape of the stand is changeable so as to change the curvature radius of the curved groove.