mhurhangee/patent-ind-claim-en huggingface dataset:
Dispenser pump comprising a plunger and a body , the body comprising a body cylinder including a cylinder of the pump, and a body insert fitting into the top of the body cylinder ; the plunger having a head , a stem and a piston and being rotatable relative to the body between axially locked and axially unlocked positions, including a locked-down position in which the plunger is held relatively retracted into the body ; the pump defining a vent path between the container interior and the cylinder interior including a vent opening of the body cylinder; characterised in that the vent path includes a radial clearance between the body insert and body cylinder , and the body insert comprises a projecting vent-control formation extending around the body insert, engaging the cylinder wall of the cylinder and having high and low portions lying respectively axially above and axially below the axial position of the vent opening at the interior thereof, the body insert being rotatable relative to the body cylinder whereby when a said high portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is open and when a said low portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is closed. the body comprising a body cylinder including a cylinder of the pump, and a body insert fitting into the top of the body cylinder ; the plunger having a head , a stem and a piston and being rotatable relative to the body between axially locked and axially unlocked positions, including a locked-down position in which the plunger is held relatively retracted into the body ; the pump defining a vent path between the container interior and the cylinder interior including a vent opening of the body cylinder; characterised in that the vent path includes a radial clearance between the body insert and body cylinder , and the body insert comprises a projecting vent-control formation extending around the body insert, engaging the cylinder wall of the cylinder and having high and low portions lying respectively axially above and axially below the axial position of the vent opening at the interior thereof, the body insert being rotatable relative to the body cylinder whereby when a said high portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is open and when a said low portion of the vent-control formation aligns circumferentially with the interior of the vent opening the vent path is closed.
Apparatus for generating a spatially and/or temporally variable thermal radiation pattern for deflectometrically examining a surface , comprising: a radiation source (102; 302) for generating a variable pattern ; and means (106; 306) for converting the variable pattern into a thermal spectral range for a non-directional emission of the variable pattern as the thermal radiation pattern , wherein the means (106; 306) for converting comprises a radiation-absorbent screen with a plurality of pattern generation areas, characterized by transport means for the screen so that the screen is movable such that, after applying a first pattern onto a first pattern generation area, the screen may be moved so that a second pattern may be applied to a second pattern generation area that differs from the first pattern generation area, wherein the transport means includes transport rollers , wherein the screen comprises a band forming a surrounding projection surface, arranged on the transport rollers in order to be transported by the transport rollers , wherein the transport means is configured, after applying the first pattern onto the first pattern generation area, to further move the screen for a pattern change via the transport rollers until a new unwritten surface is available on the screen for applying the second pattern , and wherein the radiation source for generating the variable pattern includes a sharply focused radiation source in the form of a laser configured to write a desired pattern onto the screen . a radiation source (102; 302) for generating a variable pattern ; and means (106; 306) for converting the variable pattern into a thermal spectral range for a non-directional emission of the variable pattern as the thermal radiation pattern , wherein the means (106; 306) for converting comprises a radiation-absorbent screen with a plurality of pattern generation areas, characterized by transport means for the screen so that the screen is movable such that, after applying a first pattern onto a first pattern generation area, the screen may be moved so that a second pattern may be applied to a second pattern generation area that differs from the first pattern generation area, wherein the transport means includes transport rollers , wherein the screen comprises a band forming a surrounding projection surface, arranged on the transport rollers in order to be transported by the transport rollers , wherein the transport means is configured, after applying the first pattern onto the first pattern generation area, to further move the screen for a pattern change via the transport rollers until a new unwritten surface is available on the screen for applying the second pattern , and wherein the radiation source for generating the variable pattern includes a sharply focused radiation source in the form of a laser configured to write a desired pattern onto the screen .
A dressing for treating a tissue site with negative pressure, prior to the application of reduced pressure the dressing comprising: a contact layer comprising a first manifold having a plurality of holes through the first manifold; and a retainer layer comprising a second manifold having a plurality of projections , at least one of the projections protruding, without the application of reduced pressure, into at least one of the plurality of holes . a contact layer comprising a first manifold having a plurality of holes through the first manifold; and a retainer layer comprising a second manifold having a plurality of projections , at least one of the projections protruding, without the application of reduced pressure, into at least one of the plurality of holes .
An optical fiber jumper cable comprising: an outer jacket having an outer surface defining an outermost surface of the optical fiber cable and an inner surface defining a central bore ; a plurality of aramid fibers located in the central bore ; at least one optical fiber located within the central bore and surrounded by the aramid fibers , wherein the at least one optical fiber experiences less than or equal to 0.5% permanent fiber strain when exposed to a permanent tensile load of 100 N; and at least one connector on an end of the optical fiber jumper cable characterized in that the plurality of aramid fibers has a total linear density such that the optical fiber jumper cable has an a1 acidity rating during burn as measured by EN 50267-2-3, and wherein the at least one optical fiber has been proof tested at 1.379 MPa (200 kpsi) or greater, wherein there are no non-aramid strength members located within the central bore of the outer jacket or embedded within the outer jacket . an outer jacket having an outer surface defining an outermost surface of the optical fiber cable and an inner surface defining a central bore ; a plurality of aramid fibers located in the central bore ; at least one optical fiber located within the central bore and surrounded by the aramid fibers , wherein the at least one optical fiber experiences less than or equal to 0.5% permanent fiber strain when exposed to a permanent tensile load of 100 N; and at least one connector on an end of the optical fiber jumper cable characterized in that the plurality of aramid fibers has a total linear density such that the optical fiber jumper cable has an a1 acidity rating during burn as measured by EN 50267-2-3, and wherein the at least one optical fiber has been proof tested at 1.379 MPa (200 kpsi) or greater, wherein there are no non-aramid strength members located within the central bore of the outer jacket or embedded within the outer jacket .
A method for detecting a membrane protein using a desorption electrospray ionisation source coupled to a mass spectrometer, wherein the method comprises: desorbing a membrane protein from a surface on which a sample comprising the membrane protein and a solubilising agent is deposited by applying electrospray to the sample; ionising the membrane protein; and detecting the membrane protein using the mass spectrometer. desorbing a membrane protein from a surface on which a sample comprising the membrane protein and a solubilising agent is deposited by applying electrospray to the sample; ionising the membrane protein; and detecting the membrane protein using the mass spectrometer.
A composition comprising (I) a mixture comprising, or alternatively, consisting of: (a) an extract of Eucommia ulmoides, (b.1) a saffron comprising safranal, and (b.2) an extract of Magnolia officinalis and/or Magnolia champaca comprising honokiol; and, optionally, said composition comprises (II) at least one food grade or pharmaceutical additive and/or excipient. (I) a mixture comprising, or alternatively, consisting of: (a) an extract of Eucommia ulmoides, (b.1) a saffron comprising safranal, and (b.2) an extract of Magnolia officinalis and/or Magnolia champaca comprising honokiol; and, optionally, said composition comprises (a) an extract of Eucommia ulmoides, (b.1) a saffron comprising safranal, and (b.2) an extract of Magnolia officinalis and/or Magnolia champaca comprising honokiol; and, optionally, said composition comprises (II) at least one food grade or pharmaceutical additive and/or excipient.
A MEMS type semiconductor gas detection element having a MEMS structure, for detecting hydrogen gas, comprising: - a substrate ; - a gas sensitive portion mainly made of a metal oxide semiconductor and provided to the substrate ; - a heating portion for heating the gas sensitive portion ; - an inactive film having hydrogen- permselectivity and formed outside the gas sensitive portion ; and - a protective film formed outside the inactive film , for suppressing deterioration of the gas sensitive portion , characterized in that - the inactive film comprises: a silica film having a siloxane bond, and - the protective film comprises: alumina or a complex oxide containing aluminum and silicon; or - the protective film is made of a carrier made of a complex oxide containing aluminum and silicon carrying chromium oxide or palladium oxide. - a substrate ; - a gas sensitive portion mainly made of a metal oxide semiconductor and provided to the substrate ; - a heating portion for heating the gas sensitive portion ; - an inactive film having hydrogen- permselectivity and formed outside the gas sensitive portion ; and - a protective film formed outside the inactive film , for suppressing deterioration of the gas sensitive portion , characterized in that - the inactive film comprises: a silica film having a siloxane bond, and - the protective film comprises: alumina or a complex oxide containing aluminum and silicon; or - the protective film is made of a carrier made of a complex oxide containing aluminum and silicon carrying chromium oxide or palladium oxide.
A downhole expandable metal tubular having an axial extension, to be expanded in a well downhole to abut an inner face of a casing or a borehole , comprising: - a first section having a first outer diameter (ODi), - two circumferential projections having a second outer diameter (OD 2 ) which is larger than the first outer diameter, and - a second section arranged between the two projections, each projection having an inclined face tapering from the second outer diameter towards the second section, wherein the second section has a third outer diameter (OD 3 ) which is smaller than the first outer diameter in an unexpanded condition, and a sealing element is arranged between the projections opposite the second section so that during expansion, the second section bulges more radially outwards than the first section, forcing the sealing element radially outwards. - a first section having a first outer diameter (ODi), - two circumferential projections having a second outer diameter (OD 2 ) which is larger than the first outer diameter, and - a second section arranged between the two projections, each projection having an inclined face tapering from the second outer diameter towards the second section,
An image decoding method comprising: splitting a first block included in an image on the basis of at least one of a split type and a split direction of the first block to determine at least one second block from the first block (S105); if a size of a second block among the determined at least one second block is equal to a predetermined size, setting an intra mode as a prediction mode of the second block without obtaining, from a bitstream, information indicating whether the prediction mode of the second block is an intra mode or an inter mode (S110); obtaining a prediction block of the second block among the at least one second block on the basis of the set prediction mode (S115); and reconstructing the second block among the at least one second block on the basis of the prediction block of the second block among the at least one second block (S120), wherein the split type represents one of binary-split, tri-split, and quad-split. splitting a first block included in an image on the basis of at least one of a split type and a split direction of the first block to determine at least one second block from the first block (S105); if a size of a second block among the determined at least one second block is equal to a predetermined size, setting an intra mode as a prediction mode of the second block without obtaining, from a bitstream, information indicating whether the prediction mode of the second block is an intra mode or an inter mode (S110); obtaining a prediction block of the second block among the at least one second block on the basis of the set prediction mode (S115); and reconstructing the second block among the at least one second block on the basis of the prediction block of the second block among the at least one second block (S120), wherein the split type represents one of binary-split, tri-split, and quad-split.
A computing device configured to prevent attachment of at least a portion of an input device at an improper location on the computing device, the computing device comprising: a housing comprising a first side and a first end adjacent to the first side , the housing comprising a first computing device magnet and a second computing device magnet , each of the first computing device magnet and the second computing device magnet being disposed along the first side of the housing and spaced apart by a separation distance , at least one of the first computing device magnet and the second computing device magnet having a first magnetic pole orientation opposite to a second magnetic pole orientation; and characterised by at least one repelling magnet disposed along the first side of the housing and located between the first end of the housing and the second computing device magnet , wherein the at least one repelling magnet has the second magnetic pole orientation. a housing comprising a first side and a first end adjacent to the first side , the housing comprising a first computing device magnet and a second computing device magnet , each of the first computing device magnet and the second computing device magnet being disposed along the first side of the housing and spaced apart by a separation distance , at least one of the first computing device magnet and the second computing device magnet having a first magnetic pole orientation opposite to a second magnetic pole orientation; and characterised by at least one repelling magnet disposed along the first side of the housing and located between the first end of the housing and the second computing device magnet , wherein the at least one repelling magnet has the second magnetic pole orientation.
A method performed by a wireless device, the method comprising: determining an operational occasion periodicity of a signal subjecting to Clear Channel Assessment, CCA, for transmission; determining an association at least between the determined operational occasion periodicity and a maximum number of allowed CCA failures for communicating the signal; determining the maximum number of allowed CCA failures for the determined operational occasion periodicity based on the determined association between the determined operational occasion periodicity and the maximum number of allowed CCA failures; and performing one or more operational tasks based on the determined maximum number of allowed CCA failures. determining an operational occasion periodicity of a signal subjecting to Clear Channel Assessment, CCA, for transmission; determining an association at least between the determined operational occasion periodicity and a maximum number of allowed CCA failures for communicating the signal; determining the maximum number of allowed CCA failures for the determined operational occasion periodicity based on the determined association between the determined operational occasion periodicity and the maximum number of allowed CCA failures; and performing one or more operational tasks based on the determined maximum number of allowed CCA failures.
Organ perfusion device that comprises a container to host an organ , and a perfusion circuit that comprises ducts through which a perfusion fluid i can be pumped and that are configured to be connected to the organ to permit the passage of perfusion fluid through it, wherein: - the container comprises a support surface for the organ that minimises the contact area with the organ and ensures that the perfusion fluid does not cover the visible surface of the organ ; and the organ perfusion device further comprises: - an artificial vision system that comprises at least one camera , located outside the container , and oriented towards the inside of the container to take images from the organ that allow controlling the organ colour during perfusion; - a plurality of sensors that are configured to capture information about conditions of the organ and the perfusion fluid; - a control unit that is configured to receive information from the sensors and the artificial vision system and that is configured to control the functioning parameters of the perfusion circuit; wherein - the container comprises at least one transparent area that allows taking images from the organ with the camera ; and - the organ perfusion device comprises a cleaning system i inside the container , in its transparent areas, configured to remove condensed liquid from the surface of the container . - the container comprises a support surface for the organ that minimises the contact area with the organ and ensures that the perfusion fluid does not cover the visible surface of the organ ; - an artificial vision system that comprises at least one camera , located outside the container , and oriented towards the inside of the container to take images from the organ that allow controlling the organ colour during perfusion; - a plurality of sensors that are configured to capture information about conditions of the organ and the perfusion fluid; - a control unit that is configured to receive information from the sensors and the artificial vision system and that is configured to control the functioning parameters of the perfusion circuit; wherein - the container comprises at least one transparent area that allows taking images from the organ with the camera ; and - the organ perfusion device comprises a cleaning system i inside the container , in its transparent areas, configured to remove condensed liquid from the surface of the container .
A histidine-trehalose formulation comprising T1h antibody in an amount from 25 mg/ml to 250 mg/ml, 10 mM to 30 Mm histidine buffer, 1% to 15% trehalose, and 0.001% to 0.05% surfactant and a pH of 5 to 7.5.
A method of operating a user equipment, UE, comprising: performing a beam training procedure to determine useful beams; generating a first beam list by selecting a plurality of useful beams, the first beam list including a first number of beams from a first gNB and a second number of beams from a second gNB; tracking the beams on the first beam list and determining a number of useful beams on the beam list; and performing another beam training procedure when the number of useful beams falls below a first threshold, wherein useful beams are beams with a Signal to Interference and Noise Ratio, SINR, that is above a minimum threshold. performing a beam training procedure to determine useful beams; generating a first beam list by selecting a plurality of useful beams, the first beam list including a first number of beams from a first gNB and a second number of beams from a second gNB; tracking the beams on the first beam list and determining a number of useful beams on the beam list; and performing another beam training procedure when the number of useful beams falls below a first threshold, wherein useful beams are beams with a Signal to Interference and Noise Ratio, SINR, that is above a minimum threshold.
An oral care composition comprising: a) zinc oxide; and b) calcium dihydrogen phosphate; wherein the zinc oxide and the calcium dihydrogen phosphate are present in a weight ratio from 10:1 to 1:5. a) zinc oxide; and b) calcium dihydrogen phosphate;
A circuit comprising: a first multiplexer configured to receive a scan data input; a flip-flop coupled to an output of the first multiplexer , configured to generate a scan pattern; an inverter configured to generate an inverted feedback signal in response to the scan pattern, wherein the inverted feedback signal is provided to the first multiplexer ; a plurality of logic circuits connected in a scan chain and configured to generate a logic output in response to the scan pattern; and a bypass multiplexer coupled to the plurality of logic circuits , the bypass multiplexer configured to generate a scan output in response to the logic output, the scan data input and a segment bypass input. a first multiplexer configured to receive a scan data input; a flip-flop coupled to an output of the first multiplexer , configured to generate a scan pattern; an inverter configured to generate an inverted feedback signal in response to the scan pattern, wherein the inverted feedback signal is provided to the first multiplexer ; a plurality of logic circuits connected in a scan chain and configured to generate a logic output in response to the scan pattern; and a bypass multiplexer coupled to the plurality of logic circuits , the bypass multiplexer configured to generate a scan output in response to the logic output, the scan data input and a segment bypass input.
A tracking reference signal, TRS, burst transmission method, comprising: determining (S101), by a transmit end, to send a first TRS burst in the first slot in a first maximum channel occupancy time, MCOT; if a length of the first MCOT is greater than Y slots, determining (S102), by the transmit end, to send a second TRS burst in a slot that is in the first MCOT and whose distance to a start slot of the first TRS burst is Y slots, wherein Y is an integer greater than or equal to 2; and sending (S103), by the transmit end, indication information to a receive end, wherein the indication information is used to indicate the slot for sending the second TRS burst. determining (S101), by a transmit end, to send a first TRS burst in the first slot in a first maximum channel occupancy time, MCOT; if a length of the first MCOT is greater than Y slots, determining (S102), by the transmit end, to send a second TRS burst in a slot that is in the first MCOT and whose distance to a start slot of the first TRS burst is Y slots, wherein Y is an integer greater than or equal to 2; and sending (S103), by the transmit end, indication information to a receive end, wherein the indication information is used to indicate the slot for sending the second TRS burst.