mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a demodulation reference signal, DMRS, based-downlink data channel by a user equipment, UE, in a long term evolution, LTE, communication system, the method comprising: receiving, from a network, a downlink control channel; and receiving the DMRS based-downlink data channel from the network based on the downlink control channel, wherein, when the downlink control channel includes a downlink control information, DCI, format 2D or the downlink control channel includes a DCI format 1A, antenna ports for the DMRS are not assumed to be quasi co-located with antenna ports for a channel status information-reference signal, CSI-RS, unless: when the downlink control channel includes the DCI format 2D, the antenna ports for the DMRS can be assumed to be quasi co-located with the antenna ports for the CSI-RS, and quasi co-location between DMRS and CSI-RS information is indicated by radio resource control, RRC, signalling; and when the downlink control channel includes the DCI format 1A, antenna port 7 for DMRS can be assumed to be quasi co-located with specific antenna ports for the CSI-RS, and the quasi co-location between DMRS and CSI-RS information is indicated by the RRC signalling. receiving, from a network, a downlink control channel; and receiving the DMRS based-downlink data channel from the network based on the downlink control channel, wherein, when the downlink control channel includes a downlink control information, DCI, format 2D or the downlink control channel includes a DCI format 1A, antenna ports for the DMRS are not assumed to be quasi co-located with antenna ports for a channel status information-reference signal, CSI-RS, unless: when the downlink control channel includes the DCI format 2D, the antenna ports for the DMRS can be assumed to be quasi co-located with the antenna ports for the CSI-RS, and quasi co-location between DMRS and CSI-RS information is indicated by radio resource control, RRC, signalling; and when the downlink control channel includes the DCI format 1A, antenna port 7 for DMRS can be assumed to be quasi co-located with specific antenna ports for the CSI-RS, and the quasi co-location between DMRS and CSI-RS information is indicated by the RRC signalling. when the downlink control channel includes the DCI format 2D, the antenna ports for the DMRS can be assumed to be quasi co-located with the antenna ports for the CSI-RS, and quasi co-location between DMRS and CSI-RS information is indicated by radio resource control, RRC, signalling; and when the downlink control channel includes the DCI format 1A, antenna port 7 for DMRS can be assumed to be quasi co-located with specific antenna ports for the CSI-RS, and the quasi co-location between DMRS and CSI-RS information is indicated by the RRC signalling.
Cells for use in the treatment of brain injury by inducing endogenous neurogenic cells to proliferate and migrate to a site of brain injury in a subject, wherein said cells are obtained by a process comprising the steps of: (a) providing a culture of marrow adherent stem cells (MSCs), (b) contacting the cell culture of step (a) with a polynucleotide comprising sequences encoding a NICD wherein said polynucleotide does not encode a full-length Notch protein, (c) selecting cells that comprise the polynucleotide of step (b), and (d) further culturing the selected cells of step (c) in the absence of selection, wherein said cells are to be administered to the brain of the subject. (a) providing a culture of marrow adherent stem cells (MSCs), (b) contacting the cell culture of step (a) with a polynucleotide comprising sequences encoding a NICD wherein said polynucleotide does not encode a full-length Notch protein, (c) selecting cells that comprise the polynucleotide of step (b), and (d) further culturing the selected cells of step (c) in the absence of selection, wherein
A computer-implemented method comprising: initializing N qubits in respective superposition states; computing a randomly selected oracle randomization function (400, 500) using i) the initialized N qubits and ii) multiple ancilla qubits (402, 404), wherein the multiple ancilla qubits comprise a first ancilla qubit and one or more second ancilla qubits; performing a phase flip operation on the first ancilla qubit; computing an inverse of the randomly selected oracle randomization function using i) the N qubits and ii) the multiple ancilla qubits; performing a diffusion operation on the N qubits; and measuring the N qubits and providing data (902, 904, 906, 912, 914) representing measured states of the N qubits as N random bits. initializing N qubits in respective superposition states; computing a randomly selected oracle randomization function (400, 500) using i) the initialized N qubits and ii) multiple ancilla qubits (402, 404), wherein the multiple ancilla qubits comprise a first ancilla qubit and one or more second ancilla qubits; performing a phase flip operation on the first ancilla qubit; computing an inverse of the randomly selected oracle randomization function using i) the N qubits and ii) the multiple ancilla qubits; performing a diffusion operation on the N qubits; and measuring the N qubits and providing data (902, 904, 906, 912, 914) representing measured states of the N qubits as N random bits.
A multimode optical fibre comprising, from the center to the periphery a central core, an inner cladding, a depressed trench, and an outer optical cladding, wherein - the central core has a radius r 1, and an alpha refractive index profile with a graded-index with respect to the outer optical cladding; - the inner cladding has a radius r 2 and a constant refractive index; - the depressed trench has a width W t and a refractive index difference Δn t with respect to the outer optical cladding, wherein the refractive index difference between the end of the alpha index profile of the central core and the outer optical cladding is zero, and wherein the volume V of the depressed trench, which volume is defined by the expression V = 1000 × Wt × Δnt, is comprised between -40 μm and -30 μm, characterized in that the refractive index difference of the depressed trench Δn t with respect to the outer optical cladding is between -7 x 10 -3 and -10 x 10 -3. - the central core has a radius r 1, and an alpha refractive index profile with a graded-index with respect to the outer optical cladding; - the inner cladding has a radius r 2 and a constant refractive index; - the depressed trench has a width W t and a refractive index difference Δn t with respect to the outer optical cladding, wherein
A non therapeutic method of delivering a nebulized fluid for inhalation, comprising the steps of: providing a nebulizing device, a reservoir and a container, the reservoir and container being replaceable, wherein the nebulizing device has a vibrating element with a plurality of holes; delivering a volume of fluid from the container to the reservoir; using the nebulizing device to nebulize the volume of fluid, the fluid being ejected through the holes in the vibrating element; repeating the delivering and using steps a number of times with the same container; removing and replacing the container; and removing and replacing the reservoir. providing a nebulizing device, a reservoir and a container, the reservoir and container being replaceable, wherein the nebulizing device has a vibrating element with a plurality of holes; delivering a volume of fluid from the container to the reservoir; using the nebulizing device to nebulize the volume of fluid, the fluid being ejected through the holes in the vibrating element; repeating the delivering and using steps a number of times with the same container; removing and replacing the container; and removing and replacing the reservoir.
A charging device comprising: a charging section configured to charge a surface of an image bearing member; an air-intake duct having a plurality of air-supply ports (522,522a,522b) provided along the longitudinal direction of the charging section, and configured to guide air sucked from an outside to the charging section through the air-supply ports (522,522a,522b); an exhaust duct having an air-intake port, and configured to suck air around the charging section through the air-intake port and eject the air thus sucked, wherein the air-intake duct has a configuration in which air guided to the charging section through the air-supply ports (522,522a,522b) flows in a direction orthogonal to the longitudinal direction of the charging section, or flows toward a center of the charging section in the longitudinal direction, in the longitudinal direction of the charging section, the air-intake duct has a width that gradually increases toward the charging section side, and characterized in that of the air-supply ports (522,522a,522b), air-supply ports provided on both sides in the longitudinal direction of the charging section each have a cross-sectional area smaller than that of each air-supply port provided in a region other than the both sides. a charging section configured to charge a surface of an image bearing member; an air-intake duct having a plurality of air-supply ports (522,522a,522b) provided along the longitudinal direction of the charging section, and configured to guide air sucked from an outside to the charging section through the air-supply ports (522,522a,522b); an exhaust duct having an air-intake port, and configured to suck air around the charging section through the air-intake port and eject the air thus sucked, wherein the air-intake duct has a configuration in which air guided to the charging section through the air-supply ports (522,522a,522b) flows in a direction orthogonal to the longitudinal direction of the charging section, or flows toward a center of the charging section in the longitudinal direction, in the longitudinal direction of the charging section, the air-intake duct has a width that gradually increases toward the charging section side, and characterized in that of the air-supply ports (522,522a,522b), air-supply ports provided on both sides in the longitudinal direction of the charging section each have a cross-sectional area smaller than that of each air-supply port provided in a region other than the both sides.
A device for air filtration and purification comprising: an enclosure for the flow of the air, said enclosure comprising an air inlet opening and an air outlet opening; one or more inner plates arranged inside said enclosure at an inclined angle in respect of the air flow direction, between said air inlet and outlet, and arranged such that the air flows along such inclined inner plate or plates; one or more UV light emitters arranged inside said enclosure to emit UV light over said inner plates and over said air flow; wherein said inner plates are photo-catalytic and are electrostatic precipitators; characterized in that the direction of the inclined angle of the inner plate, in respect of the air flow direction, is the inclined angle of the inner plate, in respect of a horizontal plane; the device comprising one or more pairs of said inner plates, wherein each pair of inner plates is placed in a cross-shape arrangement with the two plates being arranged inclined and side-by-side transversally to the airflow. an enclosure for the flow of the air, said enclosure comprising an air inlet opening and an air outlet opening; one or more inner plates arranged inside said enclosure at an inclined angle in respect of the air flow direction, between said air inlet and outlet, and arranged such that the air flows along such inclined inner plate or plates; one or more UV light emitters arranged inside said enclosure to emit UV light over said inner plates and over said air flow; wherein said inner plates are photo-catalytic and are electrostatic precipitators; characterized in that the direction of the inclined angle of the inner plate, in respect of the air flow direction, is the inclined angle of the inner plate, in respect of a horizontal plane; the device comprising one or more pairs of said inner plates, wherein each pair of inner plates is placed in a cross-shape arrangement with the two plates being arranged inclined and side-by-side transversally to the airflow.
A method for nitriding a grain-oriented electrical steel sheet comprising immersing a strip in a molten salt bath after cold rolling and before secondary recrystallization annealing during producing a grain-oriented electrical steel sheet, to subject the strip to continuous nitriding, characterized in that multiple sink rolls that are movable vertically or horizontally are disposed inside the molten salt bath, and by moving the sink rolls, the immersion time of the strip inside the molten salt bath is adjustable.
An aluminum-ion battery, comprising: a first electrode, wherein the first electrode comprises a main body, wherein the main body comprises a cavity, and the main body is made of a conductive network structure; and an active material disposed in the cavity, wherein the length of the longest side of the particle of the active material is greater than the length of the longest side of the pore of the conductive network structure, such that the active material is encapsulated in the cavity and confined in the conductive network structure, and wherein the active material is graphite, carbon nanotube, graphene, or a combination thereof. a first electrode, wherein the first electrode comprises a main body, wherein the main body comprises a cavity, and the main body is made of a conductive network structure; and an active material disposed in the cavity, wherein the length of the longest side of the particle of the active material is greater than the length of the longest side of the pore of the conductive network structure, such that the active material is encapsulated in the cavity and confined in the conductive network structure, and wherein the active material is graphite, carbon nanotube, graphene, or a combination thereof.
A method for controlling energy supply distribution in a thermal network during peak loads, the thermal network comprising a supply side, and a consumer side configured to communicate with the supply side, the consumer side comprising a plurality of consumers (104-112, 401, 402), each being arranged to consume thermal energy from the thermal network, and being connected to the supply side, and the supply side comprising one or more suppliers, each being arranged to supply thermal energy to the thermal network, the method comprising the steps of: - identifying at least one low-demand consumer from the plurality of consumers (104-112, 401, 402), the low-demand consumer having decreased energy demands during selected time periods, - decreasing energy supply towards the identified low-demand consumer(s) by controlling mass flow between the supply side and the identified low-demand consumer(s) during the selected time periods, and - maintaining energy supply towards the remaining consumers of the plurality of consumers (104-112, 401, 402) during the selected time periods, characterized in that the consumer side comprises a plurality of differential pressure valves, each of the plurality of differential pressure valves being arranged at the interface between the supply side and one of the plurality of consumers (104-112, 401, 402), and in that the step of decreasing energy supply towards the low-demand consumer(s) by controlling mass flow is performed by reducing the differential pressure across the differential pressure valve(s) arranged at the interface between the supply side and the identified low-demand consumer(s). - identifying at least one low-demand consumer from the plurality of consumers (104-112, 401, 402), the low-demand consumer having decreased energy demands during selected time periods, - decreasing energy supply towards the identified low-demand consumer(s) by controlling mass flow between the supply side and the identified low-demand consumer(s) during the selected time periods, and - maintaining energy supply towards the remaining consumers of the plurality of consumers (104-112, 401, 402) during the selected time periods,
A device for generating a vapor for a CVD or PVD apparatus, with at least two thermal transfer bodies (1, 2, 3) arranged successively in a housing in the direction of flow of a carrier gas and having thermal transfer surfaces, each of which can be heated to a thermal transfer temperature, with an inlet pipe (4, 5) for feeding an aerosol to one of the thermal transfer bodies (2, 3) for vaporization of the aerosol by bringing the aerosol particles into contact with the thermal transfer surfaces, wherein at least one of the thermal transfer bodies (1, 2, 3) has an opening (6, 7, 8) in which an inlet pipe (4, 5) is located, characterized in that the thermal transfer bodies (1, 2, 3) can be heated to different temperatures, an upstream thermal transfer body first in the direction of flow being a preheating body for the carrier gas, which can be fed through a carrier gas feed line upstream from the first thermal transfer body into the housing, in which housing the thermal transfer bodies (1, 2, 3) are arranged successively in the direction of flow such that the carrier gas flows through all of the thermal transfer bodies (1, 2, 3) and either the inlet pipe (4, 5) is guided through the opening (6, 7, 8) of a thermal transfer body (1, 2, 3) and leads into a spacing gap (9,10) between the first and the second thermal transfer bodies (1, 2; 2, 3) or the mouth (4', 5') of the inlet pipe (4, 5) is arranged in a thermal transfer body (2,3).
A system (100, 200) for processing a biological sample, the biological sample being biopsy, said system comprising a sample holder (110, 210) and at least one supplementary component (120, 130, 150), the sample holder comprising a tubular member (111, 211), wherein the tubular member (111, 211) comprises a wall that consists at least partially of a transparent material, and each of the at least one supplementary component (120, 130, 150) having a bearing (123, 132, 232, 152) that can couple to at least a part of the tubular member (111, 211) of the sample holder (110, 210), characterised in that the tubular member (111, 211) comprises a region where the wall is permeable for reagents.
A beam forming device comprising: - a transmit unit comprising at least two transmit elements that transmit radiation towards a scene, - a receiver unit comprising at least two receive elements that receive radiation from said scene and that generate receive signals from said received radiation, - a distance determination unit (161a, 161b) that determines the present distance value, representing a distance indicator, of the distance between the scene and one or more transmit elements and/or receive elements, characterized by - a beam forming unit that performs beam forming to obtain beam formed output signals from said receive signals by use of beam forming weights, wherein said beam forming weights are adapted to the distance between the scene and one or more transmit elements and/or receive elements, said distance being indicated by the distance indicator, and wherein said beam forming weights are changed if said distance changes. - a transmit unit comprising at least two transmit elements that transmit radiation towards a scene, - a receiver unit comprising at least two receive elements that receive radiation from said scene and that generate receive signals from said received radiation, - a distance determination unit (161a, 161b) that determines the present distance value, representing a distance indicator, of the distance between the scene and one or more transmit elements and/or receive elements, characterized by - a beam forming unit that performs beam forming to obtain beam formed output signals from said receive signals by use of beam forming weights, wherein said beam forming weights are adapted to the distance between the scene and one or more transmit elements and/or receive elements, said distance being indicated by the distance indicator, and wherein said beam forming weights are changed if said distance changes.
An oral care device, comprising: an elongate strip having a major surface and a length in the elongate direction of the strip, and a width perpendicular to the length and extending between first and second sides (103, 104) of the strip; and a first tab extending from a first portion of the major surface, wherein the first tab is movable relative to the strip between a storage position and an operative position; characterized in the first tab having a proximal end fixed to the major surface at a position on the major surface away from each of the first and second sides (103, 104) of the strip, and that the proximal end of the first tab is fixed to the major surface at a position on the major surface substantially halfway between the first and second sides (103, 104) of the strip. an elongate strip having a major surface and a length in the elongate direction of the strip, and a width perpendicular to the length and extending between first and second sides (103, 104) of the strip; and a first tab extending from a first portion of the major surface, wherein the first tab is movable relative to the strip between a storage position and an operative position; characterized in the first tab having a proximal end fixed to the major surface at a position on the major surface away from each of the first and second sides (103, 104) of the strip, and that the proximal end of the first tab is fixed to the major surface at a position on the major surface substantially halfway between the first and second sides (103, 104) of the strip.
A valve for an uranium hexafluoride storage tank, comprising a valve body, the valve body delimiting a pipe opening out, on the one hand, at the level of a connection portion intended to be connected to the storage tank, and, on the other hand, at the level of an exit portion through which the uranium hexafluoride is intended to exit, the valve comprising a clamping member movably mounted on the connection portion between a release position in which the clamping member is intended to allow separation of the connection portion from the storage tank and a clamping position in which the clamping member is intended to hold the connection portion fixed to the storage tank, a shutter member movable in rotation in the pipe between a closed position in which the shutter member shuts off the pipe and an open position in which the shutter member frees a passage through the pipe, two seats interposed between the shutter member and the valve body, and elastic return means configured to hold the seats and the shutter member in abutment, and wherein the pipe has a bent portion, the bent portion being arranged between the connection portion and the shutter member, the elastic return means being positioned between the bent portion and the shutter member. a clamping member movably mounted on the connection portion between a release position in which the clamping member is intended to allow separation of the connection portion from the storage tank and a clamping position in which the clamping member is intended to hold the connection portion fixed to the storage tank, a shutter member movable in rotation in the pipe between a closed position in which the shutter member shuts off the pipe and an open position in which the shutter member frees a passage through the pipe, two seats interposed between the shutter member and the valve body, and elastic return means configured to hold the seats and the shutter member in abutment, and wherein the pipe has a bent portion, the bent portion being arranged between the connection portion and the shutter member, the elastic return means being positioned between the bent portion and the shutter member.