mhurhangee/patent-ind-claim-en huggingface dataset:
A method for colouring hair, wherein the method comprises: (i) the formation of a first plurality of coated hair fibre portions, wherein the coating comprises a first composition, wherein the first composition comprises a first hair colouring agent, a hydrophobic phase, a hydrophilic phase, a surfactant, and a thickener capable of interacting with the hydrophobic phase and the hydrophilic phase, wherein the first composition has a storage modulus of at least 3000 Pa, or at least 3300 Pa, or at least 3500 Pa, or at least 4000 Pa, or at least 4500 Pa, or at least 5000 Pa, measured by frequency sweep at an angular frequency of 0.6 rad/s at 23°C; and wherein the thickener is an associative thickening polymer and comprises hydrophobic moieties and hydrophilic moieties; and wherein the first composition comprises from 0.6% to 8% associative thickening polymer; wherein the associative thickener is selected from the group consisting of Acrylates/Beheneth-25 Methacrylate Copolymer; and subsequently (ii) styling the hair wherein the first plurality of coated hair fibre portions is contacted with a second plurality of hair fibre portions; wherein the method does not comprise the application of a solid barrier means in order to separate the first plurality of coated hair fibre portions from the second plurality of hair fibre portions; wherein the first composition is substantially free of persulfate. (i) the formation of a first plurality of coated hair fibre portions, wherein the coating comprises a first composition, wherein the first composition comprises a first hair colouring agent, a hydrophobic phase, a hydrophilic phase, a surfactant, and a thickener capable of interacting with the hydrophobic phase and the hydrophilic phase, wherein the first composition has a storage modulus of at least 3000 Pa, or at least 3300 Pa, or at least 3500 Pa, or at least 4000 Pa, or at least 4500 Pa, or at least 5000 Pa, measured by frequency sweep at an angular frequency of 0.6 rad/s at 23°C; and wherein the thickener is an associative thickening polymer and comprises hydrophobic moieties and hydrophilic moieties; and wherein the first composition comprises from 0.6% to 8% associative thickening polymer; wherein the associative thickener is selected from the group consisting of Acrylates/Beheneth-25 Methacrylate Copolymer; and subsequently (ii) styling the hair wherein the first plurality of coated hair fibre portions is contacted with a second plurality of hair fibre portions;
A medical apparatus, comprising: a probe configured for insertion into a body of a patient and comprising an array of electrodes disposed along the probe and configured to contact tissue within the body; and an electrical signal generator configured to apply during a first period of time while the probe contacts the tissue, between each electrode pair of a first set of electrode pairs, each electrode pair comprising an electrode among a plurality of the electrodes in the array and a first neighboring electrode in the array on a first side of the electrode, a first sequence of bipolar pulses between each electrode pair of the first set of electrode pairs, and to apply during a second period of time while the probe remains in contact with the tissue, between each electrode pair of a second set of electrode pairs, each electrode pair comprising an electrode among the plurality of the electrodes in the array and a second neighboring electrode in the array on a second side of the electrode, opposite the first side, a second sequence of the bipolar pulses between each second electrode pair of the second set of electrode pairs, wherein the bipolar pulses have an amplitude sufficient to cause irreversible electroporation (IRE) in the tissue. a probe configured for insertion into a body of a patient and comprising an array of electrodes disposed along the probe and configured to contact tissue within the body; and an electrical signal generator configured to apply during a first period of time while the probe contacts the tissue, between each electrode pair of a first set of electrode pairs, each electrode pair comprising an electrode among a plurality of the electrodes in the array and a first neighboring electrode in the array on a first side of the electrode, a first sequence of bipolar pulses between each electrode pair of the first set of electrode pairs, and to apply during a second period of time while the probe remains in contact with the tissue, between each electrode pair of a second set of electrode pairs, each electrode pair comprising an electrode among the plurality of the electrodes in the array and a second neighboring electrode in the array on a second side of the electrode, opposite the first side, a second sequence of the bipolar pulses between each second electrode pair of the second set of electrode pairs, wherein the bipolar pulses have an amplitude sufficient to cause irreversible electroporation (IRE) in the tissue.
RS-norketotifen or a pharmaceutically acceptable salt thereof for use in a method of treating histamine H-4 receptor-related pruritus in a mammal in need of such treatment, said method comprising orally administering to the mammal in need thereof a therapeutically effective amount of said RS-norketotifen or a pharmaceutically acceptable salt thereof, wherein the histamine H-4 receptor- related pruritus is a) associated with a dermal disorder selected from autoimmune dermatitis, contact dermatitis, dermal scleroderma, folliculitis, an insect bite, melanoma, a parasite, scabies, sunburn, a wart, xerosis, a mole, and idiopathic pruritus or b) associated with a nerve disorder selected from multiple sclerosis, a neuropathy, a scar, and shingles.
A method of handling user service profile information in a communications network, the communications network including a core network, CN, and a radio access network, RAN, , the method comprising: receiving, at a first network element located in the CN, a first application status change message from a first mobile edge computing, MEC, server located in the RAN, the first application status change message indicating one or more applications currently running on the first MEC server; detecting a location update message received at the CN from a UE attached to the RAN; and in response to detecting the location update message, obtaining service profile data of the UE for at least one service corresponding to at least one of the one or more applications, and providing the obtained service profile data to the first MEC server. receiving, at a first network element located in the CN, a first application status change message from a first mobile edge computing, MEC, server located in the RAN, the first application status change message indicating one or more applications currently running on the first MEC server; detecting a location update message received at the CN from a UE attached to the RAN; and in response to detecting the location update message, obtaining service profile data of the UE for at least one service corresponding to at least one of the one or more applications, and providing the obtained service profile data to the first MEC server. obtaining service profile data of the UE for at least one service corresponding to at least one of the one or more applications, and providing the obtained service profile data to the first MEC server.
A method of preparing an E. hallii preparation suitable for ingestion by a human, said method comprising the steps of: a) providing a medium comprising: - 1-100, preferably 5-40, g/kg of a sugar, preferably glucose, - 1-100, preferably 5-40, g/kg of a source of nitrogen and growth factors, such as yeast extract, - 0.1-50 g/kg plant peptone, preferably soy peptone, - acetate, - a buffer system at pH6-8, - optionally, cysteine, - optionally, magnesium ions, - optionally, calcium ions, - optionally, potassium ions, - optionally, vitamins; b) inoculating said medium with E. hallii ; c) allowing said E. hallii to grow in said medium; and d) harvesting said E. hallii preparation from said medium. a) providing a medium comprising: - 1-100, preferably 5-40, g/kg of a sugar, preferably glucose, - 1-100, preferably 5-40, g/kg of a source of nitrogen and growth factors, such as yeast extract, - 0.1-50 g/kg plant peptone, preferably soy peptone, - acetate, - a buffer system at pH6-8, - optionally, cysteine, - optionally, magnesium ions, - optionally, calcium ions, - optionally, potassium ions, - optionally, vitamins; - 1-100, preferably 5-40, g/kg of a sugar, preferably glucose, - 1-100, preferably 5-40, g/kg of a source of nitrogen and growth factors, such as yeast extract, - 0.1-50 g/kg plant peptone, preferably soy peptone, - acetate, - a buffer system at pH6-8, - optionally, cysteine, - optionally, magnesium ions, - optionally, calcium ions, - optionally, potassium ions, - optionally, vitamins; b) inoculating said medium with E. hallii ; c) allowing said E. hallii to grow in said medium; and d) harvesting said E. hallii preparation from said medium.
A method for detecting particles, comprising: - detecting a time series of a particle detection; - segmenting the time series, comprising: - transforming the time series into a transformed space; - low-pass filtering the transformed space; and - back-transforming the transformed space into the time domain; and - classifying the segments of the time series, comprising: - determining a peak in the time series based on the low-pass filtered back-transformed time domain, characterized in that the determination of a peak takes place by determining a global maximum and a first and a second local maximum; wherein the determination of a peak takes place by determining a normalized distance between the global maximum and the first and second local maximum; and wherein the determination of a normalized distance takes place by determining a distance by d ^ = t ^ max 2 − t ^ l , r , where d̂ is the distance, t̂ max is the global maximum and t̂ l , r is the first and second local maximum; and by discarding that local maximum at which the distance is greater. - detecting a time series of a particle detection; - segmenting the time series, comprising: - transforming the time series into a transformed space; - low-pass filtering the transformed space; and - back-transforming the transformed space into the time domain; and - transforming the time series into a transformed space; - low-pass filtering the transformed space; and - back-transforming the transformed space into the time domain; and - classifying the segments of the time series, comprising: - determining a peak in the time series based on the low-pass filtered back-transformed time domain, - determining a peak in the time series based on the low-pass filtered back-transformed time domain, the determination of a peak takes place by determining a global maximum and a first and a second local maximum; wherein the determination of a peak takes place by determining a normalized distance between the global maximum and the first and second local maximum; and wherein the determination of a normalized distance takes place by determining a distance by d ^ = t ^ max 2 − t ^ l , r , where d̂ is the distance, t̂ max is the global maximum and t̂ l , r is the first and second local maximum; and by discarding that local maximum at which the distance is greater.
A fouling removal device that removes fouling adhering to a surface of an object to be cleaned, the fouling removal device comprising: an accumulator unit to be filled with a pressurized gas; and an accelerator having an injection port for blowing the gas toward the object to be cleaned, the accelerator comprising a narrowed portion that narrows an air flow released from the accumulator unit , an expansion portion that expands the air flow ejected from a throat portion of the narrowed portion , a throat portion having a most reduced flow passage cross sectional area, and a valve portion that opens and closes the throat portion , the accelerator accelerating the air flow to a speed of sound or more to generate a shock wave, characterized in that the accumulator unit and the narrowed portion are in communication at all time. an accumulator unit to be filled with a pressurized gas; and an accelerator having an injection port for blowing the gas toward the object to be cleaned, the accelerator comprising a narrowed portion that narrows an air flow released from the accumulator unit , an expansion portion that expands the air flow ejected from a throat portion of the narrowed portion , a throat portion having a most reduced flow passage cross sectional area, and a valve portion that opens and closes the throat portion , the accelerator accelerating the air flow to a speed of sound or more to generate a shock wave, characterized in that the accumulator unit and the narrowed portion are in communication at all time.
A method performed by a user equipment, UE (102;120;1400), arranged to communicate with a network node (100;105,110,115;1500) in a wireless network, for activation of a secondary cell, SCell, for operating with the UE's (102;120;1400), primary serving cell, PCell, in the wireless network, the method comprising: determining a receiver activity rate for the UE (102;120;1400) based on a SCell measurement cycle; receiving , from the network node (100;105,110,115; 1500) via the PCell, an activation request identifying the SCel the method is characterised by : ; when receiving the activation request, selecting one of a plurality of activation procedures for the SCell based on the receiver activity rate comprises: determining a duration, T, since the UE's (102;120;1400) last measurement of a signal transmitted by the SCell; determining whether T is greater than a first threshold, T0, that is a function of the receiver activity rate; if T is greater than T0, selecting/activating the SCell according to a first activation procedure ; and otherwise, selecting a second activation procedure ; and activating the SCell based on the selected activation procedure. determining a receiver activity rate for the UE (102;120;1400) based on a SCell measurement cycle; receiving , from the network node (100;105,110,115; 1500) via the PCell, an activation request identifying the SCel the method is characterised by : ; when receiving the activation request, selecting one of a plurality of activation procedures for the SCell based on the receiver activity rate comprises: determining a duration, T, since the UE's (102;120;1400) last measurement of a signal transmitted by the SCell; determining whether T is greater than a first threshold, T0, that is a function of the receiver activity rate; if T is greater than T0, selecting/activating the SCell according to a first activation procedure ; and otherwise, selecting a second activation procedure ; and activating the SCell based on the selected activation procedure.
Tubular combustion chamber system for a gas turbine unit , having a plurality of annularly arranged transition ducts which are designed to be connected by their upstream ends in each case to a burner and to conduct hot gas produced by the burners to a turbine , wherein the tubular combustion chamber system has a hot gas manifold which is designed for connection to the turbine and which defines an annular channel , open to the turbine , into which there open the downstream ends of the transition ducts , wherein the cross section of each transition duct tapers conically in the downstream direction, wherein the transition ducts and the hot gas manifold are made of metal and are provided internally with a refractory lining , more particularly with a ceramic lining, wherein the refractory lining of the transition duct has at least one annular lining section whose outer diameter tapers conically in the downstream direction, and wherein the transition ducts and the hot gas manifold are made of metal and are provided internally with a refractory lining , more particularly with a ceramic lining, characterized in that the lining section is held on the transition duct with radial and axial pretension. wherein the tubular combustion chamber system has a hot gas manifold which is designed for connection to the turbine and which defines an annular channel , open to the turbine , into which there open the downstream ends of the transition ducts , wherein the cross section of each transition duct tapers conically in the downstream direction, wherein the transition ducts and the hot gas manifold are made of metal and are provided internally with a refractory lining , more particularly with a ceramic lining, wherein the refractory lining of the transition duct has at least one annular lining section whose outer diameter tapers conically in the downstream direction, and wherein the transition ducts and the hot gas manifold are made of metal and are provided internally with a refractory lining , more particularly with a ceramic lining, characterized in that the lining section is held on the transition duct with radial and axial pretension.
A self-moving automatic snow removal device for protecting a human of an object from damage by thrown snow or miscellaneous matter, comprising: a moving module , driving the snow removal device to move; a working module , comprising a working motor and a snow throwing mechanism driven by the working motor, wherein the snow throwing mechanism is driven by the working motor to collect accumulated snow and miscellaneous matter on the ground and is configured to throw the accumulated snow and miscellaneous matter out of the snow throwing mechanism , and a maximum height of a thrown object in the air from the ground is referred to as a snow throwing height; wherein the self-moving snow removal device is characterised in that it further comprises a control module , configured to control the working module or the moving module to enable the snow throwing height to be not greater than a predetermined snow throwing height threshold. a moving module , driving the snow removal device to move; a working module , comprising a working motor and a snow throwing mechanism driven by the working motor, wherein the snow throwing mechanism is driven by the working motor to collect accumulated snow and miscellaneous matter on the ground and is configured to throw the accumulated snow and miscellaneous matter out of the snow throwing mechanism , and a maximum height of a thrown object in the air from the ground is referred to as a snow throwing height; wherein the self-moving snow removal device is characterised in that it further comprises a control module , configured to control the working module or the moving module to enable the snow throwing height to be not greater than a predetermined snow throwing height threshold.
A method for providing configuration for uplink, UL, transmission to a wireless device , the method being performed by a network node , the method comprising: transmitting (S102) a message to the wireless device, the message being a slow grant and comprising configuration for UL transmission with short transmission time interval, TTI, operation, the short TTI having duration within a 1 ms subframe, and the configuration specifying that all TTIs for short TTI operation are slot contained, wherein there is no short TTI across the slot boundary, wherein there are two slots within said 1 ms subframe; and transmitting (S104) a fast grant comprising scheduling of an UL short TTI transmission for the wireless device, the fast grant defining the scheduling of the UL short TTI transmission by relying upon information carried in a preceding slow grant; wherein the slow grant is transmitted once per subframe or less frequent than once per subframe, and the fast grant is transmitted more frequently than once per subframe. transmitting (S102) a message to the wireless device, the message being a slow grant and comprising configuration for UL transmission with short transmission time interval, TTI, operation, the short TTI having duration within a 1 ms subframe, and the configuration specifying that all TTIs for short TTI operation are slot contained, wherein there is no short TTI across the slot boundary, wherein there are two slots within said 1 ms subframe; and transmitting (S104) a fast grant comprising scheduling of an UL short TTI transmission for the wireless device, the fast grant defining the scheduling of the UL short TTI transmission by relying upon information carried in a preceding slow grant; wherein the slow grant is transmitted once per subframe or less frequent than once per subframe, and the fast grant is transmitted more frequently than once per subframe.
A system for identifying material to be removed from a patient comprising: an imaging device configured to obtain image data; a display configured to display images; an insertion device; and a control unit , wherein the control unit is configured to receive a first set of image data from the imaging device , analyze the first set of image data based on at least one of a darkness, a contrast, or a saturation, and generate a coded image identifying the material to be removed from the patient to be displayed on the display , wherein the insertion device includes a deflectable delivery shaft having at least one lumen extending through the delivery shaft , and wherein the delivery shaft includes at least a camera and a light source positioned at a distal end of the delivery shaft , wherein the display includes at least two screens, wherein a first screen displays the coded image and a second screen displays images from the camera, and wherein the control unit includes a processing unit and a memory unit, wherein the control unit is configured to signal the imaging device to obtain a second set of image data, and wherein the control unit is further configured to compare the second set of image data with the coded image generated based on the first set of image data. an imaging device configured to obtain image data; a display configured to display images; an insertion device; and a control unit , wherein the control unit is configured to receive a first set of image data from the imaging device , analyze the first set of image data based on at least one of a darkness, a contrast, or a saturation, and generate a coded image identifying the material to be removed from the patient to be displayed on the display , wherein the insertion device includes a deflectable delivery shaft having at least one lumen extending through the delivery shaft , and wherein the delivery shaft includes at least a camera and a light source positioned at a distal end of the delivery shaft , wherein the display includes at least two screens, wherein a first screen displays the coded image and a second screen displays images from the camera, and wherein the control unit includes a processing unit and a memory unit, wherein the control unit is configured to signal the imaging device to obtain a second set of image data, and wherein the control unit is further configured to compare the second set of image data with the coded image generated based on the first set of image data.
A method performed by a user equipment, UE, , comprising: determining a plurality of Protocol Data Unit, PDU, sessions for which a User Plane, UP, is to be established; generating a Service request, SR; and transmitting the SR to an Access and Mobility Management function, AMF , wherein generating the SR comprises including, in the SR, information indicating that the determined plurality of PDU sessions corresponds to PDU sessions for which the UP is to be established. determining a plurality of Protocol Data Unit, PDU, sessions for which a User Plane, UP, is to be established; generating a Service request, SR; and transmitting the SR to an Access and Mobility Management function, AMF , wherein generating the SR comprises including, in the SR, information indicating that the determined plurality of PDU sessions corresponds to PDU sessions for which the UP is to be established.
A chalcogen-containing compound represented by the following Chemical Formula 1: [Chemical Formula 1] M y V 1-y Sn x Sb 2 Te x+3 wherein, in the above Formula 1, V is vacancy, M is an alkali metal, x≥6, and 0<y≤0.4.