mhurhangee/patent-ind-claim-en huggingface dataset:
A water reservoir for an apparatus for humidifying a flow of breathable gas to be delivered to a patient, the apparatus comprising a water reservoir dock structured and arranged to removably receive the water reservoir in an operative position, the water reservoir comprising: a reservoir base including a cavity structured to hold a volume of water; a conductive portion provided to the reservoir base , wherein the conductive portion is adapted to thermally engage with a heater plate of the water reservoir dock when the water reservoir is in the operative position to allow thermal transfer of heat from the heater plate to the volume of water; and a reservoir lid movably connected to the reservoir base to allow the water reservoir to be convertible between an open configuration and a closed configuration, wherein the reservoir lid comprises an inlet tube arranged to provide an inlet for a flow of breathable gas entering the cavity and an outlet tube arranged to provide an outlet for a flow of humidified breathable gas exiting the cavity, wherein the inlet tube includes an inlet portion including an inlet end arranged outside the cavity and an outlet portion including an outlet end arranged inside the cavity, and the outlet tube includes an outlet end arranged outside the cavity and an inlet end arranged inside the cavity, characterized in that the inlet tube curves along its length to bend below the outlet tube , or the outlet tube curves along its length to bend below the inlet tube . a reservoir base including a cavity structured to hold a volume of water; a conductive portion provided to the reservoir base , wherein the conductive portion is adapted to thermally engage with a heater plate of the water reservoir dock when the water reservoir is in the operative position to allow thermal transfer of heat from the heater plate to the volume of water; and a reservoir lid movably connected to the reservoir base to allow the water reservoir to be convertible between an open configuration and a closed configuration, wherein the reservoir lid comprises an inlet tube arranged to provide an inlet for a flow of breathable gas entering the cavity and an outlet tube arranged to provide an outlet for a flow of humidified breathable gas exiting the cavity, wherein the inlet tube includes an inlet portion including an inlet end arranged outside the cavity and an outlet portion including an outlet end arranged inside the cavity, and the outlet tube includes an outlet end arranged outside the cavity and an inlet end arranged inside the cavity, characterized in that the inlet tube curves along its length to bend below the outlet tube , or the outlet tube curves along its length to bend below the inlet tube .
A method for wireless communications, comprising: identifying a set of transmission parameters for transmission of data via a shared channel over multiple transmission time intervals, TTIs, the set of transmission parameters comprising a first subset of transmission parameters and a second subset of transmission parameters that is different from the first subset of transmission parameters; transmitting , to a user equipment UE, a multi-TTI grant comprising a base grant and an extended grant, wherein the base grant indicates the first subset of transmission parameters and the extended grant indicates the second subset of transmission parameters, and wherein the base grant and the extended grant are transmitted within the same TTI; and communicating with the UE in accordance with the first and second subsets of transmission parameters. identifying a set of transmission parameters for transmission of data via a shared channel over multiple transmission time intervals, TTIs, the set of transmission parameters comprising a first subset of transmission parameters and a second subset of transmission parameters that is different from the first subset of transmission parameters; transmitting , to a user equipment UE, a multi-TTI grant comprising a base grant and an extended grant, wherein the base grant indicates the first subset of transmission parameters and the extended grant indicates the second subset of transmission parameters, and wherein the base grant and the extended grant are transmitted within the same TTI; and communicating with the UE in accordance with the first and second subsets of transmission parameters.
An injectable solution comprising fluorescent conjugated Dextran markers immersed in a diluting agent to selectively label a plurality of pericytes throughout a subject's body, the fluorescent markers having a molecular weight in a range between 3 kiloDaltons and 70 kiloDaltons, wherein a concentration of the fluorescent markers is between 16 mg/Kg and 25 mg/Kg diluting agent, for use in a method of diagnosis in vivo for the identification of a neural degeneration or blood flow constriction, the diagnostic method comprising: administering intravenously to the subject an effective amount of the injectable solution, wherein the effective amount is configured such that a comprehensive labeling of pericytes in the subject's body is achieved; acquiring, using an imaging system, fluorescence signals originating from labeled pericytes in the subject's body; producing pericyte information associated with selected regions of interest in the subject's body using the acquired fluorescence signals; and generating a report identifying the neural degeneration or blood flow constriction using the pericyte information. administering intravenously to the subject an effective amount of the injectable solution, wherein the effective amount is configured such that a comprehensive labeling of pericytes in the subject's body is achieved; acquiring, using an imaging system, fluorescence signals originating from labeled pericytes in the subject's body; producing pericyte information associated with selected regions of interest in the subject's body using the acquired fluorescence signals; and generating a report identifying the neural degeneration or blood flow constriction using the pericyte information.
A silencer provided to therapy equipment where pressurized air is generated by a blower and the pressurized air is supplied to an airway of a patient from an attachment part attached to the patient, the silencer being inserted into a flow passage so as to reduce sound generated by the therapy equipment, the pressurized air being introduced from the blower to the patient through the flow passage , wherein the silencer is provided outside a casing which accommodates the blower , characterized in that the silencer includes: a housing part having an inner space; a first connection portion connectable to the flow passage on a side of the blower configured to provide the pressurized air; and a second connection portion connectable to the flow passage on a side of the attachment part . a housing part having an inner space; a first connection portion connectable to the flow passage on a side of the blower configured to provide the pressurized air; and a second connection portion connectable to the flow passage on a side of the attachment part .
Crystalline suvorexant hydrochloride characterized by an x-ray powder diffraction pattern, collected using copper K-alpha radiation, corresponding to d-spacings of 3.3, 3.5 and 42.5 angstroms.
A method for localising a cause of anomalous water flow in a water distribution network, comprising: installing a temperature logging apparatus at an upstream end and a downstream end of at least one section of water main of the water distribution network; and determining , with the temperature logging apparatus , the temperature of the ground surrounding the water main at the upstream end and the downstream end of each section of water main and storing ground temperature data for each section of water main; characterised by directly or indirectly measuring , with the temperature logging apparatus the temperature of water in the section of water main at the upstream end and the downstream end of each section of water main and storing measured water temperature data for each section of water main; and processing the measured water temperature data and the determined ground temperature data to determine whether each section of water main includes a cause of anomalous water flow. installing a temperature logging apparatus at an upstream end and a downstream end of at least one section of water main of the water distribution network; and determining , with the temperature logging apparatus , the temperature of the ground surrounding the water main at the upstream end and the downstream end of each section of water main and storing ground temperature data for each section of water main; directly or indirectly measuring , with the temperature logging apparatus the temperature of water in the section of water main at the upstream end and the downstream end of each section of water main and storing measured water temperature data for each section of water main; and processing the measured water temperature data and the determined ground temperature data to determine whether each section of water main includes a cause of anomalous water flow.
Wiper blade device, in particular wiper blade device for a windscreen wiper, having at least one wiper blade (10a; 10b), having at least one adapter unit (12; 12b) for coupling the wiper blade (10a; 10b) to a wiper arm (14a; 14b) of a wiper (16a; 16b), in particular windscreen wiper, having at least one spray unit (18a; 18b) which is integrated in the wiper blade (10a; 10b), and having at least one washing water distributor unit (20a; 20b; 20b') for supplying washing water to the spray unit (18a; 18b), in particular to nozzle elements (22a; 22b) of the spray unit (18a; 18b) which are arranged at least substantially parallel with a main extent direction of the wiper blade (10a; 10b) along the wiper blade (10a; 10b), wherein the washing water distributor unit (20a; 20b; 20b') has at least one channel coupling element (24a; 24b; 24b') for a preferably fluid-tight coupling of at least one component of the washing water distributor unit (20a; 20b; 20b') to a washing water channel (26a; 26b; 26b') of the spray unit (18a; 18b), which coupling is provided in particular for a passage of a fluid, and wherein the washing water distributor unit (20a; 20b; 20b') has at least one adapter coupling element (28a; 28b) for a preferably fluid-tight coupling of at least one additional component of the washing water distributor unit (20a; 20b; 20b') to an additional washing water channel (30a; 30b) of the adapter unit (12a; 12b), which coupling is provided in particular for a passage of a fluid, wherein the additional washing water channel (30a; 30b) is at least partially formed by the adapter unit (12a; 12b), wherein the washing water distributor unit (20a; 20b; 20b') has a washing water supply line channel (32a; 32b) which is formed integrally with a wiper arm adapter (38a; 38b) of the adapter unit (12a; 12b), and which is arranged in an angled manner with respect to the additional washing water channel (30a; 30b) of the adapter unit (12a; 12b), wherein the channel coupling element (24b; 24b') and/or an additional channel coupling element of the washing water distributor unit (20b; 20b') have an angled profile, characterized in that the adapter coupling element (28a; 28b) has a locking device (86a; 86b) for positioning the adapter coupling element (28a; 28b) relative to the adapter unit (12a; 12b).
An adapter for a power tool, comprising: an insertion part protruding in an insertion direction and insertable into a body of the power tool in the insertion direction, the insertion part having a plurality of terminals for electrically connecting with the power tool; a pair of rails that guides a battery pack to move in a front-rear direction substantially orthogonal to the insertion direction, for mounting the battery pack on the adapter , the pair of rails being configured to be inserted in engaging grooves of the battery pack ; a tool-latching device for attaching to and detaching from the body of the power tool; and a battery-latching device for attaching to and detaching from the battery pack , characterised in that the tool-latching device and the battery-latching device are disposed in different positions when viewing the adapter in the insertion direction, in which the adapter is inserted into the body of the power tool. an insertion part protruding in an insertion direction and insertable into a body of the power tool in the insertion direction, the insertion part having a plurality of terminals for electrically connecting with the power tool; a pair of rails that guides a battery pack to move in a front-rear direction substantially orthogonal to the insertion direction, for mounting the battery pack on the adapter , the pair of rails being configured to be inserted in engaging grooves of the battery pack ; a tool-latching device for attaching to and detaching from the body of the power tool; and a battery-latching device for attaching to and detaching from the battery pack , characterised in that the tool-latching device and the battery-latching device are disposed in different positions when viewing the adapter in the insertion direction, in which the adapter is inserted into the body of the power tool.
An optical receiver configured to operate in an optical communication system that defines one or more wavelength channel windows for transmitting respective data-carrying optical signals between optical transmitters and receivers, wherein each wavelength channel window has an allocated bandwidth lying between low and high frequency edges, and wherein the data-carrying optical signals have respective center frequencies which may vary within their respective wavelength channel windows, the optical receiver comprising: a local oscillator configured to generate a local oscillator optical signal at a frequency that is controlled relative to the low or high frequency edge of one of the system-defined wavelength channel windows; an optical combiner having a first input connected to receive one of the data-carrying optical signals and a second input connected to receive the local oscillator optical signal, the optical combiner being configured to combine the data-carrying optical signal with the local oscillator optical signal into a combined optical signal; an opto-electrical converter having a receiver bandwidth and configured to convert the combined optical signal into an electrical signal carrying the data at an offset frequency, which is the difference between the center frequency of the data-carrying optical signal and the local oscillator frequency; and at least one rectifier configured to convert the electrical signal carrying the data into a baseband data signal. a local oscillator configured to generate a local oscillator optical signal at a frequency that is controlled relative to the low or high frequency edge of one of the system-defined wavelength channel windows; an optical combiner having a first input connected to receive one of the data-carrying optical signals and a second input connected to receive the local oscillator optical signal, the optical combiner being configured to combine the data-carrying optical signal with the local oscillator optical signal into a combined optical signal; an opto-electrical converter having a receiver bandwidth and configured to convert the combined optical signal into an electrical signal carrying the data at an offset frequency, which is the difference between the center frequency of the data-carrying optical signal and the local oscillator frequency; and at least one rectifier configured to convert the electrical signal carrying the data into a baseband data signal.
High-voltage insulator comprising a long rod-type insulator with a shaft and at least ten circular shields arranged thereon, an insulator cap at the upper end of the long rod-type insulator for fastening the high-voltage insulator to a high-voltage mast, and an arc protection ring which surrounds the insulator cap or that portion of the long rod-type insulator that is situated closest to the insulator cap , characterized in that the topmost shield of the long rod-type insulator that is situated closest to the insulator cap , the lowermost shield that is situated furthest away from the insulator cap at the upper end of the long rod-type insulator and a shield not located at an end of the long rod-type insulator are each designed as a protective shield , wherein the maximum diameter of the other shields (12") not designed as a protective shield is at least 30 mm smaller than the inner diameter of the arc protection ring , the diameter of the protective shields is at least 10 mm smaller than the inner diameter of the arc protection ring and the diameter of the protective shields is at least 20 mm larger than the maximum diameter of the other shields (12").
Formulation containing at least one organic functional material and at least three different organic solvents, selected from at least two different organic solvents A and at least one organic solvent B, characterized in that - at least two of the organic solvents A have a boiling point in the range from 250 to 350°C and a viscosity of ≥ 15 mPas, measured at a temperature of 25.0°C (+/- 0.2°C) and a sheer rate of 500 s -1 , - the organic solvent B has a boiling point in the range from 200 to 350°C and a viscosity of ≤ 10 mPas, measured at a temperature of 25.0°C (+/- 0.2°C) and a sheer rate of 500 s -1 , - the solubility of the at least one organic functional material in the organic solvent B is ≥ 5 g/l, and - at least one of the organic solvents A is selected from naphthalene derivatives, partially hydrogenated naphthalene derivatives, fully hydrogenated naphthalene derivatives, indane derivatives and fully hydrogenated anthracene derivatives. - at least two of the organic solvents A have a boiling point in the range from 250 to 350°C and a viscosity of ≥ 15 mPas, measured at a temperature of 25.0°C (+/- 0.2°C) and a sheer rate of 500 s -1 , - the organic solvent B has a boiling point in the range from 200 to 350°C and a viscosity of ≤ 10 mPas, measured at a temperature of 25.0°C (+/- 0.2°C) and a sheer rate of 500 s -1 , - the solubility of the at least one organic functional material in the organic solvent B is ≥ 5 g/l, and - at least one of the organic solvents A is selected from naphthalene derivatives, partially hydrogenated naphthalene derivatives, fully hydrogenated naphthalene derivatives, indane derivatives and fully hydrogenated anthracene derivatives.
A system for generating an output signal comprising a high frequency component from an input audio signal comprising a low frequency component using a transposition order T , comprising: an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit , configured to alter the phase of the complex coefficients by using the transposition order T ; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T ; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the M time domain samples, thereby generating a frame of the output signal; wherein L A is equal to L S and M is greater than or equal to ( QL A +L s ) / 2. an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit , configured to alter the phase of the complex coefficients by using the transposition order T ; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T ; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the M time domain samples, thereby generating a frame of the output signal;
A sensor device comprising a substrate having a hotplate , wherein said hotplate comprises an inner region (30.1a + 30.2a) and an outer region (30.1c + 30.2c), wherein said outer region (30.1c + 30.2c) surrounds said inner region (30.1a + 30.2.a), a heater structure arranged in said hotplate , a driver for generating a heating current through said heater structure , and a sensing structure arranged on said heater structure , wherein said heater structure comprises a number N > 1 of resistive heater elements , with each of said heater elements comprising an outer section and an inner section electrically arranged in series, and wherein said driver is structured and adapted to heat said heater elements with parallel currents, wherein a maximum electrical cross section of said outer section is smaller than a maximum electrical cross section of said inner section , wherein said outer sections are arranged in the outer region (30.1c + 31.1c) of said hotplate and said inner sections are arranged in the inner region (30.1a + 30.2a) of said hotplate , characterized in that each inner section comprises a first conducting lead , a second conducting lead and a plurality of conductors (21a - 21e) extending electrically in parallel between said first and second conducting leads.
An in vitro method for generating a lineage-specific precursor/progenitor (LSP) cell population comprising the steps: a) obtaining a population of dendritic cells, wherein the dendritic cells are derived from peripheral blood mononuclear cells (PBMCs), b) activating the dendritic cell population obtained from step (a) by incubating for 0.5 hours to 3 days in a medium comprising at least one component selected from the group consisting of IL-10, IL-12, IL-18, TGF beta, bFGF and VEGF to produce an activated cell population, wherein the activated cell population comprises cells having increased expression of CD141, c) obtaining a population of PBMCs and enriching for stem/progenitor cells by negative selection of cells expressing CD8 and CD56 to produce an enriched stem/progenitor cell population, and d) co-culturing the enriched stem/progenitor cell population obtained in step (c) with the activated cell population obtained in step (b) to form a combined cell population, where the cells from step (b) induce in the combined population at least one process selected from the group consisting of: differentiation, expansion, activation, secretion of a molecule, and expression of a marker in the co-cultured cells, thereby generating an LSP cell population. a) obtaining a population of dendritic cells, wherein the dendritic cells are derived from peripheral blood mononuclear cells (PBMCs), b) activating the dendritic cell population obtained from step (a) by incubating for 0.5 hours to 3 days in a medium comprising at least one component selected from the group consisting of IL-10, IL-12, IL-18, TGF beta, bFGF and VEGF to produce an activated cell population, wherein the activated cell population comprises cells having increased expression of CD141, c) obtaining a population of PBMCs and enriching for stem/progenitor cells by negative selection of cells expressing CD8 and CD56 to produce an enriched stem/progenitor cell population, and d) co-culturing the enriched stem/progenitor cell population obtained in step (c) with the activated cell population obtained in step (b) to form a combined cell population, where the cells from step (b) induce in the combined population at least one process selected from the group consisting of: differentiation, expansion, activation, secretion of a molecule, and expression of a marker in the co-cultured cells, thereby generating an LSP cell population.