mhurhangee/patent-ind-claim-en huggingface dataset:
A method of large scale manufacturing pimavanserin (N-(4-fluorophenylmethyl)-N-(1-methylpiperidin-4-yl)-N'-(4-(2-methylpropyloxy)phenylmethyl)carbamide) or a salt thereof, the method comprising: contacting an intermediate according to Formula (A2), or a salt thereof, with an intermediate according to Formula (B2), or a salt thereof, to produce pimavanserin or a salt thereof, wherein Y is -OR 1 , wherein R 1 is selected from the group consisting of methyl, ethyl, propyl, butyl, pentyl, trifluoroethyl and phenyl; or Y is -NR 2a ,R 2b , wherein R 2a and R 2b taken together with the nitrogen to which they are attached form a substituted or unsubstituted heteroalicyclyl, or a substituted or unsubstituted heteroaryl. Y is -OR 1 , wherein R 1 is selected from the group consisting of methyl, ethyl, propyl, butyl, pentyl, trifluoroethyl and phenyl; or Y is -NR 2a ,R 2b , wherein R 2a and R 2b taken together with the nitrogen to which they are attached form a substituted or unsubstituted heteroalicyclyl, or a substituted or unsubstituted heteroaryl.
A diagnostic system for diagnosing a misfire condition of individual engine cylinders in a turbocharged diesel engine having at least a first and a second cylinder, the system comprising: - one or more pressure sensors for measuring a pressure value in an exhaust path of the at least first and second cylinder; - a crankshaft position sensor, for detecting a rotational crankshaft position; and - a processor unit for reading the pressure sensor and the crankshaft position sensor; - wherein the processor unit is arranged for performing acts of: - sampling pressure values of the pressure sensor as a function of crankshaft angle position; - attributing for each cylinder fired in succession two sampling values (P α , P β ) for at least two successive crankshaft angle positions of a pressure pulse during a cylinder firing operation wherein the first sample is taken before the pressure pulse reaches the pressure sensor after opening of a cylinder exhaust valve and wherein the second sample is taken at a peak of the pulse; - determining a boundary from a calibration set, for a coordinate (P α , P β ) formed by a tuple of sampling values (P α , P β ); - diagnosing a misfire condition if the coordinate formed by said tuple of sampling values is outside the boundary. - one or more pressure sensors for measuring a pressure value in an exhaust path of the at least first and second cylinder; - a crankshaft position sensor, for detecting a rotational crankshaft position; and - a processor unit for reading the pressure sensor and the crankshaft position sensor; - wherein the processor unit is arranged for performing acts of: - sampling pressure values of the pressure sensor as a function of crankshaft angle position; - attributing for each cylinder fired in succession two sampling values (P α , P β ) for at least two successive crankshaft angle positions of a pressure pulse during a cylinder firing operation wherein the first sample is taken before the pressure pulse reaches the pressure sensor after opening of a cylinder exhaust valve and wherein the second sample is taken at a peak of the pulse; - determining a boundary from a calibration set, for a coordinate (P α , P β ) formed by a tuple of sampling values (P α , P β ); - diagnosing a misfire condition if the coordinate formed by said tuple of sampling values is outside the boundary.
Air treatment device comprising: - a casing of predetermined length, width and depth, having a plurality of sides defining a volume ; - a hood module comprising first suction means to suck in cooking fumes; - a purifier module comprising first filtering means for filtering air from an environment surrounding the device and second suction means for drawing said air from the environment surrounding the device , said hood module and said purifier module being housed in said volume of said casing ; - a first inlet opening provided in a first side of said plurality of sides of said casing , said hood module comprising a first suction inlet of said cooking fumes in fluid communication with said first inlet opening ; - second filtering means arranged at said first inlet opening ; - a second inlet opening which is provided in a second side of said casing distinct from said first side ; said purifier module comprising a second suction inlet of said air in fluid communication with said second inlet opening , said first filtering means being arranged between said second inlet opening and said second suction inlet ; characterised in that said first side and said second side are opposed to each other. - a casing of predetermined length, width and depth, having a plurality of sides defining a volume ; - a hood module comprising first suction means to suck in cooking fumes; - a purifier module comprising first filtering means for filtering air from an environment surrounding the device and second suction means for drawing said air from the environment surrounding the device , said hood module and said purifier module being housed in said volume of said casing ; - a first inlet opening provided in a first side of said plurality of sides of said casing , said hood module comprising a first suction inlet of said cooking fumes in fluid communication with said first inlet opening ; - second filtering means arranged at said first inlet opening ; - a second inlet opening which is provided in a second side of said casing distinct from said first side ; said purifier module comprising a second suction inlet of said air in fluid communication with said second inlet opening , said first filtering means being arranged between said second inlet opening and said second suction inlet ;
A computer-implemented method of processing optical coherence tomography, OCT, scans through a subject's skin , the method comprising: • receiving a plurality of scans through the subject's skin , the scans representing an OCT signal in slices through the subject's skin at different times; • comparing the scans to determine time-varying regions in the scans; characterised by the method further comprising: • determining a depth-distribution of the time-varying regions by determining a density of the time-varying regions in the scans against the depth of the skin; in which the determination of the time-varying regions comprises the determination of a threshold depth through the subject's skin at which the density of time-varying regions exceeds a density threshold. • receiving a plurality of scans through the subject's skin , the scans representing an OCT signal in slices through the subject's skin at different times; • comparing the scans to determine time-varying regions in the scans; characterised by the method further comprising: • determining a depth-distribution of the time-varying regions by determining a density of the time-varying regions in the scans against the depth of the skin; • determining a depth-distribution of the time-varying regions by determining a density of the time-varying regions in the scans against the depth of the skin; in which the determination of the time-varying regions comprises the determination of a threshold depth through the subject's skin at which the density of time-varying regions exceeds a density threshold.
A method performed by an application server , the method comprising the steps of: receiving, over an application server/voice server control path between the application server and a voice server , an indication from the voice server that speech has been recognized based on uplink audio data sent from a client device to the voice server over an audio data path between the client device and the voice server , wherein the uplink audio data represents a user utterance received through a voice modality of the client device , and wherein the voice server is distinct from the application server ; sending, over an application server/client control path between the application server and the client device , a message to the client device that includes a recognition result for the speech and that causes the client device to update a visual display to reflect the recognition result; receiving an indication from the client device , over the application server/client control path , that the client device has updated the visual display according to the recognition result; and sending a message to the voice server , over the application server/voice server control path , to indicate that the client device has updated the visual display. receiving, over an application server/voice server control path between the application server and a voice server , an indication from the voice server that speech has been recognized based on uplink audio data sent from a client device to the voice server over an audio data path between the client device and the voice server , wherein the uplink audio data represents a user utterance received through a voice modality of the client device , and wherein the voice server is distinct from the application server ; sending, over an application server/client control path between the application server and the client device , a message to the client device that includes a recognition result for the speech and that causes the client device to update a visual display to reflect the recognition result; receiving an indication from the client device , over the application server/client control path , that the client device has updated the visual display according to the recognition result; and sending a message to the voice server , over the application server/voice server control path , to indicate that the client device has updated the visual display.
A method for isolating and analyzing an analyte that may be present in a fluid sample in an automated nucleic acid analyzer , the method comprising the automated steps of: a) transferring a sample from a sample vessel to a multiwell plate , b) combining together a solid support material and said fluid sample in a well of said multiwell plate for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; c) isolating the solid support material from other material present in the fluid sample in a separation station ; and d) purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer; e) analyzing said analyte in an amplification / detection cell for amplifying and detecting a nucleic acid analyte, wherein an air lock is located between a process cell and amplification / detection cell , wherein steps b) to d) are performed in the process cell of said automated nucleic acid analyzer comprising a first air flow , and step e) is performed in said amplification / detection cell comprising a second air flow , wherein the first air flow and the second air flow are separated;, wherein said process cell comprises a first air pressure , and said amplification / detection cell comprises a second air pressure , wherein said first air pressure is higher than said second air pressure , characterized in that step a) is performed in a sample cell , wherein said sample cell has an air-flow which is separate from said first air flow of said process cell and said second air flow of said amplification / detection cell ; that outside air which enters said first module is filtered; and that said sample cell comprises a third air pressure , wherein the third air pressure and the first air pressure are essentially identical. a) transferring a sample from a sample vessel to a multiwell plate , b) combining together a solid support material and said fluid sample in a well of said multiwell plate for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; c) isolating the solid support material from other material present in the fluid sample in a separation station ; and d) purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer; e) analyzing said analyte in an amplification / detection cell for amplifying and detecting a nucleic acid analyte, wherein an air lock is located between a process cell and amplification / detection cell ,
A mounting table on which a workpiece (W) can be mounted, comprising: a plurality of layers including a ceiling layer having a front surface on which the workpiece (W) can be mounted, and a heating layer formed at a rear surface side of the ceiling layer and configured to heat the ceiling layer , the plurality of layers being stacked above one another, wherein each of the plurality of layers is formed by a silicon single crystal substrate or a silicon polycrystalline substrate, and wherein each of the plurality of layers is bonded to a different layer which is adjacent in a stacking direction through oxide films formed on the silicon single crystal substrate or the silicon polycrystalline substrate. a plurality of layers including a ceiling layer having a front surface on which the workpiece (W) can be mounted, and a heating layer formed at a rear surface side of the ceiling layer and configured to heat the ceiling layer , the plurality of layers being stacked above one another, wherein each of the plurality of layers is formed by a silicon single crystal substrate or a silicon polycrystalline substrate, and wherein each of the plurality of layers is bonded to a different layer which is adjacent in a stacking direction through oxide films formed on the silicon single crystal substrate or the silicon polycrystalline substrate.
Abrasive belt comprising: a textile fabric being formed of interconnected fabric yarns , and a coherent abrasive area which is a single, interconnected abrasive area that is continuous, and with which a work piece can be sanded or abraded, wherein the coherent abrasive area is formed on one side of the textile fabric , wherein the abrasive belt further comprises a plurality of regularly distributed openings in the form of through holes and has a uniform thickness, wherein the openings are arranged in lines (L1, L2) perpendicular to the machine direction of the abrasive belt , the openings are regularly spaced in the line direction, characterized in that subsequent lines are offset from one another with respect to the position of their openings , such that the openings of the subsequent lines (Lie L2) are not arranged in uniform rows along the machine direction. a textile fabric being formed of interconnected fabric yarns , and a coherent abrasive area which is a single, interconnected abrasive area that is continuous, and with which a work piece can be sanded or abraded, wherein the coherent abrasive area is formed on one side of the textile fabric , wherein the abrasive belt further comprises a plurality of regularly distributed openings in the form of through holes and has a uniform thickness, wherein the openings are arranged in lines (L1, L2) perpendicular to the machine direction of the abrasive belt , the openings are regularly spaced in the line direction, characterized in that subsequent lines are offset from one another with respect to the position of their openings , such that the openings of the subsequent lines (Lie L2) are not arranged in uniform rows along the machine direction.
A first device , comprising means for: detecting that a criterion to select a first random access type for performing random access to a second device is met, wherein the first random access type is one of a four-step random access type or a two-step random access type, determining whether the first device is allowed to use a contention-free random access resource allocated for a second random access type, wherein the second random access type is the other of the four-step random access type or the two-step random access type, and performing the random access to the second device based on the determination and conditionally based on the detection . detecting that a criterion to select a first random access type for performing random access to a second device is met, wherein the first random access type is one of a four-step random access type or a two-step random access type, determining whether the first device is allowed to use a contention-free random access resource allocated for a second random access type, wherein the second random access type is the other of the four-step random access type or the two-step random access type, and performing the random access to the second device based on the determination and conditionally based on the detection .
A method of testing a valve , for example a blowdown valve or a vacuum / pressure relief valve, in a valve housing on a storage tank , the valve having a first side and an opposite second side, wherein this method comprises the step of: - sealing at least the valve to be tested gas-tight on the first side with a test valve , forming a test space between the test valve and the valve , - applying an increasing pressure difference between the test space and the second side, and - measuring and recording the pressure in the test space until the valve is opened, characterized in that the first side is oriented towards the environment outside of the housing . - sealing at least the valve to be tested gas-tight on the first side with a test valve , forming a test space between the test valve and the valve , - applying an increasing pressure difference between the test space and the second side, and - measuring and recording the pressure in the test space until the valve is opened,
An uninterruptible power supply (UPS) system comprising: at least one energy-storage-device connection configured to be coupled to an energy-storage device ; a first output connection configured to be coupled to a main power source providing main power; a second output connection configured to be coupled to at least one load ; a first power converter coupled to the at least one energy-storage-device connection ; a second power converter coupled to the at least one energy-storage-device connection ; and at least one controller coupled to the first power converter and the second power converter, the at least one controller being configured to control the UPS system to connect the first power converter and the second power converter to the first output connection and the second output connection, control the UPS system to disconnect the first power converter from the second output connection responsive to detecting a fault in the main power, control the first power converter to provide power to the first output connection responsive to detecting the fault in the main power, and control the UPS system to disconnect the second power converter from the first output connection responsive to detecting the fault in the main power. at least one energy-storage-device connection configured to be coupled to an energy-storage device ; a first output connection configured to be coupled to a main power source providing main power; a second output connection configured to be coupled to at least one load ; a first power converter coupled to the at least one energy-storage-device connection ; a second power converter coupled to the at least one energy-storage-device connection ; and at least one controller coupled to the first power converter and the second power converter, the at least one controller being configured to control the UPS system to connect the first power converter and the second power converter to the first output connection and the second output connection, control the UPS system to disconnect the first power converter from the second output connection responsive to detecting a fault in the main power, control the first power converter to provide power to the first output connection responsive to detecting the fault in the main power, and control the UPS system to disconnect the second power converter from the first output connection responsive to detecting the fault in the main power. control the UPS system to connect the first power converter and the second power converter to the first output connection and the second output connection, control the UPS system to disconnect the first power converter from the second output connection responsive to detecting a fault in the main power, control the first power converter to provide power to the first output connection responsive to detecting the fault in the main power, and control the UPS system to disconnect the second power converter from the first output connection responsive to detecting the fault in the main power.
A separator for separating a lower density liquid, in particular an oil, from a fluid stream containing a mixture of a gas, the lower density liquid and a higher density liquid, in particular water, the separator having • a supply through which the fluid stream can flow a) under overpressure or b) a pressure which is below an overpressure and wherein the fluid can be pressurized via a pressure line, and • a decompression chamber having a decompression opening , which can be connected via the decompression opening to an environment in which a pressure level lower than the pressure of a) the fluid stream prevails or b) the pressurized fluid prevails, and • a coalescence filter , which is arranged in the decompression chamber and has an interior space at least partially surrounded by a coalescence filter medium , the supply opening into the interior space , and • a separation chamber arranged below the decompression chamber and having an upper outlet for lower density liquid and a lower outlet for a residual product, and • having a dip tube having a first opening in the lower region of the decompression chamber and a second opening in the separation chamber . • a supply through which the fluid stream can flow a) under overpressure or b) a pressure which is below an overpressure and wherein the fluid can be pressurized via a pressure line, and • a decompression chamber having a decompression opening , which can be connected via the decompression opening to an environment in which a pressure level lower than the pressure of a) the fluid stream prevails or b) the pressurized fluid prevails, and • a coalescence filter , which is arranged in the decompression chamber and has an interior space at least partially surrounded by a coalescence filter medium , the supply opening into the interior space , and • a separation chamber arranged below the decompression chamber and having an upper outlet for lower density liquid and a lower outlet for a residual product, and • having a dip tube having a first opening in the lower region of the decompression chamber and a second opening in the separation chamber .
A signal sending method, performed by a terminal device, comprising: determining (S92) M sidelink signals in S sidelink signals based on a maximum transmit power of the terminal device and priorities of the S sidelink signals, wherein a total transmit power of the M sidelink signals is equal to the maximum transmit power, and M is a positive integer, wherein the S sidelink signals overlap in time domain, S is an integer greater than or equal to 2, wherein the S sidelink signals are signals carried on a physical sidelink feedback channel, PSFCH; and sending (S93) the M sidelink signals, wherein a transmit power of each of the M sidelink signals is P/M, and P is the maximum transmit power, the M signals have the same priority. determining (S92) M sidelink signals in S sidelink signals based on a maximum transmit power of the terminal device and priorities of the S sidelink signals, wherein a total transmit power of the M sidelink signals is equal to the maximum transmit power, and M is a positive integer, wherein the S sidelink signals overlap in time domain, S is an integer greater than or equal to 2, wherein the S sidelink signals are signals carried on a physical sidelink feedback channel, PSFCH; and sending (S93) the M sidelink signals, wherein a transmit power of each of the M sidelink signals is P/M, and P is the maximum transmit power, the M signals have the same priority.