mhurhangee/patent-ind-claim-en huggingface dataset:
A recombinant adeno-associated virus (rAAV) for use in a method of treating Canavan disease, wherein the rAAV comprises: (a) a capsid protein; and (b) a nucleic acid comprising a promoter operably linked to a transgene, wherein the transgene encodes aspartoacylase (ASPA), and wherein the transgene comprises SEQ ID NO:1. (a) a capsid protein; and (b) a nucleic acid comprising a promoter operably linked to a transgene, wherein the transgene encodes aspartoacylase (ASPA), and wherein the transgene comprises SEQ ID NO:1.
A wireless apparatus configured for high-efficiency, HE, operation, the apparatus comprising: memory ; and processing circuitry configured to: decode a trigger frame , the trigger frame including a parameter to indicate resource units allocated for random access, the resource units allocated for uplink data transmission to one or more HE stations, STAs, including the wireless apparatus; and initiate an uplink orthogonal frequency division multiple access, OFDMA-based random access procedure, in response to receipt of the trigger frame that includes the parameter; wherein the uplink OFDMA-based random access procedure configures the processing circuitry to: initialize an OFDMA Back-off, OBO, counter to a random value in the range of zero to an OFDM contention window minimum value, OCWmin; decrement the OBO counter for each of the resource units allocated for random access in the trigger frame; and responsive to OBO counter reaching zero, cause transmission of the uplink data unit using one of the resource units allocated for random access, the one of the resource units allocated for random access is associated with the OBO counter reaching zero. memory ; and processing circuitry configured to: decode a trigger frame , the trigger frame including a parameter to indicate resource units allocated for random access, the resource units allocated for uplink data transmission to one or more HE stations, STAs, including the wireless apparatus; and initiate an uplink orthogonal frequency division multiple access, OFDMA-based random access procedure, in response to receipt of the trigger frame that includes the parameter; wherein the uplink OFDMA-based random access procedure configures the processing circuitry to: decode a trigger frame , the trigger frame including a parameter to indicate resource units allocated for random access, the resource units allocated for uplink data transmission to one or more HE stations, STAs, including the wireless apparatus; and initiate an uplink orthogonal frequency division multiple access, OFDMA-based random access procedure, in response to receipt of the trigger frame that includes the parameter; wherein the uplink OFDMA-based random access procedure configures the processing circuitry to: initialize an OFDMA Back-off, OBO, counter to a random value in the range of zero to an OFDM contention window minimum value, OCWmin; decrement the OBO counter for each of the resource units allocated for random access in the trigger frame; and responsive to OBO counter reaching zero, cause transmission of the uplink data unit using one of the resource units allocated for random access, the one of the resource units allocated for random access is associated with the OBO counter reaching zero.
A process for producing acetic acid comprising: separating a reaction medium formed in a reactor in a flash vessel to form a liquid recycle and a vapor product stream, wherein the reaction medium comprises water in an amount from 0.1 to 4.1 wt.%; distilling the vapor product stream in a first column to obtain a side stream, a low boiling overhead vapor stream comprising water in an amount of greater than or equal to 5 wt.%, and a residuum stream optionally comprising acetic acid in an amount greater than or equal to 95 wt.% and water in an amount less than or equal to 5 wt.%; condensing the low boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; maintaining a water concentration in the side stream from 1 to 3 wt.% and a hydrogen iodide concentration in the side stream in an amount of less than or equal to 50 wppm, based on the total weight of the side stream, by controlling a recycle rate of the light liquid phase to the reactor; and distilling the side stream in a second column to obtain a purified acetic acid product. separating a reaction medium formed in a reactor in a flash vessel to form a liquid recycle and a vapor product stream, wherein the reaction medium comprises water in an amount from 0.1 to 4.1 wt.%; distilling the vapor product stream in a first column to obtain a side stream, a low boiling overhead vapor stream comprising water in an amount of greater than or equal to 5 wt.%, and a residuum stream optionally comprising acetic acid in an amount greater than or equal to 95 wt.% and water in an amount less than or equal to 5 wt.%; condensing the low boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; maintaining a water concentration in the side stream from 1 to 3 wt.% and a hydrogen iodide concentration in the side stream in an amount of less than or equal to 50 wppm, based on the total weight of the side stream, by controlling a recycle rate of the light liquid phase to the reactor; and distilling the side stream in a second column to obtain a purified acetic acid product.
A household appliance comprising a steam generator having - a reservoir wherein water is stored, - at least one inlet opening and at least one outlet opening arranged on the reservoir , - a heater that heats the water inside the reservoir , - a temperature sensor , - a control unit , - a channel that extends from the inlet opening into the reservoir and to below a predetermined minimum water level (h_min) so that the end of the channel is enabled to always remain in the water and steam is not discharged from the inlet opening , and - a temperature sensor arranged on the steam generator and configured to measure the temperature of the heater surface and to relay the temperature data to the control unit , wherein the control unit is configured to - cut off the current delivered to the heater if the temperature of the heater surface has reached a predetermined cut-off temperature and supply current to the heater again when the temperature of the heater surface falls to reach a predetermined cut-in temperature, and - enable water to be taken into the steam generator by deciding that the water level has fallen under the minimum water level (h_min) if the operation time period of the heater from its cut-in to its cut-off is less than a limit time period (t_lim) prerecorded in its memory. - a reservoir wherein water is stored, - at least one inlet opening and at least one outlet opening arranged on the reservoir , - a heater that heats the water inside the reservoir , - a temperature sensor , - a control unit , - a channel that extends from the inlet opening into the reservoir and to below a predetermined minimum water level (h_min) so that the end of the channel is enabled to always remain in the water and steam is not discharged from the inlet opening , and - a temperature sensor arranged on the steam generator and configured to measure the temperature of the heater surface and to relay the temperature data to the control unit , - cut off the current delivered to the heater if the temperature of the heater surface has reached a predetermined cut-off temperature and supply current to the heater again when the temperature of the heater surface falls to reach a predetermined cut-in temperature, and - enable water to be taken into the steam generator by deciding that the water level has fallen under the minimum water level (h_min) if the operation time period of the heater from its cut-in to its cut-off is less than a limit time period (t_lim) prerecorded in its memory.
A method for producing a dried bacterial cell powder containing astaxanthin, said method comprising the step of bringing bacterial cells of an astaxanthin-producing microorganism of the genus Paracoccus into contact with a heat transfer unit having a temperature of more than 100°C to carry out drying via heat transfer and the step of further pulverizing the dried bacterial cell powder for fine powderization, wherein the volume particle size (D50) of the dried bacterial cell powder is pulverized to 20 μm or less by the pulverization step.
A method, comprising: receiving , by a mobile device, an indication of a base sequence and an indication of a cyclic shift from a base station; obtaining , by the mobile device, a mobile device-specific demodulation reference signal sequence by: calculating a mobile device-specific sequence by applying the cyclic shift indicated by the received indication of a cyclic shift to the base sequence indicated by the received indication of a base sequence; and selecting a portion of the calculated mobile device-specific sequence to use as the mobile device-specific demodulation reference signal sequence in dependence on a mobile device-specific physical resource block allocation. receiving , by a mobile device, an indication of a base sequence and an indication of a cyclic shift from a base station; obtaining , by the mobile device, a mobile device-specific demodulation reference signal sequence by: calculating a mobile device-specific sequence by applying the cyclic shift indicated by the received indication of a cyclic shift to the base sequence indicated by the received indication of a base sequence; and selecting a portion of the calculated mobile device-specific sequence to use as the mobile device-specific demodulation reference signal sequence in dependence on a mobile device-specific physical resource block allocation. calculating a mobile device-specific sequence by applying the cyclic shift indicated by the received indication of a cyclic shift to the base sequence indicated by the received indication of a base sequence; and selecting a portion of the calculated mobile device-specific sequence to use as the mobile device-specific demodulation reference signal sequence in dependence on a mobile device-specific physical resource block allocation.
A medical observation apparatus comprising: a columnar microscope unit configured to image a minute part of an object to be observed with magnification and thereby output an imaging signal; a support unit including a first joint unit holding the microscope unit in a rotationally movable manner around a first axis parallel to a height direction of the microscope unit, a first arm unit holding the first joint unit and extending in a direction different from the height direction of the microscope unit, a second joint unit holding the first arm unit in a rotationally movable manner around a second axis orthogonal to the first axis, and a second arm unit holding the second joint unit, and a photoelectric conversion means (84-86) provided in an interior of the support unit and configured to convert an imaging signal outputted by the microscope unit to an optical signal and output the converted signal; wherein, in a plane passing through the first and second axes, a cross section of the microscope unit, the first and second joint units, and the first and second arm units is included in a circle that has a center at a focus position of the microscope unit and passes through an end point of the first joint unit that is at the maximum distance from the focus position. a columnar microscope unit configured to image a minute part of an object to be observed with magnification and thereby output an imaging signal; a support unit including a first joint unit holding the microscope unit in a rotationally movable manner around a first axis parallel to a height direction of the microscope unit, a first arm unit holding the first joint unit and extending in a direction different from the height direction of the microscope unit, a second joint unit holding the first arm unit in a rotationally movable manner around a second axis orthogonal to the first axis, and a second arm unit holding the second joint unit, and a first joint unit holding the microscope unit in a rotationally movable manner around a first axis parallel to a height direction of the microscope unit, a first arm unit holding the first joint unit and extending in a direction different from the height direction of the microscope unit, a second joint unit holding the first arm unit in a rotationally movable manner around a second axis orthogonal to the first axis, and a second arm unit holding the second joint unit, and a photoelectric conversion means (84-86) provided in an interior of the support unit and configured to convert an imaging signal outputted by the microscope unit to an optical signal and output the converted signal; wherein, in a plane passing through the first and second axes, a cross section of the microscope unit, the first and second joint units, and the first and second arm units is included in a circle that has a center at a focus position of the microscope unit and passes through an end point of the first joint unit that is at the maximum distance from the focus position.
An abnormality detection system , including a control device for controlling a control target including a monitoring target, and a support device connected to the control device and configured for providing development environment of program executed by the control device , wherein the control device comprises: a feature extraction unit which calculates one or a plurality of feature amounts from one or a plurality of state values acquired from the monitoring target; a learning model generation unit which is configured to generate a learning model according to an instruction from the support device ; a machine learning processing unit which calculates a score that is a value indicating a possibility that any abnormality has occurred in the monitoring target, based on the one or the plurality of feature amounts calculated by the feature extraction unit , with reference to the learning model ; a determination unit which generates a determination result indicating whether any abnormality has occurred in the monitoring target, based on the score calculated by the machine learning processing unit ; a first data storage unit which stores at least one of data related to processing in the feature extraction unit and data related to processing in the machine learning processing unit ; a second data storage unit which stores an arbitrary state value capable of being referred to by the control device ; and an authority management unit which restricts access to the first data storage unit and restricts access to programs for realizing the feature extraction unit , the learning model generation unit and the machine learning processing unit . a feature extraction unit which calculates one or a plurality of feature amounts from one or a plurality of state values acquired from the monitoring target; a learning model generation unit which is configured to generate a learning model according to an instruction from the support device ; a machine learning processing unit which calculates a score that is a value indicating a possibility that any abnormality has occurred in the monitoring target, based on the one or the plurality of feature amounts calculated by the feature extraction unit , with reference to the learning model ; a determination unit which generates a determination result indicating whether any abnormality has occurred in the monitoring target, based on the score calculated by the machine learning processing unit ; a first data storage unit which stores at least one of data related to processing in the feature extraction unit and data related to processing in the machine learning processing unit ; a second data storage unit which stores an arbitrary state value capable of being referred to by the control device ; and an authority management unit which restricts access to the first data storage unit and restricts access to programs for realizing the feature extraction unit , the learning model generation unit and the machine learning processing unit .
Tank system for a reducing agent, comprising a container for the reducing agent that has an upper container wall , lateral container walls and a lower container wall , and comprising a conveying device for providing the reducing agent such that it is able to be fed under pressure via an outlet to an exhaust gas, wherein at least one opening is arranged in the lower container wall , wherein the at least one opening forms a connection to a further volume (V), which is filled with reducing agent, characterized in that at least one opening has radially inwardly directed elastic elements which are arranged on the periphery .
A process comprising: bleaching a lignocellulosic material pulp using a bleaching process, and treating a lignocellulosic material pulp with 0.5 to 5 wt% of the dried lignocellulosic material of an oxidizing agent selected from a group consisting of hydrogen peroxide, hypochlorite, hypochlorous acid and any combination thereof in the presence of 0.01 to 0.1 wt % of the dried lignocellusic material of a transition metal catalyst at a temperature from 60°C to 90°C and for a treatment time from 30 min. to 4 hours, to form a treated lignocellulosic material having a viscosity equal to or less than about 17 cp and having reducing functional groups selected from the group consisting of aldehyde and aldehyde type functional groups at the C6 and C1 positions; wherein the amount of aldehyde and aldehyde type functional groups at the C1 position is greater than about 75 %, and wherein the treating occurs after a pulping process or after the bleaching process. bleaching a lignocellulosic material pulp using a bleaching process, and treating a lignocellulosic material pulp with 0.5 to 5 wt% of the dried lignocellulosic material of an oxidizing agent selected from a group consisting of hydrogen peroxide, hypochlorite, hypochlorous acid and any combination thereof in the presence of 0.01 to 0.1 wt % of the dried lignocellusic material of a transition metal catalyst at a temperature from 60°C to 90°C and for a treatment time from 30 min. to 4 hours, to form a treated lignocellulosic material having a viscosity equal to or less than about 17 cp and having reducing functional groups selected from the group consisting of aldehyde and aldehyde type functional groups at the C6 and C1 positions; wherein the amount of aldehyde and aldehyde type functional groups at the C1 position is greater than about 75 %, and wherein the treating occurs after a pulping process or after the bleaching process.
An access device comprising: a splittable sheath comprising: a splittable sheath hub defining a longitudinal axis and forming an inner cavity through which the longitudinal axis extends; and a valve element comprising: a resilient plate comprising: a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1 ) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1 ) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity , relative to the longitudinal axis, from a side of the inner cavity ; and a sealing element comprising a first sealing surface and being supported by the resilient plate , wherein the first non-orthogonal angle (Θ 1 ) biases the sealing portion and the sealing element toward a position against a second sealing surface on the splittable sheath hub to substantially seal at least a portion of the inner cavity . a splittable sheath comprising: a splittable sheath hub defining a longitudinal axis and forming an inner cavity through which the longitudinal axis extends; and a valve element comprising: a resilient plate comprising: a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1 ) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1 ) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity , relative to the longitudinal axis, from a side of the inner cavity ; and a sealing element comprising a first sealing surface and being supported by the resilient plate , wherein the first non-orthogonal angle (Θ 1 ) biases the sealing portion and the sealing element toward a position against a second sealing surface on the splittable sheath hub to substantially seal at least a portion of the inner cavity . a resilient plate comprising: a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1 ) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1 ) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity , relative to the longitudinal axis, from a side of the inner cavity ; and a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1 ) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1 ) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity , relative to the longitudinal axis, from a side of the inner cavity ; and a sealing element comprising a first sealing surface and being supported by the resilient plate , wherein the first non-orthogonal angle (Θ 1 ) biases the sealing portion and the sealing element toward a position against a second sealing surface on the splittable sheath hub to substantially seal at least a portion of the inner cavity .
A method of emitting warning and/or alarm signals by operating a LED lighting source (L) whose emission wavelength is a function of the current through the LED lighting source (L) and the temperature of the LED lighting source (L), the method including: - powering the LED lighting source (L) in a first lighting mode wherein the source (L) emits light radiation at a first wavelength, - detecting a warning and/or alarm condition, and - responsive to a signal (A) indicative of said warning or alarm condition detected, powering the LED lighting source (L) with a pulsed current in at least one second lighting mode, wherein at least one of the current through the LED lighting source (L) and the temperature of the LED lighting source (L) is varied with respect to said first lighting mode to induce a shift in the emission wavelength of the LED lighting source (L), whereby the LED lighting source (L) emits light radiation at a second wavelength, said second wavelength being different from said first wavelength. - powering the LED lighting source (L) in a first lighting mode wherein the source (L) emits light radiation at a first wavelength, - detecting a warning and/or alarm condition, and - responsive to a signal (A) indicative of said warning or alarm condition detected, powering the LED lighting source (L) with a pulsed current in at least one second lighting mode, wherein at least one of the current through the LED lighting source (L) and the temperature of the LED lighting source (L) is varied with respect to said first lighting mode to induce a shift in the emission wavelength of the LED lighting source (L), whereby the LED lighting source (L) emits light radiation at a second wavelength, said second wavelength being different from said first wavelength.