mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment for performing wireless communication with a node using carrier aggregation in a mobile communication system, the user equipment comprising: a receiver configured to receive, from the node , information indicating a radio quality condition that is to be met for the user equipment to perform an activation process for a secondary cell configured for the user equipment ; a controller configured to measure radio quality and evaluate whether the radio quality condition is met; and a transmitter configured to transmit a notification regarding the activation process to the node in response to the radio quality condition being met, wherein the controller is configured to perform the activation process for the secondary cell in response to the radio quality condition being met, and complete the activation process within a predetermined time period from a time of transmitting the notification or from a time of receiving a positive acknowledgment to the notification from the node , wherein the transmitter is configured to transmit information indicating the predetermined time period to the node when transmitting the notification or before transmitting the notification. a receiver configured to receive, from the node , information indicating a radio quality condition that is to be met for the user equipment to perform an activation process for a secondary cell configured for the user equipment ; a controller configured to measure radio quality and evaluate whether the radio quality condition is met; and a transmitter configured to transmit a notification regarding the activation process to the node in response to the radio quality condition being met, wherein the controller is configured to perform the activation process for the secondary cell in response to the radio quality condition being met, and complete the activation process within a predetermined time period from a time of transmitting the notification or from a time of receiving a positive acknowledgment to the notification from the node , perform the activation process for the secondary cell in response to the radio quality condition being met, and complete the activation process within a predetermined time period from a time of transmitting the notification or from a time of receiving a positive acknowledgment to the notification from the node , wherein the transmitter is configured to transmit information indicating the predetermined time period to the node when transmitting the notification or before transmitting the notification.
Nitrogen oxide storage catalyst composed of at least two catalytically active coatings on a support body, wherein - a lower coating A contains cerium oxide, and platinum and/or palladium and no alkaline earth compound, and - an upper coating B, which is arranged above the coating A, contains an alkaline earth compound, a basic magnesium aluminum mixed oxide, and platinum and palladium, wherein it contains barium oxide or strontium oxide as alkaline earth compound. - a lower coating A contains cerium oxide, and platinum and/or palladium and no alkaline earth compound, and - an upper coating B, which is arranged above the coating A, contains an alkaline earth compound, a basic magnesium aluminum mixed oxide, and platinum and palladium,
Sensor module for determining a property of a fluid, in particular for measuring air quality, comprising - a printed circuit board , - at least one sensor on the printed circuit board for recording a measured value of the fluid, in particular of the ambient air, and - a housing for the printed circuit board , wherein a part of the printed circuit board protrudes from an opening in the housing , wherein the at least one sensor is located on a front side of the protruding part of the printed circuit board , wherein at least the front side of the protruding part of the printed circuit board , with the exception of a recess for the at least one sensor , is moulded with a filling compound , characterised in that in addition, at least the opening in the housing is moulded with filling compound , wherein the filling compound is a hot melt or a UV-curable adhesive. - a printed circuit board , - at least one sensor on the printed circuit board for recording a measured value of the fluid, in particular of the ambient air, and - a housing for the printed circuit board , wherein a part of the printed circuit board protrudes from an opening in the housing , wherein the at least one sensor is located on a front side of the protruding part of the printed circuit board , wherein at least the front side of the protruding part of the printed circuit board , with the exception of a recess for the at least one sensor , is moulded with a filling compound , characterised in that in addition, at least the opening in the housing is moulded with filling compound , wherein the filling compound is a hot melt or a UV-curable adhesive.
A microscope system for illuminating a fluorophore comprising: an excitation light source; a microscope comprising: a mirror-based objective supporting an objective collar ; a tube configured to receive an excitation light beam directed parallel to an optical axis of said mirror-based objective , said tube connected to said objective collar , a first reflective element positioned to reflect the excitation light beam , said first reflective element disposed in a reflective element positioning adapter that is movable in several axes, said reflective element positioning adapter connected to said objective collar ; and a second reflective element positioned horizontally and in line with said first reflective element and disposed on a center support element, said second reflective element configured to reflect the excitation light beam into a sample to cause fluorescence of the fluorophore in the sample. an excitation light source; a microscope comprising: a mirror-based objective supporting an objective collar ; a tube configured to receive an excitation light beam directed parallel to an optical axis of said mirror-based objective , said tube connected to said objective collar , a first reflective element positioned to reflect the excitation light beam , said first reflective element disposed in a reflective element positioning adapter that is movable in several axes, said reflective element positioning adapter connected to said objective collar ; and a second reflective element positioned horizontally and in line with said first reflective element and disposed on a center support element, said second reflective element configured to reflect the excitation light beam into a sample to cause fluorescence of the fluorophore in the sample. a first reflective element positioned to reflect the excitation light beam , said first reflective element disposed in a reflective element positioning adapter that is movable in several axes, said reflective element positioning adapter connected to said objective collar ; and a second reflective element positioned horizontally and in line with said first reflective element and disposed on a center support element, said second reflective element configured to reflect the excitation light beam into a sample to cause fluorescence of the fluorophore in the sample.
A pharmaceutical composition for use in preventing or treating an allergic disease, the pharmaceutical composition including an inotodiol compound represented by Formula 1 as an active ingredient. wherein the allergic disease is bronchial asthma or atopic dermatitis.
A supply unit for a cleaning machine (R1, R2) to be connected to the supply unit via at least one flexible hose, the supply unit comprising: - a heating device for heating water, - a water pump for conveying water into or out of said heating device , - a hot water and/or steam connector in communication with the outlet of the heating device , - a dirty water tank , and - a suction device - preferably comprising a suction turbine - for sucking dirty water from a dirty water connector into the dirty water tank , characterized in that - the supply unit has at least one central drive unit (M, 23, 24, 25, 37, 19') for running at least one component of the supply unit to be driven and/or a cleaning machine (R1, R2) that can be connected thereto, - wherein the supply unit comprises a device (19', M, 23, 24, 25) for producing pressurized fluid to be fed, through at least one fluid line, to one or more components of the supply unit to be driven and/or to a cleaning machine (R1, R2) that can be connected thereto, - that the fluid is a hydraulic fluid, in particular hydraulic oil, and the device for producing a pressurized fluid has at least one hydraulic pump which is driven by a motor (M) and from which at least one hydraulic line with pressurized hydraulic fluid leads to at least one hydraulic motor (H H1, P1, P2, L, H2). - a heating device for heating water, - a water pump for conveying water into or out of said heating device , - a hot water and/or steam connector in communication with the outlet of the heating device , - a dirty water tank , and - a suction device - preferably comprising a suction turbine - for sucking dirty water from a dirty water connector into the dirty water tank , characterized in that - the supply unit has at least one central drive unit (M, 23, 24, 25, 37, 19') for running at least one component of the supply unit to be driven and/or a cleaning machine (R1, R2) that can be connected thereto, - wherein the supply unit comprises a device (19', M, 23, 24, 25) for producing pressurized fluid to be fed, through at least one fluid line, to one or more components of the supply unit to be driven and/or to a cleaning machine (R1, R2) that can be connected thereto, - that the fluid is a hydraulic fluid, in particular hydraulic oil, and the device for producing a pressurized fluid has at least one hydraulic pump which is driven by a motor (M) and from which at least one hydraulic line with pressurized hydraulic fluid leads to at least one hydraulic motor (H H1, P1, P2, L, H2).
A chopper circuit control device for controlling a duty cycle of a chopper circuit, the chopper circuit control device comprising: a range calculator adapted to calculate, based on an input voltage of the chopper circuit and an output voltage command value being a command value of an output voltage of the chopper circuit, an operation value range being a range for an operation value that is used for controlling the duty cycle; and a controller adapted to determine whether the operation value calculated based on a deviation between the output voltage and the output voltage command value of the chopper circuit is within the operation value range and to control the duty cycle by using an upper limit value of the operation value range when the operation value is greater than or equal to the upper limit value of the operation value range, by using the operation value when the operation value is within the operation value range, and by using a lower limit value of the operation value range when the operation value is less than or equal to the lower limit value of the operation value range; wherein the range calculator calculates the operation value range by using an upper limit value of a voltage range, being a defined range, when the input voltage is greater than or equal to the upper limit value of the voltage range, by using the input voltage when the input voltage is within the voltage range, and by using a lower limit value of the voltage range when the input voltage is less than or equal to the lower limit value of the voltage range. a range calculator adapted to calculate, based on an input voltage of the chopper circuit and an output voltage command value being a command value of an output voltage of the chopper circuit, an operation value range being a range for an operation value that is used for controlling the duty cycle; and a controller adapted to determine whether the operation value calculated based on a deviation between the output voltage and the output voltage command value of the chopper circuit is within the operation value range and to control the duty cycle by using an upper limit value of the operation value range when the operation value is greater than or equal to the upper limit value of the operation value range, by using the operation value when the operation value is within the operation value range, and by using a lower limit value of the operation value range when the operation value is less than or equal to the lower limit value of the operation value range; wherein the range calculator calculates the operation value range by using an upper limit value of a voltage range, being a defined range, when the input voltage is greater than or equal to the upper limit value of the voltage range, by using the input voltage when the input voltage is within the voltage range, and by using a lower limit value of the voltage range when the input voltage is less than or equal to the lower limit value of the voltage range.
A method for acquiring a panoramic image with a front-facing shooting mode, comprising: after a front-facing panorama shooting instruction triggered by a user is acquired, shooting a first image of the user; determining move guiding information according to a preset move guiding policy, and displaying the move guiding information on an image display panel of a terminal, so as to instruct the user to move the terminal according to the move guiding information, wherein the move guiding information is text guiding information or icon guiding information; and wherein the image display panel is covered by a touch panel; when the terminal is rotated to a first side of an initial position of the terminal corresponding to the move guiding information, automatically shooting one part of a preset quantity of images, wherein the initial position of the terminal is where the first image is shot; when the terminal is rotated to a second side of the initial position corresponding to the move guiding information, automatically shooting the other part of the preset quantity of images, wherein the preset quantity of images are background images on both the first side and the second side of a background corresponding to the first image; the first side is left and the second side is right, or, the first side is right and the second side is left; performing , by using the first image as a center and by using a preset splicing scheme seamless splicing on the first image and the preset quantity of images, to obtain a panoramic image. after a front-facing panorama shooting instruction triggered by a user is acquired, shooting a first image of the user; determining move guiding information according to a preset move guiding policy, and displaying the move guiding information on an image display panel of a terminal, so as to instruct the user to move the terminal according to the move guiding information, wherein the move guiding information is text guiding information or icon guiding information; and wherein the image display panel is covered by a touch panel; when the terminal is rotated to a first side of an initial position of the terminal corresponding to the move guiding information, automatically shooting one part of a preset quantity of images, wherein the initial position of the terminal is where the first image is shot; when the terminal is rotated to a second side of the initial position corresponding to the move guiding information, automatically shooting the other part of the preset quantity of images, wherein the preset quantity of images are background images on both the first side and the second side of a background corresponding to the first image; the first side is left and the second side is right, or, the first side is right and the second side is left; performing , by using the first image as a center and by using a preset splicing scheme seamless splicing on the first image and the preset quantity of images, to obtain a panoramic image.
A carbonic anhydrase mutant comprising an A58G mutation in an amino acid sequence set forth in SEQ ID NO: 1 and having an increased heat resistance compared to a wild-type carbonic anhydrase having an amino acid sequence set forth in SEQ ID NO: 1.
Method for automatically verifying the presence of members for holding preforms made from a thermoplastic material in a heating station , the heating station being provided with a device for transporting the preforms along a heating tunnel , the transport device comprising: - a plurality of movable supports ; - members for individually holding the preforms by their neck , each of the holding members being borne by a movable support , the holding members being removably fixed to their respective movable supports ; characterized in that it comprises: - a step (E1) of setting the movable supports in motion in order to bring them in succession into an acquisition zone (Z1); - a step (E2) of acquiring an image of each individual holding member as each of the movable supports passes through the acquisition zone (Zl), by means of an image capturing device ; - a step (E3) of automatically verifying the presence of a holding member on each of the images taken during the acquisition step (E2), by computer processing of each of the images by means of an electronic control unit . - a plurality of movable supports ; - members for individually holding the preforms by their neck , each of the holding members being borne by a movable support , the holding members being removably fixed to their respective movable supports ; - a step (E1) of setting the movable supports in motion in order to bring them in succession into an acquisition zone (Z1); - a step (E2) of acquiring an image of each individual holding member as each of the movable supports passes through the acquisition zone (Zl), by means of an image capturing device ; - a step (E3) of automatically verifying the presence of a holding member on each of the images taken during the acquisition step (E2), by computer processing of each of the images by means of an electronic control unit .
A nonwoven multilayer structure comprising: a first nonwoven layer having melt or solvent electrospun nanofibers having an average fiber diameter that is less than or equal to 300 nanometers; and a second nonwoven layer comprising a polyamide 66 having a first surface and comprising melt blown nanofibers having an average fiber diameter that is from 250 to 950 nanometers, wherein the first layer is adjacent to at least the first surface, wherein the basis weight of the first nonwoven layer is less than second nonwoven layer, wherein the basis weight of the first nonwoven layer is less than or equal to 25 gsm, and wherein the basis weight of the second nonwoven layer is from 0.9 to 50 gsm, the basis weight being determined according to ASTM D-3776. a first nonwoven layer having melt or solvent electrospun nanofibers having an average fiber diameter that is less than or equal to 300 nanometers; and a second nonwoven layer comprising a polyamide 66 having a first surface and comprising melt blown nanofibers having an average fiber diameter that is from 250 to 950 nanometers, wherein the first layer is adjacent to at least the first surface, wherein the basis weight of the first nonwoven layer is less than second nonwoven layer, wherein the basis weight of the first nonwoven layer is less than or equal to 25 gsm, and wherein the basis weight of the second nonwoven layer is from 0.9 to 50 gsm, the basis weight being determined according to ASTM D-3776.
An ultrasound catheter for disrupting occlusions in blood vessels, the ultrasonic catheter comprising: an elongate flexible catheter body having a proximal end, a distal end and at least one lumen ; an ultrasound transmission member extending longitudinally through the lumen of the catheter body ; a sonic connector coupled with a proximal end of the ultrasound transmission member for coupling the ultrasound transmission member with a separate ultrasound generating device and for transmitting vibrational energy from a transducer of the ultrasound generating device to the ultrasound transmission member ; wherein the ultrasound catheter comprises at least one absorber member coupled with the ultrasound transmission member adjacent the sonic connector , wherein the absorber member is adapted to absorb heat and optionally vibration, wherein the absorber member comprises at least two component parts which comprise: at least one absorptive part in contact with the transmission member for absorbing heat; and at least one constraining part coupled with the absorptive part for holding the absorptive part in place on the transmission member . an elongate flexible catheter body having a proximal end, a distal end and at least one lumen ; an ultrasound transmission member extending longitudinally through the lumen of the catheter body ; a sonic connector coupled with a proximal end of the ultrasound transmission member for coupling the ultrasound transmission member with a separate ultrasound generating device and for transmitting vibrational energy from a transducer of the ultrasound generating device to the ultrasound transmission member ; wherein the ultrasound catheter comprises at least one absorber member coupled with the ultrasound transmission member adjacent the sonic connector , wherein the absorber member is adapted to absorb heat and optionally vibration, wherein the absorber member comprises at least two component parts which comprise: at least one absorptive part in contact with the transmission member for absorbing heat; and at least one constraining part coupled with the absorptive part for holding the absorptive part in place on the transmission member . at least one absorptive part in contact with the transmission member for absorbing heat; and at least one constraining part coupled with the absorptive part for holding the absorptive part in place on the transmission member .
Additive manufacturing apparatus comprising: a heater to direct radiant heat onto an irradiation region of a build platform , at least part of the heater being moveable to cause the irradiation region to traverse over the build platform ; a coating module moveable relative the heater to traverse the build platform to apply a build material onto the build platform ; and a print module moveable relative the heater to traverse the build platform to selectively eject a print agent onto the build material; wherein the heater is to direct radiant heat so that the irradiation region traverses the build platform along a first lateral axis; wherein a carriage comprising the print module or the coating module is to traverse the build platform along a direction parallel with the first lateral axis; and and characterised in that the additive manufacturing apparatus further comprises a controller to control a heater traversal rate at which the irradiation region traverses the build platform ; and wherein the controller is to temporarily increase the heater traversal rate for a passing phase of a heating cycle in which the carriage passes below the heater . a heater to direct radiant heat onto an irradiation region of a build platform , at least part of the heater being moveable to cause the irradiation region to traverse over the build platform ; a coating module moveable relative the heater to traverse the build platform to apply a build material onto the build platform ; and a print module moveable relative the heater to traverse the build platform to selectively eject a print agent onto the build material; wherein the heater is to direct radiant heat so that the irradiation region traverses the build platform along a first lateral axis; wherein a carriage comprising the print module or the coating module is to traverse the build platform along a direction parallel with the first lateral axis; and and characterised in that the additive manufacturing apparatus further comprises a controller to control a heater traversal rate at which the irradiation region traverses the build platform ; and wherein the controller is to temporarily increase the heater traversal rate for a passing phase of a heating cycle in which the carriage passes below the heater .