mhurhangee/patent-ind-claim-en huggingface dataset:
Device for determining the concentration of a gas in a container , having a holder for receiving a container and having an optical system , the optical system comprising a substantially monochromatic light source for emitting light into a container received in the holder along an optical axis and comprising a light sensor for measuring the intensity of the light emerging from the container , characterised in that the optical system is pivotally mounted about a pivot axis arranged transversely to the optical axis .
A balloon wrapping apparatus for wrapping a balloon of a balloon catheter provided with the balloon at a distal portion of an elongated shaft, the balloon wrapping apparatus comprising: a pleating section that forms the balloon with wing shapes projecting in radial directions; a folding section that includes a plurality of folding members aligned in a circumferential direction, and that folds the wing shapes formed in the balloon along the circumferential direction by moving rotationally the folding members; and a rotational support portion that supports a portion of the shaft which portion is on a proximal side of the balloon, and that rotates the shaft in a direction opposite to a rotary movement direction of the folding members in a state in which the balloon is positioned in relation to the folding section. a pleating section that forms the balloon with wing shapes projecting in radial directions; a folding section that includes a plurality of folding members aligned in a circumferential direction, and that folds the wing shapes formed in the balloon along the circumferential direction by moving rotationally the folding members; and a rotational support portion that supports a portion of the shaft which portion is on a proximal side of the balloon, and that rotates the shaft in a direction opposite to a rotary movement direction of the folding members in a state in which the balloon is positioned in relation to the folding section.
A tire air pressure warning device configured to: warn (S10) a driver that a tire air pressure has dropped to or below a first prescribed pressure (A1); and notify (S8) the driver of a reduction in the tire air pressure upon determining that the tire air pressure has dropped to or below a second prescribed pressure (A0), which is above the first prescribed pressure (A1), characterized in that the notification of the reduction in the tire air pressure is executed by displaying a prompting to the driver to see tire air pressure information when an ignition is off (S5). warn (S10) a driver that a tire air pressure has dropped to or below a first prescribed pressure (A1); and notify (S8) the driver of a reduction in the tire air pressure upon determining that the tire air pressure has dropped to or below a second prescribed pressure (A0), which is above the first prescribed pressure (A1), characterized in that the notification of the reduction in the tire air pressure is executed by displaying a prompting to the driver to see tire air pressure information when an ignition is off (S5).
A vehicle-mounted power source device, comprising: a power storage unit ; a charging unit connected to an input path of the power storage unit ; a discharging unit connected to an output path of the power storage unit ; and a control unit which controls operations of the charging unit and the discharging unit in accordance with an activation signal, wherein when the control unit receives the activation signal, a terminal voltage of the power storage unit becomes a first voltage (V1) through a charging operation of the charging unit , when the control unit finishes receiving the activation signal, the discharging unit starts a discharging operation, and the terminal voltage of the power storage unit is reduced to a second voltage (V2) lower than the first voltage (V1), and the charging unit applies a third voltage (V3) lower than the second voltage (V2) to the power storage unit between (i) when the terminal voltage of the power storage unit becomes lower than the second voltage (V2) or when a predetermined length of time has elapsed since the terminal voltage of the power storage unit became lower than the second voltage (V2) and (ii) when the control unit receives the activation signal again.
An electron-beam-excited ultraviolet light source, comprising: an ultraviolet light generating target , comprising: a substrate made of sapphire, quartz, or rock crystal; a light-emitting layer provided on the substrate and generating ultraviolet light upon receiving an electron beam; and a conductive film provided on the light-emitting layer, an electron source providing the electron beam to the ultraviolet light generating target ; an extraction electrode for applying an extraction voltage to the electron source ; a power supply unit applying the extraction voltage between the electron source and the extraction electrode ; and a vacuum-pumped electron tube in which the ultraviolet light generating target , the electron source , and the extraction electrode are arranged, wherein the light-emitting layer includes powdered or granular Pr:LuAG crystals, the light-emitting layer receives the electron beam through the conductive film and the ultraviolet light generated in the light-emitting layer is output through the substrate . an ultraviolet light generating target , comprising: a substrate made of sapphire, quartz, or rock crystal; a light-emitting layer provided on the substrate and generating ultraviolet light upon receiving an electron beam; and a conductive film provided on the light-emitting layer, a substrate made of sapphire, quartz, or rock crystal; a light-emitting layer provided on the substrate and generating ultraviolet light upon receiving an electron beam; and a conductive film provided on the light-emitting layer, an electron source providing the electron beam to the ultraviolet light generating target ; an extraction electrode for applying an extraction voltage to the electron source ; a power supply unit applying the extraction voltage between the electron source and the extraction electrode ; and a vacuum-pumped electron tube in which the ultraviolet light generating target , the electron source , and the extraction electrode are arranged, wherein the light-emitting layer includes powdered or granular Pr:LuAG crystals, the light-emitting layer receives the electron beam through the conductive film and the ultraviolet light generated in the light-emitting layer is output through the substrate .
A home appliance comprising: a memory to store diagnostic data; a communication unit to exchange data with a mobile terminal ; a sound output unit ; and a controller that in response to reception of a diagnostic data request through the communication unit is configured to: control the sound output unit to output sound corresponding to the diagnostic data stored in the memory , characterized in that : the sound output unit includes an inverter comprising a plurality of switching elements (Sa, Sb, Sc) and is configured to convert DC power into AC power by switching of the switching elements (Sa, Sb, Sc) and to supply the AC power to a three-phase synchronous motor , and the sound output unit using the inverter and the motor to output sound; wherein the controller is configured to vary a volume of the output sound according to a distance from the home appliance to the mobile terminal and to vary a switching frequency of each switching element of the inverter and to control sound corresponding to the varied switching frequency to be outputted, wherein the controller is configured to vary a level of current flowing in the motor so as to vary a volume of the output sound. a memory to store diagnostic data; a communication unit to exchange data with a mobile terminal ; a sound output unit ; and a controller that in response to reception of a diagnostic data request through the communication unit is configured to: control the sound output unit to output sound corresponding to the diagnostic data stored in the memory , characterized in that : the sound output unit includes an inverter comprising a plurality of switching elements (Sa, Sb, Sc) and is configured to convert DC power into AC power by switching of the switching elements (Sa, Sb, Sc) and to supply the AC power to a three-phase synchronous motor , and the sound output unit using the inverter and the motor to output sound; the sound output unit includes an inverter comprising a plurality of switching elements (Sa, Sb, Sc) and is configured to convert DC power into AC power by switching of the switching elements (Sa, Sb, Sc) and to supply the AC power to a three-phase synchronous motor , and the sound output unit using the inverter and the motor to output sound; wherein the controller is configured to vary a volume of the output sound according to a distance from the home appliance to the mobile terminal and to vary a switching frequency of each switching element of the inverter and to control sound corresponding to the varied switching frequency to be outputted, wherein the controller is configured to vary a level of current flowing in the motor so as to vary a volume of the output sound.
A method of extending a wavelength tuning range of a tunable laser, the method comprising: receiving, at a laser biasing circuit , a mode control signal having a current-mode state or a voltage-mode state, the laser biasing circuit comprising a current-mode bias sub-circuit and a voltage-mode bias sub-circuit ; when the mode control signal has the voltage-mode state: connecting, by the laser biasing circuit , the voltage-mode bias sub-circuit to an anode of a reflector-section diode , the reflector-section diode disposed on a shared substrate of the tunable laser ; and applying, by the voltage-mode bias sub-circuit , an adjustable bias voltage to bias a diode voltage at the anode of the reflector-section diode in order to cause the tunable laser to operate in a sub-threshold region or a reverse-biased region; and when the mode control signal has the current-mode state: connecting, by the laser biasing circuit , the current-mode bias sub-circuit to the anode of the reflector-section diode ; and delivering, by the current-mode bias sub-circuit , an adjustable bias current to the anode of the reflector-section diode in order to cause the tunable laser to operate in a linear region. receiving, at a laser biasing circuit , a mode control signal having a current-mode state or a voltage-mode state, the laser biasing circuit comprising a current-mode bias sub-circuit and a voltage-mode bias sub-circuit ; when the mode control signal has the voltage-mode state: connecting, by the laser biasing circuit , the voltage-mode bias sub-circuit to an anode of a reflector-section diode , the reflector-section diode disposed on a shared substrate of the tunable laser ; and applying, by the voltage-mode bias sub-circuit , an adjustable bias voltage to bias a diode voltage at the anode of the reflector-section diode in order to cause the tunable laser to operate in a sub-threshold region or a reverse-biased region; and connecting, by the laser biasing circuit , the voltage-mode bias sub-circuit to an anode of a reflector-section diode , the reflector-section diode disposed on a shared substrate of the tunable laser ; and applying, by the voltage-mode bias sub-circuit , an adjustable bias voltage to bias a diode voltage at the anode of the reflector-section diode in order to cause the tunable laser to operate in a sub-threshold region or a reverse-biased region; and when the mode control signal has the current-mode state: connecting, by the laser biasing circuit , the current-mode bias sub-circuit to the anode of the reflector-section diode ; and delivering, by the current-mode bias sub-circuit , an adjustable bias current to the anode of the reflector-section diode in order to cause the tunable laser to operate in a linear region. connecting, by the laser biasing circuit , the current-mode bias sub-circuit to the anode of the reflector-section diode ; and delivering, by the current-mode bias sub-circuit , an adjustable bias current to the anode of the reflector-section diode in order to cause the tunable laser to operate in a linear region.
A polyester resin composition for a hot melt adhesive, which comprises an acid component comprising an aromatic dicarboxylic acid and an aliphatic acid; and an alcohol component comprising an aliphatic dihydric alcohol and a polyether-based polyol, wherein the acid component comprises 50 to 85% by mole of the aromatic dicarboxylic acid and 15 to 50% by mole of the aliphatic acid based on the total number of moles of the acid component, and the alcohol component comprises 90 to 98% by mole of the aliphatic dihydric alcohol and 2 to 10% by mole of the polyether-based polyol based on the total number of moles of the alcohol component, wherein the alcohol component comprises 1 to 5% by mole of polyethylene glycol and 1 to 5% by mole of polytetramethylene glycol based on the total number of moles of the alcohol component. wherein the acid component comprises 50 to 85% by mole of the aromatic dicarboxylic acid and 15 to 50% by mole of the aliphatic acid based on the total number of moles of the acid component, and the alcohol component comprises 90 to 98% by mole of the aliphatic dihydric alcohol and 2 to 10% by mole of the polyether-based polyol based on the total number of moles of the alcohol component, wherein the alcohol component comprises 1 to 5% by mole of polyethylene glycol and 1 to 5% by mole of polytetramethylene glycol based on the total number of moles of the alcohol component.
A method of determining an aspiration and/or dispense, comprising: providing a bio-liquid container ; either aspirating or dispensing various assay components from or to the bio-liquid container ; characterized by the following steps: - capturing an image at a point when a pipette is immersed in the bio-liquid container ; - processing the image by an image processor to determine and/or verify a depth of insertion (Di) of the pipette ; - capturing at least one or more images at one or more points in time during aspirating or during dispensing; - determining the aspirated or dispensed volume based upon the at least two images that are processed by a computing algorithm of the image processor to determine and/or verify various height (Hc, H1, H2, Hr) and/or volume changes due to the aspiration or dispensing of various assay components, and - determining whether the aspirating or the dispensing is sufficient based upon the at least two images. providing a bio-liquid container ; either aspirating or dispensing various assay components from or to the bio-liquid container ; characterized by the following steps: - capturing an image at a point when a pipette is immersed in the bio-liquid container ; - processing the image by an image processor to determine and/or verify a depth of insertion (Di) of the pipette ; - capturing at least one or more images at one or more points in time during aspirating or during dispensing; - determining the aspirated or dispensed volume based upon the at least two images that are processed by a computing algorithm of the image processor to determine and/or verify various height (Hc, H1, H2, Hr) and/or volume changes due to the aspiration or dispensing of various assay components, and - determining whether the aspirating or the dispensing is sufficient based upon the at least two images. - capturing an image at a point when a pipette is immersed in the bio-liquid container ; - processing the image by an image processor to determine and/or verify a depth of insertion (Di) of the pipette ; - capturing at least one or more images at one or more points in time during aspirating or during dispensing; - determining the aspirated or dispensed volume based upon the at least two images that are processed by a computing algorithm of the image processor to determine and/or verify various height (Hc, H1, H2, Hr) and/or volume changes due to the aspiration or dispensing of various assay components, and - determining whether the aspirating or the dispensing is sufficient based upon the at least two images.
A method at a communication network comprising a content provider node and a broadcast-multicast service node, wherein the content provider node needs to deliver a message to a group of user equipments via the broadcast multicast service node, the method comprising: obtaining , by the content provider node, one or more group identifiers; and sending , by the content provider node, the one or more group identifiers to the broadcast-multicast service node wherein the one or more group identifiers are used by the broadcast-multicast service node to generate a group filter which is included in service announcement information for sending to one or more user equipments in the communication network thereby allowing the message to be delivered to said group of user equipments. obtaining , by the content provider node, one or more group identifiers; and sending , by the content provider node, the one or more group identifiers to the broadcast-multicast service node wherein the one or more group identifiers are used by the broadcast-multicast service node to generate a group filter which is included in service announcement information for sending to one or more user equipments in the communication network thereby allowing the message to be delivered to said group of user equipments.
Planetary gear speed reducer of a turbine engine comprising a planet carrier with an impeller , said impeller being intended to be integral in rotation with said planet carrier and to be set into rotation around an axis A of said reducer, said impeller having an annular shape around said axis and comprising means for supporting axes of rotation of planets of said reducer, said impeller comprising means for lubricating teeth of said planets and bearings of said axes, said lubrication means comprising an annular groove located on the internal periphery of said impeller and opening radially towards the inside, said groove being connected to lubricant supply and/or spray means, characterised in that the impeller comprises dynamic annular sealing means located at the inner periphery of said impeller, on either side of said groove, and configured to interact with a stator of the reducer or of the turbine engine intended to extend inside of and coaxially with the latter.
A premixer injector (300; 400; 500) operable to mix a fuel and an air, the premixer injector (300; 400; 500) comprising: an inlet end receiving air which is split to a primary air flow and a secondary air flow at the inlet end ; an outlet end ; a first wall enclosing a premixer duct having the inlet end for an admission of the primary air flow into the premixer duct and the outlet end for a discharge of a mixture of fuel and air, the first wall including a plurality of apertures circumferentially separated around the first wall and axially separated along the first wall , each aperture passing through the first wall ; a fuel lance disposed in the premixer duct at the inlet end , the fuel lance operable to inject the fuel into the premixer duct ; and a second wall positioned to at least partially surround the first wall defining a secondary duct therebetween, the second wall having an inlet end for an admission of the secondary air flow into the secondary duct , wherein the secondary air flow enters the premixer duct via the plurality of apertures and is added to the mixture of fuel and air, wherein the secondary air flow are mixed together with the mixture of the fuels and the primary air flow in the premixer duct and the mixture of the fuels and the primary air flow and the secondary air flow are discharged out of the premixer injector (300; 400; 500) at the outlet end to be ignited to form a flame . an inlet end receiving air which is split to a primary air flow and a secondary air flow at the inlet end ; an outlet end ; a first wall enclosing a premixer duct having the inlet end for an admission of the primary air flow into the premixer duct and the outlet end for a discharge of a mixture of fuel and air, the first wall including a plurality of apertures circumferentially separated around the first wall and axially separated along the first wall , each aperture passing through the first wall ; a fuel lance disposed in the premixer duct at the inlet end , the fuel lance operable to inject the fuel into the premixer duct ; and a second wall positioned to at least partially surround the first wall defining a secondary duct therebetween, the second wall having an inlet end for an admission of the secondary air flow into the secondary duct , wherein the secondary air flow enters the premixer duct via the plurality of apertures and is added to the mixture of fuel and air, wherein the secondary air flow are mixed together with the mixture of the fuels and the primary air flow in the premixer duct and the mixture of the fuels and the primary air flow and the secondary air flow are discharged out of the premixer injector (300; 400; 500) at the outlet end to be ignited to form a flame .
A non-burning type flavor inhaler comprising: a housing having a housing cavity ; an atomizer configured to atomize an aerosol source without burning; a sensor configured to detect a change in inner pressure of the housing cavity ; a controller configured to control at least the atomizer ; a first configuration for changing the inner pressure of the housing cavity by an inhalation action or a blow action; and a second configuration which includes an aperture , an elastic member , a slide member , or a moveable member , the aperture , the elastic member , the slide member , and the movable member being configured to change, alone or in combination, the inner pressure of the housing cavity by a predetermined action other than the inhalation action and the blow action, wherein the first configuration includes a mouthpiece aperture provided on a mouthpiece end of the housing , and the controller is configured to distinguish the change of the inner pressure of the housing cavity caused by the inhalation action from the change of the inner pressure of the housing cavity caused by the predetermined action, and to perform an atomizing control for starting or terminating atomization of the aerosol source, based on at least the change of the inner pressure of the housing cavity caused by the inhalation action. a housing having a housing cavity ; an atomizer configured to atomize an aerosol source without burning; a sensor configured to detect a change in inner pressure of the housing cavity ; a controller configured to control at least the atomizer ; a first configuration for changing the inner pressure of the housing cavity by an inhalation action or a blow action; and a second configuration which includes an aperture , an elastic member , a slide member , or a moveable member , the aperture , the elastic member , the slide member , and the movable member being configured to change, alone or in combination, the inner pressure of the housing cavity by a predetermined action other than the inhalation action and the blow action, wherein the first configuration includes a mouthpiece aperture provided on a mouthpiece end of the housing , and the controller is configured to distinguish the change of the inner pressure of the housing cavity caused by the inhalation action from the change of the inner pressure of the housing cavity caused by the predetermined action, and to perform an atomizing control for starting or terminating atomization of the aerosol source, based on at least the change of the inner pressure of the housing cavity caused by the inhalation action.