mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device comprising: a device body and an insufflation fitting coupled to and extending from the device body ; the insufflation fitting comprising an annular low-flow fitting , an annular high-flow fitting , and a single flow passageway , the single flow passageway defining a flow path for insufflation gas flow through the insufflation fitting into the device body ; the annular low-flow fitting comprising: a radially outward surface generally reverse of a first inner sealing surface , the first inner sealing surface defining at least a portion of the single flow passageway ; and a coupling portion on the radially outward surface : the annular high-flow fitting comprising: a second inner sealing surface extending around and radially offset from the radially outward surface of the annular low-flow fitting ; a second radially outer surface generally reverse of the second inner sealing surface; and a coupling portion on the second radially outer surface; a low-flow connector comprising a radially outer male sealing surface configured for sealing engagement with the first inner sealing surface; a high-flow connector configured to surround the annular low-flow fitting and comprising a radially outer male sealing surface configured for sealing engagement with the second inner sealing surface. a device body and an insufflation fitting coupled to and extending from the device body ; the insufflation fitting comprising an annular low-flow fitting , an annular high-flow fitting , and a single flow passageway , the single flow passageway defining a flow path for insufflation gas flow through the insufflation fitting into the device body ; the annular low-flow fitting comprising: a radially outward surface generally reverse of a first inner sealing surface , the first inner sealing surface defining at least a portion of the single flow passageway ; and a coupling portion on the radially outward surface : a radially outward surface generally reverse of a first inner sealing surface , the first inner sealing surface defining at least a portion of the single flow passageway ; and a coupling portion on the radially outward surface : the annular high-flow fitting comprising: a second inner sealing surface extending around and radially offset from the radially outward surface of the annular low-flow fitting ; a second radially outer surface generally reverse of the second inner sealing surface; and a coupling portion on the second radially outer surface; a second inner sealing surface extending around and radially offset from the radially outward surface of the annular low-flow fitting ; a second radially outer surface generally reverse of the second inner sealing surface; and a coupling portion on the second radially outer surface; a low-flow connector comprising a radially outer male sealing surface configured for sealing engagement with the first inner sealing surface; a high-flow connector configured to surround the annular low-flow fitting and comprising a radially outer male sealing surface configured for sealing engagement with the second inner sealing surface.
An automotive lamp , comprising: a driving direction sensing unit configured to sense a driving direction of a vehicle; a driving direction indicating unit configured to be disposed on at least one side of the front or back of the vehicle and configured to indicate the driving direction of the vehicle; and a control unit configured to operate the driving direction indicating unit based on the sensed driving direction, wherein the driving direction indicating unit includes a first lamp module , and a second lamp module which has luminous intensity greater than that of the first lamp module and is linked with the first lamp module to form a road pattern (P2, P4) on at least one side around the vehicle to indicate the driving direction of the vehicle, wherein the road pattern (P2, P4) includes at least one light irradiation pattern (P21, P22, P23; P41, P42, P43) disposed in a predetermined direction from the vehicle, wherein the second lamp module is coupled with the first lamp module so that, when the first lamp module turns on, the second lamp module forms the road pattern (P2, P4), wherein the driving direction indicating unit is disposed in any one of a plurality of cavities defined by a plurality of lamps used for different purposes, and the first lamp module and the second lamp module share a lens that corresponds to the cavity in which the driving direction indicating unit is installed, and wherein a vertical light irradiation angle of the second lamp module is in the range of about 15 to 45 degrees with respect to the road surface, when automotive lamp is mounted to the vehicle. a driving direction sensing unit configured to sense a driving direction of a vehicle; a driving direction indicating unit configured to be disposed on at least one side of the front or back of the vehicle and configured to indicate the driving direction of the vehicle; and a control unit configured to operate the driving direction indicating unit based on the sensed driving direction, wherein the driving direction indicating unit includes a first lamp module , and a second lamp module which has luminous intensity greater than that of the first lamp module and is linked with the first lamp module to form a road pattern (P2, P4) on at least one side around the vehicle to indicate the driving direction of the vehicle, wherein the road pattern (P2, P4) includes at least one light irradiation pattern (P21, P22, P23; P41, P42, P43) disposed in a predetermined direction from the vehicle, wherein the second lamp module is coupled with the first lamp module so that, when the first lamp module turns on, the second lamp module forms the road pattern (P2, P4), wherein the driving direction indicating unit is disposed in any one of a plurality of cavities defined by a plurality of lamps used for different purposes, and the first lamp module and the second lamp module share a lens that corresponds to the cavity in which the driving direction indicating unit is installed, and wherein a vertical light irradiation angle of the second lamp module is in the range of about 15 to 45 degrees with respect to the road surface, when automotive lamp is mounted to the vehicle.
A system for modulating an output current level of a bidirectional power converter connected to a grid to ensure an adequate level of power is provided to or from a motor drive, the system comprising: the bidirectional power converter interfacing the motor drive and the power grid , the motor drive connected to a direct current side of the power converter, the grid connected to an alternating current side of the power converter, a current controller arranged to receive a reference current input indicative of a current flowing through the power converter and arranged to output an adjusted grid current value, wherein the current controller is configured to monitor a reference signal provided by a voltage controller of the direct current link of the motor drive and a grid side current; a parameter calculation module that is configured to calculate a plurality of gain values based at least in part on a phase margin of the current controller, a cross-over frequency of the current controller, and a current of an alternating current side of the power converter, wherein the current controller generates the adjusted grid current value by applying one or more of the gain values to the error between the grid side current and the reference current value; a perturbation module that is configured to provide a sinusoidal signal, at a single frequency which is a cross-over frequency of the current controller , wherein the adjusted grid current value output by the current controller is modulated with the sinusoidal signal to provide a duty cycle to regulate the power converter. the bidirectional power converter interfacing the motor drive and the power grid , the motor drive connected to a direct current side of the power converter, the grid connected to an alternating current side of the power converter, a current controller arranged to receive a reference current input indicative of a current flowing through the power converter and arranged to output an adjusted grid current value, wherein the current controller is configured to monitor a reference signal provided by a voltage controller of the direct current link of the motor drive and a grid side current; a parameter calculation module that is configured to calculate a plurality of gain values based at least in part on a phase margin of the current controller, a cross-over frequency of the current controller, and a current of an alternating current side of the power converter, wherein the current controller generates the adjusted grid current value by applying one or more of the gain values to the error between the grid side current and the reference current value; a perturbation module that is configured to provide a sinusoidal signal, at a single frequency which is a cross-over frequency of the current controller , wherein the adjusted grid current value output by the current controller is modulated with the sinusoidal signal to provide a duty cycle to regulate the power converter.
Line-scanning microscope , comprising a light source for illuminating a sample , a scanning device configured to scan the sample line by line with a light beam coming from the light source , and a light detector arranged in the line-scanning microscope such that it detects light that is emitted by the sample and/or transmitted and/or reflected, wherein the light detector comprises a line array of avalanche semiconductor detectors that is configured such that it can record image points of an entire image line at the same time, wherein the light detector has an electronic actuation circuit having a parallel counter , wherein the parallel counter is configured to read in parallel light pulses detected by the avalanche semiconductor detectors , and wherein the parallel counter is set up to add up during a predetermined counting time the light pulses detected by the avalanche semiconductor detectors , characterized in that the actuation circuit is configured to operate the avalanche semiconductor detectors in a Geiger mode with internal charge amplification and/or in a linear mode, wherein the light detector comprises at least one first line array and at least one second line array , wherein in each case at least one first avalanche semiconductor detector of the first line array and one second avalanche semiconductor detector of the second line array are assigned to one another, wherein the actuation circuit is configured to capture the sum of the light pulses detected by the first avalanche semiconductor detector and by the second avalanche semiconductor detector .
A hollow waveguide with a transition device comprising: an elongated rectangular structure having a height and a width and extending along a first longitudinal axis (L), an inlet wall and an interior volume extending from the inlet wall along the first longitudinal axis (L), wherein the inlet wall is configured to receive a transmission line comprising an antenna forming a proximal end proximate to the inlet wall and a distal end configured to extend into the rectangular structure along the first longitudinal axis (L), wherein the hollow waveguide further comprises a capacitive channel formed through the width of the rectangular structure to form a cutout portion extending transverse to the first longitudinal axis (L), the capacitive channel at least partially bisecting the interior volume of the hollow waveguide along the longitudinal axis (L) and comprising: a first wall , a second wall , and a base portion forming a tuning surface , wherein the tuning surface is configured to extend along a length of the antenna in a spaced configuration parallel to the first longitudinal axis (L). an inlet wall and an interior volume extending from the inlet wall along the first longitudinal axis (L), wherein the inlet wall is configured to receive a transmission line comprising an antenna forming a proximal end proximate to the inlet wall and a distal end configured to extend into the rectangular structure along the first longitudinal axis (L), wherein the hollow waveguide further comprises a capacitive channel formed through the width of the rectangular structure to form a cutout portion extending transverse to the first longitudinal axis (L), the capacitive channel at least partially bisecting the interior volume of the hollow waveguide along the longitudinal axis (L) and comprising: a first wall , a second wall , and a base portion forming a tuning surface , wherein the tuning surface is configured to extend along a length of the antenna in a spaced configuration parallel to the first longitudinal axis (L).
A refrigerator comprising: a main body having a front side thereof open; and a door configured to open and close the open front side of the main body , wherein the door includes: a door frame; and a door panel including a panel body and first and second fixers provided at one surface of the panel body ; and a door body on which the door panel is separably mounted and filled by a heat insulating member, the first fixer is coupled to the door frame, and the door body includes a cover fixer concavely formed to have the second fixer inserted thereinto and including a hole that is open toward an inside of the door body wherein the cover fixer includes: an accommodation space into which the second fixer is accommodated; and a fixer cap configured to cover the hole that is open toward the inside of the door body . a main body having a front side thereof open; and a door configured to open and close the open front side of the main body , wherein the door includes: a door frame; and a door panel including a panel body and first and second fixers provided at one surface of the panel body ; and a door body on which the door panel is separably mounted and filled by a heat insulating member, the first fixer is coupled to the door frame, and the door body includes a cover fixer concavely formed to have the second fixer inserted thereinto and including a hole that is open toward an inside of the door body wherein the cover fixer includes: an accommodation space into which the second fixer is accommodated; and a fixer cap configured to cover the hole that is open toward the inside of the door body . a door frame; and a door panel including a panel body and first and second fixers provided at one surface of the panel body ; and a door body on which the door panel is separably mounted and filled by a heat insulating member, the first fixer is coupled to the door frame, and the door body includes a cover fixer concavely formed to have the second fixer inserted thereinto and including a hole that is open toward an inside of the door body wherein the cover fixer includes: an accommodation space into which the second fixer is accommodated; and a fixer cap configured to cover the hole that is open toward the inside of the door body . an accommodation space into which the second fixer is accommodated; and a fixer cap configured to cover the hole that is open toward the inside of the door body .
Cleaning device , intended to spray at least one fluid towards a surface to be cleaned of a motor vehicle, such as an optical sensor of an optical detection system, the cleaning device comprising at least: - a hollow body closed at one end by an inlet flange , - a movable piston that slides along a longitudinal axis (X) in the hollow body and that bears, at a first end, a cleaning fluid dispensing element , the piston being movable between an extreme retracted position and an extreme deployed position, - a rod secured to the inlet flange which extends parallel to the longitudinal axis (X) and along which the movable piston slides, - means for conveying cleaning fluid through the hollow body, from a fluid intake end-fitting to the dispensing element , comprising at least one intake chamber whose volume varies as a function of the displacement of the movable piston and a dispensing duct formed in the movable piston , - the piston and the rod being configured to provide between them at least one cleaning fluid flow path , characterized in that the at least one flow path is formed by a groove formed in the movable piston . - a hollow body closed at one end by an inlet flange , - a movable piston that slides along a longitudinal axis (X) in the hollow body and that bears, at a first end, a cleaning fluid dispensing element , the piston being movable between an extreme retracted position and an extreme deployed position, - a rod secured to the inlet flange which extends parallel to the longitudinal axis (X) and along which the movable piston slides, - means for conveying cleaning fluid through the hollow body, from a fluid intake end-fitting to the dispensing element , comprising at least one intake chamber whose volume varies as a function of the displacement of the movable piston and a dispensing duct formed in the movable piston , - the piston and the rod being configured to provide between them at least one cleaning fluid flow path , characterized in that the at least one flow path is formed by a groove formed in the movable piston .
A method for refining a magnetic domain of a grain-oriented electrical steel strip, comprising a steel strip supporting roll position adjusting step of controlling a position of the steel strip in a vertical direction while supporting the steel strip proceeding along a production line, a laser irradiating step of forming a groove on a surface of the steel strip by irradiating a laser beam onto the surface of the steel strip to melt the steel strip, a detecting step of detecting a defect in the groove formed on the surface of the steel strip while the steel strip proceeds, and a correcting step of adjusting a laser focal point position of the steel strip according to a result measured in the detecting step; wherein the correcting step includes a step of setting a depth of the groove of a steady state as a reference value, a calculating step of comparing a detected depth of the groove with the reference value, and a position adjusting step of adjusting a position of a steel strip supporting roll or a position of a condensing mirror in accordance with a depth deviation of the groove detected in the calculating step to adjust a focus position with respect to the steel strip, and wherein in the detecting step, the groove of the steel strip is measured by a leakage magnetic flux measuring method. a steel strip supporting roll position adjusting step of controlling a position of the steel strip in a vertical direction while supporting the steel strip proceeding along a production line, a laser irradiating step of forming a groove on a surface of the steel strip by irradiating a laser beam onto the surface of the steel strip to melt the steel strip, a detecting step of detecting a defect in the groove formed on the surface of the steel strip while the steel strip proceeds, and a correcting step of adjusting a laser focal point position of the steel strip according to a result measured in the detecting step; wherein the correcting step includes a step of setting a depth of the groove of a steady state as a reference value, a calculating step of comparing a detected depth of the groove with the reference value, and a position adjusting step of adjusting a position of a steel strip supporting roll or a position of a condensing mirror in accordance with a depth deviation of the groove detected in the calculating step to adjust a focus position with respect to the steel strip, and wherein in the detecting step, the groove of the steel strip is measured by a leakage magnetic flux measuring method.
A wearable article comprising a sensor device , the sensor device comprising: a sensor module ; a buffer arranged to store time-series sensor data sensed by the sensor module ; and an input-output interface arranged to send and receive data over a bidirectional line; and characterised in that the sensor device further comprises a programmable non-volatile memory arranged to store an identifier for the sensor device, wherein the memory is an erasable and reprogrammable non-volatile memory , and wherein the input-output interface is arranged to receive an identifier over the bidirectional line and write the identifier to the erasable and programmable memory as the identifier for the sensor device . a sensor module ; a buffer arranged to store time-series sensor data sensed by the sensor module ; and an input-output interface arranged to send and receive data over a bidirectional line; and characterised in that the sensor device further comprises a programmable non-volatile memory arranged to store an identifier for the sensor device, wherein the memory is an erasable and reprogrammable non-volatile memory , and wherein the input-output interface is arranged to receive an identifier over the bidirectional line and write the identifier to the erasable and programmable memory as the identifier for the sensor device .
Tool for injection-molding plastic parts as injection-molded parts , comprising a first cavity-forming mold insert for shaping an injection-molded part and a mold core , the mold core being designed as a cutting knife for forming a predetermined breaking point in the injection-molded part , characterized in that the mold core is rotatably mounted to create a circular or arcuate predetermined breaking point and in that the mold core has an end stop surface for support against the material of the injection molded part to prevent the blade from sinking more strongly into the material when the predetermined breaking point is inserted.
Tyre for passenger car or utility vehicle comprising a tread having a tread surface and a plurality of studs anchored in the tread and projecting out from the tread surface , the mean surface density of studs on the tread surface being at least equal to 6.7 studs per dm 2 , characterized in that the static striking force of each stud of only a part of the plurality of studs is comprised in a range from 120 N to 170 N, the static striking force of a stud being the vertical load applied by this stud when the tyre is compressed onto a flat roadway under an internal inflation pressure equal to 2 bar and under a load corresponding to 70% of the maximum load capacity of the tyre.