mhurhangee/patent-ind-claim-en huggingface dataset:
A device, comprising: a first tube comprising a scoopula at a distal end thereof, the scoopula being configured to press against a wall of a vascular structure to isolate a work area within the vascular structure from areas proximal and distal thereto; and a second tube, co-axially disposed within the first tube and comprising an articulable beak at a distal end thereof the articulable beak being configured to selectively open and close against the scoopula and to cut tissue within the isolated work area; characterised by an expandable balloon that is mounted coaxially within the scoopula and that is configured to selectively expand away from the scoopula to the wall of the vascular structure; an isolation sleeve , the isolation sleeve being disposed over and comprising a circumferential seal to a distal end of the expandable balloon; an over-sleeve , co-axially disposed over and attached to the distal end of the isolation sleeve, the over-sleeve being configured to retract in a proximal direction, to release the circumferential seal of the isolation sleeve to the distal end of the expandable balloon, to peel back the isolation sleeve such that a portion of an initially interior surface thereof becomes a portion of an outer surface thereof and to gradually expose the expandable balloon to the vascular structure as the over-sleeve is retracted. a first tube comprising a scoopula at a distal end thereof, the scoopula being configured to press against a wall of a vascular structure to isolate a work area within the vascular structure from areas proximal and distal thereto; and a second tube, co-axially disposed within the first tube and comprising an articulable beak at a distal end thereof the articulable beak being configured to selectively open and close against the scoopula and to cut tissue within the isolated work area; an expandable balloon that is mounted coaxially within the scoopula and that is configured to selectively expand away from the scoopula to the wall of the vascular structure; an isolation sleeve , the isolation sleeve being disposed over and comprising a circumferential seal to a distal end of the expandable balloon; an over-sleeve , co-axially disposed over and attached to the distal end of the isolation sleeve, the over-sleeve being configured to retract in a proximal direction, to release the circumferential seal of the isolation sleeve to the distal end of the expandable balloon, to peel back the isolation sleeve such that a portion of an initially interior surface thereof becomes a portion of an outer surface thereof and to gradually expose the expandable balloon to the vascular structure as the over-sleeve is retracted.
A luminaire comprising a surface tile and a lighting device , the lighting device being arranged proximal to an edge of the surface tile , and the surface tile having a surface area larger than, wherein the lighting device comprises: - a light guide having an elongate surface arrangement extending between opposing end surfaces , and - a light source at one of the end surfaces of the light guide and arranged to emit its luminous output into the light guide through said end surface , characterized in that the elongate surface arrangement of the light guide comprises a first surface portion and an opposing second surface portion , wherein the first surface portion comprises a first light outcoupling structure and a second light outcoupling structure spatially separated from each other, each extending in the elongation direction of the elongate surface arrangement , wherein the first light outcoupling structure is dimensioned to generate a first illumination profile from the second surface portion that has a first angular distribution, wherein the second light outcoupling structure is dimensioned to generate a second illumination profile from the second surface portion that is spatially distinct to the first illumination profile and has a second angular distribution, and wherein the first illumination profile and the second illumination profile are projected across the surface area of the surface tile to illuminate different regions of the surface tile and in combination provide a uniform illumination of the surface tile . wherein the lighting device comprises: - a light guide having an elongate surface arrangement extending between opposing end surfaces , and - a light source at one of the end surfaces of the light guide and arranged to emit its luminous output into the light guide through said end surface , - a light guide having an elongate surface arrangement extending between opposing end surfaces , and - a light source at one of the end surfaces of the light guide and arranged to emit its luminous output into the light guide through said end surface , characterized in that the elongate surface arrangement of the light guide comprises a first surface portion and an opposing second surface portion , wherein the first surface portion comprises a first light outcoupling structure and a second light outcoupling structure spatially separated from each other, each extending in the elongation direction of the elongate surface arrangement , wherein the first light outcoupling structure is dimensioned to generate a first illumination profile from the second surface portion that has a first angular distribution, wherein the second light outcoupling structure is dimensioned to generate a second illumination profile from the second surface portion that is spatially distinct to the first illumination profile and has a second angular distribution, and wherein the first illumination profile and the second illumination profile are projected across the surface area of the surface tile to illuminate different regions of the surface tile and in combination provide a uniform illumination of the surface tile .
A communication control device comprising: a setting unit configured to set different timings at each of which a predetermined signal is transmitted only from a different one of a plurality of base stations , said plurality of base stations having an identical cell ID and being configured to transmit the same cell-specific reference signal, wherein the predetermined signal comprises a radio frame subframe with the reference signal disposed in a data region of the subframe, and during the timing the other base stations of the plurality of base stations transmits a subframe without the cell-specific reference signal disposed in the data region of the subframe, wherein the timing corresponds to a subframe, and wherein the setting unit sets the subframe for transmission by the other base stations as an almost blank subframe, ABS, wherein in the almost blank subframe, user data is not transmitted in the data region; and a determining unit configured to, based on reception results of a communication device at the timings, determine a combination of base stations from the plurality of base stations, the combination of the base stations being used for transmitting a signal to the communication device. a setting unit configured to set different timings at each of which a predetermined signal is transmitted only from a different one of a plurality of base stations , said plurality of base stations having an identical cell ID and being configured to transmit the same cell-specific reference signal, wherein the predetermined signal comprises a radio frame subframe with the reference signal disposed in a data region of the subframe, and during the timing the other base stations of the plurality of base stations transmits a subframe without the cell-specific reference signal disposed in the data region of the subframe, wherein the timing corresponds to a subframe, and wherein the setting unit sets the subframe for transmission by the other base stations as an almost blank subframe, ABS, wherein in the almost blank subframe, user data is not transmitted in the data region; and a determining unit configured to, based on reception results of a communication device at the timings, determine a combination of base stations from the plurality of base stations, the combination of the base stations being used for transmitting a signal to the communication device.
Distributor device for generating an aerosol comprising both gas and sealant , wherein the distributor device has - at least one gas connector for connection to at least one compressed-air source , - at least one sealant connector for connection to at least one sealant container , and - one or more than one connecting element for connection to a pneumatic vehicle tyre or to an inflatable technical rubber article, characterized in that the distributor device has a metering unit for metering the sealant quantity fed to the distributor device , wherein the metering unit has at least one feed opening for feeding a sealant into the distributor device, wherein the metering unit is designed to satisfy the following condition or formula : D mm ⋅ a 3 ≤ 10 mm formula , which comprises the following parameters: D mm : diameter of the feed openings [mm] and a: number of feed openings . - at least one gas connector for connection to at least one compressed-air source , - at least one sealant connector for connection to at least one sealant container , and - one or more than one connecting element for connection to a pneumatic vehicle tyre or to an inflatable technical rubber article, D mm : diameter of the feed openings [mm] and a: number of feed openings .
Apparatus comprising an injector and an optical sensor changing a supplied optical signal in the injector in terms of at least one of its properties in dependence on the pressure and/or force, characterized in that the optical sensor has an optical fibre with a fibre Bragg grating , wherein the optical fibre is arranged anchored in the injector in order to produce a first optical signal when light is supplied from a light source into the optical fibre , with the first optical signal, as a wavelength change of light reflected at the fibre Bragg grating compared with the supplied light, being a measure of a force from a pressure chamber acting on the optical fibre , wherein an effective surface that is deformable in a pressure-dependent manner is formed in the injector in order to feed light from the optical fibre back into the optical fibre in dependence on the degree of deformation of the effective surface , wherein the intensity of the fed-back light, as a second optical signal, is a measure of a pressure from the pressure chamber deforming the effective surface .
A wearable audio device comprising: an acoustic transducer comprising a sound-radiating surface for providing an audio output; a controller coupled with the acoustic transducer; a printed circuit board , PCB, coupled with the controller; and a capacitive touch interface coupled with the PCB, the capacitive touch interface comprising: a contact surface for receiving a touch command corresponding to a linear swiping gesture of a finger of a user along the contact surface; characterised by a set of at least two electrodes underlying the contact surface for detecting the touch command at the contact surface, wherein neighboring electrodes in the set share a border comprising an arcuate profile across the contact surface so as to enhance slide angle detection of the touch command. an acoustic transducer comprising a sound-radiating surface for providing an audio output; a controller coupled with the acoustic transducer; a printed circuit board , PCB, coupled with the controller; and a capacitive touch interface coupled with the PCB, the capacitive touch interface comprising: a contact surface for receiving a touch command corresponding to a linear swiping gesture of a finger of a user along the contact surface; characterised by a set of at least two electrodes underlying the contact surface for detecting the touch command at the contact surface, wherein neighboring electrodes in the set share a border comprising an arcuate profile across the contact surface so as to enhance slide angle detection of the touch command. a contact surface for receiving a touch command corresponding to a linear swiping gesture of a finger of a user along the contact surface; characterised by a set of at least two electrodes underlying the contact surface for detecting the touch command at the contact surface, wherein neighboring electrodes in the set share a border comprising an arcuate profile across the contact surface so as to enhance slide angle detection of the touch command.
A blood coagulation system analysis device comprising: a pair of electrodes (E1, E2); application means adapted to apply alternating voltages of a first frequency and a second frequency different from the first frequency to the pair of electrodes (E1, E2) at predetermined time intervals, wherein blood, on which acts an anticoagulation effect, is positioned between and contacted with the pair of electrodes (E1, E2); determining means adapted to determine that the anticoagulation effect has ended; measurement means adapted to measure, at time intervals after the anticoagulant effect acting on the blood has ended, permittivities of the blood corresponding to the first and second frequency; and analysis means adapted to analyze a degree of hypercoagulability or a degree of coagulability by using the permittivities measured by the measurement means , wherein the analysis means is adapted to calculate a difference of a first change ratio calculated at said first frequency and of a second change ratio calculated at said second frequency, wherein a change ratio is defined as a ratio between the measured permittivity within a predetermined time after the anticoagulation effect has ended and the measured permittivity at a reference time, and wherein the analysis means uses the difference of said two change ratios, representative of a temporal change in permittivity, to analyze the the degree of the hypercoagulability or the degree of coagulability. a pair of electrodes (E1, E2); application means adapted to apply alternating voltages of a first frequency and a second frequency different from the first frequency to the pair of electrodes (E1, E2) at predetermined time intervals, wherein blood, on which acts an anticoagulation effect, is positioned between and contacted with the pair of electrodes (E1, E2); determining means adapted to determine that the anticoagulation effect has ended; measurement means adapted to measure, at time intervals after the anticoagulant effect acting on the blood has ended, permittivities of the blood corresponding to the first and second frequency; and analysis means adapted to analyze a degree of hypercoagulability or a degree of coagulability by using the permittivities measured by the measurement means , wherein the analysis means is adapted to calculate a difference of a first change ratio calculated at said first frequency and of a second change ratio calculated at said second frequency,
Planetary transmission having a housing and at least one planetary stage , which comprises at least one sun gear which is provided on a sun gear shaft that is rotatably mounted on the housing , at least one planet gear carrier that is rotatably mounted on the housing , at least two planet gear pins which are fastened to the planet gear carrier and on each of which a planet gear is rotatably held, and at least one ring gear fastened non-rotationally within the housing and having an internal toothing and with which the planet gears are in engagement, and characterised in that an FOFW system is provided which comprises an interrogation unit , at least one locally fixed antenna (24; 30) electrically connected to the interrogation unit and arranged within the housing , at least two FOFW sensors fastened to the planet gear pins and at least a number of co-rotating antennae fastened to the planet gear carrier corresponding to the number of planet gear pins , said antennae each being electrically connected to at least one of the FOFW sensors and arranged and configured such that they transfer measurement data acquired by the FOFW sensors to the at least one locally fixed antenna (24; 30), and the FOFW sensors are in each case fastened between side walls of the planet gear carrier on the planetary gear pins .
A hair cutting apparatus comprising: - a cutting element configured to cut hair, - a motor configured to drive the cutting element for cutting the hair when powered by a motor current , - a hair-cutting detector configured to detect a hair-cutting action of the cutting element, and - a cutting indicator configured to indicate a detected hair-cutting action of the cutting element, wherein the cutting indicator comprises a light indicator controlled by the hair-cutting detector and configured to be activated to instantaneously indicate whether a hair-cutting action of the cutting element is actually detected by the hair-cutting detector. - a cutting element configured to cut hair, - a motor configured to drive the cutting element for cutting the hair when powered by a motor current , - a hair-cutting detector configured to detect a hair-cutting action of the cutting element, and - a cutting indicator configured to indicate a detected hair-cutting action of the cutting element, wherein the cutting indicator comprises a light indicator controlled by the hair-cutting detector and configured to be activated to instantaneously indicate whether a hair-cutting action of the cutting element is actually detected by the hair-cutting detector.
A method, comprising: obtaining a seismic dataset that is separated into subsets according to predetermined subsurface reflection angle ranges; performing, with a computer, an acoustic full wavefield inversion process on each of the subsets, respectively, to invert for density and generate respective density models; generating acoustic impedances for each of the subsets, as a function of reflection angle, using the respective density models; transforming, using a computer, the acoustic impedances for each of the subsets into reflectivity sections, wherein the transforming includes normalizing the reflectivity sections by their respective bandwidth; and wherein said bandwidths are obtained by: using, for each of the reflectivity sections, a Fourier transform, discrete Fourier transform, or a fast Fourier transform to calculate an average spectrum within at least one local window that is applied at a same location to all of the reflectivity sections, and determining a bandwidth for each average spectrum. obtaining a seismic dataset that is separated into subsets according to predetermined subsurface reflection angle ranges; performing, with a computer, an acoustic full wavefield inversion process on each of the subsets, respectively, to invert for density and generate respective density models; generating acoustic impedances for each of the subsets, as a function of reflection angle, using the respective density models; transforming, using a computer, the acoustic impedances for each of the subsets into reflectivity sections, wherein the transforming includes normalizing the reflectivity sections by their respective bandwidth; and wherein said bandwidths are obtained by: using, for each of the reflectivity sections, a Fourier transform, discrete Fourier transform, or a fast Fourier transform to calculate an average spectrum within at least one local window that is applied at a same location to all of the reflectivity sections, and determining a bandwidth for each average spectrum.
A method, in a Mobility Management Entity, MME, , for delivery of non-Internet Protocol, non-IP, data, comprising: receiving a Non-Internet Protocol Data Delivery, NIDD, submit request comprising non-IP data and an identifier of a wireless device to which the non-IP data is to be delivered; upon determining that the wireless device is not reachable, sending a NIDD submit response that indicates that the non-IP data was not delivered to the wireless device ; and upon determining that the wireless device is reachable, sending a NIDD submit indication towards a Service Capability Exposure Function, SCEF, or an Inter-Working SCEF, IWK-SCEF, indicating that the wireless device is reachable. receiving a Non-Internet Protocol Data Delivery, NIDD, submit request comprising non-IP data and an identifier of a wireless device to which the non-IP data is to be delivered; upon determining that the wireless device is not reachable, sending a NIDD submit response that indicates that the non-IP data was not delivered to the wireless device ; and upon determining that the wireless device is reachable, sending a NIDD submit indication towards a Service Capability Exposure Function, SCEF, or an Inter-Working SCEF, IWK-SCEF, indicating that the wireless device is reachable.
Battery cell , comprising at least one first battery cell element and one second battery cell element , which are electrically connected to one another via at least one current collector , and a sensor for monitoring at least one parameter (B) of the battery cell , characterized in that the sensor is designed in such a way that the sensor generates a detectable change in an output signal only in the event of a fault of the battery cell , wherein the battery cell has at least one cell terminal that serves as an electrical contact of the battery cell , wherein the sensor is integrated in the cell terminal . at least one first battery cell element and one second battery cell element , which are electrically connected to one another via at least one current collector , and a sensor for monitoring at least one parameter (B) of the battery cell , characterized in that the sensor is designed in such a way that the sensor generates a detectable change in an output signal only in the event of a fault of the battery cell , wherein the battery cell has at least one cell terminal that serves as an electrical contact of the battery cell , wherein the sensor is integrated in the cell terminal .