mhurhangee/patent-ind-claim-en huggingface dataset:
An optical fiber assembly comprising: a first fiber array spacer comprising: an array of spacer fibers, wherein individual spacer fibers of the array of spacer fibers are bonded to one another; and a first fiber ribbon comprising a first array of optical fibers , wherein: each optical fiber of the first array of optical fibers comprises a glass portion ; and the glass portion of each optical fiber of the first array of optical fibers is bonded to the first fiber array spacer such that a longitudinal axis of the individual spacer fibers is transverse to a longitudinal axis of individual optical fibers of the first array of optical fibers; characterised in that there is substantially no gap between adjacent spacer fibers . a first fiber array spacer comprising: an array of spacer fibers, wherein individual spacer fibers of the array of spacer fibers are bonded to one another; and a first fiber ribbon comprising a first array of optical fibers , wherein: each optical fiber of the first array of optical fibers comprises a glass portion ; and the glass portion of each optical fiber of the first array of optical fibers is bonded to the first fiber array spacer such that a longitudinal axis of the individual spacer fibers is transverse to a longitudinal axis of individual optical fibers of the first array of optical fibers; characterised in that there is substantially no gap between adjacent spacer fibers . each optical fiber of the first array of optical fibers comprises a glass portion ; and the glass portion of each optical fiber of the first array of optical fibers is bonded to the first fiber array spacer such that a longitudinal axis of the individual spacer fibers is transverse to a longitudinal axis of individual optical fibers of the first array of optical fibers;
A slide valve comprising a device for moving a valve shutter , the device comprising a threaded rod rotatably mounted in the direction of movement of the shutter and a nut associated with the shutter capable of cooperating with the threaded rod , characterised in that the threaded rod comprises several threads and a screw pitch comprised between 40 and 200 mm, and in that the device comprises means for blocking the rod in rotation in the direction of closing and opening of the shutter , the slide valve comprising a upper crosspiece integral with the blocking means including steel balls disposed on a friction cage on said upper crosspiece .
An apparatus for terminating an arrhythmia of a living heart , the apparatus comprising - a signal evaluation device configured for receiving a signal representing a present electric activity of the heart , and for determining a frequency spectrum (8, 11-13) of the signal ; and - a pulse generator configured for generating a sequence of electric pulses to be applied to the heart at a pulse repetition frequency depending on the frequency spectrum (8, 11-13), characterized in that the pulse generator is configured for generating the sequence of the electric pulses such that the pulse repetition frequency of the electric pulses decreases by at least 20 % over the sequence . - a signal evaluation device configured for receiving a signal representing a present electric activity of the heart , and for determining a frequency spectrum (8, 11-13) of the signal ; and - a pulse generator configured for generating a sequence of electric pulses to be applied to the heart at a pulse repetition frequency depending on the frequency spectrum (8, 11-13),
A method comprising: sending, by a telematics device coupled to a vehicle , telematics data to a telematics server ; determining, by the telematics server , based on the telematics data, that a vehicle's engine of the vehicle is running; determining, by the telematics server , based on the telematics data, that a vehicle operator registered with the vehicle is in a driver's seat of the vehicle; sending, by the telematics server , a message, over a network , to an operator terminal of the vehicle operator for changing a configuration of the operator terminal in response to determining that the vehicle's engine is running and determining that the vehicle operator is in the driver's seat of the vehicle ; receiving, by the operator terminal , the message for changing the configuration of the operator terminal ; and changing, by the operator terminal, the configuration of the operator terminal in response to receiving the message for changing the configuration; characterized by determining that the vehicle operator registered with the vehicle is in the driver's seat comprises: determining that a location of the operator terminal is in close proximity to the location of the vehicle ; receiving inertial motion unit (IMU) data from the operator terminal ; and determining that the IMU data does not match a pattern indicative that the vehicle operator is inspecting the vehicle . sending, by a telematics device coupled to a vehicle , telematics data to a telematics server ; determining, by the telematics server , based on the telematics data, that a vehicle's engine of the vehicle is running; determining, by the telematics server , based on the telematics data, that a vehicle operator registered with the vehicle is in a driver's seat of the vehicle; sending, by the telematics server , a message, over a network , to an operator terminal of the vehicle operator for changing a configuration of the operator terminal in response to determining that the vehicle's engine is running and determining that the vehicle operator is in the driver's seat of the vehicle ; receiving, by the operator terminal , the message for changing the configuration of the operator terminal ; and changing, by the operator terminal, the configuration of the operator terminal in response to receiving the message for changing the configuration; characterized by determining that the vehicle operator registered with the vehicle is in the driver's seat comprises: determining that a location of the operator terminal is in close proximity to the location of the vehicle ; receiving inertial motion unit (IMU) data from the operator terminal ; and determining that the IMU data does not match a pattern indicative that the vehicle operator is inspecting the vehicle . determining that a location of the operator terminal is in close proximity to the location of the vehicle ; receiving inertial motion unit (IMU) data from the operator terminal ; and determining that the IMU data does not match a pattern indicative that the vehicle operator is inspecting the vehicle .
A mold assembly for use in forming a component from a component material , the component having an outer wall of a predetermined thickness , said mold assembly comprising: a mold comprising an interior wall that defines a mold cavity within said mold ; and a jacketed core positioned with respect to said mold , said jacketed core comprising: a jacket comprising an outer wall ; and a core positioned interiorly of said jacket outer wall , wherein said jacket separates a perimeter of said core from said mold interior wall by the predetermined thickness, such that the outer wall is formable between said perimeter and said interior wall wherein said jacket outer wall comprises at least one stand-off structure that extends from a first end to a second end , wherein one of said first and second ends is coupled against said core perimeter and another of said first and second ends is coupled against said mold interior wall . a mold comprising an interior wall that defines a mold cavity within said mold ; and a jacketed core positioned with respect to said mold , said jacketed core comprising: a jacket comprising an outer wall ; and a core positioned interiorly of said jacket outer wall , wherein said jacket separates a perimeter of said core from said mold interior wall by the predetermined thickness, such that the outer wall is formable between said perimeter and said interior wall wherein said jacket outer wall comprises at least one stand-off structure that extends from a first end to a second end , wherein one of said first and second ends is coupled against said core perimeter and another of said first and second ends is coupled against said mold interior wall . a jacket comprising an outer wall ; and a core positioned interiorly of said jacket outer wall , wherein said jacket separates a perimeter of said core from said mold interior wall by the predetermined thickness, such that the outer wall is formable between said perimeter and said interior wall wherein said jacket outer wall comprises at least one stand-off structure that extends from a first end to a second end , wherein one of said first and second ends is coupled against said core perimeter and another of said first and second ends is coupled against said mold interior wall .
A soft magnetic alloy comprising Fe as a main component, wherein the soft magnetic alloy comprises Fe a Cu b M1 c Si d B e C f , wherein a+b+c+d+e+f = 100, 0.0 ≤ b ≤ 3.0, 0.0 ≤ c ≤ 10.0, 0.0 ≤ d ≤ 17.5, 5.0 ≤ e ≤ 13.0, and 0.0 ≤ f ≤ 7.0, and M1 is one or more selected from a group consisting of Nb, Ti, Zr, Hf, V, Ta, Mo, P and Cr, a slope of an approximate straight line, plotted between cumulative frequencies of 20 to 80% on Fe content (atom%) in each grid of 80000 grids or more, each of which has 1 nm × 1 nm × 1 nm, is -0.1 to -0.4, provided that Fe content (atom%) of each grid is Y axis, and the cumulative frequencies (%) obtained in descending order of Fe content in each grid is X axis, and an amorphization ratio X of the soft magnetic alloy represented by the following formula is 85% or more, wherein the Fe content included in a grid is evaluated using 3DAP and the amorphization ratio X is a value obtained by performing X-ray crystal structure analysis; X = 100 − Ic / Ic + Ia × 100 Ic: crystalline scattering integrated intensity Ia: amorphous scattering integrated intensity Ic: crystalline scattering integrated intensity Ia: amorphous scattering integrated intensity
An apparatus for depositing an extrudable substance onto a surface , the apparatus comprising: a bracket , configured to be removably coupled to a robot ; a sleeve , comprising an inner tubular sleeve wall and an outer tubular sleeve wall , circumscribing the inner tubular sleeve wall , wherein the sleeve is coupled to the bracket and is rotatable relative to the bracket about a first axis ; a cartridge , comprising an inner tubular cartridge wall and an outer tubular cartridge wall , circumscribing the inner tubular cartridge wall , wherein the cartridge is configured to be positioned between the inner tubular sleeve wall and the outer tubular sleeve wall ; a valve , configured to be communicatively coupled with the cartridge ; a nozzle , configured to be communicatively coupled with the valve ; a linear actuator to control flow of the extrudable substance from the valve to the nozzle ; an annular plunger , positioned between the inner tubular cartridge wall and the outer tubular cartridge wall and movable along the first axis ; and a push-lock pressure cap , configured to be hermetically coupled with the cartridge ; and wherein the cartridge is configured to be positioned between the push-lock pressure cap and the valve . a bracket , configured to be removably coupled to a robot ; a sleeve , comprising an inner tubular sleeve wall and an outer tubular sleeve wall , circumscribing the inner tubular sleeve wall , wherein the sleeve is coupled to the bracket and is rotatable relative to the bracket about a first axis ; a cartridge , comprising an inner tubular cartridge wall and an outer tubular cartridge wall , circumscribing the inner tubular cartridge wall , wherein the cartridge is configured to be positioned between the inner tubular sleeve wall and the outer tubular sleeve wall ; a valve , configured to be communicatively coupled with the cartridge ; a nozzle , configured to be communicatively coupled with the valve ; a linear actuator to control flow of the extrudable substance from the valve to the nozzle ; an annular plunger , positioned between the inner tubular cartridge wall and the outer tubular cartridge wall and movable along the first axis ; and a push-lock pressure cap , configured to be hermetically coupled with the cartridge ; and wherein the cartridge is configured to be positioned between the push-lock pressure cap and the valve .
A fluid inlet device for a separator, comprising a lower part and an upper part , wherein - the lower part comprises an inner wall surface having a horizontal cross-section comprising a circular arc, a top section comprising a fluid outlet and a plate element in which the fluid outlet is arranged, a bottom section comprising a liquid outlet , and a tangential fluid inlet for introduction of a fluid flow to the inner wall surface ; - the upper part comprises multiple guiding vanes arranged to guide a fluid flow, entering the upper part through the fluid outlet , in a horizontal direction away from the fluid outlet, wherein each of the multiple guiding vanes comprises a pocket arranged to capture a liquid film migrating along the guiding vane; and characterized in that each of the guiding vanes are arranged on an upper surface of the plate element , and each vane extends from an inner circumference of the plate element and beyond an outer circumference of the plate element, such that a liquid coalesced on the vanes may be drained away from the fluid inlet device - the lower part comprises an inner wall surface having a horizontal cross-section comprising a circular arc, a top section comprising a fluid outlet and a plate element in which the fluid outlet is arranged, a bottom section comprising a liquid outlet , and a tangential fluid inlet for introduction of a fluid flow to the inner wall surface ; - the upper part comprises multiple guiding vanes arranged to guide a fluid flow, entering the upper part through the fluid outlet , in a horizontal direction away from the fluid outlet, wherein each of the multiple guiding vanes comprises a pocket arranged to capture a liquid film migrating along the guiding vane; and
A method for removing dust in a sound outlet hole of a loudspeaker , comprising: reading a prestored audio file for removing dust; and playing the audio file for removing dust, characterized in that before reading the prestored audio file for removing dust, the method comprises: driving a vibration diaphragm of the loudspeaker to vibrate at a natural frequency, wherein the natural frequency is a frequency of the vibration of the vibration diaphragm when a vibration amplitude of the vibration diaphragm excited by a preset current is at a maximum; and generating the audio file for removing dust according to the vibration of the vibration diaphragm of the loudspeaker at the natural frequency. reading a prestored audio file for removing dust; and playing the audio file for removing dust, characterized in that before reading the prestored audio file for removing dust, the method comprises: driving a vibration diaphragm of the loudspeaker to vibrate at a natural frequency, wherein the natural frequency is a frequency of the vibration of the vibration diaphragm when a vibration amplitude of the vibration diaphragm excited by a preset current is at a maximum; and generating the audio file for removing dust according to the vibration of the vibration diaphragm of the loudspeaker at the natural frequency. driving a vibration diaphragm of the loudspeaker to vibrate at a natural frequency, wherein the natural frequency is a frequency of the vibration of the vibration diaphragm when a vibration amplitude of the vibration diaphragm excited by a preset current is at a maximum; and generating the audio file for removing dust according to the vibration of the vibration diaphragm of the loudspeaker at the natural frequency.
Longitudinal adjuster , in particular for a vehicle seat, having at least one seat rail pair which is formed by a lower seat rail and an upper seat rail which is displaceably guided relative to the lower seat rail in the longitudinal direction (x), wherein the two seat rails of the seat rail pair mutually engage around each other, wherein the lower seat rail has a substantially C-shaped profile with portions which are bent downward at the ends and the upper seat rail has a substantially U-shaped profile having end portions which are bent upward, wherein the relative displaceability of the two seat rails with respect to each other is limited by means of a cooperation of an end stop which is arranged on the lower seat rail with a stop element which is arranged on the upper seat rail , characterized in that the end stop is configured in the form of a partial extension of the downwardly bent portions and the lower seat rail has an elongate hole in the region of the end stop .
A wiper, comprising: a snapping seat ; a pair of elastic arms , one end of each elastic arm connected to the snapping seat and the pair of elastic arms respectively extended from the snapping seat in opposite directions; a pair of connection strips , corresponding to the pair of elastic arms , the wiper being characterised in that it further comprises: a lower rail disposed respectively on two sides of each connection strip opposite to each other; and a scraper , an upper rail disposed on a side of the scraper , and the upper rail sheathed in the lower rail , wherein the elastic arm is inserted in a groove rail disposed on the other side opposite to the lower rail on each connection strip . a snapping seat ; a pair of elastic arms , one end of each elastic arm connected to the snapping seat and the pair of elastic arms respectively extended from the snapping seat in opposite directions; a pair of connection strips , corresponding to the pair of elastic arms , the wiper being characterised in that it further comprises: a lower rail disposed respectively on two sides of each connection strip opposite to each other; and a scraper , an upper rail disposed on a side of the scraper , and the upper rail sheathed in the lower rail , wherein the elastic arm is inserted in a groove rail disposed on the other side opposite to the lower rail on each connection strip .
A process for 3D printing a 3-dimensional object, the process comprising a) providing a suspension comprising • 50-95% by weight of the total suspension (w/w) of at least one polymeric material; and • at least 5% by weight of the total suspension (w/w) of one or more fatty acids; b) 3D printing the desired object using the suspension as a feedstock; and c) optionally, solidifying the printed material by a method selected from the group consisting of sintering, melting, and/or infiltrating the 3D printed material. a) providing a suspension comprising • 50-95% by weight of the total suspension (w/w) of at least one polymeric material; and • at least 5% by weight of the total suspension (w/w) of one or more fatty acids; • 50-95% by weight of the total suspension (w/w) of at least one polymeric material; and • at least 5% by weight of the total suspension (w/w) of one or more fatty acids; b) 3D printing the desired object using the suspension as a feedstock; and c) optionally, solidifying the printed material by a method selected from the group consisting of sintering, melting, and/or infiltrating the 3D printed material.
A conjugate suitable for use in treating cancer, the conjugate comprising a sialidase and an antibody that binds to a cell surface molecule of a cancer cell, wherein the sialidase is conjugated to the antibody via a linker and, when conjugated, the sialidase is capable of cleaving a sialoglycan on the surface of the cancer cell.
A feed unit comprising: a power transmission section including a power transmission coil (L1) configured to perform electric power transmission using a magnetic field, and an auxiliary resonance section including one or a plurality of resonators (L3, C3), wherein the resonator (L3, C3) includes an auxiliary coil (L3) wound to form a plurality of gaps (G1, G2, G3, G4) in at least a partial region, wherein widths of the gaps (G1, G2, G3, G4) become larger gradually in a direction from an outer edge side towards a center of the auxiliary coil (L3), wherein the auxiliary coil (L3) is non-densely wound to form the plurality of gaps (G1, G2, G3, G4) ranging from an inner edge to an outer edge thereof, characterized in that the auxiliary coil (L3) has an in-plane shape exhibiting anisotropy, wherein a width of the gap (G1, G2, G3, G4) is larger in a longitudinal direction than in a short direction in the in-plane shape. a power transmission section including a power transmission coil (L1) configured to perform electric power transmission using a magnetic field, and an auxiliary resonance section including one or a plurality of resonators (L3, C3), wherein the resonator (L3, C3) includes an auxiliary coil (L3) wound to form a plurality of gaps (G1, G2, G3, G4) in at least a partial region, wherein widths of the gaps (G1, G2, G3, G4) become larger gradually in a direction from an outer edge side towards a center of the auxiliary coil (L3), wherein the auxiliary coil (L3) is non-densely wound to form the plurality of gaps (G1, G2, G3, G4) ranging from an inner edge to an outer edge thereof, characterized in that the auxiliary coil (L3) has an in-plane shape exhibiting anisotropy, wherein a width of the gap (G1, G2, G3, G4) is larger in a longitudinal direction than in a short direction in the in-plane shape.
A method for determining baseline noise of a photodetector in a particle analyzer, the method comprising: irradiating a sample comprising particles in a flow stream; detecting light with a photodetector from the irradiated flow stream; generating data signals from the detected light; and calculating a moving average mean squared error of the generated data signals to determine the baseline noise of the photodetector. irradiating a sample comprising particles in a flow stream; detecting light with a photodetector from the irradiated flow stream; generating data signals from the detected light; and calculating a moving average mean squared error of the generated data signals to determine the baseline noise of the photodetector.
A gas diffusion electrode medium comprising carbon fiber felt including carbon fibers having an average fiber diameter of 5 to 20 μm as measured by the method according to the description, wherein at least a part of the carbon fibers that constitute the carbon fiber felt have a flat part in which, in a plane view of a surface of the carbon fiber felt, a maximum value of a fiber diameter is observed to be 10 to 50% larger than the average fiber diameter, and a frequency of the flat parts at the surface of the carbon fiber felt is 50 to 200/mm 2 as measured by the method according to the description.