mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol collection device comprising: a sample transfer adapter configured to receive a sample; and a device body connected to the sample transfer adapter, wherein the device body comprises a filter component disposed therein for filtering the sample, wherein the device body defines a flow channel for guiding the sample to the filter component , and wherein the device body comprises at least one capsule component storing a buffer solution , wherein the at least one capsule component is arranged to be engaged and punctured during operation of the aerosol collection device to provide liquid insertion to the filter component. a sample transfer adapter configured to receive a sample; and a device body connected to the sample transfer adapter, wherein the device body comprises a filter component disposed therein for filtering the sample, wherein the device body defines a flow channel for guiding the sample to the filter component , and wherein the device body comprises at least one capsule component storing a buffer solution , wherein the at least one capsule component is arranged to be engaged and punctured during operation of the aerosol collection device to provide liquid insertion to the filter component.
A swirl ring for an air cooled plasma cutting torch , said ring comprising: an upstream portion having an outer surface and an inner cavity , and a downstream portion having an outer surface and an inner cavity, wherein said outer surface of said upstream portion has an outer diameter which is larger than an outer diameter of said outer surface of said downstream portion; wherein said upstream portion has a plurality of channels formed in said outer surface of said upstream portion which extend along a length of said upstream portion; and wherein said downstream portion has a plurality of holes which extend from said outer surface of said downstream portion to said inner cavity of said downstream portion, wherein said plurality of holes are comprised of a first type of holes , each of which having a centerline which extends through the centerline of said downstream portion such that the centerline of said first type of holes is normal to the centerline of the downstream portion, and a second type of holes each of which having a centerline which is angled relative to said centerline of said downstream portion. an upstream portion having an outer surface and an inner cavity , and a downstream portion having an outer surface and an inner cavity, wherein said outer surface of said upstream portion has an outer diameter which is larger than an outer diameter of said outer surface of said downstream portion; wherein said upstream portion has a plurality of channels formed in said outer surface of said upstream portion which extend along a length of said upstream portion; and wherein said downstream portion has a plurality of holes which extend from said outer surface of said downstream portion to said inner cavity of said downstream portion, wherein said plurality of holes are comprised of a first type of holes , each of which having a centerline which extends through the centerline of said downstream portion such that the centerline of said first type of holes is normal to the centerline of the downstream portion, and a second type of holes each of which having a centerline which is angled relative to said centerline of said downstream portion.
An apparatus for manufacturing a large-caliber product using a hydroforming process, comprising: upper and lower molds into which a tubular steel substance having a large caliber is seated, the upper mold being movable downward to close an entirety of the upper and lower molds ; a first axial punch and a second axial punch disposed on opposite sides of the upper and lower molds so as to be movable horizontally towards each other, the first and second axial punches having front surfaces configured so as to be insertable into each other; a first pressurization cylinder and a second pressurization cylinder respectively moving the first axial punch and the second axial punch towards each other and inserting the first and second axial punches into each other, thus forming a sealing space (A) defined by the first and second axial punches and a pressurization space (B) defined by an inner surface of the steel substance and the first and second axial punches ; and a hydroforming control unit supplying fluid into the pressurization space (B) through an oil-pressure passage formed in at least one of the first and second axial punches so as to pressurize the inner surface of the steel substance , thus forming the large caliber product. upper and lower molds into which a tubular steel substance having a large caliber is seated, the upper mold being movable downward to close an entirety of the upper and lower molds ; a first axial punch and a second axial punch disposed on opposite sides of the upper and lower molds so as to be movable horizontally towards each other, the first and second axial punches having front surfaces configured so as to be insertable into each other; a first pressurization cylinder and a second pressurization cylinder respectively moving the first axial punch and the second axial punch towards each other and inserting the first and second axial punches into each other, thus forming a sealing space (A) defined by the first and second axial punches and a pressurization space (B) defined by an inner surface of the steel substance and the first and second axial punches ; and a hydroforming control unit supplying fluid into the pressurization space (B) through an oil-pressure passage formed in at least one of the first and second axial punches so as to pressurize the inner surface of the steel substance , thus forming the large caliber product.
A pair of active optical elements (D1, D2) wherein - each of the pair elements has a concentration gradient of optically active centres over an acceptable level of optical homogeneity, wherein the concentration gradient is parallel to a surface of the optical element configured to transmit and/or reflect an optical beam ; and - said elements (D1, D2) are mutually mirror and/or rotationally symmetrical in shape and in the distribution of concentration gradient of the optically active centres at least in the surface and/or volume intended for reflection and/or passage of an optical beam , wherein during the reflection at the pair elements and/or the passage through the pair elements, the optical beam is directed such that the sum of optically active centres of the pair elements across the cross-section of the optical beam reaches a maximum concentration difference of ± 5% at all points in the cross section of the optical beam resulting in an acceptable level of optical homogeneity. - each of the pair elements has a concentration gradient of optically active centres over an acceptable level of optical homogeneity, wherein the concentration gradient is parallel to a surface of the optical element configured to transmit and/or reflect an optical beam ; and - said elements (D1, D2) are mutually mirror and/or rotationally symmetrical in shape and in the distribution of concentration gradient of the optically active centres at least in the surface and/or volume intended for reflection and/or passage of an optical beam , wherein during the reflection at the pair elements and/or the passage through the pair elements, the optical beam is directed such that the sum of optically active centres of the pair elements across the cross-section of the optical beam reaches a maximum concentration difference of ± 5% at all points in the cross section of the optical beam resulting in an acceptable level of optical homogeneity.
A motor control system comprising: a motor control apparatus including a plurality of motor control units configured to respectively control motors; and a plurality of position detectors connected in series under a control of the motor control apparatus and configured to detect position information of the respective motors, wherein the motor control apparatus is configured: to automatically acquire each identification information of the plurality of position detectors, to store the acquired identification information in association with the plurality of motor control units in a non-volatile memory . a motor control apparatus including a plurality of motor control units configured to respectively control motors; and a plurality of position detectors connected in series under a control of the motor control apparatus and configured to detect position information of the respective motors, wherein the motor control apparatus is configured: to automatically acquire each identification information of the plurality of position detectors, to store the acquired identification information in association with the plurality of motor control units in a non-volatile memory . to automatically acquire each identification information of the plurality of position detectors, to store the acquired identification information in association with the plurality of motor control units in a non-volatile memory .
A method performed by a User Equipment, UE, for a wireless communication system, the method comprising: deactivating (S1101) a Secondary Cell Group, SCG; detecting (S1102) a beam failure of a Primary SCell, PSCell, in the SCG; initiating (S1103) a SCG failure information procedure upon detecting the beam failure of the PSCell in the SCG while the SCG is deactivated; skipping (S1104) a Media Access Control, MAC, reset procedure, wherein the MAC reset procedure includes (i) stopping a Time Alignment Timer, TAT, for the SCG and (ii) considering the TAT for the SCG as expired; transmitting (S1105) SCG failure information message; determining (S1106) that a random access procedure is not needed for activation of the SCG, based on the TAT being not expired; and activating the SCG based on the determination. deactivating (S1101) a Secondary Cell Group, SCG; detecting (S1102) a beam failure of a Primary SCell, PSCell, in the SCG; initiating (S1103) a SCG failure information procedure upon detecting the beam failure of the PSCell in the SCG while the SCG is deactivated; skipping (S1104) a Media Access Control, MAC, reset procedure, wherein the MAC reset procedure includes (i) stopping a Time Alignment Timer, TAT, for the SCG and (ii) considering the TAT for the SCG as expired; transmitting (S1105) SCG failure information message; determining (S1106) that a random access procedure is not needed for activation of the SCG, based on the TAT being not expired; and activating the SCG based on the determination.
An aqueous, foamable composition comprising: a) at least one surfactant in an amount of 10 to 15% by weight of the composition, b) castor oil maleate in an amount of 0.1 to 1% by weight of the composition, c) glycerin in an amount of 0.5 to 6% by weight of the composition, and d) PEG-120 methyl glucose dioleate in an amount of 0.01 to 0.5 % by weight of the composition, and wherein the composition further comprises PEG-7 glyceryl cocoate in an amount of 0.05 to 0.3 % by weight of the composition, wherein the glycerin is present in an amount that is greater than any of the castor oil maleate or the PEG-7 glyceryl cocoate, and wherein the composition has a viscosity of 1 to 100 mPas (cps) as measured on a Brookfield DVII viscometer with spindle 3 at 100 rpm at 25°C. a) at least one surfactant in an amount of 10 to 15% by weight of the composition, b) castor oil maleate in an amount of 0.1 to 1% by weight of the composition, c) glycerin in an amount of 0.5 to 6% by weight of the composition, and d) PEG-120 methyl glucose dioleate in an amount of 0.01 to 0.5 % by weight of the composition, and wherein the composition further comprises PEG-7 glyceryl cocoate in an amount of 0.05 to 0.3 % by weight of the composition, wherein the glycerin is present in an amount that is greater than any of the castor oil maleate or the PEG-7 glyceryl cocoate, and wherein the composition has a viscosity of 1 to 100 mPas (cps) as measured on a Brookfield DVII viscometer with spindle 3 at 100 rpm at 25°C. wherein the composition further comprises PEG-7 glyceryl cocoate in an amount of 0.05 to 0.3 % by weight of the composition, wherein the glycerin is present in an amount that is greater than any of the castor oil maleate or the PEG-7 glyceryl cocoate, and wherein the composition has a viscosity of 1 to 100 mPas (cps) as measured on a Brookfield DVII viscometer with spindle 3 at 100 rpm at 25°C.
Arrangement for opening, closing, unlocking and locking a vehicle flap, wherein a drive link of actuating kinematics having a defecting lever with a mating engagement element and the drive link acts on flap kinematics with a crank link and a link , wherein the deflecting lever of the actuating kinematics is drivable by an actuator characterized in that the deflecting lever , during a closing movement, engages in an engagement element of the flap kinematics or of the vehicle flap and, in the process, closes and locks the latter, wherein the deflecting lever is in a position beyond the dead centre with respect to the drive link .
A cable deployment sensing system comprising: a stationary ring gear having external teeth, wherein the stationary ring gear is fixed such that the stationary ring gear does not rotate about an axis; a rotatable ring gear mounted coaxially with the stationary ring gear, the rotatable ring gear capable of rotating about the axis, characterised in that a cluster assembly mounted for rotation about the axis, the cluster assembly comprising: a housing ; and a cluster gear supported by the housing, the cluster gear comprising: a first gear mounted on a shaft, the first gear interfacing with the stationary ring gear; and a second gear mounted on the shaft, the second gear interfacing with the rotatable ring gear such that the second gear drives rotation of the rotatable ring gear; and a sensor assembly comprising: a sensor input gear interfacing with the rotatable ring gear and fixed relative to the axis, wherein the rotatable ring gear drives rotation of the sensor input gear; and a transducer interfacing with the sensor input gear and configured to sense rotation of the sensor input gear. a stationary ring gear having external teeth, wherein the stationary ring gear is fixed such that the stationary ring gear does not rotate about an axis; a rotatable ring gear mounted coaxially with the stationary ring gear, the rotatable ring gear capable of rotating about the axis, characterised in that a cluster assembly mounted for rotation about the axis, the cluster assembly comprising: a housing ; and a cluster gear supported by the housing, the cluster gear comprising: a first gear mounted on a shaft, the first gear interfacing with the stationary ring gear; and a second gear mounted on the shaft, the second gear interfacing with the rotatable ring gear such that the second gear drives rotation of the rotatable ring gear; and a housing ; and a cluster gear supported by the housing, the cluster gear comprising: a first gear mounted on a shaft, the first gear interfacing with the stationary ring gear; and a second gear mounted on the shaft, the second gear interfacing with the rotatable ring gear such that the second gear drives rotation of the rotatable ring gear; and a first gear mounted on a shaft, the first gear interfacing with the stationary ring gear; and a second gear mounted on the shaft, the second gear interfacing with the rotatable ring gear such that the second gear drives rotation of the rotatable ring gear; and a sensor assembly comprising: a sensor input gear interfacing with the rotatable ring gear and fixed relative to the axis, wherein the rotatable ring gear drives rotation of the sensor input gear; and a transducer interfacing with the sensor input gear and configured to sense rotation of the sensor input gear. a sensor input gear interfacing with the rotatable ring gear and fixed relative to the axis, wherein the rotatable ring gear drives rotation of the sensor input gear; and a transducer interfacing with the sensor input gear and configured to sense rotation of the sensor input gear.
Device for sealing an opening made in a structure, comprising a fixed part , in which an opening is defined, and at least one sliding moving panel guided along two guide rails mounted on a surface of said fixed panel , between a position for sealing said opening, in a first plane defined by said fixed panel , referred to as the sealing plane, and at least one sliding position, in a second plane, referred to as the sliding plane, substantially parallel to said sealing plane, each of said guide rails carrying at least one shuttle guided during movement in said rail , each shuttle comprising two guide grooves or two fixed pins able to cooperate respectively with two fixed pins or guide grooves carried by said moving panel , said sealing device further comprising actuating means acting on said shuttles to ensure a translatory movement of the latter in said guide rails , and the transition of the moving panel from said sealing position to said at least one sliding position, and vice versa, said sealing device being characterised in that , for each of said guide rails , the two guide grooves for the pins of the moving panel or of the shuttle are of different shapes in order to ensure that the trajectory of the pins in the guide grooves is different and in order to ensure, when the shuttles are moved in said rails from the sealing position, the transverse movement in relation to said rails of a first section of the moving panel , then the transverse movement in relation to said rails of the other section of the moving panel , allowing the transition of the moving panel into an intermediate release position, in the sliding plane, facing the opening and disengaged therefrom.
Glazing unit extending along a plane, P, defined by a longitudinal axis, X, and a vertical axis, Z; having a width, DW, measured along the longitudinal axis, X, and a length, DL, measured along the vertical axis, Z, comprising - at least a first outer glass panel having a S11 surface and a S12 surface and a second inner glass panel having a S21 surface and a S22 surface combined together by at least a means of maintaining the two glass panels at a certain distance between the surface S12 of the first outer glass panel and the surface S21 of the second inner glass panel, - a housing able to accommodate a 4G and/or 5G communication signal device, - an opening arranged on the second inner glass panel characterized in that the opening has substantially same dimensions in plane P as the said housing and in that the housing is placed in the said opening. - at least a first outer glass panel having a S11 surface and a S12 surface and a second inner glass panel having a S21 surface and a S22 surface combined together by at least a means of maintaining the two glass panels at a certain distance between the surface S12 of the first outer glass panel and the surface S21 of the second inner glass panel, - a housing able to accommodate a 4G and/or 5G communication signal device, - an opening arranged on the second inner glass panel
An aqueous dispersion obtained by a process comprising the steps of: (a) preparing an acidic copolymer (A)) having an acid value when contacted with water of at least 140 mg KOH/g by radical copolymerization of monomers comprising: (a1) at least one unsaturated fatty acid, (a2) at least one ethylenically unsaturated monomer containing at least one acid group or group capable of forming an acid group when contacted with water, (a3) at least one other ethylenically unsaturated monomer different from (a1) and (a2), (b) neutralizing all or at least part of the acid groups of copolymer (A) and dissolving it in water to form a totally or partially neutralized copolymer (A), (c) copolymerizing in the solution obtained at step (b) at least one monomer mixture different from the monomer mixture of step (a) to form a copolymer (B). (a) preparing an acidic copolymer (A)) having an acid value when contacted with water of at least 140 mg KOH/g by radical copolymerization of monomers comprising: (a1) at least one unsaturated fatty acid, (a2) at least one ethylenically unsaturated monomer containing at least one acid group or group capable of forming an acid group when contacted with water, (a3) at least one other ethylenically unsaturated monomer different from (a1) and (a2), (a1) at least one unsaturated fatty acid, (a2) at least one ethylenically unsaturated monomer containing at least one acid group or group capable of forming an acid group when contacted with water, (a3) at least one other ethylenically unsaturated monomer different from (a1) and (a2), (b) neutralizing all or at least part of the acid groups of copolymer (A) and dissolving it in water to form a totally or partially neutralized copolymer (A), (c) copolymerizing in the solution obtained at step (b) at least one monomer mixture different from the monomer mixture of step (a) to form a copolymer (B).
A method of determining calibration parameters to correct for frequency responses of one or more dielectric waveguides coupling a control unit to a first antenna node or to a series of antenna nodes including the first antenna node, the method comprising: transmitting , via a first dielectric waveguide coupling the control unit to the first antenna node, a radiofrequency, RF, test signal having a signal bandwidth covering a bandwidth of interest; receiving , via a second dielectric waveguide coupling the control unit to the first antenna node, a looped-back version of the transmitted RF test signal; and estimating a first one-way frequency response corresponding to the first dielectric waveguide, based on the RF test signal and the received loop-back version of the transmitted RF test signal, said first one-way frequency response representing an estimated frequency response for the first dielectric waveguide alone, wherein estimating the first one-way frequency response corresponding to the first dielectric waveguide comprises determining a two-way frequency response based on the RF test signal and the received loop-back version of the transmitted RF test signal, adjusting the two-way frequency response to account for an estimated frequency response of a loop-back path in the first antenna node, and calculating the first one-way frequency response from the adjusted two-way frequency response based on an assumption that frequency responses corresponding to the first and second dielectric waveguides are equal. transmitting , via a first dielectric waveguide coupling the control unit to the first antenna node, a radiofrequency, RF, test signal having a signal bandwidth covering a bandwidth of interest; receiving , via a second dielectric waveguide coupling the control unit to the first antenna node, a looped-back version of the transmitted RF test signal; and estimating a first one-way frequency response corresponding to the first dielectric waveguide, based on the RF test signal and the received loop-back version of the transmitted RF test signal, said first one-way frequency response representing an estimated frequency response for the first dielectric waveguide alone,