mhurhangee/patent-ind-claim-en huggingface dataset:
A wellbore underreaming tool , especially as used in oil and natural gas drilling, arranged for attachment to a rotary drill-bit and associated drill-pipe, comprising at least one radially extendable cutter block incorporating a sensor to measure the relative position of said cutter block, wherein the cutter block is provided with a magnetic line or strip and the sensor to measure the relative position of the cutter block comprises a magnetic sensor to detect the position of the block by virtue of the alignment of the magnetic line or strip and the magnetic sensor.
A blade outer air seal assembly , comprising: a support structure ; a blade outer air seal extending circumferentially about an axis (A) and mounted in the support structure , the blade outer air seal having a first axial side (A1) and a second axial side (A2), wherein the support structure has a first support member that radially supports a hook formed near the first axial side (A1) on the blade outer air seal at an axially forward portion of the support structure , and a second support member engaging the second axial side (A2) of the blade outer air seal and that radially supports a lip formed near the second axial side (A2) on the blade outer air seal ; and a retaining clip securing the blade outer air seal to the support structure , wherein the retaining clip has a first leg and a second leg extending in a generally radial direction, the first leg abuts the first axial side (A1) of the blade outer air seal and the second leg abuts the first support member . a support structure ; a blade outer air seal extending circumferentially about an axis (A) and mounted in the support structure , the blade outer air seal having a first axial side (A1) and a second axial side (A2), wherein the support structure has a first support member that radially supports a hook formed near the first axial side (A1) on the blade outer air seal at an axially forward portion of the support structure , and a second support member engaging the second axial side (A2) of the blade outer air seal and that radially supports a lip formed near the second axial side (A2) on the blade outer air seal ; and a retaining clip securing the blade outer air seal to the support structure , wherein the retaining clip has a first leg and a second leg extending in a generally radial direction, the first leg abuts the first axial side (A1) of the blade outer air seal and the second leg abuts the first support member .
A process for producing a coated glass substrate for use in automotive and architectural glazing, the process comprising: i) providing a glass substrate having at least one surface, the surface having deposited thereon a layer of a transparent conductive material, wherein the transparent conductive material comprises a transparent conductive oxide; ii) providing a coating composition comprising a polysilazane; iii) contacting a surface of the layer of transparent conductive material with the coating composition; and iv) curing the coating composition to form a coating layer on the surface of the transparent conductive material the coating layer comprising silica, and wherein the transparent conductive oxide before deposition of the layer of silica, has an average surface roughness, (Sa1), greater than the average surface roughness, (Sa2), of the silica coated glass substrate, wherein: the transparent conductive oxide is deposited by chemical vapour deposition (CVD); and the layer of a transparent conductive material has a sheet resistance in the range 5 Ω/square to 400 Ω/square. i) providing a glass substrate having at least one surface, the surface having deposited thereon a layer of a transparent conductive material, wherein the transparent conductive material comprises a transparent conductive oxide; ii) providing a coating composition comprising a polysilazane; iii) contacting a surface of the layer of transparent conductive material with the coating composition; and iv) curing the coating composition to form a coating layer on the surface of the transparent conductive material the coating layer comprising silica, and wherein the transparent conductive oxide before deposition of the layer of silica, has an average surface roughness, (Sa1), greater than the average surface roughness, (Sa2), of the silica coated glass substrate, wherein: the transparent conductive oxide is deposited by chemical vapour deposition (CVD); and the layer of a transparent conductive material has a sheet resistance in the range 5 Ω/square to 400 Ω/square. the transparent conductive oxide is deposited by chemical vapour deposition (CVD); and the layer of a transparent conductive material has a sheet resistance in the range 5 Ω/square to 400 Ω/square.
A suction cutting conveyor of an automatic blade cutting machine for sheet material, comprising a plurality of cutting supports rigidly connected to a drive mechanism driven along rectilinear and curvilinear trajectories, each cutting support comprising a plurality of bristles (16; 16') each having a foot rigidly connected to a sole (18; 18') and a head opposite to the foot and on which a sheet material to be cut is intended to rest, characterized in that the sole of each cutting support is capable of being able to elastically deform following the trajectories of the drive mechanism.
A method for monitoring a stress level of a user comprising: determining , based on biological measurements on one or more physiological markers received in a first sampling mode, the stress level of the user , wherein the one or more physiological markers are related to a heart rate of the user; determining a context associated with user during the first sampling mode based on the biological measurements, the context being defined by one or more of a nature, a level, or an intensity of physical activity during the first sampling mode; determining whether there is an occurrence of a stress event based on the stress level, wherein the stress event occurs when the stress level is higher than a baseline stress level for the determined context for a time period longer than a threshold period of time; and dynamically switching to a second sampling mode upon determining the occurrence of the stress event, the second sampling mode being different from the first sampling mode. determining , based on biological measurements on one or more physiological markers received in a first sampling mode, the stress level of the user , wherein the one or more physiological markers are related to a heart rate of the user; determining a context associated with user during the first sampling mode based on the biological measurements, the context being defined by one or more of a nature, a level, or an intensity of physical activity during the first sampling mode; determining whether there is an occurrence of a stress event based on the stress level, wherein the stress event occurs when the stress level is higher than a baseline stress level for the determined context for a time period longer than a threshold period of time; and dynamically switching to a second sampling mode upon determining the occurrence of the stress event, the second sampling mode being different from the first sampling mode.
A system for detecting a defect in at least one steel wire embedded in a handrail of a passenger conveyor, comprising: a non-contact inspection device embedded in the handrail for inspecting a condition of the steel wire and transmitting a signal regarding the condition of the steel wire ; a power supply device arranged in proximity to the handrail for supplying power wirelessly to the non-contact inspection device from the outside of the handrail ; and a controller arranged outside of the handrail for receiving the signal regarding the condition wirelessly and determining whether there is a defect in the steel wire ; characterized in that the power supply device is a non-contact power supply device ; and the non-contact power supply device includes an array of wireless power transfer coils arranged along the moving direction of the handrail . a non-contact inspection device embedded in the handrail for inspecting a condition of the steel wire and transmitting a signal regarding the condition of the steel wire ; a power supply device arranged in proximity to the handrail for supplying power wirelessly to the non-contact inspection device from the outside of the handrail ; and a controller arranged outside of the handrail for receiving the signal regarding the condition wirelessly and determining whether there is a defect in the steel wire ; characterized in that the power supply device is a non-contact power supply device ; and the non-contact power supply device includes an array of wireless power transfer coils arranged along the moving direction of the handrail .
A method for determining a connection state of an all wheel drive (AWD) assembly in a vehicle , the method comprising: receiving by a vehicle , a message indicative of a hazard and a hazard location; determining a distance to the hazard location from the vehicle ; in response to the distance to the hazard location being below a first threshold distance, setting an all wheel drive (AWD) state for an AWD assembly in the vehicle to a connect state; in response to the distance to the hazard location being above the first threshold, determining a time to the hazard location for the vehicle ; and in response to the time to the hazard location being below a threshold AWD connection time, setting the AWD state to the connect state. receiving by a vehicle , a message indicative of a hazard and a hazard location; determining a distance to the hazard location from the vehicle ; in response to the distance to the hazard location being below a first threshold distance, setting an all wheel drive (AWD) state for an AWD assembly in the vehicle to a connect state; in response to the distance to the hazard location being above the first threshold, determining a time to the hazard location for the vehicle ; and in response to the time to the hazard location being below a threshold AWD connection time, setting the AWD state to the connect state.
A method for inspecting a composite workpiece , the method comprising: separating a response to electromagnetic radiation directed to a surface of the composite workpiece into a number of wavelengths for each of a number of locations on the surface of the composite workpiece ; identifying a set of contaminants on the surface of the composite workpiece from the number of wavelengths for the each of the number of locations ; and generating a two-dimensional image of the surface of the composite workpiece with a set of graphical indicators indicating the set of contaminants identified from the number of wavelengths for the each of the number of locations on the surface of the composite workpiece ; wherein identifying the set of contaminants on the surface of the composite workpiece from the number of wavelengths for the each of the number of locations comprises: identifying the set of contaminants based on a comparison of the number of wavelengths for the each of the number of locations on the surface of the composite workpiece to a data base of wavelengths for known contaminants. separating a response to electromagnetic radiation directed to a surface of the composite workpiece into a number of wavelengths for each of a number of locations on the surface of the composite workpiece ; identifying a set of contaminants on the surface of the composite workpiece from the number of wavelengths for the each of the number of locations ; and generating a two-dimensional image of the surface of the composite workpiece with a set of graphical indicators indicating the set of contaminants identified from the number of wavelengths for the each of the number of locations on the surface of the composite workpiece ; wherein identifying the set of contaminants on the surface of the composite workpiece from the number of wavelengths for the each of the number of locations comprises: identifying the set of contaminants based on a comparison of the number of wavelengths for the each of the number of locations on the surface of the composite workpiece to a data base of wavelengths for known contaminants.
A method comprising: determining , by one or more computing devices implementing a prediction engine, one or more pre-operative measurements of an eye; estimating , by the prediction engine based on the one or more pre-operative measurements of the eye, a post-operative anterior chamber depth, ACD, of an intraocular lens IOL implanted in the eye; estimating , by the prediction engine based on the one or more pre-operative measurements of the eye and the estimated post-operative ACD, a post-operative manifest refraction in spherical equivalent, MRSE, of the eye with the IOL implanted; determining , by the prediction engine based on the estimated post-operative MRSE, whether the eye with the IOL implanted is in an emmetropia zone, the emmetropia zone being when the determined post-operative MRSE is within half a diopter of a target post-operative MRSE; re-estimating, by the prediction engine based on the emmetropia zone determining, the post-operative MRSE of the eye with the IOL implanted: using an emmetropia zone prediction model comprising a neural network, if the eye with the IOL implanted is in the emmetropia zone; and using a non-emmetropia zone prediction model comprising a neural network, if the eye with the IOL implanted is not in the emmetropia zone; and providing, by the prediction engine, the re-estimated post-operative MRSE to a user to aid in selection of an IOL for implantation in the eye. determining , by one or more computing devices implementing a prediction engine, one or more pre-operative measurements of an eye; estimating , by the prediction engine based on the one or more pre-operative measurements of the eye, a post-operative anterior chamber depth, ACD, of an intraocular lens IOL implanted in the eye; estimating , by the prediction engine based on the one or more pre-operative measurements of the eye and the estimated post-operative ACD, a post-operative manifest refraction in spherical equivalent, MRSE, of the eye with the IOL implanted; determining , by the prediction engine based on the estimated post-operative MRSE, whether the eye with the IOL implanted is in an emmetropia zone, the emmetropia zone being when the determined post-operative MRSE is within half a diopter of a target post-operative MRSE; re-estimating, by the prediction engine based on the emmetropia zone determining, the post-operative MRSE of the eye with the IOL implanted: using an emmetropia zone prediction model comprising a neural network, if the eye with the IOL implanted is in the emmetropia zone; and using a non-emmetropia zone prediction model comprising a neural network, if the eye with the IOL implanted is not in the emmetropia zone; and using an emmetropia zone prediction model comprising a neural network, if the eye with the IOL implanted is in the emmetropia zone; and using a non-emmetropia zone prediction model comprising a neural network, if the eye with the IOL implanted is not in the emmetropia zone; and providing, by the prediction engine, the re-estimated post-operative MRSE to a user to aid in selection of an IOL for implantation in the eye.
A predictive decoding method performed by a decoder on encoded video data, comprising: partitioning a coding block into N coding units (CUs) based on coding tree information; identifying whether first N-1 coded CUs of the coding block have the same prediction information; and characterized in : excluding a first intra prediction mode from a probable intra prediction mode list for the CU of the coding block when all of the first N-1 CUs have the first intra prediction mode.
A method for manufacturing a portable object with an electronic chip comprising a body and a battery of the metal-air type built into the body, said battery comprising an electrolyte layer and an air-porous protective membrane covering the electrolyte, said method comprising a step of forming at least one air-supply duct extending from the protective membrane to an air source, characterised in that an air-porous or oxygen-permeable material is contained in said duct and completely closes off said duct on its path at least in parts of its path.
A quaternary ammonium salt fuel additive having the structure of Formula Ib wherein R 1 is a hydrocarbyl radical, wherein a molecular weight of the hydrocarbyl is about 200 to about 5,000; R 2 is hydrogen or a C 1 -C 6 alkyl group; R' is a C 1 to C 4 alkylene linker; R 5 is C 1 -C 6 alkyl or, together with YΘ, forms a C 1 -C 6 alkylene substituted -C(O)O Θ ; R 6 is C 1 -C 6 alkyl; and Y Θ is an anionic group having a structure RsC(O)O Θ wherein R 8 is one of (i) together with R 5 a C 1 -C 6 alkylene group or (ii) a C 1 -C 6 alkyl, an aryl, a C 1 -C 4 alkylene-C(O)O-R 2 or a -C(O)O-R 2 group. R 1 is a hydrocarbyl radical, wherein a molecular weight of the hydrocarbyl is about 200 to about 5,000; R 2 is hydrogen or a C 1 -C 6 alkyl group; R' is a C 1 to C 4 alkylene linker; R 5 is C 1 -C 6 alkyl or, together with YΘ, forms a C 1 -C 6 alkylene substituted -C(O)O Θ ; R 6 is C 1 -C 6 alkyl; and Y Θ is an anionic group having a structure RsC(O)O Θ wherein R 8 is one of (i) together with R 5 a C 1 -C 6 alkylene group or (ii) a C 1 -C 6 alkyl, an aryl, a C 1 -C 4 alkylene-C(O)O-R 2 or a -C(O)O-R 2 group.
Attachment member for mounting a distribution member (P), such as a pump or a valve, on a neck (R1) of a fluid product reservoir (R), the distribution member (P) comprising a body (P1) forming an attachment flange (P2), the attachment member being produced by plastic moulding, the attachment member defining a vertical axis (X, Y) and comprising: - a skirt engaged with the neck (R1), - an annular plate resting axially on the neck (R1), with an optional seal (G) flattened therebetween, - a receiving sleeve in which the attachment flange (P2) of the distribution member (P) is fixedly received, this receiving sleeve defining a receiving recess (L) formed by a moulding pin which is forcibly withdrawn on release from the mould, the receiving recess (L) comprising an inwardly projecting annular inlet rib and which thus reduces the opening of the receiving recess (L), the attachment flange (R2) being held in the receiving recess (L) by this annular inlet rib , characterised in that the annular inlet rib comprises retaining segments for engaging with the attachment flange (R2) and mould release segments for engaging with the moulding pin on release from the mould. - a skirt engaged with the neck (R1), - an annular plate resting axially on the neck (R1), with an optional seal (G) flattened therebetween, - a receiving sleeve in which the attachment flange (P2) of the distribution member (P) is fixedly received, this receiving sleeve defining a receiving recess (L) formed by a moulding pin which is forcibly withdrawn on release from the mould, the receiving recess (L) comprising an inwardly projecting annular inlet rib and which thus reduces the opening of the receiving recess (L), the attachment flange (R2) being held in the receiving recess (L) by this annular inlet rib ,
A flame-resistant cut-resistant fabric, comprising: (a) at least one first yarn comprising at least 50 weight percent heat-resistant polymeric fiber, based on the total weight of the polymeric fiber in the first yarn, wherein at least 30 weight percent of the polymeric fiber present in the at least one first yarn is cut-resistant heat-resistant polymeric fiber having a cut resistance of 4.9 N (500 grams force) or higher per ASTM F2992-15; and (b) at least one second yarn having a sheath/core construction with a core comprising at least one continuous elastomeric filament, the second yarn being free of inorganic fibers, the fabric being characterized in that the sheath of the second yarn comprises halogenated self-extinguishing stable fibers, 60 to 95 weight percent of the at least one second yarn is halogenated self-extinguishing fiber, based on the total weight of the second yarn, and the halogenated self-extinguishing fiber is in contact with the at least one continuous elastomeric filament, and in that the fabric has a maximum after-flame time of two seconds or less and weight loss of 5 weight percent of less when tested per NFPA-2112-2018. (a) at least one first yarn comprising at least 50 weight percent heat-resistant polymeric fiber, based on the total weight of the polymeric fiber in the first yarn, wherein at least 30 weight percent of the polymeric fiber present in the at least one first yarn is cut-resistant heat-resistant polymeric fiber having a cut resistance of 4.9 N (500 grams force) or higher per ASTM F2992-15; and (b) at least one second yarn having a sheath/core construction with a core comprising at least one continuous elastomeric filament, the second yarn being free of inorganic fibers,
An optical amplifying device comprising: an optical propagation path including an optical amplifier to amplify input light; an excitation light source configured to generate excitation light to excite the optical amplifier; a first optical receiver configured to detect power of the input light in the optical propagation path before being amplified by the optical amplifier; a second optical receiver configured to detect power of light in the optical propagation path after being amplified by the optical amplifier; a third optical receiver configured to detect power of light having a traveling direction opposite to that of the input light, in the optical propagation path; and a controller , characterized in that the controller is configured to control the excitation light source on a basis of input and output light power levels, the input light power level being a sum of power of light detected by the first optical receiver and the third optical receiver and the output power level being power of light detected by the second optical receiver. an optical propagation path including an optical amplifier to amplify input light; an excitation light source configured to generate excitation light to excite the optical amplifier; a first optical receiver configured to detect power of the input light in the optical propagation path before being amplified by the optical amplifier; a second optical receiver configured to detect power of light in the optical propagation path after being amplified by the optical amplifier; a third optical receiver configured to detect power of light having a traveling direction opposite to that of the input light, in the optical propagation path; and a controller , characterized in that the controller is configured to control the excitation light source on a basis of input and output light power levels, the input light power level being a sum of power of light detected by the first optical receiver and the third optical receiver and the output power level being power of light detected by the second optical receiver.
Use of at least one hydroxyiminoalkanoic acid of general formula O=C(OH)-(R)-CH=N-OH where R is a straight-chain or branched alkylene group having at least 2 carbon atoms, as anti-nitrous agent in a reductive stripping operation of plutonium.