mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for producing syngas comprising: at least two furnaces , each comprising at least one bayonet reforming tube , each furnace being adapted to: receive a gas comprising a hydrocarbon and at least one of steam and carbon dioxide via the bayonet reforming tube ; heat and catalytically react the gas to form syngas at a first temperature; cool the syngas to a second temperature lower than the first temperature; and eject the syngas from the bayonet reforming tube ; wherein each of the at least two furnaces has a flue gas effluent stream and a syngas effluent stream ; a single common first heat recovery section (336; 310, 312, 331) operably connected to each of the at least two furnaces , wherein the flue gas effluent streams of each of the at least two furnaces are in thermal communication with a heat load within the first common heat recovery section (336; 310, 312, 331) and a second heat recovery section being adapted to transfer heat from a syngas effluent stream to hydrocarbon feedstock of each of the at least two furnaces before the hydrocarbon feedstock together with at least one of steam or carbon dioxide is received by a respective bayonet reforming tube of each of the at least two furnaces . at least two furnaces , each comprising at least one bayonet reforming tube , each furnace being adapted to: receive a gas comprising a hydrocarbon and at least one of steam and carbon dioxide via the bayonet reforming tube ; heat and catalytically react the gas to form syngas at a first temperature; cool the syngas to a second temperature lower than the first temperature; and eject the syngas from the bayonet reforming tube ; wherein each of the at least two furnaces has a flue gas effluent stream and a syngas effluent stream ; receive a gas comprising a hydrocarbon and at least one of steam and carbon dioxide via the bayonet reforming tube ; heat and catalytically react the gas to form syngas at a first temperature; cool the syngas to a second temperature lower than the first temperature; and eject the syngas from the bayonet reforming tube ; wherein each of the at least two furnaces has a flue gas effluent stream and a syngas effluent stream ; a single common first heat recovery section (336; 310, 312, 331) operably connected to each of the at least two furnaces , wherein the flue gas effluent streams of each of the at least two furnaces are in thermal communication with a heat load within the first common heat recovery section (336; 310, 312, 331) and a second heat recovery section being adapted to transfer heat from a syngas effluent stream to hydrocarbon feedstock of each of the at least two furnaces before the hydrocarbon feedstock together with at least one of steam or carbon dioxide is received by a respective bayonet reforming tube of each of the at least two furnaces .
A method comprising: generating a parametrized three-dimensional body surface model, which encodes at least one body type parameter representing a skeletal deformity; receiving one or more target 3D scans of a target subject; optimizing said body surface model with respect to said one or more target 3D scans, based, at least in part, on minimizing a loss function which registers said body surface model to said target 3D scans, to calculate a target body surface model of said target subject; training a skeletal estimation model, based, at least in part, on a training set comprising: (i) body surface models of a plurality of subjects, and (ii) skeletal landmarks sets of said plurality of subjects; and applying said trained skeletal estimation model to said calculated target body surface model of said target subject, to estimate a skeletal shape of said target subject, wherein at least some of said one or more target 3D scans are labelled with a pose of said subject associated with a respective target 3D scan, wherein generating the parameterized 3D body surface model comprises training said 3D body surface model based on a training set comprising a plurality of 3D scans of subjects, wherein at least some of said 3D scans are of subjects having said skeletal deformity, and wherein at least some of said plurality of 3D scans are labelled with said skeletal deformity. generating a parametrized three-dimensional body surface model, which encodes at least one body type parameter representing a skeletal deformity; receiving one or more target 3D scans of a target subject; optimizing said body surface model with respect to said one or more target 3D scans, based, at least in part, on minimizing a loss function which registers said body surface model to said target 3D scans, to calculate a target body surface model of said target subject; training a skeletal estimation model, based, at least in part, on a training set comprising: (i) body surface models of a plurality of subjects, and (ii) skeletal landmarks sets of said plurality of subjects; and (i) body surface models of a plurality of subjects, and (ii) skeletal landmarks sets of said plurality of subjects; and applying said trained skeletal estimation model to said calculated target body surface model of said target subject, to estimate a skeletal shape of said target subject, wherein at least some of said one or more target 3D scans are labelled with a pose of said subject associated with a respective target 3D scan, wherein generating the parameterized 3D body surface model comprises training said 3D body surface model based on a training set comprising a plurality of 3D scans of subjects, wherein at least some of said 3D scans are of subjects having said skeletal deformity, and wherein at least some of said plurality of 3D scans are labelled with said skeletal deformity.
An assembly comprising: a robotic arm having a gripper unit configured to grip a sample container , wherein the robotic arm is configured to move in three dimensions; an image acquisition device physically coupled to the robotic arm and configured to acquire an image of the sample container , wherein the image acquisition device comprises a camera and a liquid level detection device comprising an absorption and transmission measurement unit having an optical emitter and an optical detector ; and an image analysis device in communication with the image acquisition device, wherein the image analysis device is configured to analyze the image of the sample container to determine identifying information associated with the sample container and to determine a liquid level of a sample in the sample container utilizing an analysis of absorption and transmission curves at distinct wavelengths performed by the absorption and transmission measurement unit, wherein the sample container is positioned between the optical emitter and the optical detector by the gripper unit when the liquid level of the sample in the sample container is determined by the image analysis device . a robotic arm having a gripper unit configured to grip a sample container , wherein the robotic arm is configured to move in three dimensions; an image acquisition device physically coupled to the robotic arm and configured to acquire an image of the sample container , wherein the image acquisition device comprises a camera and a liquid level detection device comprising an absorption and transmission measurement unit having an optical emitter and an optical detector ; and an image analysis device in communication with the image acquisition device, wherein the image analysis device is configured to analyze the image of the sample container to determine identifying information associated with the sample container and to determine a liquid level of a sample in the sample container utilizing an analysis of absorption and transmission curves at distinct wavelengths performed by the absorption and transmission measurement unit, wherein the sample container is positioned between the optical emitter and the optical detector by the gripper unit when the liquid level of the sample in the sample container is determined by the image analysis device .
A lubrication system, comprising: a three-way valve with a first opening , a second opening fluidly downstream of the first opening and a third opening ; a main conduit connected to the three-way valve at the first opening and communicating a lubricant in a first direction from a main lubricant tank to at least one working component via a reserve lubricant tank connected to the three way valve at the second opening ; and a working fluid check valve connected to three way valve at the third opening controlling a flow of a working fluid into the lubrication system; characterised in that the three-way valve is a three-way venturi valve ; the lubrication system is configured to automatically switch to operate in an auxiliary mode when the working fluid check valve opens to allow a flow of working fluid into the lubrication system ; and when the lubrication system is operating in the auxiliary mode, lubricant from the reserve lubricant tank and the working fluid flows outwardly from the three-way venturi valve at the first opening in a second direction that is opposite to the first direction . a three-way valve with a first opening , a second opening fluidly downstream of the first opening and a third opening ; a main conduit connected to the three-way valve at the first opening and communicating a lubricant in a first direction from a main lubricant tank to at least one working component via a reserve lubricant tank connected to the three way valve at the second opening ; and a working fluid check valve connected to three way valve at the third opening controlling a flow of a working fluid into the lubrication system; characterised in that the three-way valve is a three-way venturi valve ; the lubrication system is configured to automatically switch to operate in an auxiliary mode when the working fluid check valve opens to allow a flow of working fluid into the lubrication system ; and when the lubrication system is operating in the auxiliary mode, lubricant from the reserve lubricant tank and the working fluid flows outwardly from the three-way venturi valve at the first opening in a second direction that is opposite to the first direction .
A method for rejuvenating a catalyst, comprising contacting the catalyst with an inert gaseous feedstock at rejuvenation conditions for at least one hour to form a rejuvenated catalyst and a gaseous product, wherein said catalyst comprises at least 10 wt.% of a molecular sieve, wherein prior to the contacting step said catalyst comprises from 0.001 wt.% to 45 wt.% of hydrocarbons and 0.001 to 10 wt.% nitrogen containing components, said weight percents based on the total weight of said catalyst prior to the contacting step, wherein said molecular sieve comprises at least one of a MCM-22 family molecular sieve, a molecular sieve having a framework type of ∗ BEA, a molecular sieve having a framework type of FAU, and a molecular sieve having a framework type of MOR, wherein said inert gaseous feedstock comprises at least 95 wt.% nitrogen, wherein said gaseous product has at least a portion of said inert gaseous feedstock and at least a portion of said hydrocarbons of said catalyst and at least a portion of said nitrogen containing components of said catalyst, wherein said rejuvenation conditions comprise a temperature in the range from 400 to 600°C, a pressure in the range from 101.3 kPa-a to 10130 kPa-a, a space hourly velocity in the range of from 0.05 to 10 normal cubic meter inert gaseous feedstock per hour per kilogram of catalyst.
An absorbent, multi-layered web comprising: a first layer comprising pulp fibers; a second layer comprising pulp fibers; and a middle layer positioned in between the first layer and the second layer, the middle layer comprising a resilient fibrous layer, the resilient fibrous layer comprising three-dimensional fibers, debonded cellulosic fibers, or mixtures thereof; wherein the three-dimensional fibers comprise curled fibers having a curl index of greater than about 0.15 as determined using an OpTest Fiber Quality Analyzer Model No. Code LDA 96. a first layer comprising pulp fibers; a second layer comprising pulp fibers; and a middle layer positioned in between the first layer and the second layer, the middle layer comprising a resilient fibrous layer, the resilient fibrous layer comprising three-dimensional fibers, debonded cellulosic fibers, or mixtures thereof; wherein the three-dimensional fibers comprise curled fibers having a curl index of greater than about 0.15 as determined using an OpTest Fiber Quality Analyzer Model No. Code LDA 96.
A supporting and clamping device for the shaft of a reel, comprising an insertion seat adapted to house a terminal of the shaft of said reel, the insertion seat comprising abutment surfaces against which at least a part of the outer wall of said terminal can abut, said abutment surfaces being configured so as to rotate the shaft and the supporting device solidly, characterized in that said insertion seat has a removable insert fastenable to the inner walls of said insertion seat , the insert having an outer face configured to be fastened to the inner wall of said insertion seat and an inner face, opposite said outer face , comprising said abutment surfaces .
Secondary part (1; 18; 19; 23) for a dental implant , the secondary part comprising a head part and a connecting part , the connecting part having at least two spring elements for fixing the secondary part in a dental implant, which spring elements extend along a longitudinal axis (L) of the secondary part and each have a coronal and an apical end and are connected to the head part at the coronal end , wherein the at least two spring elements are radially supported with each other at the respective apical ends by an end piece , wherein the spring elements comprise a central part and the central part of at least one of the supported spring elements is elastically deflectable in a radial direction, and wherein the spring elements are connected to the head part at the coronal end . wherein at least one spring element has a projection and/or a recess in radial direction to the longitudinal axis , wherein a ratio of cross-sectional area of the head portion and cross-sectional area of a spring element is greater than 9, preferably greater than 15, and particularly preferably greater than 20, and the head portion is configured such that the secondary part forms an insertion post , healing cap , healing abutment , scan body , impression post, abutment , selection abutment, alignment aid, or unscrewing instrument . wherein the at least two spring elements are radially supported with each other at the respective apical ends by an end piece , wherein the spring elements comprise a central part and the central part of at least one of the supported spring elements is elastically deflectable in a radial direction, and wherein the spring elements are connected to the head part at the coronal end . wherein at least one spring element has a projection and/or a recess in radial direction to the longitudinal axis , wherein a ratio of cross-sectional area of the head portion and cross-sectional area of a spring element is greater than 9, preferably greater than 15, and particularly preferably greater than 20, and the head portion is configured such that the secondary part forms an insertion post , healing cap , healing abutment , scan body , impression post, abutment , selection abutment, alignment aid, or unscrewing instrument .
A hydraulic hose comprising an innermost layer tube encircling at least one channel , wherein the innermost layer tube comprises a self-sealing material composition comprising an elastomeric material and a polyalkyleneimine, and wherein the elastomeric material is a butadiene copolymer or a polychloroprene.
A method of generating a reference voltage, comprising: providing a first single-electron transistor, SET, and a second SET connected in series with the first SET; biasing the first SET and the second SET using a same biasing current (I b ); operating the first SET at a slope of a first Coulomb peak , said slope of the first Coulomb peak being of a slope type selected from a rising slope , a peak maximum and a falling slope ; operating the second SET at a slope of a second Coulomb peak different from the first Coulomb peak, said slope of the second Coulomb peak being of the same slope type as the slope of the first Coulomb peak; and generating the reference voltage (V ref ) based on a difference between a gate-to-source voltage (V gs1 ) of the first SET and a gate-to-source voltage (V gs2 ) of the second SET. providing a first single-electron transistor, SET, and a second SET connected in series with the first SET; biasing the first SET and the second SET using a same biasing current (I b ); operating the first SET at a slope of a first Coulomb peak , said slope of the first Coulomb peak being of a slope type selected from a rising slope , a peak maximum and a falling slope ; operating the second SET at a slope of a second Coulomb peak different from the first Coulomb peak, said slope of the second Coulomb peak being of the same slope type as the slope of the first Coulomb peak; and generating the reference voltage (V ref ) based on a difference between a gate-to-source voltage (V gs1 ) of the first SET and a gate-to-source voltage (V gs2 ) of the second SET.
A ceramic matrix composite, CMC, component forming a portion of a nozzle for a gas turbine , comprising: a subcomponent comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; a load bearing wall comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix, the load bearing wall being disposed on a surface of the subcomponent substantially perpendicular to that surface of the subcomponent , the load bearing wall being arranged to bear a load along a load path that is substantially normal to the reinforcing fibers of the load bearing wall ; a wall support comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; and at least one joint joining the subcomponent , the load bearing wall and the wall support , wherein the reinforcing fibers of the load bearing wall are oriented substantially normal to the reinforcing fibers of the subcomponent and the wall support . a subcomponent comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; a load bearing wall comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix, the load bearing wall being disposed on a surface of the subcomponent substantially perpendicular to that surface of the subcomponent , the load bearing wall being arranged to bear a load along a load path that is substantially normal to the reinforcing fibers of the load bearing wall ; a wall support comprised of a ceramic matrix composite, CMC, including reinforcing fibers embedded in a matrix; and at least one joint joining the subcomponent , the load bearing wall and the wall support , wherein the reinforcing fibers of the load bearing wall are oriented substantially normal to the reinforcing fibers of the subcomponent and the wall support .
A cheek pad for a helmet, the cheek pad comprising: an outer layer ; an inner layer ; and a sliding interface between the outer layer and the inner layer ; wherein the outer layer and the inner layer are configured to slide relative to each other at the sliding interface, in response to an impact to the helmet, and characterised in that the inner layer is configured to contact a side of the wearer's face, when the cheek pads are arranged in the helmet and the helmet is worn. an outer layer ; an inner layer ; and a sliding interface between the outer layer and the inner layer ; wherein the outer layer and the inner layer are configured to slide relative to each other at the sliding interface, in response to an impact to the helmet, and characterised in that the inner layer is configured to contact a side of the wearer's face, when the cheek pads are arranged in the helmet and the helmet is worn.
A pharmaceutical composition comprising pridopidine or a pharmaceutically acceptable salt thereof for use in treating dystonia by periodic administration to a human subject afflicted with dystonia, wherein the subject has a Unified Huntington's Disease Rating Scale Total Motor Score dystonia (UHDRS-TMS-dystonia) rating of ≥4, and wherein the pridopidine is administered at a dosage of 45 mg bid to 90 mg bid.
A plasticizer composition comprising: a cyclohexane polyester-based substance which is a compound represented by the following Chemical Formula 1; and a perhydride comprising a compound represented by the following Chemical Formula 2, wherein the perhydride is present in an amount from 0.1 to 10 parts by weight with respect to 100 parts by weight of the cyclohexane polyester-based substance: wherein R 1 and R 2 are each independently a C4 to C10 alkyl group, R 3 is a methyl group, n is 2 or 3, m is an integer from 0 to 2, p is an integer from 0 to 3, m+p is an integer from 0 to 3, and n-m is an integer from 1 to 3. a cyclohexane polyester-based substance which is a compound represented by the following Chemical Formula 1; and a perhydride comprising a compound represented by the following Chemical Formula 2, wherein the perhydride is present in an amount from 0.1 to 10 parts by weight with respect to 100 parts by weight of the cyclohexane polyester-based substance: wherein R 1 and R 2 are each independently a C4 to C10 alkyl group, R 3 is a methyl group, n is 2 or 3, m is an integer from 0 to 2, p is an integer from 0 to 3, m+p is an integer from 0 to 3, and n-m is an integer from 1 to 3.
Cutting nozzle having at least one heating oxygen channel , having at least one heating gas channel , having a cutting oxygen channel which has a Laval nozzle with a convergent and a divergent section , and having a nozzle head which has a cut-out into which the heating oxygen channel , heating gas channel and Laval nozzle of the cutting oxygen channel open, characterized in that the Laval nozzle opening into the cut-out of the nozzle head is designed as a parallel jet nozzle.
A clothes treatment device , comprising: a drum assembly defining a clothes treatment chamber , and having a first air inlet , a first air outlet and a second air outlet that are all in communication with the clothes treatment chamber , both the first air outlet and the second air outlet being arranged at an upper part of a side wall of the drum assembly ; and a clothes drying assembly comprising: an air channel assembly communicating the first air inlet with the first air outlet , a heating member arranged inside the air channel assembly, and a blower configured to guide air to flow, wherein the air channel assembly has a second air inlet and a damper , and the damper is switchable between a first position where the damper opens the second air inlet and closes the first air outlet at the same time so that the second air inlet and the first air inlet are in communication and a second position where the damper closes the second air inlet and opens the first air outlet at the same time so that so that the first air outlet and the first air inlet are in communication. a drum assembly defining a clothes treatment chamber , and having a first air inlet , a first air outlet and a second air outlet that are all in communication with the clothes treatment chamber , both the first air outlet and the second air outlet being arranged at an upper part of a side wall of the drum assembly ; and a clothes drying assembly comprising: an air channel assembly communicating the first air inlet with the first air outlet , a heating member arranged inside the air channel assembly, and a blower configured to guide air to flow, wherein the air channel assembly has a second air inlet and a damper , and the damper is switchable between a first position where the damper opens the second air inlet and closes the first air outlet at the same time so that the second air inlet and the first air inlet are in communication and a second position where the damper closes the second air inlet and opens the first air outlet at the same time so that so that the first air outlet and the first air inlet are in communication.