mhurhangee/patent-ind-claim-en huggingface dataset:
Rubber composition based at least on an elastomer matrix, on a reinforcing filler and on a vulcanization system, the elastomer matrix comprising a highly saturated elastomer and from 0 to less than 30 phr of natural rubber, the highly saturated diene elastomer containing 1,3-diene units and more than 50 mol% of ethylene units, the vulcanization system comprising a dithiosulfate salt of formula (I): MO 3 S-S-A-S-SO 3 M (I) the symbol A representing an alkanediyl group or a group comprising two or more alkanediyl units, which units are connected in pairs via an oxygen or sulfur atom, via a group of formula -SO 2 -, -NH-, -NH 2 + -, -N(C 1 -C 16 alkyl)- or -COO-, or via an arylene or cycloalkylene group, and the symbol M representing a metal atom.
Method for managing a powder within an additive manufacturing facility comprising a plurality of additive manufacturing machines (M1,M2), the management method comprising storing a volume of feedstock powder (VPA) and automatically feeding the various machines (M1,M2) of the facility with powder from this volume of feedstock powder (VPA), the powder delivered to each machine (M1,M2) undergoing at least one layering during an additive manufacturing cycle implemented in this machine (M1,M2), and this layering operation taking place with powder being deposited in excess and the excess portion of the powder deposited, referred to as excess powder, being moved away, the management method comprising collecting the excess powder moved away within each machine (M1,M2) of the facility and conveying the excess powder collected from each machine (M1,M2) to the volume of feedstock powder (VPA), the management method also comprising reintroducing a powder, referred to as recoverded powder, derived from the cleaning of the rough components (PB) manufactured by the machines (M1 ,M2) of the facility into the volume of feedstock powder (VPA), the management method comprising conveying the excess powder and the recovered powder via a single collection circuit to the volume of feedstock powder (VPA), the management method being characterized in that said management method comprises distributing to the various machines (M1,M2) of the facility a mixture of fresh powder, recovered powder, and excess powder, and in that said management method comprises preparing the powder derived from this mixture before distributing it to the machines (M1,M2) of the installation, the powder being dried between the volume of feedstock powder (VPA) and each machine (M1,M2) of the facility, and the powder being sifted between the volume of feedstock powder (VPA) and each machine (M1,M2) of the facility.
A system comprising a supplemental device and an injection device , the injection device comprising a drive screw that moves during medicament delivery to cause medicament to be expelled, and the supplemental device comprising: a housing with a mating unit configured to attach the supplemental device to the injection device; a processor arrangement ; and a quantity determiner for determining a quantity of medicament that has been delivered, wherein the quantity determiner comprises a photosensor arranged to detect linear advancement of the drive screw during medicament delivery, wherein the quantity determiner comprises a light source , wherein the photosensor is configured to detect one or more helical or circumferential markings on a surface of the drive screw, wherein a housing or a cartridge holder of the injection device includes an optically transparent window to allow the drive screw to be viewed by the supplemental device, and wherein the processor arrangement is configured to interpret signals provided by the photosensor and corresponding to the one or more helical or circumferential markings on the surface of the drive screw to determine the quantity of medicament that has been delivered. a housing with a mating unit configured to attach the supplemental device to the injection device; a processor arrangement ; and a quantity determiner for determining a quantity of medicament that has been delivered, wherein the quantity determiner comprises a photosensor arranged to detect linear advancement of the drive screw during medicament delivery, wherein the quantity determiner comprises a light source , wherein the photosensor is configured to detect one or more helical or circumferential markings on a surface of the drive screw, wherein a housing or a cartridge holder of the injection device includes an optically transparent window to allow the drive screw to be viewed by the supplemental device, and wherein the processor arrangement is configured to interpret signals provided by the photosensor and corresponding to the one or more helical or circumferential markings on the surface of the drive screw to determine the quantity of medicament that has been delivered.
A power plant configured to generate electric power to be provided to an electric grid , the power plant comprising: - a gas turbine having a first rotary shaft and configured to burn a primary fuel and a secondary fuel, wherein the gas turbine has an exhaust outlet, - a first electric power generator coupled to the first rotary shaft, wherein the first electric power generator has a first electric power output, - a steam turbine having a second rotary shaft, wherein the steam turbine has a steam inlet, - a second electric power generator coupled to the second rotary shaft, wherein the second electric power generator has a second electric power output, - a steam generator coupled to said exhaust outlet and arranged to feed steam to the steam inlet, - a first electrolyzer having a first electric power input, and - a tank for storing hydrogen to be produced at least by the first electrolyzer and to be burned by the gas turbine ; wherein the first electric power output of the first electric power generator is arranged to be coupled to the electric grid ; wherein the second electric power output of the second electric power generator is arranged to be coupled to the electric grid ; wherein the first electric power input of the first electrolyzer is arranged to be selectively coupled to the electric grid ; characterized in that the tank is fluidly coupled to the gas turbine for selectively burning also hydrogen as a secondary fuel. - a gas turbine having a first rotary shaft and configured to burn a primary fuel and a secondary fuel, wherein the gas turbine has an exhaust outlet, - a first electric power generator coupled to the first rotary shaft, wherein the first electric power generator has a first electric power output, - a steam turbine having a second rotary shaft, wherein the steam turbine has a steam inlet, - a second electric power generator coupled to the second rotary shaft, wherein the second electric power generator has a second electric power output, - a steam generator coupled to said exhaust outlet and arranged to feed steam to the steam inlet, - a first electrolyzer having a first electric power input, and - a tank for storing hydrogen to be produced at least by the first electrolyzer and to be burned by the gas turbine ;
An analysis apparatus column oven that includes an analysis column and a heat source that transfers heat to the analysis column , the analysis apparatus column oven comprising: a heat block configured to transfer heat from the heat source to the analysis column ; characterized in that the analysis apparatus column oven further comprises: a column cartridge including the analysis column and a column heat block that contacts the analysis column , wherein the column heat block is arranged in an opening portion formed in the column cartridge and wherein the column heat block is configured to transfer heat from the heat block to the analysis column by thermally contacting the heat block ; and a column change mechanism capable of attaching and removing the column cartridge , wherein the heat source controls temperature of the analysis column of the column cartridge in a state where the column cartridge is attached to the column change mechanism . a column cartridge including the analysis column and a column heat block that contacts the analysis column , wherein the column heat block is arranged in an opening portion formed in the column cartridge and wherein the column heat block is configured to transfer heat from the heat block to the analysis column by thermally contacting the heat block ; and a column change mechanism capable of attaching and removing the column cartridge , wherein the heat source controls temperature of the analysis column of the column cartridge in a state where the column cartridge is attached to the column change mechanism .
A combine harvester comprising: a threshing section that is configured to thresh grain from material other than grain (MOG); and a preparation section that is configured to receive a mixture of grain and MOG from the threshing section of the combine harvester, the preparation section comprising: a conveyor belt , which is positioned beneath the threshing section , that is configured to transport the grain and MOG in a downstream direction toward a cleaning section , and wherein the preparation section further comprises a deflector positioned at a downstream end of the conveyor belt , the deflector having a sloping surface that slopes upward in a downstream direction, characterized in that a downstream end of the sloping surface is positioned at a higher elevation than a downstream end of the conveyor belt in order to launch the grain and MOG into the air and cause at least partial separation of the MOG and grain prior to falling onto the cleaning section . a threshing section that is configured to thresh grain from material other than grain (MOG); and a preparation section that is configured to receive a mixture of grain and MOG from the threshing section of the combine harvester, the preparation section comprising: a conveyor belt , which is positioned beneath the threshing section , that is configured to transport the grain and MOG in a downstream direction toward a cleaning section , and wherein the preparation section further comprises a deflector positioned at a downstream end of the conveyor belt , the deflector having a sloping surface that slopes upward in a downstream direction, characterized in that a downstream end of the sloping surface is positioned at a higher elevation than a downstream end of the conveyor belt in order to launch the grain and MOG into the air and cause at least partial separation of the MOG and grain prior to falling onto the cleaning section . a conveyor belt , which is positioned beneath the threshing section , that is configured to transport the grain and MOG in a downstream direction toward a cleaning section , and wherein the preparation section further comprises a deflector positioned at a downstream end of the conveyor belt , the deflector having a sloping surface that slopes upward in a downstream direction, characterized in that a downstream end of the sloping surface is positioned at a higher elevation than a downstream end of the conveyor belt in order to launch the grain and MOG into the air and cause at least partial separation of the MOG and grain prior to falling onto the cleaning section .
A medicine packaging apparatus , comprising: a packaging paper supplying part for supplying a packaging paper for packaging medicines; a sealing part for forming a packaging bag from the packaging paper supplied from the packaging paper supplying part ; a medicine introducing part for introducing the medicines into the packaging paper on an upper stream side of a carrying direction of the packaging paper than the sealing part, characterized in that it further comprises: a detecting part being a camera or a sensor, for detecting presence of the medicines which are inside the packaging paper and on the upper stream side of the carrying direction than the sealing part; and a determining part for determining a packaging condition, wherein the detecting part is arranged for detecting the presence of the medicines as a sealing detection within a time period after a timing of starting to seal the packaging bag in which the medicines have been introduced and before a timing of introducing the medicines to be packaged into a subsequent packaging bag through the medicine introducing part , and wherein the determining part is arranged for determination that the medicines are normally packed when the presence of the medicines is not detected in the sealing detection, and wherein the determination for the presence or absence of the medicines is performed by the determining part of a control device based on the detection data obtained from the sealing detection. a packaging paper supplying part for supplying a packaging paper for packaging medicines; a sealing part for forming a packaging bag from the packaging paper supplied from the packaging paper supplying part ; a medicine introducing part for introducing the medicines into the packaging paper on an upper stream side of a carrying direction of the packaging paper than the sealing part, a detecting part being a camera or a sensor, for detecting presence of the medicines which are inside the packaging paper and on the upper stream side of the carrying direction than the sealing part; and a determining part for determining a packaging condition, wherein the detecting part is arranged for detecting the presence of the medicines as a sealing detection within a time period after a timing of starting to seal the packaging bag in which the medicines have been introduced and before a timing of introducing the medicines to be packaged into a subsequent packaging bag through the medicine introducing part , and wherein the determining part is arranged for determination that the medicines are normally packed when the presence of the medicines is not detected in the sealing detection, and wherein the determination for the presence or absence of the medicines is performed by the determining part of a control device based on the detection data obtained from the sealing detection.
A computer-implemented method for selecting fasteners for predictively pre-feeding into an automated drilling machine , the method comprising: at a manufacturing data center receiving historical manufacturing data comprising hole identifications and fastener grip lengths , each of the fastener grip lengths previously selected for a corresponding one of the hole identifications ; at the manufacturing data center determining, from the historical manufacturing data and for each of the hole identifications , predictive model data comprising a specific grip length of the fastener grip lengths and a fastener repeatability rating , corresponding to the specific grip length ; receiving holes locations , each corresponding to one of the hole identifications and each corresponding to a hole in a part being processed; and selecting, for each of the hole locations , the specific grip length when the fastener repeatability rating , corresponding to the specific grip length , exceeds an operating threshold . at a manufacturing data center receiving historical manufacturing data comprising hole identifications and fastener grip lengths , each of the fastener grip lengths previously selected for a corresponding one of the hole identifications ; at the manufacturing data center determining, from the historical manufacturing data and for each of the hole identifications , predictive model data comprising a specific grip length of the fastener grip lengths and a fastener repeatability rating , corresponding to the specific grip length ; receiving holes locations , each corresponding to one of the hole identifications and each corresponding to a hole in a part being processed; and selecting, for each of the hole locations , the specific grip length when the fastener repeatability rating , corresponding to the specific grip length , exceeds an operating threshold .
A microlayer comprising: 55 wt% to 80 wt% of a polyethylene; 2.5 wt% to 20 wt% of an elastomeric copolymer comprising an ethylene octene copolymer having less than 10 % by weight of an octene; and 5 wt% to 25 wt% of a pigment comprising submicron particles having an average diameter as measured according to the method in the description of less than 1 micron; wherein a thickness of the microlayer is no greater than 38.1 μm (1.5 mils); and wherein an opacity of the microlayer is at least 90%, as measured according to ASTM D6290. 55 wt% to 80 wt% of a polyethylene; 2.5 wt% to 20 wt% of an elastomeric copolymer comprising an ethylene octene copolymer having less than 10 % by weight of an octene; and 5 wt% to 25 wt% of a pigment comprising submicron particles having an average diameter as measured according to the method in the description of less than 1 micron; wherein a thickness of the microlayer is no greater than 38.1 μm (1.5 mils); and wherein an opacity of the microlayer is at least 90%, as measured according to ASTM D6290.
A separator for an electrochemical device which comprises: a porous polymer substrate having a plurality of pores; a first porous coating layer formed on at least one surface of the porous polymer substrate, and containing a first inorganic particles and a first binder polymer positioned on the whole or a part of the surface of the first inorganic particles to connect the first inorganic particles with one another and fix them; and a second porous coating layer formed on at least one surface of the first porous coating layer, and containing a second inorganic particles and a second binder polymer positioned on the whole or a part of the surface of the second inorganic particles to connect the second inorganic particles with one another and fix them, wherein the first inorganic particles have a Mohs hardness of 4.5 or less and the second inorganic particles have a Mohs hardness of 7 or more, wherein Mohs hardness is determined as described in the description. a porous polymer substrate having a plurality of pores; a first porous coating layer formed on at least one surface of the porous polymer substrate, and containing a first inorganic particles and a first binder polymer positioned on the whole or a part of the surface of the first inorganic particles to connect the first inorganic particles with one another and fix them; and a second porous coating layer formed on at least one surface of the first porous coating layer, and containing a second inorganic particles and a second binder polymer positioned on the whole or a part of the surface of the second inorganic particles to connect the second inorganic particles with one another and fix them, wherein the first inorganic particles have a Mohs hardness of 4.5 or less and the second inorganic particles have a Mohs hardness of 7 or more, wherein Mohs hardness is determined as described in the description.
Method for moving a vehicle out of a parking space at a level which is raised at a kerb compared to a current ground level , comprising the steps: determining a trajectory for moving the vehicle out of a parking space, moving the vehicle along the trajectory, detecting a kerb edge when the kerb edge is reached by a first wheel in a direction of movement of the vehicle which is defined by the trajectory, and when it is detected that the kerb edge has been reached with the first wheel , braking the vehicle in order to conclude the process of moving out of a parking space, characterized in that the step of detecting a kerb edge when the kerb edge is reached with a first wheel in a direction of movement of the vehicle which is defined by the trajectory comprises detecting the spinning of the first wheel at the kerb edge . determining a trajectory for moving the vehicle out of a parking space, moving the vehicle along the trajectory, detecting a kerb edge when the kerb edge is reached by a first wheel in a direction of movement of the vehicle which is defined by the trajectory, and when it is detected that the kerb edge has been reached with the first wheel , braking the vehicle in order to conclude the process of moving out of a parking space, characterized in that the step of detecting a kerb edge when the kerb edge is reached with a first wheel in a direction of movement of the vehicle which is defined by the trajectory comprises detecting the spinning of the first wheel at the kerb edge .
A computer-implemented method for detecting cancer or premalignant change of a tumor in a subject, the method comprising: obtaining first sequence reads for DNA molecules from a plurality of blood cells of the subject, wherein the plurality of blood cells are not associated with the tumor, and wherein the first sequence reads of the DNA molecules from the plurality of blood cells characterize a consensus sequence of the subject; receiving second sequence reads for cell-free DNA fragments in a biological sample of the subject, the biological sample including cell-free DNA; determining genomic positions for the first sequence reads; detecting sequence variants in the tumor of the subject by comparing the second sequence reads to the first sequence reads to detect a plurality of loci, wherein: at each of the plurality of loci, a number of the second sequence reads having a sequence variant relative to the first sequence reads is above a cutoff value, the cutoff value filtering out false positives and being greater than one; determining a parameter based on a count of sequence reads having a sequence variant at the plurality of loci; and comparing the parameter to a threshold value to determine a classification of a level of cancer in the subject, the threshold value corresponding to a range of the parameter for subjects having the classification of the level of cancer. obtaining first sequence reads for DNA molecules from a plurality of blood cells of the subject, wherein the plurality of blood cells are not associated with the tumor, and wherein the first sequence reads of the DNA molecules from the plurality of blood cells characterize a consensus sequence of the subject; receiving second sequence reads for cell-free DNA fragments in a biological sample of the subject, the biological sample including cell-free DNA; determining genomic positions for the first sequence reads; detecting sequence variants in the tumor of the subject by comparing the second sequence reads to the first sequence reads to detect a plurality of loci, wherein: at each of the plurality of loci, a number of the second sequence reads having a sequence variant relative to the first sequence reads is above a cutoff value, the cutoff value filtering out false positives and being greater than one; determining a parameter based on a count of sequence reads having a sequence variant at the plurality of loci; and comparing the parameter to a threshold value to determine a classification of a level of cancer in the subject, the threshold value corresponding to a range of the parameter for subjects having the classification of the level of cancer.