mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet stacking apparatus comprising: discharge means configured to discharge a sheet; a stacking tray on which the sheet to be discharged by the discharge means is stacked; detection means configured to detect the presence of the sheet on the stacking tray ; alignment means configured to perform an alignment operation to align the sheet stacked on the stacking tray in a width direction which is orthogonal to a direction in which the sheet is discharged, the alignment means including first and second alignment members operable to move in the width direction and to contact side ends in the width direction of the sheet stacked on the stacking tray to align the sheet; control means configured to, on a first sheet stacked on the stacking tray, when a second sheet of a different dimension in the width direction from the first sheet is stacked, prohibit an alignment operation by the alignment means on the second sheet; and characterized in that the control means is further configured to prohibit the alignment operation in the case that a plurality of other sheets having a dimension in the width direction that is the same as the dimension in the width direction of the second sheet are stacked on the second sheet, and the detection unit detects the presence of sheets on the stacking tray . discharge means configured to discharge a sheet; a stacking tray on which the sheet to be discharged by the discharge means is stacked; detection means configured to detect the presence of the sheet on the stacking tray ; alignment means configured to perform an alignment operation to align the sheet stacked on the stacking tray in a width direction which is orthogonal to a direction in which the sheet is discharged, the alignment means including first and second alignment members operable to move in the width direction and to contact side ends in the width direction of the sheet stacked on the stacking tray to align the sheet; control means configured to, on a first sheet stacked on the stacking tray, when a second sheet of a different dimension in the width direction from the first sheet is stacked, prohibit an alignment operation by the alignment means on the second sheet; and characterized in that the control means is further configured to prohibit the alignment operation in the case that a plurality of other sheets having a dimension in the width direction that is the same as the dimension in the width direction of the second sheet are stacked on the second sheet, and the detection unit detects the presence of sheets on the stacking tray .
A process for the production of a compound of Formula (I): comprising the step of (i) the reaction of a compound of Formula (II), (6 R )-7-[(3,4-difluorophenyl)methyl]-6-(methoxymethyl)-2-(5-methyl-2-methylsulfonyl-pyrimidin-4-yl)-5,6-dihydroimidazo[1,2-a]pyrazin-8-one: and 2-methylpyrazol-3-amine (VIII):
A processing device configured to process a printed sheet , by comprising: an embossing device configured to perform emboss-processing of the sheet ; and a final processing device configured to perform final working processing of a surface of the sheet , characterized in that the final processing device comprises a varnishing device arranged downstream of the embossing device and configured to apply a varnish to both surfaces of the sheet , wherein the varnishing device includes a first varnishing impression cylinder ; a second varnishing impression cylinder ; and a skeleton cylinder which is arranged between the first varnishing impression cylinder and the second varnishing impression cylinder and is configured to receive the sheet from the first varnishing impression cylinder . an embossing device configured to perform emboss-processing of the sheet ; and a final processing device configured to perform final working processing of a surface of the sheet , characterized in that the final processing device comprises a varnishing device arranged downstream of the embossing device and configured to apply a varnish to both surfaces of the sheet , wherein the varnishing device includes a first varnishing impression cylinder ; a second varnishing impression cylinder ; and a skeleton cylinder which is arranged between the first varnishing impression cylinder and the second varnishing impression cylinder and is configured to receive the sheet from the first varnishing impression cylinder .
Herbicidal composition, comprising, as herbicidally active constituents, A) aclonifin (component A), B) pendimethalin (component B) and C) picolinafen (component C), comprising the respective herbicide components in the application rates stated below: component A: 80-3000 g of AS/ha, particularly preferably 80-1000 g of AS/ha, of aclonifen; component B: 500-2500 g of AS/ha, particularly preferably 500-1200 g of AS/ha, of pendimethalin, component C: 10-300 g of AS/ha, particularly preferably 30-200 g of AS/ha, of picolinafen. A) aclonifin (component A), B) pendimethalin (component B) and C) picolinafen (component C), component A: 80-3000 g of AS/ha, particularly preferably 80-1000 g of AS/ha, of aclonifen; component B: 500-2500 g of AS/ha, particularly preferably 500-1200 g of AS/ha, of pendimethalin, component C: 10-300 g of AS/ha, particularly preferably 30-200 g of AS/ha, of picolinafen.
A method for programming a force to be exerted by a working end of a robot along at least a part of a preprogrammed trajectory of the working end, the method comprising the steps of: - moving the working end of the robot on said at least a part of the preprogrammed trajectory, the motorization of the robot being controlled to maintain the working end in position without a force setting, - in at least one position during the movement, an operator causing a force to be exerted on the working end, which force is opposed to that to be applied during the task and which has an intensity proportional to that to be applied during the task, - determining the force to be applied during the task from the resistant force exerted by the robot to maintain the working end on the trajectory, - storing the force thus determined in association with the position of the working end during the exertion of the opposed force. - moving the working end of the robot on said at least a part of the preprogrammed trajectory, the motorization of the robot being controlled to maintain the working end in position without a force setting, - in at least one position during the movement, an operator causing a force to be exerted on the working end, which force is opposed to that to be applied during the task and which has an intensity proportional to that to be applied during the task, - determining the force to be applied during the task from the resistant force exerted by the robot to maintain the working end on the trajectory, - storing the force thus determined in association with the position of the working end during the exertion of the opposed force.
A method, performed by a user equipment, UE, , for managing a message transferable over a radio interface of the UE , the method comprising: receiving , from an application managing function , a configuration comprising a set of service identifiers mapped to a set of barring categories, wherein the set of service identifiers identifies at least one service accessible by a user application of the UE ; receiving , from a radio access node , a set of barring parameters mapped to the set of barring categories, wherein each barring parameter indicates whether or not the radio interface is barred with respect to a respective barring category; obtaining a service identifier associated with the message; determining , based on the configuration, a barring category that is mapped to the service identifier; determining a barring parameter that is mapped to the barring category; and managing a transfer of the message over the radio interface according to the barring parameter. receiving , from an application managing function , a configuration comprising a set of service identifiers mapped to a set of barring categories, wherein the set of service identifiers identifies at least one service accessible by a user application of the UE ; receiving , from a radio access node , a set of barring parameters mapped to the set of barring categories, wherein each barring parameter indicates whether or not the radio interface is barred with respect to a respective barring category; obtaining a service identifier associated with the message; determining , based on the configuration, a barring category that is mapped to the service identifier; determining a barring parameter that is mapped to the barring category; and managing a transfer of the message over the radio interface according to the barring parameter.
A process for producing a fibre composition and a protein composition, wherein the process comprises: a) providing dried brewer's spent grain having a moisture content of 10% by weight or less; b) micronising the dried brewer's spent grain using a pin mill to provide micronised brewer's spent grain having a particle size (d50) of from 30 to 130 μm and a particle size (d90) of from 150 to 350 μm, as determined by laser diffraction; c) fractionating the micronised brewer's spent grain using an air classifier to provide a coarse fraction and a fine fraction; and d) collecting the coarse fraction to provide the fibre composition and collecting the fine fraction to provide the protein composition, wherein the fibre composition has a total combined content of protein and dietary fibre (% dry matter by weight) of between 70 and 100% and a ratio of protein to dietary fibre (dry matter by weight) of between 0.30 and 0.55; and, wherein the protein composition has a total combined content of protein and dietary fibre (% dry matter by weight) of between 80 and 100% and a ratio of protein to dietary fibre (dry matter by weight) of between 0.75 and 1.5; wherein the total dietary fibre content is determined by AOAC 991.43 and the total protein content is determined by the Kjeldahl method using a conversion factor of 6.25. a) providing dried brewer's spent grain having a moisture content of 10% by weight or less; b) micronising the dried brewer's spent grain using a pin mill to provide micronised brewer's spent grain having a particle size (d50) of from 30 to 130 μm and a particle size (d90) of from 150 to 350 μm, as determined by laser diffraction; c) fractionating the micronised brewer's spent grain using an air classifier to provide a coarse fraction and a fine fraction; and d) collecting the coarse fraction to provide the fibre composition and collecting the fine fraction to provide the protein composition, wherein the fibre composition has a total combined content of protein and dietary fibre (% dry matter by weight) of between 70 and 100% and a ratio of protein to dietary fibre (dry matter by weight) of between 0.30 and 0.55; and, wherein the protein composition has a total combined content of protein and dietary fibre (% dry matter by weight) of between 80 and 100% and a ratio of protein to dietary fibre (dry matter by weight) of between 0.75 and 1.5;
A method of configuring a network element in a communication network , the method being performed by the network element and comprising the steps of: receiving at least one configuration profile defining: a first set of one or more parameter values for one or more associated configuration parameters of the network element ; and one or more activation conditions for the first set of one or more parameter values, wherein the one or more activation conditions relate to at least one of a network element type and a network element software version; determining whether or not the one or more activation conditions are fulfilled; and if the one or more activation conditions are fulfilled, triggering activation of the first set of one or more parameter values defined in the configuration profile for the one or more associated parameters. receiving at least one configuration profile defining: a first set of one or more parameter values for one or more associated configuration parameters of the network element ; and one or more activation conditions for the first set of one or more parameter values, wherein the one or more activation conditions relate to at least one of a network element type and a network element software version; a first set of one or more parameter values for one or more associated configuration parameters of the network element ; and one or more activation conditions for the first set of one or more parameter values, wherein the one or more activation conditions relate to at least one of a network element type and a network element software version; determining whether or not the one or more activation conditions are fulfilled; and if the one or more activation conditions are fulfilled, triggering activation of the first set of one or more parameter values defined in the configuration profile for the one or more associated parameters.
A flow control valve seal (6; 7; 8) for installing in a flow control valve device , the flow control valve device comprising a housing having an introduction part for receiving a cooling water from an internal combustion engine and a discharge part for discharging the cooling water, and a resin rotor disposed in the housing and having an outer peripheral surface formed in a spherical or cylindrical shape, the rotor being rotated relative to the housing , wherein, the flow control valve seal is configure to be disposed between the introduction part or the discharge part and the rotor in the housing ; wherein the flow control valve seal (6; 7; 8) is formed in a ring-like shape that is configured to slidably contact the outer peripheral surface of the rotor ; wherein an aqueous solution of PH 7-11 containing ethylene glycol as a main component is used as the cooling water; the flow control valve seal (6; 7; 8) is an injection molded body of a resin composition having injection-moldable fluororesin as a base resin; the resin composition contains a non-fibrous filler and does not contain a fibrous filler; and the fluororesin is at least one resin selected from among a tetrafluoroethylene-perfluoro alkylvinyl ether copolymer resin, a tetrafluoroethylene-hexafluoropropylene copolymer resin, and a tetrafluoroethylene-ethylene copolymer resin. wherein the flow control valve seal (6; 7; 8) is formed in a ring-like shape that is configured to slidably contact the outer peripheral surface of the rotor ; wherein an aqueous solution of PH 7-11 containing ethylene glycol as a main component is used as the cooling water; the flow control valve seal (6; 7; 8) is an injection molded body of a resin composition having injection-moldable fluororesin as a base resin; the resin composition contains a non-fibrous filler and does not contain a fibrous filler; and the fluororesin is at least one resin selected from among a tetrafluoroethylene-perfluoro alkylvinyl ether copolymer resin, a tetrafluoroethylene-hexafluoropropylene copolymer resin, and a tetrafluoroethylene-ethylene copolymer resin.
A method for removing coating from a substrate , the method comprising: locating an edge of a substrate with an edge-tracking system , the edge-tracking system including a sensor and a microprocessor directing a laser beam along a first path to a first position, corresponding to a laser entry point on a surface of the substrate proximate to the located edge of the substrate at an angle of incidence suitable to redirect the laser beam at an angle of refraction along a second path, through the substrate , to a second position, corresponding to a laser exit point on a second surface of the substrate corresponding to the located edge of the substrate , the second surface comprising a coating , the refractive index of the substrate being different from the external refractive index outside the substrate , thereby altering the speed, angle, and path of the laser beam as it passes through the substrate ; and ablating at least a portion of coating at the second position on the second surface of the substrate corresponding to the located edge . locating an edge of a substrate with an edge-tracking system , the edge-tracking system including a sensor and a microprocessor directing a laser beam along a first path to a first position, corresponding to a laser entry point on a surface of the substrate proximate to the located edge of the substrate at an angle of incidence suitable to redirect the laser beam at an angle of refraction along a second path, through the substrate , to a second position, corresponding to a laser exit point on a second surface of the substrate corresponding to the located edge of the substrate , the second surface comprising a coating , the refractive index of the substrate being different from the external refractive index outside the substrate , thereby altering the speed, angle, and path of the laser beam as it passes through the substrate ; and ablating at least a portion of coating at the second position on the second surface of the substrate corresponding to the located edge .
A vehicle controller comprising: a fogginess determination unit that determines whether there is fogging on a window of a vehicle or a sign of fogging thereof, based on a fogginess sensor signal indicating a physical index related to the degree of fogging of the window or operation of a vehicle-mounted device of the vehicle capable of defogging operation, the fogginess sensor signal being obtained by a fogginess sensor provided on the vehicle ; a level control unit that changes a driving control level applicable to the vehicle so as to increase or prevent decreasing the degree of a driver's involvement in driving the vehicle , depending on the driving control level currently applied to the vehicle , upon determination that there is fogging on the window or a sign of fogging thereof; and a notification unit that notifies the driver that the vehicle-mounted device is to be operated to execute defogging operation, via a notification device provided on the vehicle, upon determination that there is a sign of fogging of the window, wherein the level control unit changes the driving control level applicable to the vehicle so as to increase the degree of the driver's involvement in driving the vehicle , in the case where the vehicle-mounted device does not execute defogging operation even after a predetermined waiting period (P) from the notification, and where the sign of fogging of the window has not disappeared. a fogginess determination unit that determines whether there is fogging on a window of a vehicle or a sign of fogging thereof, based on a fogginess sensor signal indicating a physical index related to the degree of fogging of the window or operation of a vehicle-mounted device of the vehicle capable of defogging operation, the fogginess sensor signal being obtained by a fogginess sensor provided on the vehicle ; a level control unit that changes a driving control level applicable to the vehicle so as to increase or prevent decreasing the degree of a driver's involvement in driving the vehicle , depending on the driving control level currently applied to the vehicle , upon determination that there is fogging on the window or a sign of fogging thereof; and a notification unit that notifies the driver that the vehicle-mounted device is to be operated to execute defogging operation, via a notification device provided on the vehicle, upon determination that there is a sign of fogging of the window, wherein the level control unit changes the driving control level applicable to the vehicle so as to increase the degree of the driver's involvement in driving the vehicle , in the case where the vehicle-mounted device does not execute defogging operation even after a predetermined waiting period (P) from the notification, and where the sign of fogging of the window has not disappeared.
A computer-implemented method implemented by a streaming content delivery system , the computer-implemented method comprising: obtaining a request from a client computing device to provide a content stream; and in response to the request to provide the content stream: generating a manifest for the content stream, wherein the manifest includes identifiers for content portions to be output as part of the content stream, wherein the content portions are encoded according to a set of parameters, and wherein at least one content portion identified in the manifest to be output as part of the content stream is not yet available at the streaming content delivery system; transmitting the manifest identifying the at least one content portion that is not yet available at the streaming content delivery system to the client computing device ; and beginning an encoding of a content file according to the set of parameters to result in the at least one content portion identified within the manifest; receiving a request for the at least one content portion; and transmitting the at least one content portion in response to the request. obtaining a request from a client computing device to provide a content stream; and in response to the request to provide the content stream: generating a manifest for the content stream, wherein the manifest includes identifiers for content portions to be output as part of the content stream, wherein the content portions are encoded according to a set of parameters, and wherein at least one content portion identified in the manifest to be output as part of the content stream is not yet available at the streaming content delivery system; transmitting the manifest identifying the at least one content portion that is not yet available at the streaming content delivery system to the client computing device ; and beginning an encoding of a content file according to the set of parameters to result in the at least one content portion identified within the manifest; receiving a request for the at least one content portion; and transmitting the at least one content portion in response to the request. generating a manifest for the content stream, wherein the manifest includes identifiers for content portions to be output as part of the content stream, wherein the content portions are encoded according to a set of parameters, and wherein at least one content portion identified in the manifest to be output as part of the content stream is not yet available at the streaming content delivery system; transmitting the manifest identifying the at least one content portion that is not yet available at the streaming content delivery system to the client computing device ; and beginning an encoding of a content file according to the set of parameters to result in the at least one content portion identified within the manifest; receiving a request for the at least one content portion; and transmitting the at least one content portion in response to the request.
A V alloy target comprising: V and Mo, wherein an average value of Vickers hardness on an erosion surface is in a range of 250 to 350 HV, and a variation in Vickers hardness measured at 5 measurement points is 20% or less, wherein the V alloy target contains 10 to 50 at% of Mo with a remainder including V and inevitable impurities, the V alloy target is obtained by pressure-sintering a powder mixture of pure metal powders or alloy powders mixed together or a single type of powder in which a final composition is adjusted such that the aforementioned constituent composition is obtained, and the variation is determined by the following formula: a maximum value of the measurement points − a minimum value of the measurement points / the maximum value of the measurement points + the minimum value of the measurement points × 100 % . the V alloy target contains 10 to 50 at% of Mo with a remainder including V and inevitable impurities, the V alloy target is obtained by pressure-sintering a powder mixture of pure metal powders or alloy powders mixed together or a single type of powder in which a final composition is adjusted such that the aforementioned constituent composition is obtained, and the variation is determined by the following formula: a maximum value of the measurement points − a minimum value of the measurement points / the maximum value of the measurement points + the minimum value of the measurement points × 100 % .