mhurhangee/patent-ind-claim-en huggingface dataset:
A computing system comprising: a processor; and memory that stores computer-executable instructions that, when executed by the processor, cause the processor to perform acts comprising: receiving a trip request, the trip request comprising data indicative of a trip origin and a trip destination , wherein the trip request is based upon different modality settings for different operational regions, wherein a modality setting indicates particular transportation modalities that the user is willing to take, wherein the transportation modalities include transport by way of an autonomous vehicle, AV, and a second transportation modality; and generating a route plan for the trip request by performing an optimization over routing information , considering the transportation modalities indicated in the trip request, the routing information including a map of a region that includes the trip origin and the trip destination; and issuing a pickup instruction to an AV in communication with the computing system, wherein the pickup instruction is configured to cause the AV to navigate to a pickup location included in the route plan. a processor; and memory that stores computer-executable instructions that, when executed by the processor, cause the processor to perform acts comprising: receiving a trip request, the trip request comprising data indicative of a trip origin and a trip destination , wherein the trip request is based upon different modality settings for different operational regions, wherein a modality setting indicates particular transportation modalities that the user is willing to take, wherein the transportation modalities include transport by way of an autonomous vehicle, AV, and a second transportation modality; and generating a route plan for the trip request by performing an optimization over routing information , considering the transportation modalities indicated in the trip request, the routing information including a map of a region that includes the trip origin and the trip destination; and issuing a pickup instruction to an AV in communication with the computing system, wherein the pickup instruction is configured to cause the AV to navigate to a pickup location included in the route plan. receiving a trip request, the trip request comprising data indicative of a trip origin and a trip destination , wherein the trip request is based upon different modality settings for different operational regions, wherein a modality setting indicates particular transportation modalities that the user is willing to take, wherein the transportation modalities include transport by way of an autonomous vehicle, AV, and a second transportation modality; and generating a route plan for the trip request by performing an optimization over routing information , considering the transportation modalities indicated in the trip request, the routing information including a map of a region that includes the trip origin and the trip destination; and issuing a pickup instruction to an AV in communication with the computing system, wherein the pickup instruction is configured to cause the AV to navigate to a pickup location included in the route plan.
A control circuit for use in a tool operating while sequentially changing control conditions for each work process, the control circuit comprising: an information storage unit storing setting data including condition setting data for setting control conditions in each work process, and a plurality of pieces of order setting data for setting an execution order of work processes, each order setting data including a next operation setting value for setting a next operation to be performed after completion of a series of work processes in an execution order determined based on each piece of order setting data; and a computing unit controlling a tool based on the setting data, the computing unit being configured to set an execution order of work processes based on a predetermined one of the plurality of pieces of order setting data and to sequentially change control conditions of the tool for each work process based on the condition setting data, the computing unit being further configured to determine, based on the next operation setting value included in the predetermined piece of order setting data, a next operation to be performed after completion of a series of work processes in the execution order determined based on the predetermined piece of order setting data; wherein the control circuit is configured to allow selection of, as the next operation setting value, a setting value for designating another piece of order setting data and shifting an operation of the tool to a series of work processes in an execution order determined based on the designated piece of order setting data. an information storage unit storing setting data including condition setting data for setting control conditions in each work process, and a plurality of pieces of order setting data for setting an execution order of work processes, each order setting data including a next operation setting value for setting a next operation to be performed after completion of a series of work processes in an execution order determined based on each piece of order setting data; and a computing unit controlling a tool based on the setting data, the computing unit being configured to set an execution order of work processes based on a predetermined one of the plurality of pieces of order setting data and to sequentially change control conditions of the tool for each work process based on the condition setting data, the computing unit being further configured to determine, based on the next operation setting value included in the predetermined piece of order setting data, a next operation to be performed after completion of a series of work processes in the execution order determined based on the predetermined piece of order setting data; wherein the control circuit is configured to allow selection of, as the next operation setting value, a setting value for designating another piece of order setting data and shifting an operation of the tool to a series of work processes in an execution order determined based on the designated piece of order setting data.
A method of preparing a graft copolymer powder, the method comprising: preparing a seed by adding one or more selected from the group consisting of an alkyl (meth)acrylate-based monomer, an aromatic vinyl-based monomer and a vinyl cyan-based monomer to a reactor and carrying out polymerization; preparing a core in the presence of the seed by adding an alkyl (meth)acrylate-based monomer and carrying out polymerization; and preparing a graft copolymer latex in the presence of the core by adding an aromatic vinyl-based monomer and a vinyl cyan-based monomer and carrying out polymerization; adding an alkyl methacrylate-based polymer to the graft copolymer latex and carrying out coagulation, wherein the alkyl methacrylate-based polymer has a weight-average molecular weight of 30,000 g/mol to 2,000,000 g/mol, as measured as disclosed in the specification, wherein the alkyl methacrylate-based polymer has a glass transition temperature of 60 °C to 140 °C, as measured by differential scanning calorimetry, and wherein the alkyl methacrylate-based polymer is added in an amount of 0.5 part by weight to 20 parts by weight based on 100 parts by weight of the sum of the monomers added in the method of preparing the graft copolymer powder. preparing a seed by adding one or more selected from the group consisting of an alkyl (meth)acrylate-based monomer, an aromatic vinyl-based monomer and a vinyl cyan-based monomer to a reactor and carrying out polymerization; preparing a core in the presence of the seed by adding an alkyl (meth)acrylate-based monomer and carrying out polymerization; and preparing a graft copolymer latex in the presence of the core by adding an aromatic vinyl-based monomer and a vinyl cyan-based monomer and carrying out polymerization; adding an alkyl methacrylate-based polymer to the graft copolymer latex and carrying out coagulation, wherein the alkyl methacrylate-based polymer has a weight-average molecular weight of 30,000 g/mol to 2,000,000 g/mol, as measured as disclosed in the specification, wherein the alkyl methacrylate-based polymer has a glass transition temperature of 60 °C to 140 °C, as measured by differential scanning calorimetry, and wherein the alkyl methacrylate-based polymer is added in an amount of 0.5 part by weight to 20 parts by weight based on 100 parts by weight of the sum of the monomers added in the method of preparing the graft copolymer powder.
A package type fluid machine comprising: a plurality of compressor bodies ; a machine compartment in which the plurality of compressor bodies are disposed; an exhaust duct that exhausts a cooling gas from the machine compartment , and a plurality of aftercoolers that are disposed inside the exhaust duct to cool a compressed fluid from the compressor bodies , characterized by a shield that is disposed between the aftercoolers to shield a flow of the cooling gas; and a cooling fan which is driven to feed a cooling gas to the compressor body to cool the compressor bodies . a plurality of compressor bodies ; a machine compartment in which the plurality of compressor bodies are disposed; an exhaust duct that exhausts a cooling gas from the machine compartment , and a plurality of aftercoolers that are disposed inside the exhaust duct to cool a compressed fluid from the compressor bodies , characterized by a shield that is disposed between the aftercoolers to shield a flow of the cooling gas; and a cooling fan which is driven to feed a cooling gas to the compressor body to cool the compressor bodies .
Method for the combined additive manufacture and shaping of metal shaped bodies , wherein - the shaped body is produced by melting at least one metal material and depositing the material in a molten phase (4.1) in layers according to geometry description data; - the deposited material (4.1) is shaped by means of a shaping tool , comprising at least two rollers which are moved up to the shaped body, according to the geometry description data, characterised in that - the deposited material (4.1) is shaped after it has solidified on the underlying layer (1.2), wherein the rollers of the shaping tool are moved immediately after the depositing and solidification of the deposited material (4.1) up to a position to be shaped onto the shaped body; - the shaping is performed in that at least one roller pair, which consists respectively of two of the rollers , is guided laterally along the most recently deposited layer (1.1) and at least one of the underlying layers (1.2), wherein the layers (1.1, 1.2) are arranged between the two rollers of the roller pair exerting pressure with a component in horizontal direction onto the solidified layers (1.1, 1.2); - the temperature of the shaped body is controlled at least during the shaping, - wherein the regulation of the temperature is controlled or supported by means of a heat transfer fluid which at least partly surrounds the shaped body . - the shaped body is produced by melting at least one metal material and depositing the material in a molten phase (4.1) in layers according to geometry description data; - the deposited material (4.1) is shaped by means of a shaping tool , comprising at least two rollers which are moved up to the shaped body, according to the geometry description data, - the deposited material (4.1) is shaped after it has solidified on the underlying layer (1.2), wherein the rollers of the shaping tool are moved immediately after the depositing and solidification of the deposited material (4.1) up to a position to be shaped onto the shaped body; - the shaping is performed in that at least one roller pair, which consists respectively of two of the rollers , is guided laterally along the most recently deposited layer (1.1) and at least one of the underlying layers (1.2), wherein the layers (1.1, 1.2) are arranged between the two rollers of the roller pair exerting pressure with a component in horizontal direction onto the solidified layers (1.1, 1.2); - the temperature of the shaped body is controlled at least during the shaping, - wherein the regulation of the temperature is controlled or supported by means of a heat transfer fluid which at least partly surrounds the shaped body .
A multilayer structure comprising: a polymer layer which consists of a maleic anhydride functionalized polyolefin applied to a metal containing layer; wherein the maleic anhydride functionalized polyolefin layer is formed from a blend of a maleic anhydride functionalized polyolefin and one or more non-functionalised polyolefins; wherein the one or more polyolefins are selected from the group consisting of polyethylene; wherein the total maleic anhydride functionalized polyolefin comprises from 0.01 to 2 wt% units derived from maleic anhydride; and wherein the polymer layer is formed from a polyethylene which has been post reactor functionalized with maleic anhydride. a polymer layer which consists of a maleic anhydride functionalized polyolefin applied to a metal containing layer; wherein the maleic anhydride functionalized polyolefin layer is formed from a blend of a maleic anhydride functionalized polyolefin and one or more non-functionalised polyolefins; wherein the one or more polyolefins are selected from the group consisting of polyethylene; wherein the total maleic anhydride functionalized polyolefin comprises from 0.01 to 2 wt% units derived from maleic anhydride; and wherein the polymer layer is formed from a polyethylene which has been post reactor functionalized with maleic anhydride.
A method, performed in a source node, of supporting re-distribution of load from a source cell to a target cell associated with a target node in a wireless network, wherein the target cell is a combined cell comprising a plurality of spatially separated target sectors that are configured for downlink and/or uplink communication on a same carrier within each cell, the plurality of spatially separated target sectors being defined by respective spatially separated radio resource units using the same cell identity, wherein each target sector broadcasts a specific Channel State Information Reference Signal, CSI-RS, the method comprising: - receiving (S32) from the target node, a load report comprising traffic load in one or more of the plurality of spatially separated target sectors comprised in the target cell, and - retrieving (S34), from one or more wireless device served by the source node, reference signal measurements defining radio conditions for one or more of the target sectors comprised in the target cell, wherein the reference signal measurements comprise respective Channel State Information Reference Signal, CSI-RS, measurements. - receiving (S32) from the target node, a load report comprising traffic load in one or more of the plurality of spatially separated target sectors comprised in the target cell, and - retrieving (S34), from one or more wireless device served by the source node, reference signal measurements defining radio conditions for one or more of the target sectors comprised in the target cell, wherein the reference signal measurements comprise respective Channel State Information Reference Signal, CSI-RS, measurements.
Electromagnetic flowmeter , comprising at least two pole pieces and at least one coil core , characterized in that at least one of the pole pieces is provided with at least one mounting clip to guide a cable through the pole piece , wherein the mounting clip is designed to position the coil core , wherein the mounting clip comprises a guide opening to guide through the at least one cable and a fastening area to fix the mounting clip to the pole piece , and wherein the guide opening is arranged on one end of the mounting clip and is limited by a wall in only two directions, wherein the mounting clip is inserted in an elongated slot in the pole piece .
A vacuum mixing system for the mixing of polymethylmethacrylate bone cement, comprising at least one cartridge with an evacuable internal space for the mixing of the bone cement, whereby the internal space comprises a cylindrical swept volume; a mixing element that is arranged in the internal space of the cartridge such as to be mobile and that can be operated from outside of the vacuum mixing system in order to mix the content in the internal space of the cartridge ; and a dispensing plunger with a cylindrical external circumference, whose first base surface borders a base surface of the internal space of the cartridge , that can be locked or is locked detachably to the cartridge , and, in detached condition, is mobile in the cylindrical section of the internal space of the cartridge ; whereby a gas-permeable and particle-impermeable feed-through is arranged in the dispensing plunger , or a feed-through is formed between the dispensing plunger and the internal wall of the internal space , whereby the feed-through extends from an opening in the jacket surface of the dispensing plunger to an opening in the first base surface of the dispensing plunger .
A wind turbine blade comprising: an outer skin defining an external appearance; an inner skin spaced apart from the outer skin ; a plurality of spar caps (SC) positioned between the outer skin and the inner skin and spaced apart from each other in a thickness direction of the blade ; and shear webs configured to connect the plurality of spar caps (SC), wherein at least one of the plurality of spar caps (SC) is a second-type spar cap, and the other spar caps are first-type spar caps, wherein the first-type spar caps include support plates that are stacked and that have reinforcing fibers, and the support plates are bonded through a resin bonding layer, wherein the second-type spar cap includes reinforcing fiber sheets and a resin body that surrounds and supports the reinforcing fiber sheets , and wherein: the blade has an airfoil cross-section and comprises a pressure side (S1), a suction side (S2), a leading edge (LE) through which wind enters, and a trailing edge (TE) through which wind exits; the blade comprises a first spar cap positioned adjacent to the leading edge (LE) on the pressure side (S1), a second spar cap positioned adjacent to the trailing edge (TE) on the pressure side (S1), a third spar cap positioned adjacent to the leading edge (LE) on the suction side (S2), and a fourth spar cap positioned adjacent to the trailing edge (TE) on the suction side (S2); the second spar cap is a second-type spar cap; and each of the third spar cap and the fourth spar cap is a first-type spar cap. an outer skin defining an external appearance; an inner skin spaced apart from the outer skin ; a plurality of spar caps (SC) positioned between the outer skin and the inner skin and spaced apart from each other in a thickness direction of the blade ; and shear webs configured to connect the plurality of spar caps (SC), wherein at least one of the plurality of spar caps (SC) is a second-type spar cap, and the other spar caps are first-type spar caps, wherein the first-type spar caps include support plates that are stacked and that have reinforcing fibers, and the support plates are bonded through a resin bonding layer, wherein the second-type spar cap includes reinforcing fiber sheets and a resin body that surrounds and supports the reinforcing fiber sheets , and the blade has an airfoil cross-section and comprises a pressure side (S1), a suction side (S2), a leading edge (LE) through which wind enters, and a trailing edge (TE) through which wind exits; the blade comprises a first spar cap positioned adjacent to the leading edge (LE) on the pressure side (S1), a second spar cap positioned adjacent to the trailing edge (TE) on the pressure side (S1), a third spar cap positioned adjacent to the leading edge (LE) on the suction side (S2), and a fourth spar cap positioned adjacent to the trailing edge (TE) on the suction side (S2); the second spar cap is a second-type spar cap; and each of the third spar cap and the fourth spar cap is a first-type spar cap.
A method performed by a first network node for allocating resources for reverse link transmissions from a second network node and forward link transmissions to the second network node in a wireless communication system, the method comprising: selecting (S96) a per-band duplexing cadence for each of at least two frequency bands, a duplexing cadence defining a forward link to reverse link ratio of adjacent successive time slots, wherein said forward link is used for said forward transmissions performed by the first network node to the second network node in each one of the at least two frequency bands and said reverse link is used for receiving, by the first network node, said reverse link transmissions from the second network node in each one of the at least two frequency bands; and allocating (S98) each of the at least two frequency bands to the forward link and the reverse link transmission in each of the adjacent successive time slots according to the selected per-band duplexing cadence for the respective frequency band of said at least two frequency bands. selecting (S96) a per-band duplexing cadence for each of at least two frequency bands, a duplexing cadence defining a forward link to reverse link ratio of adjacent successive time slots, wherein said forward link is used for said forward transmissions performed by the first network node to the second network node in each one of the at least two frequency bands and said reverse link is used for receiving, by the first network node, said reverse link transmissions from the second network node in each one of the at least two frequency bands; and allocating (S98) each of the at least two frequency bands to the forward link and the reverse link transmission in each of the adjacent successive time slots according to the selected per-band duplexing cadence for the respective frequency band of said at least two frequency bands.
A system, comprising: an occupancy sensor configured to generate a first measurement of an occupancy within a location that is configured to be illuminated by at least one light in a lighting system ; a photosensor configured to generate a second measurement of an illumination level within the location , the illumination level indicative of the occupancy within the location ; a control device determining an occupancy state in the location based on the first measurement, the control device determining a result of validating the determined occupancy state based on the second measurement, an agreement between the first and second measurements validating the determined occupancy state, a discrepancy between the first and second measurements invalidating the determined occupancy state, the control device configured to generate a signal based on the result; and a manual on-auto off (MOAO) device receiving the signal to perform a corresponding operation on the lighting system . an occupancy sensor configured to generate a first measurement of an occupancy within a location that is configured to be illuminated by at least one light in a lighting system ; a photosensor configured to generate a second measurement of an illumination level within the location , the illumination level indicative of the occupancy within the location ; a control device determining an occupancy state in the location based on the first measurement, the control device determining a result of validating the determined occupancy state based on the second measurement, an agreement between the first and second measurements validating the determined occupancy state, a discrepancy between the first and second measurements invalidating the determined occupancy state, the control device configured to generate a signal based on the result; and a manual on-auto off (MOAO) device receiving the signal to perform a corresponding operation on the lighting system .