mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a node of a network, the method comprising: monitoring data transmissions between a plurality of resources, wherein the plurality of resources comprises at least one processing instance and multiple data sources accessible by the at least one processing instance, wherein the monitored data transmissions are associated with access by the at least one processing instance to the multiple data sources; generating a model that includes a multidimensional communication pattern matrix, wherein a first dimension of the communication pattern matrix represents the at least one processing instance and wherein the remaining dimensions of the communication pattern matrix represent keyspaces of access keys of respective ones of the multiple data sources accessible by the at least one processing instance, wherein access keys belonging to a same data source partition form a block of consecutive indices, and wherein each one of multiple cells of the communication pattern matrix for one of the at least one processing instance defines the frequency with which the processing instance accesses a respective combination of keys from the multiple data sources; identifying , from the generated model, a pattern in the monitored data transmissions between the plurality of resources; and adapting a distribution of the plurality of resources at the node of the network based on the identified pattern in the monitored data transmissions. monitoring data transmissions between a plurality of resources, wherein the plurality of resources comprises at least one processing instance and multiple data sources accessible by the at least one processing instance, wherein the monitored data transmissions are associated with access by the at least one processing instance to the multiple data sources; generating a model that includes a multidimensional communication pattern matrix, wherein a first dimension of the communication pattern matrix represents the at least one processing instance and wherein the remaining dimensions of the communication pattern matrix represent keyspaces of access keys of respective ones of the multiple data sources accessible by the at least one processing instance, wherein access keys belonging to a same data source partition form a block of consecutive indices, and wherein each one of multiple cells of the communication pattern matrix for one of the at least one processing instance defines the frequency with which the processing instance accesses a respective combination of keys from the multiple data sources; identifying , from the generated model, a pattern in the monitored data transmissions between the plurality of resources; and adapting a distribution of the plurality of resources at the node of the network based on the identified pattern in the monitored data transmissions.
Process for the treatment of aqueous effluents from the primary circuit of a nuclear power plant implementing a separation of boric acid using a reverse osmosis membrane, characterized in that it comprises steps consisting in treating the effluents using a multistage assembly composed of reverse osmosis modules comprising a membrane with a high boron rejection rate, arranged in parallel and in series, and recycling of the intermediate products at different points in the assembly.
Gas turbine for a gas and steam turbine plant comprising a cooling system for cooling inlet air taken from compressor extractions or compressor discharge and introduced to the turbine(s) and/or combustor(s) of the gas turbine which is adapted for flexible operation in a combined cycle application as well as a simple cycle application, wherein the cooling system comprises at least a water/steam cooled cooler for cooling the inlet air taken from the compressor for use in a normal combined cycle application, characterized in that the gas turbine is provided with at least one second cooling air system arranged in a bypass of the air taken from the compressor, wherein the at least one second cooling air system is operable instead of or parallel to the water/steam cooled cooling air cooler for use in particular in a simple cycle application operation of the gas turbine .
Chopper disc for a device for the processing of neutron beams, wherein the chopper disc () is formed of carbon fibers and comprises the following: - a concentric, hollow cylindrical recess for receiving a hub for connection to a pivot bearing, - a concentrically formed absorber area for absorbing neutrons impinging on the chopper disc , and - at least one window in the absorber area through which the neutrons of the neutron beam can pass, characterized in that - the carbon fibers extend from an outer periphery of the chopper disc nearly radially in a direction of the recess and contact the recess tangentially. - a concentric, hollow cylindrical recess for receiving a hub for connection to a pivot bearing, - a concentrically formed absorber area for absorbing neutrons impinging on the chopper disc , and - at least one window in the absorber area through which the neutrons of the neutron beam can pass, characterized in that - the carbon fibers extend from an outer periphery of the chopper disc nearly radially in a direction of the recess and contact the recess tangentially.
A method of manufacturing a semiconductor device including a semiconductor base of a first conductivity type, a hetero junction forming semiconductor region in contact with the semiconductor base , the hetero junction forming semiconductor region having a band gap different from that of the semiconductor base , a gate electrode adjacent to a portion of a junction between the hetero junction forming semiconductor region and the semiconductor base across a gate insulating film , a source electrode connected to the hetero junction forming semiconductor region , and a drain electrode connected to the semiconductor base , the method comprising: configuring the hetero junction forming semiconductor region to have first and second hetero junction forming semiconductor regions, wherein the gate electrode is adjacent to a portion of a junction between the first hetero junction forming semiconductor region and the semiconductor base across the gate insulating film ; depositing the material which becomes the first hetero junction forming semiconductor region before the gate insulating film is formed; and depositing the material which becomes the second hetero junction forming semiconductor region after the gate insulating film is formed, characterized in that the material which becomes the second hetero junction forming semiconductor region is deposited after the gate insulating film is subjected to heat treatment. configuring the hetero junction forming semiconductor region to have first and second hetero junction forming semiconductor regions, wherein the gate electrode is adjacent to a portion of a junction between the first hetero junction forming semiconductor region and the semiconductor base across the gate insulating film ; depositing the material which becomes the first hetero junction forming semiconductor region before the gate insulating film is formed; and depositing the material which becomes the second hetero junction forming semiconductor region after the gate insulating film is formed, characterized in that the material which becomes the second hetero junction forming semiconductor region is deposited after the gate insulating film is subjected to heat treatment.
Lens edge simulation tool for measuring the fitment of a lens edge profile (LEP) with respect to a frame groove profile (FGP) of a spectacle frame , the lens edge simulation tool having a defined edge profile (STP) like a lens edge profile (LEP) of a lens being machined by a defined edger machine , the defined edge profile (STP) comprising a bevel portion protruding towards a protrusion direction (A), wherein the lens edge simulation tool further comprises a probe provided at a distal end tip portion of the bevel portion and being moveable (M) along the protrusion direction (A) between a retracted position in which the probe does not protrude from the defined edge profile (STP) and an extension position in which the probe protrudes from the distal end tip portion .
A particle containing at least a volatile substance comprising (i) a core comprising at least one matrix material and the at least one volatile substance and (ii) at least one coating layer characterized in that a) the matrix material is selected from the group of fats, hydrogenated triglycerides and waxes that are solid or semi-solid at 20 °C and 1 atmosphere, b) the core contains 30 % by weight to 97 % by weight of matrix material based on the total mass of the core, c) the at least one volatile substance being contained in the core has a vapor pressure at 125 °C between 10 mm Hg and 200 mm Hg, d) a first coating layer is a non-confluent layer comprising at least a carrier material, e) the carrier material is an inorganic material having a porous structure and a D50 of 1 to 300 μm, f) the core has an average surface coverage by the non-confluent layer of 1 % to 50 % whereby optionally the non-confluent layer contains at least one hydrophobic substance, and optionally the particle is surrounded by at least one confluent layer and / or further non-confluent layer(s), whereby the presence of the first non-confluent layer increases the recovery of the volatile substance in the core during granulation or fluidization of the particle. (i) a core comprising at least one matrix material and the at least one volatile substance and (ii) at least one coating layer characterized in that a) the matrix material is selected from the group of fats, hydrogenated triglycerides and waxes that are solid or semi-solid at 20 °C and 1 atmosphere, b) the core contains 30 % by weight to 97 % by weight of matrix material based on the total mass of the core, c) the at least one volatile substance being contained in the core has a vapor pressure at 125 °C between 10 mm Hg and 200 mm Hg, d) a first coating layer is a non-confluent layer comprising at least a carrier material, e) the carrier material is an inorganic material having a porous structure and a D50 of 1 to 300 μm, f) the core has an average surface coverage by the non-confluent layer of 1 % to 50 % a) the matrix material is selected from the group of fats, hydrogenated triglycerides and waxes that are solid or semi-solid at 20 °C and 1 atmosphere, b) the core contains 30 % by weight to 97 % by weight of matrix material based on the total mass of the core, c) the at least one volatile substance being contained in the core has a vapor pressure at 125 °C between 10 mm Hg and 200 mm Hg, d) a first coating layer is a non-confluent layer comprising at least a carrier material, e) the carrier material is an inorganic material having a porous structure and a D50 of 1 to 300 μm, f) the core has an average surface coverage by the non-confluent layer of 1 % to 50 %
A thermoplastic resin composition comprising: a polycarbonate resin; a rubber-modified vinyl graft copolymer; a large-diameter rubber polymer having an average particle diameter of about 400 nm to about 1,500 nm, measured as indicated in the specification; an aromatic vinyl copolymer resin; a phosphorus flame retardant; talc; wollastonite; a maleic anhydride-grafted rubber polymer; and a black pigment. a polycarbonate resin; a rubber-modified vinyl graft copolymer; a large-diameter rubber polymer having an average particle diameter of about 400 nm to about 1,500 nm, measured as indicated in the specification; an aromatic vinyl copolymer resin; a phosphorus flame retardant; talc; wollastonite; a maleic anhydride-grafted rubber polymer; and a black pigment.
A door with finger pinch prevention function, comprising: a door frame having a vertical frame spaced apart from both sides and formed in a vertical direction, and a horizontal frame coupled to the upper and lower portions of the vertical frame ; a coupling frame coupled to the inner side of the vertical frame on one side of the door frame ; a plurality of hinges coupled to the upper and lower portions of the back side of the coupling frame each hinge having a respective rotating shaft ; and a door to which the other sides of the hinges are coupled to one lateral side , wherein the coupling frame and the door are coupled by the hinges , wherein a coupling groove is formed in the coupling frame and a coupling groove is formed in the door , wherein the hinges are made by including hinge pieces to be connected to the coupling grooves formed in the coupling frame and the door , such that even when the door is opened and closed, a corner portion of the door abutting the coupling frame does not generate a gap, characterized in that the depth d 1 of the coupling groove of the coupling frame and the depth d 2 of the coupling groove of the door each correspond to half the thickness of the rotating shaft of the hinges , and one-quarter of the rotating shaft of the hinges is positioned at the corner portion of the coupling frame and the door is formed to protrude to a front side, in order to enable the door to rotate smoothly without being caught during rotation. a door frame having a vertical frame spaced apart from both sides and formed in a vertical direction, and a horizontal frame coupled to the upper and lower portions of the vertical frame ; a coupling frame coupled to the inner side of the vertical frame on one side of the door frame ; a plurality of hinges coupled to the upper and lower portions of the back side of the coupling frame each hinge having a respective rotating shaft ; and a door to which the other sides of the hinges are coupled to one lateral side , wherein the coupling frame and the door are coupled by the hinges , wherein a coupling groove is formed in the coupling frame and a coupling groove is formed in the door , wherein the hinges are made by including hinge pieces to be connected to the coupling grooves formed in the coupling frame and the door , such that even when the door is opened and closed, a corner portion of the door abutting the coupling frame does not generate a gap, characterized in that the depth d 1 of the coupling groove of the coupling frame and the depth d 2 of the coupling groove of the door each correspond to half the thickness of the rotating shaft of the hinges , and one-quarter of the rotating shaft of the hinges is positioned at the corner portion of the coupling frame and the door is formed to protrude to a front side, in order to enable the door to rotate smoothly without being caught during rotation.
An electric motor rotor comprising a substantially cylindrical body , conducting a magnetic field, defining at least one housing receiving a group of magnets comprising at least two circumferentially adjacent permanent magnets , at least two permanent magnets adjacent of at least one housing being separated from one another by an air knife , and the housing defining notches for receiving said permanent magnets , characterized in that the notches are configured such that the adjacent permanent magnets are separated by the air knife , the adjustment between the notches and the permanent magnets being at least a sliding adjustment so as to allow placement of the permanent magnets in their notches by hand, an immobilization of the permanent magnets in their notches , and a disassembly of the permanent magnets from their notches without damaging the permanent magnets , and in that the permanent magnets are individually removable from the notches of the housing and can move under the effect of the vibrations and/or variations in speed and magnetic field, but cannot come into contact. at least two permanent magnets adjacent of at least one housing being separated from one another by an air knife , and the housing defining notches for receiving said permanent magnets , characterized in that the notches are configured such that the adjacent permanent magnets are separated by the air knife , the adjustment between the notches and the permanent magnets being at least a sliding adjustment so as to allow placement of the permanent magnets in their notches by hand, an immobilization of the permanent magnets in their notches , and a disassembly of the permanent magnets from their notches without damaging the permanent magnets , and in that the permanent magnets are individually removable from the notches of the housing and can move under the effect of the vibrations and/or variations in speed and magnetic field, but cannot come into contact.
A coiler device provided with a chute guide , comprising: a pinch roller configured to guide a metal strip being conveyed along a pass line (L1) to a winding line (L2) bent from the pass line (L1); a mandrel disposed ahead of the winding line (L2) and configured to wind up the metal strip ; and a chute guide configured to guide an upper surface side of the metal strip in the winding line (L2), and to introduce the metal strip into a winding port of the mandrel , characterized in that the chute guide includes a body frame , and a liner being attached to the body frame , constituting at least part of a guide surface to guide the metal strip , and having a lower friction coefficient than a friction coefficient of the body frame and a lower hardness than a hardness of the metal strip . a pinch roller configured to guide a metal strip being conveyed along a pass line (L1) to a winding line (L2) bent from the pass line (L1); a mandrel disposed ahead of the winding line (L2) and configured to wind up the metal strip ; and a chute guide configured to guide an upper surface side of the metal strip in the winding line (L2), and to introduce the metal strip into a winding port of the mandrel , characterized in that the chute guide includes a body frame , and a liner being attached to the body frame , constituting at least part of a guide surface to guide the metal strip , and having a lower friction coefficient than a friction coefficient of the body frame and a lower hardness than a hardness of the metal strip .
A method for receiving uplink control information of a base station , the method comprising: configuring a plurality of serving cells comprising LTE SCells for a terminal ; configuring a simultaneous transmission of a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, for the terminal ; in case that the PUSCH is transmitted on at least one SCell associated with a licensed band, the method further comprising: receiving, from the terminal , periodic channel state information, CSI, on a PUSCH of an SCell with a smallest SCell index among the at least one SCell for the licensed band; and in case that the PUSCH is transmitted only on at least one SCell associated with the unlicensed band, and a simultaneous transmission of the periodic CSI and the HARQ-ACK is configured according to a parameter simultaneousAckNackAndCQI configured to the terminal, the method further comprising: receiving, from the terminal , the periodic CSI and the HARQ-ACK on the PUCCH in a serving cell in which the PUCCH is configured; in case that the PUSCH is transmitted only on at least one SCell associated with the unlicensed band, and the simultaneous transmission of the periodic CSI and the HARQ-ACK is not configured according to the parameter simultaneousAckNackAndCQI configured to the terminal, the method further comprising: receiving, from the terminal , the HARQ-ACK on the PUCCH without CSI in the serving cell in which the PUCCH is configured. configuring a plurality of serving cells comprising LTE SCells for a terminal ; configuring a simultaneous transmission of a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, for the terminal ; in case that the PUSCH is transmitted on at least one SCell associated with a licensed band, the method further comprising: receiving, from the terminal , periodic channel state information, CSI, on a PUSCH of an SCell with a smallest SCell index among the at least one SCell for the licensed band; and in case that the PUSCH is transmitted only on at least one SCell associated with the unlicensed band, and a simultaneous transmission of the periodic CSI and the HARQ-ACK is configured according to a parameter simultaneousAckNackAndCQI configured to the terminal, the method further comprising: receiving, from the terminal , the periodic CSI and the HARQ-ACK on the PUCCH in a serving cell in which the PUCCH is configured; in case that the PUSCH is transmitted only on at least one SCell associated with the unlicensed band, and the simultaneous transmission of the periodic CSI and the HARQ-ACK is not configured according to the parameter simultaneousAckNackAndCQI configured to the terminal, the method further comprising: receiving, from the terminal , the HARQ-ACK on the PUCCH without CSI in the serving cell in which the PUCCH is configured.
A method comprising the step of: treating a porous structure formed by rapid manufacturing technique with a thermal treatment to increase the bond strength between a plurality of micro-particles attached to said porous structure and said porous structure without substantially reducing the surface area of the porous structure, wherein the treated porous structure is suitable to form a medical implant wherein the rapid manufacturing technique is selected from the group consisting of direct metal fabrication, and direct metal laser sintering, wherein the thermal treatment provides average micro-particle diameter neck ratio greater than 1.5 and less than 5, and wherein the method further comprises the step of selecting the time and temperature for said thermal treatment, wherein said selection is configured to improve the bonding between said plurality of micro-particles and said porous structure while at least substantially preserving a desired roughness and friction of said porous structure, wherein the time and temperature of the thermal treatment is determined based at least on the desired friction of a surface of the porous structure, wherein the selecting step comprises: determining a friction value of said porous structure prior to treatment, determining a friction value of said porous structure subsequent to treatment, adjusting the time and temperature of said treatment until the friction value prior to treatment is at least substantially the same as the friction value subsequent to treatment, and wherein the selected time and temperature for said treatment results in the friction value prior to treatment being within about 0% to less than about 15% of the friction value subsequent to treatment, and wherein the porous structure is a metallic material selected from the group consisting of titanium, titanium alloy, zirconium, zirconium alloy, niobium, niobium alloy, tantalum, tantalum alloy, nickel-chromium (e.g., stainless steel), cobalt-chromium alloy and combinations thereof.