mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tire comprising a base tread formed from a rubber composition, the rubber composition comprising: a hydrogenated styrene-butadiene copolymer obtained by copolymerization of an aromatic vinyl compound and a conjugated diene compound, the hydrogenated styrene-butadiene copolymer having a degree of hydrogenation of the conjugated diene units of 75 mol% or more, a weight average molecular weight of 200, 000 to 2,000,000, and a styrene content of 5% to 40% by mass; carbon black; and silica, the rubber composition comprising, per 100% by mass of a rubber component, 75% by mass or more of the hydrogenated styrene-butadiene copolymer, the rubber composition comprising, relative to 100 parts by mass of the rubber component, 30 to 80 parts by mass of the carbon black and 10 to 80 parts by mass of the silica, wherein the base tread refers to an inner layer of a tread having a multilayer structure. a hydrogenated styrene-butadiene copolymer obtained by copolymerization of an aromatic vinyl compound and a conjugated diene compound, the hydrogenated styrene-butadiene copolymer having a degree of hydrogenation of the conjugated diene units of 75 mol% or more, a weight average molecular weight of 200, 000 to 2,000,000, and a styrene content of 5% to 40% by mass; carbon black; and silica, the rubber composition comprising, per 100% by mass of a rubber component, 75% by mass or more of the hydrogenated styrene-butadiene copolymer, the rubber composition comprising, relative to 100 parts by mass of the rubber component, 30 to 80 parts by mass of the carbon black and 10 to 80 parts by mass of the silica, wherein the base tread refers to an inner layer of a tread having a multilayer structure.
An insulated wire having a conductor and at least two insulating coating layers formed surrounding the conductor, wherein the insulating coating layers comprise: an outermost layer, which has a thickness in the range of 20 to 50% based on the total thickness of the insulating coating layers and comprises a polyimide resin; and a base insulating coating layer in contact with the conductor, which has a thickness in a range of 50 to 80% based on the total thickness of the insulating coating layers and comprises a polyamide-imide resin having an adhesion-improving agent, wherein the polyimide resin of the outermost layer further comprises an amide group, and the molar ratio of the amide group and the imide group in the polyimide resin is in the range of 0.01:99.99 to 10:90, and wherein the outermost layer is pyrolyzed in the range of 5 wt% or less at a temperature of 500 °C or higher. an outermost layer, which has a thickness in the range of 20 to 50% based on the total thickness of the insulating coating layers and comprises a polyimide resin; and a base insulating coating layer in contact with the conductor, which has a thickness in a range of 50 to 80% based on the total thickness of the insulating coating layers and comprises a polyamide-imide resin having an adhesion-improving agent,
A method for regenerating a Claus unit in a sulfur removal complex comprising a plurality of Claus units and a smaller number of tail gas treating units (TGTUs), the method comprising the steps of: (a) switching the feed to the regenerating Claus unit's reaction furnace to natural gas; (b) combusting the natural gas in the reaction furnace using an approximately stoichiometric amount of oxygen; (c) sending the tail gas from the regenerating Claus unit to an in-service TGTU; (d) once liquid sulfur is no longer produced from the regenerating Claus unit in step (b), sending the tail gas to an in-service Claus unit's reaction furnace; and (e) adding excess oxygen to the regenerating Claus unit's reaction furnace. (a) switching the feed to the regenerating Claus unit's reaction furnace to natural gas; (b) combusting the natural gas in the reaction furnace using an approximately stoichiometric amount of oxygen; (c) sending the tail gas from the regenerating Claus unit to an in-service TGTU; (d) once liquid sulfur is no longer produced from the regenerating Claus unit in step (b), sending the tail gas to an in-service Claus unit's reaction furnace; and (e) adding excess oxygen to the regenerating Claus unit's reaction furnace.
A gallium arsenide single crystal substrate having a main surface, wherein a ratio of a number of As atoms existing as diarsenic trioxide to a number of As atoms existing as diarsenic pentoxide is greater than or equal to 2 when the main surface is measured by X-ray photoelectron spectroscopy, in which an X-ray having an energy of 150 eV is used and a take-off angle of a photoelectron is set to 5°, and arithmetic average roughness Ra of the main surface is less than or equal to 0.3 nm. a ratio of a number of As atoms existing as diarsenic trioxide to a number of As atoms existing as diarsenic pentoxide is greater than or equal to 2 when the main surface is measured by X-ray photoelectron spectroscopy, in which an X-ray having an energy of 150 eV is used and a take-off angle of a photoelectron is set to 5°, and arithmetic average roughness Ra of the main surface is less than or equal to 0.3 nm.
An electrical connector, comprising: a conductive connector shell having a mating interface end and an opposite board engagement end ; and a contact subassembly received in the connector shell, the contact subassembly comprising, first and second signal wafers and a ground wafer separate from the first and second signal wafers, the ground wafer being sandwiched between the first and second signal wafers, each of the first and second signal wafers including one or more signal contacts that has a tail end and an opposite mating end , and a dielectric wafer body formed around the one or more signal contacts such that the tail and mating ends of the one or more signal contacts are outside of the wafer body, the tail end of the one or more signal contacts extends through and beyond the board engagement end of the connector shell and the mating end of the one more signal contacts extends toward the mating interface end of the connector shell, and characterised by the ground wafer including one or more ground contacts and a dielectric wafer body formed around the one or more ground contacts such that a tail end of the one or more ground contacts is outside of the wafer body of the ground wafer and extends through and beyond the board engagement end of the connector shell. a conductive connector shell having a mating interface end and an opposite board engagement end ; and a contact subassembly received in the connector shell, the contact subassembly comprising, first and second signal wafers and a ground wafer separate from the first and second signal wafers, the ground wafer being sandwiched between the first and second signal wafers, each of the first and second signal wafers including one or more signal contacts that has a tail end and an opposite mating end , and a dielectric wafer body formed around the one or more signal contacts such that the tail and mating ends of the one or more signal contacts are outside of the wafer body, the tail end of the one or more signal contacts extends through and beyond the board engagement end of the connector shell and the mating end of the one more signal contacts extends toward the mating interface end of the connector shell, and characterised by the ground wafer including one or more ground contacts and a dielectric wafer body formed around the one or more ground contacts such that a tail end of the one or more ground contacts is outside of the wafer body of the ground wafer and extends through and beyond the board engagement end of the connector shell.
A sole structure for an article of footwear , comprising: an outer sole component formed of a first mold material, the outer sole component having an exposed surface configured to engage a ground surface and an interior surface opposite the exposed surface; and a flex modifier component having a generally rectangular shaped body having a first width and an extended portion having a second width , wherein the second width is less than the first width, the flex modifier component being formed of a fiber material and a second mold material, the flex modifier component being co-molded with the outer sole component so that an upper surface of the flex modifier component is substantially continuous or flush with the interior surface of the outer sole component. an outer sole component formed of a first mold material, the outer sole component having an exposed surface configured to engage a ground surface and an interior surface opposite the exposed surface; and a flex modifier component having a generally rectangular shaped body having a first width and an extended portion having a second width , wherein the second width is less than the first width, the flex modifier component being formed of a fiber material and a second mold material, the flex modifier component being co-molded with the outer sole component so that an upper surface of the flex modifier component is substantially continuous or flush with the interior surface of the outer sole component.
A vehicle with an aerial work platform and a travel control device for said vehicle , comprising: - a traveling body having a steering wheel and capable of traveling; - a revolving superstructure provided on the traveling body in a rotatable manner; - a boom (30; 31, 32, 33) provided on the revolving superstructure in a vertically swingable manner; - a work platform provided at a tip end of the boom (30; 31, 32, 33) and configured to allow an operator (M) to board thereon; and - a steering operation device provided in the work platform and configured to be operated by the operator (M) in the work platform ; characterized in that the vehicle also comprises: a steering actuator configured to cause the steering wheel to perform steering actuation; and a steering actuator controller configured to: - control actuation of the steering actuator in response to operation of the steering operation device , and correct an actuation speed of the steering actuator responsive to the operation of the steering operation device depending on the speed index value detected by the speed index-value detector to control the actuation of the steering actuator so as to achieve the corrected actuation speed, the travel control device comprises a speed index-value detector configured to detect a speed index value indicative of a travel speed of the traveling body , and the steering actuator controller is configured to control the actuation of the steering actuator in response to the operation of the steering operation device and depending on the speed index value detected by the speed index-value detector. - a traveling body having a steering wheel and capable of traveling; - a revolving superstructure provided on the traveling body in a rotatable manner; - a boom (30; 31, 32, 33) provided on the revolving superstructure in a vertically swingable manner; - a work platform provided at a tip end of the boom (30; 31, 32, 33) and configured to allow an operator (M) to board thereon; and - a steering operation device provided in the work platform and configured to be operated by the operator (M) in the work platform ; a steering actuator configured to cause the steering wheel to perform steering actuation; and a steering actuator controller configured to: - control actuation of the steering actuator in response to operation of the steering operation device , and - control actuation of the steering actuator in response to operation of the steering operation device , and correct an actuation speed of the steering actuator responsive to the operation of the steering operation device depending on the speed index value detected by the speed index-value detector to control the actuation of the steering actuator so as to achieve the corrected actuation speed, the travel control device comprises a speed index-value detector configured to detect a speed index value indicative of a travel speed of the traveling body , and the steering actuator controller is configured to control the actuation of the steering actuator in response to the operation of the steering operation device and depending on the speed index value detected by the speed index-value detector.
A computer-implemented method, comprising: receiving, in a server, a request from a service provider, the request including a consumer identification code associated with a consumer; obtaining a personalized list of universal product codes based on the consumer identification code and a purchase history log in a database; providing the personalized list of universal product codes to the service provider; receiving a tracking pixel indicative that the consumer has interacted with a consumer payload, wherein the consumer payload is associated with at least one product from the personalized list of universal product codes; and notifying a retailer that the consumer has interacted with the consumer payload based on the tracking pixel, wherein obtaining a personalized list of universal product codes comprises: removing, from the personalized list of universal product codes, an item purchased by the consumer in a most recent selected period of time, and padding the personalized list of universal product codes with a default universal product code when the purchase history log is exhausted before completing a pre-selected quota of universal product codes. receiving, in a server, a request from a service provider, the request including a consumer identification code associated with a consumer; obtaining a personalized list of universal product codes based on the consumer identification code and a purchase history log in a database; providing the personalized list of universal product codes to the service provider; receiving a tracking pixel indicative that the consumer has interacted with a consumer payload, wherein the consumer payload is associated with at least one product from the personalized list of universal product codes; and notifying a retailer that the consumer has interacted with the consumer payload based on the tracking pixel, wherein obtaining a personalized list of universal product codes comprises: removing, from the personalized list of universal product codes, an item purchased by the consumer in a most recent selected period of time, and padding the personalized list of universal product codes with a default universal product code when the purchase history log is exhausted before completing a pre-selected quota of universal product codes. removing, from the personalized list of universal product codes, an item purchased by the consumer in a most recent selected period of time, and padding the personalized list of universal product codes with a default universal product code when the purchase history log is exhausted before completing a pre-selected quota of universal product codes.
An in vitro or ex vivo method for producing a site-specifically serine ADP-ribosylated protein or peptide, comprising: (a) subjecting a protein or peptide comprising or consisting of an amino acid sequence comprising two or more serines, wherein at least one serine is phosphorylated and at least one serine is non-phosphorylated, to a serine ADP-ribosylation reaction. (a) subjecting a protein or peptide comprising or consisting of an amino acid sequence comprising two or more serines, wherein at least one serine is phosphorylated and at least one serine is non-phosphorylated, to a serine ADP-ribosylation reaction.
A non-human vertebrate cell whose genome comprises the VH, D and JH gene segments from Table 3 upstream of a constant region at a heavy chain locus and the Vκ and Jκ gene segments from Table 10 or 11 upstream of a constant region at a light chain locus, wherein the gene segments in each locus are operably linked to the constant region thereof so that the cell is capable of producing an antibody heavy chain and an antibody light chain, or where the cell can develop into a vertebrate that expresses an antibody heavy chain and an antibody light chain, and wherein the non-human vertebrate cell is a mouse or rat cell.
A method, comprising: a) providing a molten steel having a carbon content; and b) introducing a carbon containing recarburizing agent into the molten steel under conditions effective to provide a recarburized molten steel composition having an increased carbon content; wherein at least a portion of the carbon containing recarburizing agent comprises a reclaimed olefin coke, wherein the reclaimed olefin coke is catalytic or pyrolytic coke, or a combination thereof. a) providing a molten steel having a carbon content; and b) introducing a carbon containing recarburizing agent into the molten steel under conditions effective to provide a recarburized molten steel composition having an increased carbon content; wherein at least a portion of the carbon containing recarburizing agent comprises a reclaimed olefin coke, wherein the reclaimed olefin coke is catalytic or pyrolytic coke, or a combination thereof.
High electrical conductive, high temperature stable foil material comprising an aluminium alloy, the aluminium alloy comprises at least two elements selected from the group consisting of scandium (Sc), magnesium (Mg), zirconium (Zr), ytterbium (Yb) and manganese (Mn), wherein the aluminium alloy comprises ytterbium (Yb) in an amount from 0.075 to 0.5 wt.-%, based on the total weight of the aluminium alloy.
A wind turbine comprising: a tower ; a wind rotor , which is arranged at a top portion of the tower and which comprises at least one blade , wherein the at least one blade is arranged in a first blade pitch position; and a seismic event control device , configured to actuate the at least one blade from the first blade pitch position to a second blade pitch position, being different from the first blade pitch position, in order to reduce seismic load acting on the wind turbine ; wherein a first blade edge resonant frequency of the first blade pitch position is closer to a dominant seismic event resonant frequency than a second blade edge resonant frequency of the second blade pitch position; and/or wherein the first blade pitch position is a non energy production position, and wherein the second blade pitch position is an energy production position. a tower ; a wind rotor , which is arranged at a top portion of the tower and which comprises at least one blade , wherein the at least one blade is arranged in a first blade pitch position; and a seismic event control device , configured to actuate the at least one blade from the first blade pitch position to a second blade pitch position, being different from the first blade pitch position, in order to reduce seismic load acting on the wind turbine ; wherein a first blade edge resonant frequency of the first blade pitch position is closer to a dominant seismic event resonant frequency than a second blade edge resonant frequency of the second blade pitch position; and/or
A method for receiving a communication history by a first terminal , the method comprising: sending (3211-3213), to a first server , a subscribe request for receiving a communication history using a user of the first terminal ; receiving (3221-3223, 3241-3243), from the first server , communication history information corresponding to all terminals corresponding to the user, wherein the communication history information includes information about all group members making a group call; storing the communication history information in the first terminal , in response to receiving a user input for making a new group call, sending , to a second server , a request for receiving filtered presence information for one or more group members among the all group members based on the communication history information; receiving , from the second sever , the filtered presence information for the one or more group members; and making the new group call between the first terminal and the one or more group members based on the filtered presence information. sending (3211-3213), to a first server , a subscribe request for receiving a communication history using a user of the first terminal ; receiving (3221-3223, 3241-3243), from the first server , communication history information corresponding to all terminals corresponding to the user, wherein the communication history information includes information about all group members making a group call; storing the communication history information in the first terminal , in response to receiving a user input for making a new group call, sending , to a second server , a request for receiving filtered presence information for one or more group members among the all group members based on the communication history information; receiving , from the second sever , the filtered presence information for the one or more group members; and making the new group call between the first terminal and the one or more group members based on the filtered presence information.
An interconnect for coupling a superconducting system and a non-superconducting system , the interconnect comprising: a first end configured for coupling to the superconducting system , wherein the interconnect comprises a superconducting element (304; 404; 510) having a critical temperature; and a second end configured for coupling to the non-superconducting system , wherein the interconnect further comprises: a first layer comprising at least the superconducting element, a second layer comprising a non-superconducting metal element (320; 412; 512), wherein a thickness of the second layer is varied along a length-wise direction of the interconnect such that during operation of the superconducting system and the non-superconducting system the temperature substantially over an entire length of the interconnect is maintained at a temperature equal to or below the critical temperature of the superconducting element. a first end configured for coupling to the superconducting system , wherein the interconnect comprises a superconducting element (304; 404; 510) having a critical temperature; and a second end configured for coupling to the non-superconducting system , wherein the interconnect further comprises: a first layer comprising at least the superconducting element, a second layer comprising a non-superconducting metal element (320; 412; 512), wherein a thickness of the second layer is varied along a length-wise direction of the interconnect such that during operation of the superconducting system and the non-superconducting system the temperature substantially over an entire length of the interconnect is maintained at a temperature equal to or below the critical temperature of the superconducting element. a first layer comprising at least the superconducting element, a second layer comprising a non-superconducting metal element (320; 412; 512), wherein a thickness of the second layer is varied along a length-wise direction of the interconnect such that during operation of the superconducting system and the non-superconducting system the temperature substantially over an entire length of the interconnect is maintained at a temperature equal to or below the critical temperature of the superconducting element.