mhurhangee/patent-ind-claim-en huggingface dataset:
Spark plug having • a housing , • an insulator which is arranged within the housing , wherein the insulator has a longitudinal axis (X), an insulator foot , an insulator body and an insulator head and also an insulator seat which forms a transition from the insulator foot to the insulator body , • a centre electrode which is arranged within the insulator , • an earth electrode which is arranged on a combustion chamber-facing end side of the housing , wherein the earth electrode and the centre electrode are arranged such that the two electrodes form a spark gap, wherein the housing , on its inner side, has a housing seat on which the insulator , by way of its insulator seat , rests, wherein an inner seal is arranged between the housing seat and the insulator seat , so that the inner seal , the housing seat and the insulator seat form a sealing system, wherein the insulator seat has at least one step which has a first section and second sections , wherein the first section and the second sections are at an angle γ of greater than 0° in relation to one another and the first section is parallel to the insulator longitudinal axis (X), wherein the inner seal bears against this first section , so that a radial sealing face is formed on the insulator , characterized in that the inner seal projects beyond the insulator seat , so that a secondary sealing face is formed on the insulator foot . • a housing , • an insulator which is arranged within the housing , wherein the insulator has a longitudinal axis (X), an insulator foot , an insulator body and an insulator head and also an insulator seat which forms a transition from the insulator foot to the insulator body , • a centre electrode which is arranged within the insulator , • an earth electrode which is arranged on a combustion chamber-facing end side of the housing , wherein the earth electrode and the centre electrode are arranged such that the two electrodes form a spark gap, wherein the housing , on its inner side, has a housing seat on which the insulator , by way of its insulator seat , rests, wherein an inner seal is arranged between the housing seat and the insulator seat , so that the inner seal , the housing seat and the insulator seat form a sealing system, wherein the insulator seat has at least one step which has a first section and second sections , wherein the first section and the second sections are at an angle γ of greater than 0° in relation to one another and the first section is parallel to the insulator longitudinal axis (X), wherein the inner seal bears against this first section , so that a radial sealing face is formed on the insulator , characterized in that the inner seal projects beyond the insulator seat , so that a secondary sealing face is formed on the insulator foot .
A CV joint for a downhole drilling motor, comprising: a center shaft including a top shaft section and a bottom shaft section , the top shaft section including a central cavity , the bottom shaft section including a central cavity ; a first insert including a cavity housing the top shaft section ; a second insert including a cavity housing the bottom shaft section ; a rotor adapter including a cavity housing the first insert ; a drive shaft adapter including a cavity housing the second insert ; a top thrust member disposed within the central cavity of the top shaft section ; a bottom thrust member disposed within the central cavity of the bottom shaft section ; a top thrust pin partially disposed within the central cavity of the top shaft section and contacting the cavity of the first insert , the top thrust pin providing a vertical spacing between the center shaft and the first insert ; and a bottom thrust pin partially disposed within the central cavity of the bottom shaft section and contacting the cavity of the second insert , the bottom thrust pin providing a vertical spacing between the center shaft and the second insert . a center shaft including a top shaft section and a bottom shaft section , the top shaft section including a central cavity , the bottom shaft section including a central cavity ; a first insert including a cavity housing the top shaft section ; a second insert including a cavity housing the bottom shaft section ; a rotor adapter including a cavity housing the first insert ; a drive shaft adapter including a cavity housing the second insert ; a top thrust member disposed within the central cavity of the top shaft section ; a bottom thrust member disposed within the central cavity of the bottom shaft section ; a top thrust pin partially disposed within the central cavity of the top shaft section and contacting the cavity of the first insert , the top thrust pin providing a vertical spacing between the center shaft and the first insert ; and a bottom thrust pin partially disposed within the central cavity of the bottom shaft section and contacting the cavity of the second insert , the bottom thrust pin providing a vertical spacing between the center shaft and the second insert .
A flooring article , comprising at least one face having an anti-slip surface , the anti-slip surface comprising; a plurality of spaced apart circular projections raised with respect to the respective face, said projections having a top surface and a side extending between said top surface and said respective face, wherein each projection has a height of between 0.5 mm and 1.5 mm and a top surface with an area of between 9 mm 2 and 36 mm 2 , wherein each projection is shaped to have an angular edge between said top surface and said side, and wherein said projections are non-deformable, and wherein the side is shaped to flare outwardly at the base of the projection, and wherein the projections are moulded projections, characterised in that adjacent projections are spaced apart by between 10 mm and 16 mm, measured from centre to centre of said projections. a plurality of spaced apart circular projections raised with respect to the respective face, said projections having a top surface and a side extending between said top surface and said respective face, wherein each projection has a height of between 0.5 mm and 1.5 mm and a top surface with an area of between 9 mm 2 and 36 mm 2 , wherein each projection is shaped to have an angular edge between said top surface and said side, and wherein said projections are non-deformable, and wherein the side is shaped to flare outwardly at the base of the projection, and wherein the projections are moulded projections, characterised in that adjacent projections are spaced apart by between 10 mm and 16 mm, measured from centre to centre of said projections.
A method for subjecting a surface of a substrate to successive surface reactions of at least a first precursor (A), a second precursor (B) and a first subsequent precursor (C) according to the principles of atomic layer deposition for forming on the surface of the substrate a coating comprising two or more different coating layers , the method being carried out with a nozzle head comprising one or more first precursor nozzles for forming a first precursor zone and one or more second precursor nozzles for forming a second precursor zone , the method comprises: - a primary deposition step comprising subjecting the surface of the substrate to the first precursor (A) in the first precursor zone and subjecting the surface of the substrate to the second precursor (B) in the second precursor zone for forming a first coating layer on the surface of the substrate ; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the primary deposition step, characterized in that the method comprises: - a first changing step comprising changing the first precursor (A) in the first precursor zone to a first subsequent precursor (C) which is different than the first and second precursors (A, B); - an alternate deposition step comprising subjecting the surface of the substrate to the first subsequent precursor (C) in the first precursor zone and subjecting the surface of the substrate to the second precursor (B) in the second precursor zone for forming a subsequent coating layer on the surface of the substrate ; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the alternate deposition step. - a primary deposition step comprising subjecting the surface of the substrate to the first precursor (A) in the first precursor zone and subjecting the surface of the substrate to the second precursor (B) in the second precursor zone for forming a first coating layer on the surface of the substrate ; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the primary deposition step, - a first changing step comprising changing the first precursor (A) in the first precursor zone to a first subsequent precursor (C) which is different than the first and second precursors (A, B); - an alternate deposition step comprising subjecting the surface of the substrate to the first subsequent precursor (C) in the first precursor zone and subjecting the surface of the substrate to the second precursor (B) in the second precursor zone for forming a subsequent coating layer on the surface of the substrate ; - transporting the substrate and simultaneously moving the nozzle head in reciprocating manner over the surface of the substrate for carrying out the alternate deposition step.
A prosthesis for implantation within a body lumen, the prosthesis comprising: a tubular graft of a graft material; a stent comprised of a plurality of crowns and a plurality of struts with each crown being formed between a pair of opposing struts, the stent being coupled to the graft material proximate to an end of the tubular graft so as to have a first set of crowns adjacent to the end of the tubular graft and a second set of crowns distant from the end of the tubular graft relative to the first set of crowns; a pair of stoppers coupled adjacent to each crown of the first set of crowns, wherein each stopper has a tubular configuration and is attached to a respective one of the pair of opposing struts that the crown is formed between; and at least one stitch made adjacent to each end of each stopper, wherein the stiches secure a longitudinal position of the graft material relative to each stopper characterised in that the strut it is attached to the graft such that the first set of crowns are covered by and free of direct attachment to the graft material of the tubular graft. a tubular graft of a graft material; a stent comprised of a plurality of crowns and a plurality of struts with each crown being formed between a pair of opposing struts, the stent being coupled to the graft material proximate to an end of the tubular graft so as to have a first set of crowns adjacent to the end of the tubular graft and a second set of crowns distant from the end of the tubular graft relative to the first set of crowns; a pair of stoppers coupled adjacent to each crown of the first set of crowns, wherein each stopper has a tubular configuration and is attached to a respective one of the pair of opposing struts that the crown is formed between; and at least one stitch made adjacent to each end of each stopper, wherein the stiches secure a longitudinal position of the graft material relative to each stopper characterised in that the strut it is attached to the graft such that the first set of crowns are covered by and free of direct attachment to the graft material of the tubular graft.
A device for retarding birth comprising: an upper ring for surrounding a cervix and including a rounded edge for pushing on a fornix wall surrounding said cervix: an anchoring component for anchoring the device lower than said upper ring; and characterized by : the device comprising an elastic component for attaching the upper ring to the anchoring component, wherein the elastic component pushes the upper ring and the anchoring component apart and wherein the anchoring component is configured for anchoring said device to said cervix. an anchoring component for anchoring the device lower than said upper ring; and characterized by : the device comprising an elastic component for attaching the upper ring to the anchoring component, wherein the elastic component pushes the upper ring and the anchoring component apart and wherein the anchoring component is configured for anchoring said device to said cervix. the device comprising an elastic component for attaching the upper ring to the anchoring component, wherein the elastic component pushes the upper ring and the anchoring component apart and wherein the anchoring component is configured for anchoring said device to said cervix.
A composite separator comprising: (a) a substrate with a porous structure, and (b) an inorganic layer provided on at least one surface of the substrate, wherein the inorganic layer is an inorganic dielectric layer which is a continuous dense film layer with porosity lower than 10% and contains no binder, the porosity being obtained according to the method described in the description, a thickness of the inorganic layer is 20 nm-1000 nm, and an interfacial peeling force between the inorganic layer and the substrate of the composite separator with a width of 2 cm is no less than 30 N/m, the interfacial peeling force being obtained according to the method described in the description, characterized in that , the inorganic layer is uniformly coated on the surface of the porous substrate and inner walls of at least a part of pores on the surface; and a ratio of a depth of the pores coated with the inorganic layer to a thickness of the porous substrate is 1/1000-1/20. (a) a substrate with a porous structure, and (b) an inorganic layer provided on at least one surface of the substrate, wherein the inorganic layer is an inorganic dielectric layer which is a continuous dense film layer with porosity lower than 10% and contains no binder, the porosity being obtained according to the method described in the description, a thickness of the inorganic layer is 20 nm-1000 nm, and an interfacial peeling force between the inorganic layer and the substrate of the composite separator with a width of 2 cm is no less than 30 N/m, the interfacial peeling force being obtained according to the method described in the description, characterized in that , the inorganic layer is uniformly coated on the surface of the porous substrate and inner walls of at least a part of pores on the surface; and a ratio of a depth of the pores coated with the inorganic layer to a thickness of the porous substrate is 1/1000-1/20. wherein the inorganic layer is an inorganic dielectric layer which is a continuous dense film layer with porosity lower than 10% and contains no binder, the porosity being obtained according to the method described in the description, a thickness of the inorganic layer is 20 nm-1000 nm, and an interfacial peeling force between the inorganic layer and the substrate of the composite separator with a width of 2 cm is no less than 30 N/m, the interfacial peeling force being obtained according to the method described in the description, characterized in that , the inorganic layer is uniformly coated on the surface of the porous substrate and inner walls of at least a part of pores on the surface; and a ratio of a depth of the pores coated with the inorganic layer to a thickness of the porous substrate is 1/1000-1/20.
Apparatus comprising: a pump system controller having a signal processor or processing module configured to respond to signaling containing information about a set point and a speed related to one or more pumps in a pump system , including a variable speed multiple pump booster system, operating at a substantially constant discharge pressure; characterized in that the signal processor or processing module is configured to determine corresponding signaling containing information about an adjustment to the set point to compensate for system friction loss and maintain the substantially constant discharge pressure of the pump system for flow variation, using an interpolation based on a relationship between a minimum set point for a minimum speed and a maximum set point for a maximum speed so as to find a value of an adjusted set point for the speed in order to maintain the substantially constant discharge pressure of the pump system, based at least partly on the signaling received. a pump system controller having a signal processor or processing module configured to respond to signaling containing information about a set point and a speed related to one or more pumps in a pump system , including a variable speed multiple pump booster system, operating at a substantially constant discharge pressure; characterized in that the signal processor or processing module is configured to determine corresponding signaling containing information about an adjustment to the set point to compensate for system friction loss and maintain the substantially constant discharge pressure of the pump system for flow variation, using an interpolation based on a relationship between a minimum set point for a minimum speed and a maximum set point for a maximum speed so as to find a value of an adjusted set point for the speed in order to maintain the substantially constant discharge pressure of the pump system, based at least partly on the signaling received.
A water-dispersible paper characterized by comprising: a base paper that has a bulky layer containing, relative to a total amount of pulp contained in the bulky layer, 10% by weight or higher of a softwood pulp constituted by pulp fibers with a lumen width (l) to fiber diameter (D) ratio (l/D) of 0.60 or lower on average; and a water-soluble polymer impregnated into the base paper; wherein the base paper has, at least on one surface, a dense layer containing 30% by weight or higher of a softwood pulp with a lumen width (l) to fiber diameter (D) ratio (l/D) exceeding 0.60 on average; wherein a freeness of the pulp constituting the bulky layer is 600 ml CSF or higher but no higher than 750 ml CSF; wherein a freeness of the pulp constituting the dense layer is 450 ml CSF or higher but no higher than 600 ml CSF; and wherein the water-soluble polymer is selected from the group, comprising carboxyalkyl cellulose salt, alginic acid salt, pectic acid salt, polyacrylic acid salt, polymethacrylic acid salt, carboxyalkylated starch, phosphate esterified starch, anionic polyacrylamide, or other anionic polymer electrolyte salt, methyl cellulose, hydroxyalkyl cellulose, polyvinyl alcohol, polyvinyl pyrrolidone, polyalkylene oxide, polyvinyl alkyl ether, hydroxyalkylated starch, oxidized starch, pregelatinized starch, or other polymer nonelectrolyte, guar gum, trant gum, xanthan gum, gum arabic, carrageenan, galactomannan, pullulan, dextran, dextrin, or other water-soluble polysaccharide, gelatin, casein, or other water-soluble protein, or any combination thereof. a base paper that has a bulky layer containing, relative to a total amount of pulp contained in the bulky layer, 10% by weight or higher of a softwood pulp constituted by pulp fibers with a lumen width (l) to fiber diameter (D) ratio (l/D) of 0.60 or lower on average; and a water-soluble polymer impregnated into the base paper; wherein the base paper has, at least on one surface, a dense layer containing 30% by weight or higher of a softwood pulp with a lumen width (l) to fiber diameter (D) ratio (l/D) exceeding 0.60 on average; wherein a freeness of the pulp constituting the bulky layer is 600 ml CSF or higher but no higher than 750 ml CSF; wherein a freeness of the pulp constituting the dense layer is 450 ml CSF or higher but no higher than 600 ml CSF; and wherein the water-soluble polymer is selected from the group, comprising carboxyalkyl cellulose salt, alginic acid salt, pectic acid salt, polyacrylic acid salt, polymethacrylic acid salt, carboxyalkylated starch, phosphate esterified starch, anionic polyacrylamide, or other anionic polymer electrolyte salt, methyl cellulose, hydroxyalkyl cellulose, polyvinyl alcohol, polyvinyl pyrrolidone, polyalkylene oxide, polyvinyl alkyl ether, hydroxyalkylated starch, oxidized starch, pregelatinized starch, or other polymer nonelectrolyte, guar gum, trant gum, xanthan gum, gum arabic, carrageenan, galactomannan, pullulan, dextran, dextrin, or other water-soluble polysaccharide, gelatin, casein, or other water-soluble protein, or any combination thereof.
A communication control device comprising: an acquisition unit configured to acquire quality-related information regarding quality of a backhaul line to be used for providing control-related information regarding control in a control scheme of radio communication to a communication node to which the control scheme is applied; and a control unit configured to control the application of the control scheme to two or more communication nodes including the communication node based on the quality-related information; a plurality of communication nodes to which the control scheme is applied are classified into one or more groups based on information regarding the plurality of communication nodes, wherein the information regarding the plurality of communication nodes includes the quality-related information regarding quality of the backhaul line ; wherein the control unit controls, for each group which is included in the one or more groups, application of the control scheme to one or more communication nodes based on the quality-related information for the one or more communication nodes included in a group; and wherein the control scheme includes a scheme for suppressing interference in radio communication in which two or more communication nodes respectively participate and the control unit selects one interference control scheme among a plurality of interference control schemes based on the quality-related information. an acquisition unit configured to acquire quality-related information regarding quality of a backhaul line to be used for providing control-related information regarding control in a control scheme of radio communication to a communication node to which the control scheme is applied; and a control unit configured to control the application of the control scheme to two or more communication nodes including the communication node based on the quality-related information; a plurality of communication nodes to which the control scheme is applied are classified into one or more groups based on information regarding the plurality of communication nodes, wherein the information regarding the plurality of communication nodes includes the quality-related information regarding quality of the backhaul line ; wherein the control unit controls, for each group which is included in the one or more groups, application of the control scheme to one or more communication nodes based on the quality-related information for the one or more communication nodes included in a group; and wherein the control scheme includes a scheme for suppressing interference in radio communication in which two or more communication nodes respectively participate and the control unit selects one interference control scheme among a plurality of interference control schemes based on the quality-related information.