mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a cushioning article for an article of footwear , the method comprising: wrapping a multi-layer polymeric sheet around a support so that the polymeric sheet surrounds a perimeter of the support and a first portion of the polymeric sheet adjacent a first side edge of the polymeric sheet overlaps and is stacked on a second portion of the polymeric sheet adjacent a second side edge of the polymeric sheet ; welding the first portion to the second portion at a first weld (W1) disposed between the first side edge and the second side edge while the polymeric sheet is wrapped around the support so that the polymeric sheet forms an open-ended sheath with a top wall , a bottom wall , a first side wall and a second side wall and with the first weld (W1) disposed at only one of the top wall and the bottom wall ; removing the polymeric sheet from the support ; after removing the polymeric sheet from the support , welding the top wall to the bottom wall at a first transverse weld (TW1) and a second transverse weld (TW2), both the first transverse weld (TW1) and the second transverse weld (TW2) crossing the first weld (W1) and extending from the first side wall to the second side wall so that the polymeric sheet defines and encloses an interior cavity capable of retaining a fluid, and the first side wall and the second side wall are weld-free; and welding the top wall to the bottom wall at an intermediate weld (IW) that extends across the first weld (W1) and terminates inward of each of the first side wall , the second side wall , the first transverse weld (TW1), and the second transverse weld (TW2). wrapping a multi-layer polymeric sheet around a support so that the polymeric sheet surrounds a perimeter of the support and a first portion of the polymeric sheet adjacent a first side edge of the polymeric sheet overlaps and is stacked on a second portion of the polymeric sheet adjacent a second side edge of the polymeric sheet ; welding the first portion to the second portion at a first weld (W1) disposed between the first side edge and the second side edge while the polymeric sheet is wrapped around the support so that the polymeric sheet forms an open-ended sheath with a top wall , a bottom wall , a first side wall and a second side wall and with the first weld (W1) disposed at only one of the top wall and the bottom wall ; removing the polymeric sheet from the support ; after removing the polymeric sheet from the support , welding the top wall to the bottom wall at a first transverse weld (TW1) and a second transverse weld (TW2), both the first transverse weld (TW1) and the second transverse weld (TW2) crossing the first weld (W1) and extending from the first side wall to the second side wall so that the polymeric sheet defines and encloses an interior cavity capable of retaining a fluid, and the first side wall and the second side wall are weld-free; and welding the top wall to the bottom wall at an intermediate weld (IW) that extends across the first weld (W1) and terminates inward of each of the first side wall , the second side wall , the first transverse weld (TW1), and the second transverse weld (TW2).
A method for manufacturing a motor vehicle equipment item , comprising a step for assembling a spacer plastically deformable between a first and a second skin, characterized in that it includes a step for inserting at least one reinforcing element into the spacer , comprising the deformation of the spacer so as to form a cavity with dimensions complementary to those of the reinforcing element and in that the assembly step includes the gluing of the spacer comprising the reinforcement with the first and second skins.
A snubbing jack , comprising: a jack assembly comprising a base plate , a traveling plate , an axis extending through the base plate and the traveling plate , and a plurality of piston-cylinder assemblies configured to move the traveling plate axially with respect to the base plate ; a rotary drive comprising a rotary base and a hub , wherein the rotary drive is configured to rotate the hub relative to the rotary base , and wherein the rotary base is coupled to the traveling plate to travel axially with the traveling plate ; a clamp coupled to the rotary base and configured to grip a first tubular member ; a power tongs coupled to the rotary base and configured to grip a second tubular member and to rotate the second tubular member relative to the rotary base ; and a torque transfer device coupled between the rotary drive and the jack assembly and configured to allow the rotary drive to move axially relative to the base plate and configured to restrict rotation of the rotary drive relative to the jack assembly . a jack assembly comprising a base plate , a traveling plate , an axis extending through the base plate and the traveling plate , and a plurality of piston-cylinder assemblies configured to move the traveling plate axially with respect to the base plate ; a rotary drive comprising a rotary base and a hub , wherein the rotary drive is configured to rotate the hub relative to the rotary base , and wherein the rotary base is coupled to the traveling plate to travel axially with the traveling plate ; a clamp coupled to the rotary base and configured to grip a first tubular member ; a power tongs coupled to the rotary base and configured to grip a second tubular member and to rotate the second tubular member relative to the rotary base ; and a torque transfer device coupled between the rotary drive and the jack assembly and configured to allow the rotary drive to move axially relative to the base plate and configured to restrict rotation of the rotary drive relative to the jack assembly .
A dry powder pharmaceutical formulation comprising a compound of formula (I): or a pharmaceutically acceptable salt thereof.
A resource determining method performed by a second node, the method comprising the steps of: • receiving (S410) first resource configuration information from a first node, wherein the first resource configuration information is used to indicate a time domain position of an access resource set of the second node, and the access resource set of the second node comprises a first fixed access resource and a first plurality of dynamic access resources; • receiving second resource configuration information from the first node, wherein the second resource configuration information is used to indicate a time domain position of an access resource set of a lower-level node of the second node, and the access resource set of the lower-level node comprises a second fixed access resource and a second plurality of dynamic access resources; • receiving (S420) first indication information from the first node, wherein the first indication information is used to indicate information about a scheduled dynamic access resource that is used for a backhaul link of the second node and that is in the first plurality of dynamic access resources, and • determining, based on the information about the scheduled dynamic access resource used for the backhaul link of the second node, a dynamic access resource used for an access link of the second node among the first plurality of dynamic access resources. • receiving (S410) first resource configuration information from a first node, wherein the first resource configuration information is used to indicate a time domain position of an access resource set of the second node, and the access resource set of the second node comprises a first fixed access resource and a first plurality of dynamic access resources; • receiving second resource configuration information from the first node, wherein the second resource configuration information is used to indicate a time domain position of an access resource set of a lower-level node of the second node, and the access resource set of the lower-level node comprises a second fixed access resource and a second plurality of dynamic access resources; • receiving (S420) first indication information from the first node, wherein the first indication information is used to indicate information about a scheduled dynamic access resource that is used for a backhaul link of the second node and that is in the first plurality of dynamic access resources, and • determining, based on the information about the scheduled dynamic access resource used for the backhaul link of the second node, a dynamic access resource used for an access link of the second node among the first plurality of dynamic access resources.
A power conversion device comprising: a power converter configured to convert a direct-current or alternating-current voltage into an arbitrary voltage to drive an electric motor ; a control device configured to control the power converter to apply the arbitrary voltage to the electric motor ; and a current detector configured to detect or estimate a current that flows in the electric motor , wherein the control device is configured to apply the voltage to the electric motor when the electric motor is idling or stopped, and to determine a rotation condition of the electric motor by comparing a current value of the current detected or estimated by the current detector with a state determination value calculated based on the applied voltage; and the rotation condition of the electric motor is determined by comparing the current value of the current detected or estimated by the current detector with the state determination value at a time when a state determination time has elapsed; characterized in that : the state determination time is calculated using a voltage value of the voltage applied to the electric motor and an electric motor constant of the electric motor . a power converter configured to convert a direct-current or alternating-current voltage into an arbitrary voltage to drive an electric motor ; a control device configured to control the power converter to apply the arbitrary voltage to the electric motor ; and a current detector configured to detect or estimate a current that flows in the electric motor , wherein the control device is configured to apply the voltage to the electric motor when the electric motor is idling or stopped, and to determine a rotation condition of the electric motor by comparing a current value of the current detected or estimated by the current detector with a state determination value calculated based on the applied voltage; and the rotation condition of the electric motor is determined by comparing the current value of the current detected or estimated by the current detector with the state determination value at a time when a state determination time has elapsed; characterized in that : the state determination time is calculated using a voltage value of the voltage applied to the electric motor and an electric motor constant of the electric motor .
A compound of formula (X): wherein: R is hydrogen, CH 3 , Cl, CF 3 or CN; R 1 is cyclic or acyclic amine; and L is optionally substituted C 2 -C 30 alkyl, or saturated cyclic ring; or a compound selected from any one of the following compounds: R is hydrogen, CH 3 , Cl, CF 3 or CN; R 1 is cyclic or acyclic amine; and L is optionally substituted C 2 -C 30 alkyl, or saturated cyclic ring; or a compound selected from any one of the following compounds:
A display device comprising: a housing ; a display unit including a display panel and a module cover having at least one apron , of which at least a portion of the display panel and the at least one apron is connected to each other; a panel roller positioned inside the housing; an auxiliary roller positioned inside the housing, the auxiliary roller being positioned adjacent to a portion where the panel roller is configured to rotate to wind and unwind the display panel; a motor assembly ; an upper bar coupled to an upper part of the display unit; at least one support portion having one side coupled to an end of the upper bar and having another side coupled to the motor assembly, the at least one support portion moving the upper bar up and down with an operation of the motor assembly; and a protective sheet positioned inside the housing and configured such that: - when the display unit is unwound from the panel roller, the protective sheet is wound around the auxiliary roller, and - when the display unit is wound around the panel roller, the protective sheet is unwound from the auxiliary roller; wherein the auxiliary roller includes a coil spring configured to store energy while being wound, to enable an automatic unwinding of the protective sheet when the display panel is wound around the panel roller. a housing ; a display unit including a display panel and a module cover having at least one apron , of which at least a portion of the display panel and the at least one apron is connected to each other; a panel roller positioned inside the housing; an auxiliary roller positioned inside the housing, the auxiliary roller being positioned adjacent to a portion where the panel roller is configured to rotate to wind and unwind the display panel; a motor assembly ; an upper bar coupled to an upper part of the display unit; at least one support portion having one side coupled to an end of the upper bar and having another side coupled to the motor assembly, the at least one support portion moving the upper bar up and down with an operation of the motor assembly; and a protective sheet positioned inside the housing and configured such that: - when the display unit is unwound from the panel roller, the protective sheet is wound around the auxiliary roller, and - when the display unit is wound around the panel roller, the protective sheet is unwound from the auxiliary roller; - when the display unit is unwound from the panel roller, the protective sheet is wound around the auxiliary roller, and - when the display unit is wound around the panel roller, the protective sheet is unwound from the auxiliary roller; wherein the auxiliary roller includes a coil spring configured to store energy while being wound, to enable an automatic unwinding of the protective sheet when the display panel is wound around the panel roller.
A compound represented by following Chemical Formula 1, an optical isomer, a diastereomer or a racemate thereof, or a pharmaceutically acceptable salt thereof: wherein A is oxadiazole, dihydrooxazole, thiazole or thiadiazole, optionally substituted by one or more substituents selected from the group consisting of hydrogen, halogen, C1-C6 straight chain or branched chain alkyl and C1-C6 alcohol, the C1-C6 straight chain or branched alkyl or C1-C6 alcohol group being optionally substituted by hydrogen, halogen or a C1-C6 alkoxy group; B is pyridine, pyrimidine, pyrazine or oxadiazole, optionally substituted by one or more substituents selected from the group consisting of hydrogen, halogen, C1-C6 straight chain or branched chain alkyl, C1-C6 alcohol, C1-C6 alkoxy and oxadiazole groups, the C1-C6 straight chain or branched alkyl, C1-C6 alcohol, C1-C6 alkoxy or oxadiazole group being optionally substituted by hydrogen, halogen, C1-C6 alkyl or C1-C6 alkoxy group; and X is independently F, Cl, Br or I. A is oxadiazole, dihydrooxazole, thiazole or thiadiazole, optionally substituted by one or more substituents selected from the group consisting of hydrogen, halogen, C1-C6 straight chain or branched chain alkyl and C1-C6 alcohol, the C1-C6 straight chain or branched alkyl or C1-C6 alcohol group being optionally substituted by hydrogen, halogen or a C1-C6 alkoxy group; B is pyridine, pyrimidine, pyrazine or oxadiazole, optionally substituted by one or more substituents selected from the group consisting of hydrogen, halogen, C1-C6 straight chain or branched chain alkyl, C1-C6 alcohol, C1-C6 alkoxy and oxadiazole groups, the C1-C6 straight chain or branched alkyl, C1-C6 alcohol, C1-C6 alkoxy or oxadiazole group being optionally substituted by hydrogen, halogen, C1-C6 alkyl or C1-C6 alkoxy group; and X is independently F, Cl, Br or I.
A fire suppression system comprising: a water supply system configured to collect water effluent from at least one onboard water source (54a-54n); a gas generation system configured to provide a supply of inert gas to an inert flow line ; a gas-water mixer disposed downstream of the water supply system and the gas generation system , the gas-water mixer configured to receive the water effluent and the supply of inert gas and to generate an inert aerosol; a fire suppressant distribution network disposed downstream of the gas-water mixer , the fire suppressant distribution network configured to provide the inert aerosol to areas of an aircraft ; a high-rate discharge module connected to the fire suppressant distribution network ; characterized by a metered/low-rate discharge fire suppressant module connected to the fire suppressant distribution network ; a mixing valve disposed at an intersection of the inert flow line and the fire suppressant distribution network , wherein the metered/low-rate discharge module and the gas-water mixer are fluidly connected to the mixing valve such that the mixing valve can control a fire suppressant ratio between flows from each of the gas-water mixer and the metered/low-rate discharge module to the fire suppressant distribution network . a water supply system configured to collect water effluent from at least one onboard water source (54a-54n); a gas generation system configured to provide a supply of inert gas to an inert flow line ; a gas-water mixer disposed downstream of the water supply system and the gas generation system , the gas-water mixer configured to receive the water effluent and the supply of inert gas and to generate an inert aerosol; a fire suppressant distribution network disposed downstream of the gas-water mixer , the fire suppressant distribution network configured to provide the inert aerosol to areas of an aircraft ; a high-rate discharge module connected to the fire suppressant distribution network ; characterized by a metered/low-rate discharge fire suppressant module connected to the fire suppressant distribution network ; a mixing valve disposed at an intersection of the inert flow line and the fire suppressant distribution network , wherein the metered/low-rate discharge module and the gas-water mixer are fluidly connected to the mixing valve such that the mixing valve can control a fire suppressant ratio between flows from each of the gas-water mixer and the metered/low-rate discharge module to the fire suppressant distribution network .
A method for producing a sheet-metal component having a cross-section which is closed at least in partial regions and which comprises at least two sheet-metal parts joined together by way of a material-formed join , wherein the method comprises the following steps: - providing a first sheet-metal part and at least a second sheet-metal part , wherein the first sheet-metal part and/or the second sheet-metal part has/have a base (1.1, 2.1), frames (1.2, 2.2) and flanges (1.3, 2.3), - arranging the two sheet-metal parts such that they come into contact at least in partial regions via their flanges (1.3, 2.3), forming a cross-section which is closed at least in partial regions, and producing a material-formed join between the two sheet-metal parts , - after the production of the material-formed join the flanges (1.3, 2.3) are cut off at least in partial regions while maintaining the material-formed join , such that adjoining or in the region of the material-formed join a cutting contour (10.1) is produced on the sheet-metal component , characterised in that the cutting contour (10.1) on the sheet-metal component is then subjected to thermal treatment, wherein the thermal treatment serving to correct minimal defects such as holes and/or pores from the material-formed joining process. - providing a first sheet-metal part and at least a second sheet-metal part , wherein the first sheet-metal part and/or the second sheet-metal part has/have a base (1.1, 2.1), frames (1.2, 2.2) and flanges (1.3, 2.3), - arranging the two sheet-metal parts such that they come into contact at least in partial regions via their flanges (1.3, 2.3), forming a cross-section which is closed at least in partial regions, and producing a material-formed join between the two sheet-metal parts , - after the production of the material-formed join the flanges (1.3, 2.3) are cut off at least in partial regions while maintaining the material-formed join , such that adjoining or in the region of the material-formed join a cutting contour (10.1) is produced on the sheet-metal component ,
A method for regulating a traffic flow in a multi-lane roundabout , wherein the traffic flow is regulated by a traffic control unit , by which road users , which have entered the roundabout and/or approach the roundabout to enter it, are networked in a network and communicate via messages , and wherein a road user transmits a request to the traffic control unit as a message for entering, wherein before entry of the respective road user , the traffic flow in the roundabout is determined based on the previous messages , wherein a control signal is generated for the respectively entering road user as a message , to inform the road user when and/or along which route the road user is to enter and/or pass through the roundabout , wherein resources of the roundabout are managed by the traffic control unit , wherein the resources describe a lane or a partial section of the lane, on which the road user is to drive, and the message represents the data of the resources, which are allowed to be used by the entering road user to drive in the roundabout such that it is matched with other road users, wherein the road users get allocated alternative routes for the roundabout by an adaptation of the association of the resources of the roundabout if a jam occurs in the roundabout and/or a preceding vehicle fails or breaks down in the roundabout, wherein the alternative routes provide a lane change such that the traffic flow through the roundabout can flow without accident and in uninterrupted manner. wherein the traffic flow is regulated by a traffic control unit , by which road users , which have entered the roundabout and/or approach the roundabout to enter it, are networked in a network and communicate via messages , and wherein a road user transmits a request to the traffic control unit as a message for entering, wherein before entry of the respective road user , the traffic flow in the roundabout is determined based on the previous messages , wherein a control signal is generated for the respectively entering road user as a message , to inform the road user when and/or along which route the road user is to enter and/or pass through the roundabout , wherein resources of the roundabout are managed by the traffic control unit , wherein the resources describe a lane or a partial section of the lane, on which the road user is to drive, and the message represents the data of the resources, which are allowed to be used by the entering road user to drive in the roundabout such that it is matched with other road users, wherein the road users get allocated alternative routes for the roundabout by an adaptation of the association of the resources of the roundabout if a jam occurs in the roundabout and/or a preceding vehicle fails or breaks down in the roundabout, wherein the alternative routes provide a lane change such that the traffic flow through the roundabout can flow without accident and in uninterrupted manner.