mhurhangee/ep-ind-claims huggingface dataset:
A sanitary shower head, in particular for a hand-held shower, comprising - a fluid inlet, - a first fluid outlet from the sanitary shower head and a second fluid outlet from the sanitary shower head, - a first fluid outlet intake duct leading from the fluid inlet to the first fluid outlet, - a second fluid outlet intake duct leading from the fluid inlet to the second fluid outlet, and - a user-actuatable shut-off device, configured for optionally enabling or blocking of the second fluid outlet intake duct, characterized by - a fluid crossover connection from the second fluid outlet intake duct to the first fluid outlet intake duct, wherein the fluid crossover connection issues from the second fluid outlet intake duct in fluid flow direction upstream of the shut-off device, and - a restrictor element which is configured to be shiftable between an open position, when the second fluid outlet intake duct is blocked, and a restrictor position, when the second fluid outlet intake duct is enabled, and regulates a flow cross-section of the first fluid outlet intake duct in fluid flow direction downstream of the fluid crossover connection and/or a flow cross-section of the fluid crossover connection. - a fluid inlet, - a first fluid outlet from the sanitary shower head and a second fluid outlet from the sanitary shower head, - a first fluid outlet intake duct leading from the fluid inlet to the first fluid outlet, - a second fluid outlet intake duct leading from the fluid inlet to the second fluid outlet, and - a user-actuatable shut-off device, configured for optionally enabling or blocking of the second fluid outlet intake duct, - a fluid crossover connection from the second fluid outlet intake duct to the first fluid outlet intake duct, wherein the fluid crossover connection issues from the second fluid outlet intake duct in fluid flow direction upstream of the shut-off device, and - a restrictor element which is configured to be shiftable between an open position, when the second fluid outlet intake duct is blocked, and a restrictor position, when the second fluid outlet intake duct is enabled, and regulates a flow cross-section of the first fluid outlet intake duct in fluid flow direction downstream of the fluid crossover connection and/or a flow cross-section of the fluid crossover connection.
An ultrasonic transducer as an essential part of an ultrasonic flowmeter, comprising a transducer housing and a transducer element, wherein the transducer housing comprises an ultrasonic window, a housing tube and a housing flange, and the transducer element is provided either at the end of the housing tube facing towards the medium whose flow rate is to be measured or at the end of the housing tube facing away from the medium whose flow rate is to be measured, wherein the ultrasonic transducer is to be attached to a transducer holder with the help of the housing flange and, for this, the housing flange of the transducer housing is to be clamped between a holder flange of the transducer holder and a opposing flange with the help of retaining screws and lock nuts, characterized in that the housing flange of the transducer housing has an outer contour on its side facing the opposing flange, which allows the opposing flange to be clamped against the housing flange of the transducer housing without tilting the housing flange, wherein the outer contour is stepped, bevelled or rounded.
A roof and/or partition element for a tent or shelter-like item for cooperating with a support structure of said item so as to generate a sheltered area in a position mounted, the roof and/or partition element comprising: a flexible outer panel having an inner face facing the sheltered area and an outer face opposite the inner face; an opaque or at least partially opaque film applied to at least one portion of said inner face and/or to at least one portion of said outer face of the flexible outer panel; and a flexible separating panel arranged to delimit a separate volume separated from the sheltered area, the flexible separating panel having an inner face facing the separate volume, an outer face opposite the inner face, characterized in that the roof and/or partition element further comprises: an opaque or at least partially opaque film applied to at least one portion of said inner face and/or to at least one portion of said outer face of the flexible separating panel. a flexible outer panel having an inner face facing the sheltered area and an outer face opposite the inner face; an opaque or at least partially opaque film applied to at least one portion of said inner face and/or to at least one portion of said outer face of the flexible outer panel; and a flexible separating panel arranged to delimit a separate volume separated from the sheltered area, the flexible separating panel having an inner face facing the separate volume, an outer face opposite the inner face, characterized in that the roof and/or partition element further comprises: an opaque or at least partially opaque film applied to at least one portion of said inner face and/or to at least one portion of said outer face of the flexible separating panel.
A method of accelerating setup of a persistent connection over a network between a client device (102, 102a, 102b) and a remote host server (150, 150a, 150b, 150c), where establishing the connection requires a connection request by the client device and a corresponding connection response by the remote host server, the method comprising: generating, by a pre-connect module on a client side of the network, a pre-connect request on behalf of the client device, the pre-connect request being a connection request that mimics a connection request that would be generated by the client device as part of a network transaction the client device is expected to execute; sending, by the pre-connect module, the pre-connect request to the remote host server; receiving, at the pre-connect module, a pre-connect response from the remote host server in response to the pre-connect request; prepositioning, by the pre-connect module, the pre-connect response on a client-side of the network, comprising storing the pre-connect response in a pre-responses cache; and characterised in that the method further comprises prepositioning on the client side of the network, by the pre-connect module, generation information indicating how the pre-connect request was generated. generating, by a pre-connect module on a client side of the network, a pre-connect request on behalf of the client device, the pre-connect request being a connection request that mimics a connection request that would be generated by the client device as part of a network transaction the client device is expected to execute; sending, by the pre-connect module, the pre-connect request to the remote host server; receiving, at the pre-connect module, a pre-connect response from the remote host server in response to the pre-connect request; prepositioning, by the pre-connect module, the pre-connect response on a client-side of the network, comprising storing the pre-connect response in a pre-responses cache; and characterised in that the method further comprises prepositioning on the client side of the network, by the pre-connect module, generation information indicating how the pre-connect request was generated.
A transparency adjustment system, wherein said transparency adjustment system comprises: a. a transparent physical element whose electrical behavior is that of a capacitive load; and, b. power dimmer apparatus (1, 2, 3, 4, 5) operative to provide AC voltage to the transparent physical element to generate a set of transparency states including a plurality of transparency states other than full transparency, wherein said power dimmer apparatus (1, 2, 3, 4, 5) comprises: i. a single power switch powering said transparent physical element; and ii. a single control circuit including a comparator operative to receive and to compare: 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref); and operative, when the incoming level of AC voltage reaches the user-selected reference voltage (V ref), to generate an output triggering truncation of sinusoidal AC voltage applied to the transparent physical element, such that the control circuit controls the power switch to turn on and off; further wherein DC voltage reaching the transparent physical element from the single power switch is necessarily at most 1% of the AC voltage provided to the transparent physical element. a. a transparent physical element whose electrical behavior is that of a capacitive load; and, b. power dimmer apparatus (1, 2, 3, 4, 5) operative to provide AC voltage to the transparent physical element to generate a set of transparency states including a plurality of transparency states other than full transparency, wherein said power dimmer apparatus (1, 2, 3, 4, 5) comprises: i. a single power switch powering said transparent physical element; and ii. a single control circuit including a comparator operative to receive and to compare: 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref); and operative, when the incoming level of AC voltage reaches the user-selected reference voltage (V ref), to generate an output triggering truncation of sinusoidal AC voltage applied to the transparent physical element, such that the control circuit controls the power switch to turn on and off; i. a single power switch powering said transparent physical element; and ii. a single control circuit including a comparator operative to receive and to compare: 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref); 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref);
An implantable prosthetic device for helping to seal native heart valves and prevent or reduce regurgitation therethrough, the prosthetic device comprising: a coaption element; a plurality of paddles (120, 122) moveable from a closed position to an open position such as to capture native mitral or tricuspid valve leaflets (42, 44) between the paddles (120, 122) and the coaption element; and a double-ended barb clasp having a base with hinge portions disposed proximate the coaption element and moveable arms extending from both ends of the base; wherein each of the moveable arms is moveable from an open position to a closed position to pinch the native mitral or tricuspid valve tissue (42, 44) against a respective one of the plurality of paddles (120, 122). a coaption element; a plurality of paddles (120, 122) moveable from a closed position to an open position such as to capture native mitral or tricuspid valve leaflets (42, 44) between the paddles (120, 122) and the coaption element; and a double-ended barb clasp having a base with hinge portions disposed proximate the coaption element and moveable arms extending from both ends of the base; wherein each of the moveable arms is moveable from an open position to a closed position to pinch the native mitral or tricuspid valve tissue (42, 44) against a respective one of the plurality of paddles (120, 122).
Cooking hob, in particular induction cooking hob, including a housing and a cooking hob plate attached to the housing, wherein the housing and the cooking hob plate enclose at least one interior space in which electric and/or electronic components of the cooking hob are arrangeable or arranged, wherein the housing comprises at least one or two or more bottom walls (30, 32, 36) and at least one or two or more side walls (14a-d, 34), wherein at least one or two or more side walls are housing side walls (14a-d) that form the outermost side walls (14a-14d) of the housing and that extend upwards from at least one or two or more of the bottom walls (30, 32, 36) and which are provided to be attached to the cooking hob plate, and wherein at least one or two or more side walls are interior side walls being distanced from the outermost side walls (14a-14d) that extend upwards from at least one or two or more of the bottom walls (30, 32, 36) towards another of the at least one or two or more bottom walls (30, 32, 36), wherein the interior side walls are positioned inside from the at least one or two or more housing side walls (14a-d), wherein at least one of the interior side walls comprises at least one or two or a plurality of air outlets, characterized in that the housing is made of a plastics material, and that the housing is formed integrally with at least one electric terminal.
A surface acoustic wave device (1/11/21) comprising: a piezoelectric substrate including a high acoustic-velocity substrate in which an acoustic velocity of a transverse wave is 5400 m/sec or higher and 8660 m/sec or lower, and a LiNbO 3 single-crystal plate formed on the high acoustic-velocity substrate and having Euler angles (0°, 67° to 160°, -5° to +5°); and an electrode formed on the piezoelectric substrate and made of metal; characterized in that the thickness of the LiNbO 3 single-crystal plate is in a range of 0.05λ to 1.6λ when a wavelength of a surface acoustic wave is defined as λ. a piezoelectric substrate including a high acoustic-velocity substrate in which an acoustic velocity of a transverse wave is 5400 m/sec or higher and 8660 m/sec or lower, and a LiNbO 3 single-crystal plate formed on the high acoustic-velocity substrate and having Euler angles (0°, 67° to 160°, -5° to +5°); and an electrode formed on the piezoelectric substrate and made of metal; characterized in that the thickness of the LiNbO 3 single-crystal plate is in a range of 0.05λ to 1.6λ when a wavelength of a surface acoustic wave is defined as λ.
A flow system for medical lines comprising a flow component having a main duct for a primary fluid and at least one lateral tubular fitting with female luer cone communicating with the main duct through a valve including a transverse diaphragm constituted by the bottom wall of a cup-shaped element made of elastically deformable material, the outer peripheral edge of which is normally kept in fluid-tight contact against an annular valve seat of said lateral tubular fitting, and a male luer-cone introducer of secondary fluid, which can be inserted into said lateral tubular fitting with female luer cone to displace said transverse diaphragm into an opening position, wherein said diaphragm is prearranged for being pushed into said opening position as a result of the direct contact with and thrust by said introducer, said flow system being characterized in that said lateral tubular fitting is made of a relatively yelding elastic material and can expand elastically in a radial direction following upon coupling with said introducer in such a way as to couple in a fluid-tight way with said introducer before the latter comes into contact of thrust with said diaphragm and in that said lateral tubular fitting has a wall locally thinned axially.
An adhesive sheet joining method of joining an adhesive sheet to a workpiece, the method comprising: transporting the adhesive sheet while holding the adhesive sheet with a transporting mechanism, the adhesive sheet having a separator attached thereto that is larger than the adhesive sheet; separating the separator from the adhesive sheet by holding a portion of the separator protruding from a front end of the adhesive sheet with a holder on a tip of an arm of a separating mechanism in front of the adhesive sheet in a standby state, and by moving the holder in a direction crossing a transportation direction of the adhesive sheet and moving the transporting mechanism in synchronization with movement of the holder in the transportation direction while folding back the separator at an end of a supporting member contacting the separator as a starting point; and joining the adhesive sheet by transporting the adhesive sheet with the separator separated therefrom to the workpiece with the adhesive sheet being held with the transporting mechanism. transporting the adhesive sheet while holding the adhesive sheet with a transporting mechanism, the adhesive sheet having a separator attached thereto that is larger than the adhesive sheet; separating the separator from the adhesive sheet by holding a portion of the separator protruding from a front end of the adhesive sheet with a holder on a tip of an arm of a separating mechanism in front of the adhesive sheet in a standby state, and by moving the holder in a direction crossing a transportation direction of the adhesive sheet and moving the transporting mechanism in synchronization with movement of the holder in the transportation direction while folding back the separator at an end of a supporting member contacting the separator as a starting point; and joining the adhesive sheet by transporting the adhesive sheet with the separator separated therefrom to the workpiece with the adhesive sheet being held with the transporting mechanism.
An apparatus comprising: a portion of a nacelle comprising a skin (400A-C), wherein: at least a portion of the skin (40OA-C) is porous, wherein the portion of the skin (400A-C) that is porous preferably is configured to attenuate noise; at least a portion of the skin (400A-C) forms a flow surface of the nacelle; the skin (400A-C) at least partly defines a cavity; the portion of the skin (400A-C) that is porous comprises a porous facesheet and the skin (400A-C) further comprises a backsheet coupled to the porous facesheet; and the apparatus further comprises an inductive coil located at least partly within the cavity and configured to be electromagnetically coupled to the skin (400A-C), wherein the skin (400A-C) is configured to increase in temperature when electromagnetically coupled to the inductive coil, characterized in that the skin (400A-C) is comprised of a ferromagnetic metal, wherein the skin (400A-C) further comprises a ferromagnetic metal component, at least partly comprised of the ferromagnetic metal, disposed between the facesheet and the backsheet. a portion of a nacelle comprising a skin (400A-C), wherein: at least a portion of the skin (40OA-C) is porous, wherein the portion of the skin (400A-C) that is porous preferably is configured to attenuate noise; at least a portion of the skin (400A-C) forms a flow surface of the nacelle; the skin (400A-C) at least partly defines a cavity; the portion of the skin (400A-C) that is porous comprises a porous facesheet and the skin (400A-C) further comprises a backsheet coupled to the porous facesheet; and the apparatus further comprises an inductive coil located at least partly within the cavity and configured to be electromagnetically coupled to the skin (400A-C), wherein the skin (400A-C) is configured to increase in temperature when electromagnetically coupled to the inductive coil, at least a portion of the skin (40OA-C) is porous, wherein the portion of the skin (400A-C) that is porous preferably is configured to attenuate noise; at least a portion of the skin (400A-C) forms a flow surface of the nacelle; the skin (400A-C) at least partly defines a cavity; the portion of the skin (400A-C) that is porous comprises a porous facesheet and the skin (400A-C) further comprises a backsheet coupled to the porous facesheet; and the apparatus further comprises an inductive coil located at least partly within the cavity and configured to be electromagnetically coupled to the skin (400A-C), wherein the skin (400A-C) is configured to increase in temperature when electromagnetically coupled to the inductive coil, characterized in that the skin (400A-C) is comprised of a ferromagnetic metal, wherein the skin (400A-C) further comprises a ferromagnetic metal component, at least partly comprised of the ferromagnetic metal, disposed between the facesheet and the backsheet.
A charging method, wherein the method comprises: determining (401, 601), by a control plane function entity CP, that a data flow transmitted by a user equipment UE on a first data session needs to be migrated to a second data session, wherein the first data session is a data session between the UE and a first user plane function entity UP, the second data session is a data session between the UE and a second UP, the first UP and the second UP are selected by the CP, and the first data session and the second data session correspond to a same protocol data unit PDU session; wherein the method is characterized by: obtaining (402, 602, 603), by the CP, usage information, for a first quota, of the data flow before the migration, wherein the usage information is counted by the first UP; and determining (403, 603), by the CP, a quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP; wherein determining the quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP comprises: determining, by the CP, based on the usage information of the data flow that is counted by the first UP and the first quota, a remaining available quota, and delivering, by the CP, the remaining available quota to the second UP. obtaining (402, 602, 603), by the CP, usage information, for a first quota, of the data flow before the migration, wherein the usage information is counted by the first UP; and determining (403, 603), by the CP, a quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP; wherein determining the quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP comprises: determining, by the CP, based on the usage information of the data flow that is counted by the first UP and the first quota, a remaining available quota, and delivering, by the CP, the remaining available quota to the second UP.