mhurhangee/patent-ind-claim-en huggingface dataset:
Module , having a main circuit board , wherein the main circuit board has a printed circuit board and at least one electromagnetic radiating component , wherein the electromagnetic radiating component is arranged on the printed circuit board and being contacted via at least one conductor track, having a cooling device for cooling the electromagnetic radiating component , wherein the cooling device being coupled thermally to the electromagnetic radiating component , so that a transfer of heat between the cooling device and the electromagnetic radiating component is implemented, wherein the cooling device has at least one metallic heat-conducting element , wherein the metallic heat-conducting element has a free area , characterized in that the cooling device has an insulating heat-conducting element , wherein the insulating heat-conducting element is thermally conductive and electrically insulating, wherein the electromagnetic radiating component is coupled thermally to the metallic heat-conducting element via the insulating heat-conducting element , wherein the free area being formed as a material-free area of the metallic heat-conducting element , wherein the electromagnetic radiating component and the insulating heat-conducting element are arranged at least in sections in the free area , so that an electromagnetic coupling path between the metallic heat-conducting element and the electromagnetic radiating component is reduced. having a main circuit board , wherein the main circuit board has a printed circuit board and at least one electromagnetic radiating component , wherein the electromagnetic radiating component is arranged on the printed circuit board and being contacted via at least one conductor track, having a cooling device for cooling the electromagnetic radiating component , wherein the cooling device being coupled thermally to the electromagnetic radiating component , so that a transfer of heat between the cooling device and the electromagnetic radiating component is implemented, wherein the cooling device has at least one metallic heat-conducting element , wherein the metallic heat-conducting element has a free area , characterized in that the cooling device has an insulating heat-conducting element , wherein the insulating heat-conducting element is thermally conductive and electrically insulating, wherein the electromagnetic radiating component is coupled thermally to the metallic heat-conducting element via the insulating heat-conducting element , wherein the free area being formed as a material-free area of the metallic heat-conducting element , wherein the electromagnetic radiating component and the insulating heat-conducting element are arranged at least in sections in the free area , so that an electromagnetic coupling path between the metallic heat-conducting element and the electromagnetic radiating component is reduced.
A device (100; 100'), comprising: at least one antenna (120, 130; 910); a multi-layer printed circuit board having multiple layers stacked along a vertical direction; wherein the at least one antenna (120, 130; 910) comprises: an antenna patch ; and a feeding patch configured for capacitive feeding of the antenna patch , the antenna patch being formed of multiple conductive strips extending in a horizontal direction along an edge of the multi-layer printed circuit board , each of the conductive strips of the antenna patch being arranged on a different layer of the multi-layer printed circuit board , the conductive strips being electrically connected to each other by conductive vias extending between two or more of the conductive strips of the antenna patch, which are arranged on different layers of the multi-layer printed circuit board , the feeding patch being formed of multiple conductive strips extending in the horizontal direction, each of the conductive strips of the feeding patch being arranged on a different layer of the multi-layer printed circuit board, and the conductive strips of the feeding patch being electrically connected to each other by conductive vias extending between two or more of the conductive strips of the feeding patch , which are arranged on different layers of the multi-layer printed circuit board . at least one antenna (120, 130; 910); a multi-layer printed circuit board having multiple layers stacked along a vertical direction; wherein the at least one antenna (120, 130; 910) comprises: an antenna patch ; and a feeding patch configured for capacitive feeding of the antenna patch , an antenna patch ; and a feeding patch configured for capacitive feeding of the antenna patch , the antenna patch being formed of multiple conductive strips extending in a horizontal direction along an edge of the multi-layer printed circuit board , each of the conductive strips of the antenna patch being arranged on a different layer of the multi-layer printed circuit board , the conductive strips being electrically connected to each other by conductive vias extending between two or more of the conductive strips of the antenna patch, which are arranged on different layers of the multi-layer printed circuit board , the feeding patch being formed of multiple conductive strips extending in the horizontal direction, each of the conductive strips of the feeding patch being arranged on a different layer of the multi-layer printed circuit board, and the conductive strips of the feeding patch being electrically connected to each other by conductive vias extending between two or more of the conductive strips of the feeding patch , which are arranged on different layers of the multi-layer printed circuit board .
A terminal block comprising: a unitary terminal block body ; and an annular arrangement of terminal pairs mounted within the unitary terminal block body , each of the terminal pairs having a first height and being adjacent another terminal pair having a second height different from the first height, characterized in that the unitary terminal block body has an opening disposed within the annular arrangement of terminal pairs so that each of the terminal pairs is arranged to receive respective wires extending through the opening . a unitary terminal block body ; and an annular arrangement of terminal pairs mounted within the unitary terminal block body , each of the terminal pairs having a first height and being adjacent another terminal pair having a second height different from the first height, characterized in that the unitary terminal block body has an opening disposed within the annular arrangement of terminal pairs so that each of the terminal pairs is arranged to receive respective wires extending through the opening .
A method for evaluating the integrity of a forward osmosis (FO) membrane of a FO-device in a dialysis solution generation apparatus , the FO-device configured to be used in a FO session for diluting a dialysis concentrate in a process of producing a dialysis solution, the FO-membrane separating a first side and a second side of a FO-device , the method comprising: passing (S1) electrolyte solution at the first side ; passing (S2) low-electrolyte solution at the second side ; measuring a conductivity (S3) of a solution generated from the second side ; and evaluating the integrity (S6) of the FO-membrane based on whether the measured conductivity meets conductivity criteria, wherein the conductivity criteria include a conductivity of a solution generated from the second side with an equivalent electrolyte solution and an equivalent low-electrolyte solution using a FO-membrane having integrity. passing (S1) electrolyte solution at the first side ; passing (S2) low-electrolyte solution at the second side ; measuring a conductivity (S3) of a solution generated from the second side ; and evaluating the integrity (S6) of the FO-membrane based on whether the measured conductivity meets conductivity criteria, wherein the conductivity criteria include a conductivity of a solution generated from the second side with an equivalent electrolyte solution and an equivalent low-electrolyte solution using a FO-membrane having integrity.
A method for determining a wear of a journal bearing system of an engine, comprising: executing a wear protocol to derive a start-stop (SS) wear, a steady-state operating hours (OH) wear, or a combination thereof, of a test journal bearing system on a test rig ; deriving a transfer function suitable for determining a total wear for the test journal bearing system based on the SS wear, the OH wear, or the combination thereof; observing operations of the engine via one or more sensors to derive a number of start-stops, steady-state operating hours, or a combination thereof; determining as the wear of the journal bearing system a determined test journal bearing system wear based on applying the transfer function to the number of start-stops, the steady-state operating hours, or to the combination thereof; and executing one or more actionable items on the engine based on the determined journal bearing system wear wherein the determination of the wear of the journal bearing system is furthermore based on a physics-based model of the journal bearing system . executing a wear protocol to derive a start-stop (SS) wear, a steady-state operating hours (OH) wear, or a combination thereof, of a test journal bearing system on a test rig ; deriving a transfer function suitable for determining a total wear for the test journal bearing system based on the SS wear, the OH wear, or the combination thereof; observing operations of the engine via one or more sensors to derive a number of start-stops, steady-state operating hours, or a combination thereof; determining as the wear of the journal bearing system a determined test journal bearing system wear based on applying the transfer function to the number of start-stops, the steady-state operating hours, or to the combination thereof; and executing one or more actionable items on the engine based on the determined journal bearing system wear wherein the determination of the wear of the journal bearing system is furthermore based on a physics-based model of the journal bearing system .
A method for bearer configuration, characterized by comprising: receiving , by a first node, a first request message from a second node, the first request message carrying first indication information, and the first indication information being used for determining, by the first node, whether to configure a default bearer, wherein the first node and the second node are a secondary node and a master node in a dual connectivity network respectively, wherein the first indication information is indicative of: whether the first node is to configure a mapping relationship between each data flow at the first node and a bearer; wherein the first indication information being used for determining, by the first node, whether to configure a default bearer comprises: if the first indication information indicates that the first node is to configure a mapping relationship between each data flow at the first node and a bearer, the first node is not to configure the default bearer; and if the first indication information indicates that the first node is not to configure a mapping relationship between each data flow at the first node and a bearer, the first node determines whether to configure the default bearer. receiving , by a first node, a first request message from a second node, the first request message carrying first indication information, and the first indication information being used for determining, by the first node, whether to configure a default bearer, wherein the first node and the second node are a secondary node and a master node in a dual connectivity network respectively, wherein the first indication information is indicative of: whether the first node is to configure a mapping relationship between each data flow at the first node and a bearer; wherein the first indication information being used for determining, by the first node, whether to configure a default bearer comprises: if the first indication information indicates that the first node is to configure a mapping relationship between each data flow at the first node and a bearer, the first node is not to configure the default bearer; and if the first indication information indicates that the first node is not to configure a mapping relationship between each data flow at the first node and a bearer, the first node determines whether to configure the default bearer. if the first indication information indicates that the first node is to configure a mapping relationship between each data flow at the first node and a bearer, the first node is not to configure the default bearer; and if the first indication information indicates that the first node is not to configure a mapping relationship between each data flow at the first node and a bearer, the first node determines whether to configure the default bearer.
An electromagnetically-coupled state detection circuit comprising: a detection unit configured to measure a primary side Q value of a circuit containing a primary side coil electromagnetically coupled with a secondary side coil and power transmission efficiency to the secondary side coil , characterized in that said detection unit is configured to compare the primary side Q value with a pre-detexmined Q value, to correct the power transmission efficiency of the primary side coil based on the primary side Q value, and to detect a state of electromagnetic coupling with the secondary side coil based on an obtained corrected value of the power transmission efficiency . a detection unit configured to measure a primary side Q value of a circuit containing a primary side coil electromagnetically coupled with a secondary side coil and power transmission efficiency to the secondary side coil , characterized in that said detection unit is configured to compare the primary side Q value with a pre-detexmined Q value, to correct the power transmission efficiency of the primary side coil based on the primary side Q value, and to detect a state of electromagnetic coupling with the secondary side coil based on an obtained corrected value of the power transmission efficiency .
A method for streaming video content using a buffer, the method comprising: transmitting , from a user device to a server , a request to stream a video content item; receiving , at the user device from the server , a predicted abandonment distribution for the video content item that indicates a plurality of likelihoods of a user of the user device stopping presentation of the video content item at a corresponding plurality of presentation time points of the video content item; receiving , at the user device from the server , a first portion of the video content item; storing the first portion of the video content item in a buffer of the user device having a first size; causing the video content item to be presented by the user device ; during presentation of the video content item, determining a second size for the buffer based on the predicted abandonment distribution for the video content item; modifying a size of the buffer to the second size; requesting a second portion of the video content item from the server based on the second size of the buffer; receiving the second portion of the video content item from the server ; and storing the second portion of the video content item in the buffer having the second size while continuing presentation of the video content item. transmitting , from a user device to a server , a request to stream a video content item; receiving , at the user device from the server , a predicted abandonment distribution for the video content item that indicates a plurality of likelihoods of a user of the user device stopping presentation of the video content item at a corresponding plurality of presentation time points of the video content item; receiving , at the user device from the server , a first portion of the video content item; storing the first portion of the video content item in a buffer of the user device having a first size; causing the video content item to be presented by the user device ; during presentation of the video content item, determining a second size for the buffer based on the predicted abandonment distribution for the video content item; modifying a size of the buffer to the second size; requesting a second portion of the video content item from the server based on the second size of the buffer; receiving the second portion of the video content item from the server ; and storing the second portion of the video content item in the buffer having the second size while continuing presentation of the video content item.
A stator of a rotating electric machine, the stator comprising a stator core having plural slots disposed in a circumferential direction of the stator core ; and a coil body comprising a plurality of coils, each coil of the plurality of coils being disposed as a single conductor in a slot of the plural slots in the circumferential direction of the stator core, and each of the plurality of coils being wound for a single turn in the slot of the plurality of slots in a radial direction of the stator core, characterized in that the coil body includes a plurality of first coils and one or more second coils , wherein the plurality of first coils are disposed one turn apart from each other in a radial direction of the stator core, the plurality of first coils are each configured with a flat conductor section , a magnetic body layer provided around the flat conductor section and an insulating film provided around the magnetic body layer, wherein only the plurality of first coils are provided with the magnetic body layer, and the one or more second coils are each configured with a flat conductor section, and an insulating film. a stator core having plural slots disposed in a circumferential direction of the stator core ; and a coil body comprising a plurality of coils, each coil of the plurality of coils being disposed as a single conductor in a slot of the plural slots in the circumferential direction of the stator core, and each of the plurality of coils being wound for a single turn in the slot of the plurality of slots in a radial direction of the stator core, characterized in that the coil body includes a plurality of first coils and one or more second coils , wherein the plurality of first coils are disposed one turn apart from each other in a radial direction of the stator core, the plurality of first coils are each configured with a flat conductor section , a magnetic body layer provided around the flat conductor section and an insulating film provided around the magnetic body layer, wherein only the plurality of first coils are provided with the magnetic body layer, and the one or more second coils are each configured with a flat conductor section, and an insulating film.
Pump for a water-conducting household appliance, with a pump drive, which comprises an electric drive , wherein the electric drive is embodied as an electronically commutated wet-running motor, in which a rotor housing is provided between rotor and stator and is composed of a front housing shell and a pot-shaped shield , which are both connected to one another in a form-fit manner, wherein the rotor of the electric drive is arranged inside the rotor housing, wherein a shaft of the electric drive is rotatably mounted by a front sliding bearing facing the housing shell and by a rear sliding bearing facing the plate , wherein the rotor is retained on the shaft in a torque-proof manner, wherein the electric drive has an axial bearing facing the front sliding bearing for retaining its rotor on the shaft so as to compensate for axial forces during operation of the pump , wherein the front sliding bearing forms a planar surface for a first end face of the axial bearing , wherein the axial bearing has a multi-sided outer contour and the rotor comprises a bearing seat , which has a multi-sided inner contour which corresponds to the multi-sided outer contour of the axial bearing , wherein the first end face of the axial bearing has a section which runs in a planar fashion, wherein the first end face forms a planar surface for the front sliding bearing , wherein this first end face has a recess , which runs centrally through an axle hole of the axial bearing , wherein a second end face of the axial bearing facing the first end face has a section which runs in a curved fashion, wherein the bearing seat has a base surface , which has a section which runs in a curved fashion, and wherein the base surface of the bearing seat has a curvature which corresponds exactly or substantially to the curvature of the second end face of the axial bearing .
A method for producing a non-oriented electrical steel sheet by hot rolling a steel slab having a chemical composition comprising C: not more than 0.0050 mass%, Si: not more than 4.0 mass%, Mn: 0.03-3.0 mass%, P: not more than 0.1 mass%, S: not more than 0.005 mass%, Se: not more than 0.0010 mass%, Al: not more than 3.0 mass%, N: not more than 0.005 mass%, Ni: not more than 3.0 mass%, Cr: not more than 5.0 mass%, Ti: not more than 0.003 mass%, Nb: not more than 0.003 mass%, O: not more than 0.005 mass%, and optionally one or two selected from Sn: 0.005-0.20 mass% and Sb: 0.005-0.20 mass%, and further optionally one or two or more selected from Ca: 0.0001-0.010 mass%, Mg: 0.0001-0.010 mass% and REM: 0.0001-0.010 mass%, and the remainder being Fe and inevitable impurities and subjecting the sheet to a cold rolling and further to a finish annealing, characterized in that : the heating in the finish annealing is conducted in two stages of performing an induction heating and subsequently a radiation heating, wherein the induction heating is conducted up to a temperature not higher than 780°C, said induction heating is conducted at an average heating rate of not less than 50°C/sec in a zone from 600°C to 740°C, and wherein the radiation heating is conducted such that it starts without decreasing the steel sheet temperature to 700°C or less.