mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a network node for selecting a gateway for a user equipment in a wireless communications network (300a; 300b), the wireless communications network (300a; 300b) comprising the network node and at least two gateways (307a; 307b; 307a'; 307b'; 308) being configured to provide packet data network connectivity to the user equipment located within a served cell, the method comprising: detecting (S401) a presence of a local gateway (307a; 307b; 307a'; 307b'), serving a local gateway service area (309a; 309b; 309a'; 309b'), among the at least two gateways (307a; 307b; 307a'; 307b'; 308), the local gateway being located in a Radio Access Network, RAN, of the wireless communications network; obtaining (S402) user equipment information comprising a type of the user equipment , the type of the user equipment being one of a stationary type or a mobile type, and wherein the type of the user equipment is determined based on user equipment mobility behaviour in relation to the detected local gateway service area (309a; 309b; 309a'; 309b'); and selecting, (S403), based on the determined type of the user equipment , the detected local gateway (307a; 307b; 307a'; 307b') or another gateway among the at least two gateways (307a; 307b; 307a'; 307b'; 308) for providing packet data network connectivity to the user equipment , including selecting a global gateway for providing packet data network connectivity to the user equipment when the user equipment is determined to be a mobile type, the global gateway being located in a Core Network (CN) of the wireless communications network. detecting (S401) a presence of a local gateway (307a; 307b; 307a'; 307b'), serving a local gateway service area (309a; 309b; 309a'; 309b'), among the at least two gateways (307a; 307b; 307a'; 307b'; 308), the local gateway being located in a Radio Access Network, RAN, of the wireless communications network; obtaining (S402) user equipment information comprising a type of the user equipment , the type of the user equipment being one of a stationary type or a mobile type, and wherein the type of the user equipment is determined based on user equipment mobility behaviour in relation to the detected local gateway service area (309a; 309b; 309a'; 309b'); and selecting, (S403), based on the determined type of the user equipment , the detected local gateway (307a; 307b; 307a'; 307b') or another gateway among the at least two gateways (307a; 307b; 307a'; 307b'; 308) for providing packet data network connectivity to the user equipment , including selecting a global gateway for providing packet data network connectivity to the user equipment when the user equipment is determined to be a mobile type, the global gateway being located in a Core Network (CN) of the wireless communications network.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, information on a maximum multi-input multi-output, MIMO, layer configuration, at least one codebook related parameter, and a reference signal, RS, configuration; obtaining channel state information, CSI, including at least one of a CSI reference signal resource indicator, CRI, or a rank indicator, Rl, and at least one of a precoding matrix indicator, PMI, or a channel quality indicator, CQI based on an RS according to the RS configuration; identifying a bit sequence including the at least one of the CRI or the RI placed before padding bits , the padding bits and the at least one of the PMI and the CQI placed after the padding bits ; encoding the bit sequence using a polar code in case that a payload size of the CSI and padding bits is equal to or larger than 12 and using a Reed-Muller code in case that the payload size of the CSI and padding bits is equal to or smaller than 11; and transmitting, to the base station, the encoded bit sequence on a physical uplink control channel, PUCCH. receiving, from a base station, information on a maximum multi-input multi-output, MIMO, layer configuration, at least one codebook related parameter, and a reference signal, RS, configuration; obtaining channel state information, CSI, including at least one of a CSI reference signal resource indicator, CRI, or a rank indicator, Rl, and at least one of a precoding matrix indicator, PMI, or a channel quality indicator, CQI based on an RS according to the RS configuration; identifying a bit sequence including the at least one of the CRI or the RI placed before padding bits , the padding bits and the at least one of the PMI and the CQI placed after the padding bits ; encoding the bit sequence using a polar code in case that a payload size of the CSI and padding bits is equal to or larger than 12 and using a Reed-Muller code in case that the payload size of the CSI and padding bits is equal to or smaller than 11; and transmitting, to the base station, the encoded bit sequence on a physical uplink control channel, PUCCH.
Method for the determination of output image data, wherein raw image data is acquired by an imaging sensor , after which it is further processed by a processing algorithm for quality improvement in order to determine the output image data, wherein the processing algorithm is parameterised by a plurality of processing parameters which are determined by training the processing algorithm by a plurality of training data sets as part of machine learning, wherein the training data sets each comprise an input image and a reference image , wherein as part of the machine learning, a measure for the deviation of processing images, which are determined by the application of the processing algorithm to the input image of a respective training data set , from the respective reference images , is minimised; characterised in that , for at least one of the training data sets , the image data of the reference image is recorded with a reference sensor and the image data of the input image is recorded with a comparison sensor rigidly coupled to the reference sensor , wherein either the input image and the reference image display the same scene from the same perspective, or wherein the comparison sensor and the reference sensor use optical systems which are different from one another, wherein the detected image areas are displaced parallel to one another, wherein this is compensated in the context of the use and/or preparation of the training data sets by the input image and/or the reference image is cropped in such a way that the same imaging region is represented.
1. A perforated metal substrate for purifying exhaust gas in which a corrugated foil and a flat foil are laminated and made into a cylindrical shape, wherein the perforated metal substrate has 7.75 cells/mm 2 (50 cells/inch 2 ) to 124 cells/mm 2 (800 cells/inch 2 ) of cells , the corrugated foil has a plurality of first holes having an area 2.0 times to 50 times the average opening area of the cells , the flat foil has a plurality of second holes having an area 3.0 times to 100 times the average opening area of the cells , the average value of the area of the first holes of the corrugated foil is smaller than the average value of the area of the second holes of the flat foil , and the total area of the first holes of the corrugated foil is 60 % or greater of the total area of all holes in the corrugated foil , and the total area of the second holes of the flat foil is 60 % or greater of the total area of all holes in the flat foil .
System for protecting a computerized device from a malicious activity resulting from a malicious code, comprising: a. a computerized environment of said computerized device having hardware and software which is accessible to a data network; b. a separate computerized environment configured with hardware and software which are totally separated and isolated from the computerized environment of said computerized device in terms of hardware physical separation and in terms of software separation; c. a DC supply for powering the computerized environment of said computerized device; d. a microprocessor-operated first DC supply monitoring unit which is located within said separate computerized environment, wherein said first DC supply monitoring unit is physically connected to said DC supply and is configured to monitor power consumption from said DC supply; and e. a memory database in which are stored one or more signatures of known malicious events, each of said signatures describes the temporal effect of one of said known malicious events on the power consumption from the DC supply of the device, wherein said first DC supply monitoring unit comprises alert means adapted to generate an alert signal provided to a user upon detection of a match between monitored temporal characteristics of the power consumption from said DC supply and one or more of the malicious event signatures stored in said database. a. a computerized environment of said computerized device having hardware and software which is accessible to a data network; b. a separate computerized environment configured with hardware and software which are totally separated and isolated from the computerized environment of said computerized device in terms of hardware physical separation and in terms of software separation; c. a DC supply for powering the computerized environment of said computerized device; d. a microprocessor-operated first DC supply monitoring unit which is located within said separate computerized environment, wherein said first DC supply monitoring unit is physically connected to said DC supply and is configured to monitor power consumption from said DC supply; and e. a memory database in which are stored one or more signatures of known malicious events, each of said signatures describes the temporal effect of one of said known malicious events on the power consumption from the DC supply of the device,
A multi-layer wall element for building up drywalls - comprising an insulating ply with two flat sides of heat or sound insulating material which have a large surface area relative to front sides , - wherein a support layer is placed with an inner flat side of the support layer against each flat side of the insulating ply , - wherein a cover layer is placed against each outer flat side of the support layers , wherein the cover layers are, along at least two directions (R1, R2) which are oriented parallel to a plane (E) of the support layer and perpendicular to confining edges of the support layers , offset relative to the support layers by a first offset amount (Vi/Vr) and a second offset amount (V 2 /V 2' ), each of the first offset amount (V 1 /V 1' ) and the second offset amount (V 2 /V 2' ) being larger than zero wherein the support layers and the insulating ply form a tongue along a first confining edge and along an opposite second confining edge a groove together with both cover layers , whereas at least two tongues and two grooves are formed. - comprising an insulating ply with two flat sides of heat or sound insulating material which have a large surface area relative to front sides , - wherein a support layer is placed with an inner flat side of the support layer against each flat side of the insulating ply , - wherein a cover layer is placed against each outer flat side of the support layers , wherein
An endoscope apparatus comprising: an insertion portion extending along a longitudinal axis (X); a roller configured to be driven by a drive force to rotate around the longitudinal axis (X) of the insertion portion ; and a cover member configured to be attached to the insertion portion to cover the roller , wherein the cover member comprises: a base layer having: an outer surface direction side; and an inner surface direction side arranged to contact the roller , wherein portions of the base layer covering the roller as the roller rotates around the longitudinal axis (X) of the insertion portion are configured to be elastically elongated in an outer surface direction of the insertion portion ; and an external coating layer formed on at least one of the outer surface direction side and the inner surface direction side of the base layer , wherein the external coating layer comprises a material selected such that a coefficient of friction of an outer surface of the cover member is reduced compared to a coefficient of friction of the base layer . an insertion portion extending along a longitudinal axis (X); a roller configured to be driven by a drive force to rotate around the longitudinal axis (X) of the insertion portion ; and a cover member configured to be attached to the insertion portion to cover the roller , wherein the cover member comprises: a base layer having: an outer surface direction side; and an inner surface direction side arranged to contact the roller , wherein portions of the base layer covering the roller as the roller rotates around the longitudinal axis (X) of the insertion portion are configured to be elastically elongated in an outer surface direction of the insertion portion ; and an external coating layer formed on at least one of the outer surface direction side and the inner surface direction side of the base layer , wherein the external coating layer comprises a material selected such that a coefficient of friction of an outer surface of the cover member is reduced compared to a coefficient of friction of the base layer . a base layer having: an outer surface direction side; and an inner surface direction side arranged to contact the roller , wherein portions of the base layer covering the roller as the roller rotates around the longitudinal axis (X) of the insertion portion are configured to be elastically elongated in an outer surface direction of the insertion portion ; and an outer surface direction side; and an inner surface direction side arranged to contact the roller , wherein portions of the base layer covering the roller as the roller rotates around the longitudinal axis (X) of the insertion portion are configured to be elastically elongated in an outer surface direction of the insertion portion ; and an external coating layer formed on at least one of the outer surface direction side and the inner surface direction side of the base layer , wherein the external coating layer comprises a material selected such that a coefficient of friction of an outer surface of the cover member is reduced compared to a coefficient of friction of the base layer .
Method implemented by computer means for determining a location of karst caves in a geological model , the method comprising the steps of: - receiving a geological model ; - receiving a first surface and a second surface , said first and second surfaces being defined in said geological model, with the first surface intersecting the second surface; - determining a third surface in said model, said third surface intersecting the first and the second surface and defining with the first surface and second surface a closed space of said model; - for each current point of a set of points of the closed space, determining a distance value depending on: -- a first distance from said current point to the union of the first surface and of the second surface; -- a second distance from said current point to the third surface ((d 0-109 , d 0_108 , d 0_107 ); the distance value being a number representing the proximity of the considered point to the first surface or to the second surface with respect to the proximity to the third surface; - receiving a known average value of a proportion of caves; - for each current point of said set of points of the closed space, determining a presence of caves for said current point, with this determination of the presence of caves depending at least on the received average value and on the distance value determined for said current point. - receiving a geological model ; - receiving a first surface and a second surface , said first and second surfaces being defined in said geological model, with the first surface intersecting the second surface; - determining a third surface in said model, said third surface intersecting the first and the second surface and defining with the first surface and second surface a closed space of said model; - for each current point of a set of points of the closed space, determining a distance value depending on: -- a first distance from said current point to the union of the first surface and of the second surface; -- a second distance from said current point to the third surface ((d 0-109 , d 0_108 , d 0_107 ); the distance value being a number representing the proximity of the considered point to the first surface or to the second surface with respect to the proximity to the third surface; -- a first distance from said current point to the union of the first surface and of the second surface; -- a second distance from said current point to the third surface ((d 0-109 , d 0_108 , d 0_107 ); the distance value being a number representing the proximity of the considered point to the first surface or to the second surface with respect to the proximity to the third surface; - receiving a known average value of a proportion of caves; - for each current point of said set of points of the closed space, determining a presence of caves for said current point, with this determination of the presence of caves depending at least on the received average value and on the distance value determined for said current point.
A method of transmitting and receiving sidelink signals by a User Equipment , UE, in a wireless communication system, the method comprising: receiving, by the UE , Downlink Control Information, DCI, including a Time-Resource Pattern for Transmission, T-RPT, in a subframe #n from a base station ; and transmitting, by the UE , a Physical Sidelink Control Channel, PSCCH, in a sidelink subframe after a subframe #n+4, the method being characterized by further comprising: applying, by the UE , the T-RPT starting from a subframe at a PSCCH-Physical Sidelink Shared Channel, PSSCH, offset from the sidelink subframe in which the PSCCH is transmitted, and transmitting, by the UE , a PSSCH and the PSCCH in subframes indicated by the T-RPT, wherein the PSCCH and the PSSCH are Frequency Division Multiplexed in the subframes indicated by the T-RPT. receiving, by the UE , Downlink Control Information, DCI, including a Time-Resource Pattern for Transmission, T-RPT, in a subframe #n from a base station ; and transmitting, by the UE , a Physical Sidelink Control Channel, PSCCH, in a sidelink subframe after a subframe #n+4, the method being characterized by further comprising: applying, by the UE , the T-RPT starting from a subframe at a PSCCH-Physical Sidelink Shared Channel, PSSCH, offset from the sidelink subframe in which the PSCCH is transmitted, and transmitting, by the UE , a PSSCH and the PSCCH in subframes indicated by the T-RPT, wherein the PSCCH and the PSSCH are Frequency Division Multiplexed in the subframes indicated by the T-RPT. applying, by the UE , the T-RPT starting from a subframe at a PSCCH-Physical Sidelink Shared Channel, PSSCH, offset from the sidelink subframe in which the PSCCH is transmitted, and transmitting, by the UE , a PSSCH and the PSCCH in subframes indicated by the T-RPT, wherein the PSCCH and the PSSCH are Frequency Division Multiplexed in the subframes indicated by the T-RPT.
Electric coolant pump for a motor vehicle, comprising a pump rotor for pumping the coolant and an electric drive motor driving the pump rotor , wherein the drive motor comprises a dry motor stator comprising a plurality of motor coils , a wet motor rotor , and a can separating the motor stator and the motor rotor in a fluid-tight manner, wherein the can is defined by a sheet metal body which has a material thickness d < 0.5 mm in the gap region between the motor rotor and the motor stator , consists of an austenitic stainless steel has a hardness HV = 200 - 500, has a specific electric resistance ρ > 0.10 Ω × mm2/m, and has a relative magnetic permeability μm < 20, more preferably μm < 1.5, wherein the one-piece sheet metal body defines a friction bearing shell of a radial friction bearing for the radial bearing of the motor rotor , said metal sheet body defining one side of the motor rotor friction bearing , and wherein a cylindrical bearing mandrel is configured in the cup-shaped sheet metal body in the centre of the cup bottom , the cylindrical outer side of the cylindrical bearing mandrel configuring an inner friction bearing shell of the motor rotor friction bearing for the radial bearing of the motor rotor . a pump rotor for pumping the coolant and an electric drive motor driving the pump rotor , wherein the drive motor comprises a dry motor stator comprising a plurality of motor coils , a wet motor rotor , and a can separating the motor stator and the motor rotor in a fluid-tight manner, wherein the can is defined by a sheet metal body which has a material thickness d < 0.5 mm in the gap region between the motor rotor and the motor stator , consists of an austenitic stainless steel has a hardness HV = 200 - 500, has a specific electric resistance ρ > 0.10 Ω × mm2/m, and has a relative magnetic permeability μm < 20, more preferably μm < 1.5, wherein the one-piece sheet metal body defines a friction bearing shell of a radial friction bearing for the radial bearing of the motor rotor , said metal sheet body defining one side of the motor rotor friction bearing , and wherein a cylindrical bearing mandrel is configured in the cup-shaped sheet metal body in the centre of the cup bottom , the cylindrical outer side of the cylindrical bearing mandrel configuring an inner friction bearing shell of the motor rotor friction bearing for the radial bearing of the motor rotor .