mhurhangee/ep-ind-claims huggingface dataset:
A vehicle control method, applied to a computing device comprising a first computing system and a second computing system, each computing system (A, B) includes a processing module, and an instruction generation module, wherein the method comprises: obtaining first vehicle data and second vehicle data, wherein the first vehicle data is environment data that is within a first sensing scope and that is detected by a first group sensing apparatus at a first time point, and the second vehicle data is environment data that is within a second sensing scope and that is detected by a second group sensing apparatus at the first time point; processing the first vehicle data by using the first computing system, to obtain first structured data, wherein the first structured data is used to represent an environment that is of a vehicle at the first time point and that is detected by the first group sensing apparatus; processing the second vehicle data by using the second computing system, to obtain second structured data, wherein the second structured data is used to represent an environment that is of the vehicle at the first time point and that is detected by the second group sensing apparatus; and controlling safe driving of the vehicle based on the first structured data and the second structured data, wherein a difference between a data volume of the first vehicle data and a data volume of the second vehicle data is less than or equal to a first threshold. obtaining first vehicle data and second vehicle data, wherein the first vehicle data is environment data that is within a first sensing scope and that is detected by a first group sensing apparatus at a first time point, and the second vehicle data is environment data that is within a second sensing scope and that is detected by a second group sensing apparatus at the first time point; processing the first vehicle data by using the first computing system, to obtain first structured data, wherein the first structured data is used to represent an environment that is of a vehicle at the first time point and that is detected by the first group sensing apparatus; processing the second vehicle data by using the second computing system, to obtain second structured data, wherein the second structured data is used to represent an environment that is of the vehicle at the first time point and that is detected by the second group sensing apparatus; and controlling safe driving of the vehicle based on the first structured data and the second structured data, wherein a difference between a data volume of the first vehicle data and a data volume of the second vehicle data is less than or equal to a first threshold.
A flying pest trap comprising an attraction section, an immobilisation section, a body section adapted to retain the attraction section and the immobilisation section, and a power section adapted to provide power to the attraction section, wherein the immobilisation section includes a glue board; characterised in that the attraction section includes a plurality of LED light sources located behind openings in the glue board, the LED light sources being arranged in an array behind the glue board, wherein the openings in the glue board allow light-emitting parts of the LED light sources to allow UV irradiance to get to a front face of the glue board.
A method of allocating user equipment processing capability for a dual connectivity operation, comprising: determining, by a first access node, the user equipment processing capability; determining, by the first access node, a first allocation of the user equipment processing capability for the first access node when the user equipment is in communication with at least the first access node and a second access node, wherein determining the first allocation of the user equipment processing capability comprises determining that the user equipment is in communication with the first access node and the second access node; communicating, by the first access node to the second access node, the first allocation of the user equipment processing capability for the first access node, wherein the first allocation by the first access node and a second allocation by the second access node is such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability. determining, by a first access node, the user equipment processing capability; determining, by the first access node, a first allocation of the user equipment processing capability for the first access node when the user equipment is in communication with at least the first access node and a second access node, wherein determining the first allocation of the user equipment processing capability comprises determining that the user equipment is in communication with the first access node and the second access node; communicating, by the first access node to the second access node, the first allocation of the user equipment processing capability for the first access node, wherein the first allocation by the first access node and a second allocation by the second access node is such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability.
A resting pad for supporting a body, characterised in that one side of a sleeve comprises a double layer (11a, 11b), which contains freely movable microbeads, and above the double layer has a viscoelastic foam material, which is encased by the sleeve.
Driver for miniature screens of a binocular display comprising miniature screens (3, 4) and, for each eye of the wearer, an optical imager (1, 2) intended to form optical beams corresponding to a determined surface image emitted by said miniature screens (3, 4) and to direct them to each eye of the wearer to allow an informational content contained in a virtual image (I1, 12) to be viewed and an associated computer, said driver being arranged in a housing and provided - with a first connection for communication with said computer (O, 20), where there are kept in memory compensation parameters necessary to a displacement of the emitted image on the screens, in order to obtain a controlled position of this image in the screens corresponding to an overlay of the two virtual images (I1, 12), - with a second connection for the input of data from a source of images, and - with a third connection to said screens, right and left, of the display, and comprising a compensation circuit ensuring a compensation management function consisting in storing said compensation parameters together with parameters of formulae for calculating these compensation parameters and a circuit for displacing the display of an image transmitted by said source to the display circuit of said screen and ensuring an image processing function performing, continuously and in real time, the electronic displacement of the image, characterized in that the storage of the compensation parameters associates with them a user identifier in a personalized compensation profile and the driver comprises a human/machine interface making it possible for a user to select a personalized compensation profile. - with a first connection for communication with said computer (O, 20), where there are kept in memory compensation parameters necessary to a displacement of the emitted image on the screens, in order to obtain a controlled position of this image in the screens corresponding to an overlay of the two virtual images (I1, 12), - with a second connection for the input of data from a source of images, and - with a third connection to said screens, right and left, of the display, and comprising a compensation circuit ensuring a compensation management function consisting in storing said compensation parameters together with parameters of formulae for calculating these compensation parameters and a circuit for displacing the display of an image transmitted by said source to the display circuit of said screen and ensuring an image processing function performing, continuously and in real time, the electronic displacement of the image, characterized in that the storage of the compensation parameters associates with them a user identifier in a personalized compensation profile and the driver comprises a human/machine interface making it possible for a user to select a personalized compensation profile.
A device for detecting leakage of a liquid, comprising a carrier permeable to said liquid, and at least two components that are soluble in said liquid, the components or parts thereof forming a colored complex, characterized in that said at least two components comprise a first component which is immobilized to the carrier and a second component that migrates within the carrier when the carrier is wetted by the liquid, the colored complex being immobilized to the carrier, said first component being iron phosphate FePO 4 ·2H 2 O and said second component being potassium ferrocyanate K 4 Fe 6 ·3H 2 O.
A method of providing an insulated electric cable or termination or joint, the method comprising: - providing a polymer based insulation system (11,12,13) comprising a cross-linked polymer composition, wherein providing the polymer based insulation system comprises exposing the polymer based insulation system (11,12,13) to a heat treatment procedure (a,b) while the outer surface of the polymer based insulation system (11,12,13) is covered by a cover impermeable to at least one substance present in the polymer based insulation system (11,12,13) in a non-homogenous distribution, the method being characterized in that: - the cover is impermeable to oxygen, - it comprises after the heat treatment procedure a controlled cooling step (c) while the outer surface of the polymer based insulation system (11,12,13) is covered by the impermeable cover, thereby achieving a high crystallinity of the cross-linked polymer composition, said controlled cooling step (c) including a controlled decrease of the temperature of between 1 and 20°C/hour, and - the heat treatment procedure (a,b) and the controlled cooling step (c) represent a recrystallization process. - providing a polymer based insulation system (11,12,13) comprising a cross-linked polymer composition, wherein providing the polymer based insulation system comprises exposing the polymer based insulation system (11,12,13) to a heat treatment procedure (a,b) while the outer surface of the polymer based insulation system (11,12,13) is covered by a cover impermeable to at least one substance present in the polymer based insulation system (11,12,13) in a non-homogenous distribution, the method being characterized in that: - the cover is impermeable to oxygen, - it comprises after the heat treatment procedure a controlled cooling step (c) while the outer surface of the polymer based insulation system (11,12,13) is covered by the impermeable cover, thereby achieving a high crystallinity of the cross-linked polymer composition, said controlled cooling step (c) including a controlled decrease of the temperature of between 1 and 20°C/hour, and - the heat treatment procedure (a,b) and the controlled cooling step (c) represent a recrystallization process. - the cover is impermeable to oxygen, - it comprises after the heat treatment procedure a controlled cooling step (c) while the outer surface of the polymer based insulation system (11,12,13) is covered by the impermeable cover, thereby achieving a high crystallinity of the cross-linked polymer composition, said controlled cooling step (c) including a controlled decrease of the temperature of between 1 and 20°C/hour, and - the heat treatment procedure (a,b) and the controlled cooling step (c) represent a recrystallization process.
A method for identifying a network condition between a pair of network devices including a receiving device and a transmitting device, wherein the receiving device comprises a jitter buffer for storing packets received from the transmitting device via a network, the method comprising: monitoring, at the receiving device, a measure of delay in receiving media packets over the network; monitoring, at the receiving device, a size of the jitter buffer; the method further comprising the steps of: identifying, at the receiving device, a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer and sending information indicative of the condition of the network to the transmitting device; and/or the steps of: sending information indicating the measure of network delay and the size of the jitter buffer to the transmitting device, and identifying, at the transmitting device, a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer. monitoring, at the receiving device, a measure of delay in receiving media packets over the network; monitoring, at the receiving device, a size of the jitter buffer; the method further comprising the steps of: identifying, at the receiving device, a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer and sending information indicative of the condition of the network to the transmitting device; and/or the steps of: sending information indicating the measure of network delay and the size of the jitter buffer to the transmitting device, and identifying, at the transmitting device, a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer.
Method for preparing carboxylic acid comprising contacting β-ketosulfone of Formula with nitrous acid, wherein R 1 and R 2 represent each independently unsubstituted or substituted C 1 -C 18 alkyl, which may be straight-chained or branched, unsubstituted or substituted C 6 -C 20 aryl and unsubsituted or substituted C 5 -C 20 heteroaryl, wherein one or more substitutent(s) of the substituted C 1 -C 18 alkyl is each independently selected from halogen, unsubstituted or substituted amino, C 1 -C 4 alkyl, alkoxy, haloalkoxy and unsubstituted or substituted aryl, and one or more substituent(s) of the substituted C 5 -C 20 aryl and C 5 -C 20 heteroaryl is each independently selected from halogen, alkyl, haloalkyl, alkoxy, haloalkoxy, alkylthio, alkylamino, aryl, heteroaryl, aryloxy, haloaryloxy, arylthio and arylamino.
Metallurgical device, particularly casting plant, rolling mill or strip processing line, comprising at least one machine part rotating about an axis (a), wherein an energy consumer electrically connected with an energy source is arranged at or in the machine part, wherein the energy source is constructed as a generator which is connected with the rotating machine part to be secure against rotation relative thereto, wherein the generator is otherwise free from a mechanical connection with the metallurgical device and wherein the generator comprises a housing element at which at least one eccentric mass is arranged at a location radially (r) spaced from the axis (a), characterised in that the generator comprises two mutually parallel and axially spaced-apart metal discs (5, 6), wherein a plurality of coil rings (7, 8, 9, 10) arranged on a support element is arranged between the metal discs (5, 6), wherein the metal discs (5, 6) are a component of the housing element, wherein the housing element is mounted by means of bearings (12, 13) to be rotatable relative to the rotating machine part and wherein the support element is connected with the rotating machine part to be secure against relative rotation.
A shell for use in blasting, the shell comprising an elongated body, the elongated body having a distal end arranged for housing an explosive material, a proximal end arranged to permit introduction of at least one detonator into an interior of the shell, and a cavity for holding the at least one detonator in a location in which operation of the detonator results in explosion of the explosive material, wherein a slot is provided in a sidewall of the shell to allow an activation lead connected to the detonator to pass through the slot to an exterior of the shell, wherein the slot extends longitudinally along the sidewall, characterised in that the slot includes a plurality of retaining protrusions along the slot to retain the activation lead against withdrawal of the activation lead from the slot, the retaining protrusions being spaced along the slot to provide a plurality of spaced positions along the slot at which the activation lead can be retained to allow positioning of detonators of different lengths.
A centrifugal compressor for compressing a refrigerant vapour in a refrigeration cycle, the compressor comprising: an impeller drive shaft supported by first and second radial bearings for rotation within the compressor housing; and an impeller assembly including at least one centrifugal impeller wheel (22, 24) mounted on the impeller drive shaft to rotate with the impeller drive shaft; characterised in that the first and second radial bearings are hydrodynamic fluid bearings in which the bearing fluid is the refrigerant vapour, the compressor further comprising a conduit for supplying a portion of the refrigerant vapour from the impeller assembly to the first and second fluid bearings; and the compressor further comprising a refrigerant vapour feed taken from two or more regions of the impeller wheel or wheels (22, 24) of the impeller assembly, including a relatively low pressure region and a relatively high pressure region; the compressor further comprising a valve arrangement for selectively connecting either the higher pressure region or the lower pressure region of the impeller wheel(s) to the conduit that supplies refrigerant vapour to the radial bearings. an impeller drive shaft supported by first and second radial bearings for rotation within the compressor housing; and an impeller assembly including at least one centrifugal impeller wheel (22, 24) mounted on the impeller drive shaft to rotate with the impeller drive shaft; characterised in that the first and second radial bearings are hydrodynamic fluid bearings in which the bearing fluid is the refrigerant vapour, the compressor further comprising a conduit for supplying a portion of the refrigerant vapour from the impeller assembly to the first and second fluid bearings; and the compressor further comprising a refrigerant vapour feed taken from two or more regions of the impeller wheel or wheels (22, 24) of the impeller assembly, including a relatively low pressure region and a relatively high pressure region; the compressor further comprising a valve arrangement for selectively connecting either the higher pressure region or the lower pressure region of the impeller wheel(s) to the conduit that supplies refrigerant vapour to the radial bearings.
A method performed by a current network node of regulating paging of a wireless device in a wireless communication system, the method comprising: receiving, current enhanced paging identification, EPI, information, from a base station, the EPI information including an identification of the wireless device, an identification of the base station serving the wireless device, and a status of the wireless device as being one of a stationary device and a low mobility device, wherein the current EPI information further includes a network node identification that identifies a previous network node to which the wireless device was previously attached; comparing the previous network node identification to an identification of the current network node, and when the current network node identification is different from the previous network node identification, sending a deletion request to the previous network node to cause deletion of previous EPI information at the previous network node corresponding to the wireless device; storing the received EPI information at the current network node; and receiving a paging request, from another network node or a serving gateway, that identifies the wireless device; transmitting the paging request to only the base station serving the wireless device as indicated by the current EPI information. receiving, current enhanced paging identification, EPI, information, from a base station, the EPI information including an identification of the wireless device, an identification of the base station serving the wireless device, and a status of the wireless device as being one of a stationary device and a low mobility device, wherein the current EPI information further includes a network node identification that identifies a previous network node to which the wireless device was previously attached; comparing the previous network node identification to an identification of the current network node, and when the current network node identification is different from the previous network node identification, sending a deletion request to the previous network node to cause deletion of previous EPI information at the previous network node corresponding to the wireless device; when the current network node identification is different from the previous network node identification, sending a deletion request to the previous network node to cause deletion of previous EPI information at the previous network node corresponding to the wireless device; storing the received EPI information at the current network node; and receiving a paging request, from another network node or a serving gateway, that identifies the wireless device; transmitting the paging request to only the base station serving the wireless device as indicated by the current EPI information.
A case for an electronic device, the case comprising: a display; a power feeding part configured to receive power; and a controller configured to: transmit a voltage to at least a part of the display corresponding to a screen of the electronic device using the received power, and adjust a level of the transmitted voltage, wherein the controller is further configured to adjust the voltage level such that the at least part of the display becomes transparent or enters a mirror state, and receive data from the electronic device, and wherein the voltage level adjusted by the controller is determined according to the received data, and wherein the at least part of the display comprises an indicator (320, 420, 520) for providing notification of an event generated in the electronic device, and the controller is further configured to display the indicator on the display by adjusting the voltage level, and wherein the indicator is inactivated before the data is received. a display; a power feeding part configured to receive power; and a controller configured to: transmit a voltage to at least a part of the display corresponding to a screen of the electronic device using the received power, and adjust a level of the transmitted voltage, transmit a voltage to at least a part of the display corresponding to a screen of the electronic device using the received power, and adjust a level of the transmitted voltage, wherein the controller is further configured to adjust the voltage level such that the at least part of the display becomes transparent or enters a mirror state, and receive data from the electronic device, and wherein the voltage level adjusted by the controller is determined according to the received data, and wherein the at least part of the display comprises an indicator (320, 420, 520) for providing notification of an event generated in the electronic device, and the controller is further configured to display the indicator on the display by adjusting the voltage level, and wherein the indicator is inactivated before the data is received.