mhurhangee/ep-ind-claims huggingface dataset:
Steam generating unit of dual circuit reactor with blowdown and drain system, comprising four identical steam generators, each of them is connected to a steam header, a protection tight volume, a hot primary circuit header and a cold primary circuit header of a primary coolant with pockets and a salt compartment, feed water supply pipelines (6, 7, 8, 9), and blowoff lines from the salt compartment, from a lower casing component and pockets of the primary circuit headers (2, 3), characterized in that all the blowoff lines of each steam generator are combined into a single blowdown header (13, 14, 15, 16) of the steam generator with further combination into a common blowdown header of the steam generators that is connected to a regenerative heat exchanger inlet, with a discharge line connected to a blowdown aftercooler and a drain cooling line that is connected to a discharge line of blowdown aftercooled water that is taken out of the protective tight volume and connected to an active water treatment system with a discharge line of treated blowdown water of the steam generators and mounted thereon by means of, at least, one treated blowdown water pump which pressure line is made in the protective tight volume and connected to a regenerative heat exchanger intertubular space inlet, with an outlet connected to feed water supply pipelines (28, 29, 30, 31) of the respective steam generator via a common pipeline for the treated blowdown water supply and pipelines (6, 7, 8, 9) for treated blowdown water supply of each steam generator.
A gas sensor comprising a substrate, a recess or opening arranged in said substrate, a bridge extending over said recess or opening and being anchored in said substrate, wherein said bridge comprises at least a first and a second metal layer (12, 14) separated by at least one dielectric layer, in particular of silicon nitride and/or silicon oxide, and wherein said bridge forms a hotplate, a patch of sensing material, in particular of a metal oxide material, arranged on said hotplate, a heater located in said hotplate and formed by said first metal layer, electrodes (30, 31) located in said hotplate, formed at least in part by said second metal layer, and arranged for measuring an electrical property of said patch of sensing material, a temperature sensor arranged in said hotplate, characterized in that said recess or opening arranged in said substrate comprises at least two parallel neighbouring bridges (3a, 3b), said bridges comprise, in particular consist of, a central region forming said hotplate and two arms of unequal length extending between said central region and said substrate, wherein the central regions (5a, 5b) of the neighbouring bridges (3a, 3b) are, in a direction along the bridges offset in respect to each other.
A radio communication method comprising the steps of: - transmitting by an access station a multicast message; and - receiving the multicast message at a plurality of at least two terminals; and - checking successful reception of the multicast message at at least one of the plurality of terminals; and - identifying by at least one of the terminals at least one receive characteristic of the multicast message reception, wherein the receive characteristic comprises at least one of the number of received symbols or the number of received transmission bursts or a time, needed for successful decoding the message; and - pseudo-randomly selecting at each terminal at least one transmit resource from a plurality of predefined transmit resources for transmitting a message to the access station using a pseudo-random selection process based on the receive characteristic; and - transmitting a reply message in response to the multicast message from a terminal to the access station using the selected transmit resource; and - receiving the reply message at the access station on the selected transmit resource. - transmitting by an access station a multicast message; and - receiving the multicast message at a plurality of at least two terminals; and - checking successful reception of the multicast message at at least one of the plurality of terminals; and - identifying by at least one of the terminals at least one receive characteristic of the multicast message reception, wherein the receive characteristic comprises at least one of the number of received symbols or the number of received transmission bursts or a time, needed for successful decoding the message; and - pseudo-randomly selecting at each terminal at least one transmit resource from a plurality of predefined transmit resources for transmitting a message to the access station using a pseudo-random selection process based on the receive characteristic; and - transmitting a reply message in response to the multicast message from a terminal to the access station using the selected transmit resource; and - receiving the reply message at the access station on the selected transmit resource.
Connection system for detachably connecting a component element to a component part, wherein the connection system comprises a coupling element and a component part with a connection opening for receiving the coupling element, wherein the coupling element has a head with a non-round outer cross-section and has a shank, wherein the head can be received by means of a frictional connection in rotationally fixed manner in a head region of the connection opening of the component part, and the shank can be received in a force fitting and/or firmly bonded manner in a sealing region of the connection opening, and the head has an internal geometry for connecting the component element, wherein the coupling element has a greater axial length than the connection opening ending in a flow channel of the component part, wherein the shaft has a greater axial extension than the sealing region and wherein the coupling element has an axial passage opening, characterized in that the coupling element comprises a corrosion-resistant material and the component part has a coating, wherein the coating extends up to a front side of the shank facing away from the head.
A method for use in a network node, comprising: determining to use an extended random access preamble identifier, RAPID, for a random access procedure with a wireless device; and transmitting a medium access control, MAC, protocol data unit, PDU, the MAC PDU comprising a header and one or more random access responses, RARs, each RAR associated with a corresponding subheader within the header of the MAC PDU; wherein the random access procedure is associated with a first RAR of the one or more RARs and the extended RAPID for the random access procedure is indicated by a combination of one or more bits in the first RAR and one or more bits in the subheader that corresponds to the first RAR. determining to use an extended random access preamble identifier, RAPID, for a random access procedure with a wireless device; and transmitting a medium access control, MAC, protocol data unit, PDU, the MAC PDU comprising a header and one or more random access responses, RARs, each RAR associated with a corresponding subheader within the header of the MAC PDU; wherein the random access procedure is associated with a first RAR of the one or more RARs and the extended RAPID for the random access procedure is indicated by a combination of one or more bits in the first RAR and one or more bits in the subheader that corresponds to the first RAR.
A safety control device for a people conveyor, the safety control device comprising: a first safety control channel configured to output a first safety control signal in response to one or more input signals (10, 12, 14); a second safety control channel configured to output a second safety control signal in response to one or more input signals (10, 12, 14); and an override control channel configured to: monitor the health of the first and second safety control channels (2, 4); and determine whether a fault has occurred in either of the first or second safety control channels (2, 4); characterised in that the override control channel is configured to override the first or second safety control signal in response to a determination that a fault has occurred in the corresponding safety control channel (2, 4), thereby preventing activation of one or more safety systems. a first safety control channel configured to output a first safety control signal in response to one or more input signals (10, 12, 14); a second safety control channel configured to output a second safety control signal in response to one or more input signals (10, 12, 14); and an override control channel configured to: monitor the health of the first and second safety control channels (2, 4); and determine whether a fault has occurred in either of the first or second safety control channels (2, 4); monitor the health of the first and second safety control channels (2, 4); and determine whether a fault has occurred in either of the first or second safety control channels (2, 4);
A method for a vehicle (200, 510) and for processing information for communication in a tele-operated driving session, the method comprising: establishing a tele-operated driving session between the vehicle (200, 510) and a remote control center (400, 520); obtaining a predicted latency of a communication link between the remote control center (400, 520) and the vehicle (200, 510) for the tele-operated driving session; obtaining for one or more codec parameters a latency for encoding the information at the vehicle (200, 510); receiving, from the remote control center (400, 520), for the one or more codec parameters a latency for decoding the encoded information at the remote control center (400, 520); and adapting, based on the predicted latency, at least one codec parameter for coding the information, wherein adapting the at least one codec parameter comprises adapting the at least one codec parameter based on the latencies for encoding and decoding the information. establishing a tele-operated driving session between the vehicle (200, 510) and a remote control center (400, 520); obtaining a predicted latency of a communication link between the remote control center (400, 520) and the vehicle (200, 510) for the tele-operated driving session; obtaining for one or more codec parameters a latency for encoding the information at the vehicle (200, 510); receiving, from the remote control center (400, 520), for the one or more codec parameters a latency for decoding the encoded information at the remote control center (400, 520); and adapting, based on the predicted latency, at least one codec parameter for coding the information, wherein adapting the at least one codec parameter comprises adapting the at least one codec parameter based on the latencies for encoding and decoding the information.
An apparatus for preparing food by circulation of a flow of hot air, comprising: - a food preparation chamber; - a food basket placed inside the food preparation chamber and having a bottom part with a lower opening area for the circulation of said flow of hot air; - a system for generating said flow of hot air with heating means and ventilation means; and - air guide means to guide the flow of hot air towards the bottom part of the food basket, characterized in that the apparatus further comprises: - an insert placed in the food preparation chamber below said bottom part, wherein the insert comprises an upper surface arranged below the food basket, wherein the upper surface defines an inclined surface having a downward inclination extending outwards from a middle zone towards a perimeter of the insert, and wherein the inclined surface is provided such that the inclination extends at least beyond a vertical projection (24a, 24b, 24c) of said lower opening area, wherein the insert further comprises spacers provided on a lower side of the insert to create a clearance gap between said lower side and a bottom surface of said food preparation chamber. - a food preparation chamber; - a food basket placed inside the food preparation chamber and having a bottom part with a lower opening area for the circulation of said flow of hot air; - a system for generating said flow of hot air with heating means and ventilation means; and - air guide means to guide the flow of hot air towards the bottom part of the food basket, - an insert placed in the food preparation chamber below said bottom part, wherein the insert comprises an upper surface arranged below the food basket, wherein the upper surface defines an inclined surface having a downward inclination extending outwards from a middle zone towards a perimeter of the insert, and wherein the inclined surface is provided such that the inclination extends at least beyond a vertical projection (24a, 24b, 24c) of said lower opening area, wherein the insert further comprises spacers provided on a lower side of the insert to create a clearance gap between said lower side and a bottom surface of said food preparation chamber.
A receiver, wherein the receiver is configured to receive encoded data over a channel from a transmitter, wherein the data is parity-check encoded to obtain a codeword, wherein the codeword is defined by a plurality of variable nodes associated with a plurality of the check nodes of a bipartite graph representing the code, wherein the codeword is received over the channel such that certain variable nodes, which are associated with a subset of the check nodes of the bipartite graph, are received prior to other variable nodes, and wherein the certain variable nodes define a subcodeword known by the receiver; wherein the receiver is configured to estimate a decodability of the transmitted codeword using the subcodeword prior to receiving all variable nodes of the codeword; wherein, responsive to an estimation indicating that the codeword cannot be decoded, the receiver is configured to request from the transmitter additional redundancy; wherein, responsive to an estimation indicating that the codeword can be decoded, the receiver is configured to signal the transmitter to stop transmitting additional redundancy, and wherein, to estimate the decodability of the transmitted codeword, the receiver is configured to take into account in addition one or more of the channel quality, the channel estimation, and Cyclic Redundancy Check, CRC, symbols. the receiver is configured to receive encoded data over a channel from a transmitter, wherein the data is parity-check encoded to obtain a codeword, wherein the codeword is defined by a plurality of variable nodes associated with a plurality of the check nodes of a bipartite graph representing the code, wherein the codeword is received over the channel such that certain variable nodes, which are associated with a subset of the check nodes of the bipartite graph, are received prior to other variable nodes, and wherein the certain variable nodes define a subcodeword known by the receiver; wherein the receiver is configured to estimate a decodability of the transmitted codeword using the subcodeword prior to receiving all variable nodes of the codeword; wherein, responsive to an estimation indicating that the codeword cannot be decoded, the receiver is configured to request from the transmitter additional redundancy; wherein, responsive to an estimation indicating that the codeword can be decoded, the receiver is configured to signal the transmitter to stop transmitting additional redundancy, and wherein, to estimate the decodability of the transmitted codeword, the receiver is configured to take into account in addition one or more of the channel quality, the channel estimation, and Cyclic Redundancy Check, CRC, symbols.
Cleaning device for cleaning at least one fracture separation surface (88, 89) - produced by fracture separation - of a workpiece, wherein the cleaning device has at least one vibration device for generating vibrations of the workpiece and a workholder for holding the workpiece, wherein the workholder has a support part for placing the workpiece and a hold-down element located opposite the support part, between which the workpiece is held with a vertical movement clearance, and wherein the vibration device has a vibration drive and a driver which can be driven by the vibration drive for accelerating the workpiece towards the hold-down element, so that the workpiece crashes against the hold-down element and impurities drop off the fracture separation surface (88, 89).
A composition comprising a product of a condensation reaction between a thermal cross-linking agent selected from a group consisting of aluminum acetoacetate, zirconium acetoacetate, titanium acetoacetate, magnesium acetoacetate, hafnium acetoacetate, and tin acetoacetate and a product of hydrolysis and condensation polymerization of a compound represented by Chemical Formula 1: wherein in Chemical Formula 1, R 1, R 2, and R 3 are independently hydrogen, a C1 to C20 alkoxy group, a hydroxyl group, a halogen, or a carboxyl group, preferably independently a C1 to C6 alkoxy group, a substituted or unsubstituted C1 to C20 alkyl group, a substituted or unsubstituted C3 to C20 cycloalkyl group, a substituted or unsubstituted C6 to C20 aryl group, a substituted or unsubstituted C7 to C20 arylalkyl group, a substituted or unsubstituted C1 to C20 heteroalkyl group, a substituted or unsubstituted C2 to C20 heterocycloalkyl group, a substituted or unsubstituted C2 to C20 alkylnyl group, or a combination thereof, provided that at least one of R 1, R 2, and R 3 is a C1 to C20 alkoxy group, a hydroxyl group, a halogen, or a carboxyl group, preferably independently a C1 to C6 alkoxy group R 4 to R 6 are independently hydrogen, or a C1 to C20 alkyl group, preferably independently hydrogen or a methyl group L 1 is a carbon atom, L 2 and L 4 are independently a substituted or unsubstituted C1 to C20 alkylene group, a substituted or unsubstituted C6 to C20 arylene group, a substituted or unsubstituted C3 to C20 cycloalkylene group, a substituted or unsubstituted C2 to C20 alkenylenegroup, a substituted or unsubstituted C2 to C20 alkynylene group, - R-O-R'-, -R-N-R'-, -R-(C=O)-R'- (wherein, R and R' are independently C1 to C10 carbohydrate group), or a combination thereof, preferably independently a C1 to C20 alkylene group and L 3 is -O-(C=O)-NR"-, -(C=O)-NR"- (wherein, R" is hydrogen, or a C1 to C6 carbohydrate group),preferably -(C=O)-NR"- (wherein, R" is hydrogen, or a C1 to C6 carbohydrate group).
Printing method with a printing device (1, 1'), which comprises at least one printing unit with at least one printing form cylinder, at least one impression cylinder arranged opposite the printing form cylinder and at least one substrate carrier apparatus, wherein the printing form cylinder and the impression cylinder are rotated in opposition to each other, at least one substrate is moved through between the printing form cylinder and the impression cylinder by means of the substrate carrier apparatus, and in the process the at least one substrate is printed in a printing region situated between the printing form cylinder and the impression cylinder by means of a gravure provided on a cylinder surface of the printing form cylinder or a plate provided on a cylinder surface of the printing form cylinder, characterized in that during a uniform rotation movement of the printing form cylinder and the impression cylinder, the substrate carrier apparatus is moved linearly along a linearly extending track, limited in length by a longitudinal extension of the printing unit, wherein the substrate carrier apparatus is accelerated from a resting start position (x 1) to an operating speed (v S2) which the substrate carrier apparatus comprises no later than in the printing region, the substrate carrier apparatus is moved at constant operating speed (v S2) at least in the printing region and the substrate carrier apparatus is decelerated to a resting end position (x 3) on the track after leaving the printing region.
A battery cell, comprising: a first cathode current collector having a continuous layer structure; a first cathode layer having a plurality of first cathode subregions electrically connected to each other through the continuous layer structure of the first cathode current collector, wherein the plurality of first cathode subregions are separated by a gap, and wherein the gap is at least partially filled by a dielectric gas; an electrolyte layer between the plurality of first cathode subregions and a first anode layer; and a first anode current collector electrically connected to the first anode layer, wherein the gap is between the first cathode current collector and the first anode current collector, wherein the plurality of first cathode subregions include respective sidewalls separated by the gap, wherein the first anode layer includes a continuous layer structure covering the sidewalls, and wherein the gap separates a portion of the first anode layer disposed between the sidewalls from the anode current collector. a first cathode current collector having a continuous layer structure; a first cathode layer having a plurality of first cathode subregions electrically connected to each other through the continuous layer structure of the first cathode current collector, wherein the plurality of first cathode subregions are separated by a gap, and wherein the gap is at least partially filled by a dielectric gas; an electrolyte layer between the plurality of first cathode subregions and a first anode layer; and a first anode current collector electrically connected to the first anode layer, wherein the gap is between the first cathode current collector and the first anode current collector, wherein the plurality of first cathode subregions include respective sidewalls separated by the gap, wherein the first anode layer includes a continuous layer structure covering the sidewalls, and wherein the gap separates a portion of the first anode layer disposed between the sidewalls from the anode current collector.
A fingerprint identification apparatus, comprising: a circuit board, a fingerprint sensor, an appearance effect layer, a covering layer and an adhesive member; wherein the fingerprint sensor is arranged on the circuit board, the covering layer is coated over the fingerprint sensor, the appearance effect layer is arranged between the fingerprint sensor and the covering layer; wherein the appearance effect layer comprises a color layer and a texture layer, and the texture layer and the color layer are sequentially arranged under the covering layer; wherein a face of the covering layer provided with the texture layer and the color layer is adhered to an upper part of the fingerprint sensor via the adhesive member; wherein the color layer comprises a plurality of layers; wherein the covering layer is a surface hardening layer, the surface hardening layer is a transparent hardened protection layer prepared by means of spraying using a transparent paint or ink.