mhurhangee/patent-ind-claim-en huggingface dataset:
Heat exchange system , with - at least one heat exchange chamber with heat exchange chamber boundaries which surround at least one heat exchange chamber interior of the heat exchange chamber , wherein - the heat exchange chamber boundaries are walls made of concrete and comprise at least one first opening for guiding in and infusing an inflow of at least one heat transfer fluid into the heat exchange chamber interior and at least one second opening for guiding out an outflow of the heat transfer fluid out of the heat exchange chamber interior; - at least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid; and wherein - at least one thermal insulation layer is at least partly arranged in the heat exchange chamber interior between the heat exchange chamber boundaries and the heat storage material. - at least one heat exchange chamber with heat exchange chamber boundaries which surround at least one heat exchange chamber interior of the heat exchange chamber , wherein - the heat exchange chamber boundaries are walls made of concrete and comprise at least one first opening for guiding in and infusing an inflow of at least one heat transfer fluid into the heat exchange chamber interior and at least one second opening for guiding out an outflow of the heat transfer fluid out of the heat exchange chamber interior; - at least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid; and wherein - at least one thermal insulation layer is at least partly arranged in the heat exchange chamber interior between the heat exchange chamber boundaries and the heat storage material.
A method for a device for encoding data with a polar code, the method comprising: with an encoder of the device, polar encoding information bits and at least one parity check bit using the polar code to obtain encoded data, wherein the polar code is associated with a plurality of sub-channels of a Kronecker matrix, and the plurality of sub-channels are ordered based on a reliability metric, and the at least one parity check bit is placed in at least one sub-channel of the plurality of sub-channels, wherein the Kronecker matrix is produced from an Arikan kernel, and the at least one sub-channel is selected from a segment of a plurality of segments of the plurality of sub-channels based on the at least one sub-channel having a minimum row weight of the segment of the plurality of segments of the plurality of sub-channels, a row weight of the minimum row weight being a number of ones in a row of the Kronecker matrix, the row corresponding to a respective sub-channel of the plurality of sub-channels; and transmitting the encoded data to another device wherein the segment of the plurality of segments of the plurality of ordered sub-channels comprises K sub-channels of the ordered sub-channels, each of the K sub-channels having a higher reliability metric than sub-channels of a segment comprising M - K sub-channels of the ordered sub-channels, where K is an information block length and M is the transmitted block length of the polar code. with an encoder of the device, polar encoding information bits and at least one parity check bit using the polar code to obtain encoded data, wherein the polar code is associated with a plurality of sub-channels of a Kronecker matrix, and the plurality of sub-channels are ordered based on a reliability metric, and the at least one parity check bit is placed in at least one sub-channel of the plurality of sub-channels, wherein the Kronecker matrix is produced from an Arikan kernel, and the at least one sub-channel is selected from a segment of a plurality of segments of the plurality of sub-channels based on the at least one sub-channel having a minimum row weight of the segment of the plurality of segments of the plurality of sub-channels, a row weight of the minimum row weight being a number of ones in a row of the Kronecker matrix, the row corresponding to a respective sub-channel of the plurality of sub-channels; and transmitting the encoded data to another device wherein the segment of the plurality of segments of the plurality of ordered sub-channels comprises K sub-channels of the ordered sub-channels, each of the K sub-channels having a higher reliability metric than sub-channels of a segment comprising M - K sub-channels of the ordered sub-channels, where K is an information block length and M is the transmitted block length of the polar code.
A system comprising: (a) a lentivirus vector particle comprising a lentiviral genome which does not contain a Cas9 gene and encodes at least one guide RNA sequence that is complementary to a first DNA sequence in a host cell genome, wherein the first DNA sequence encodes a defective human β-globin protein, (b) a Cas9 protein complexed with the lentiviral vector particle, and optionally (c) a donor nucleic acid molecule comprising a second DNA sequence. (a) a lentivirus vector particle comprising a lentiviral genome which does not contain a Cas9 gene and encodes at least one guide RNA sequence that is complementary to a first DNA sequence in a host cell genome, wherein the first DNA sequence encodes a defective human β-globin protein, (b) a Cas9 protein complexed with the lentiviral vector particle, and optionally (c) a donor nucleic acid molecule comprising a second DNA sequence.
A data management method for a computer system including at least one processor (702, 796; 801) and at least a first tag-less cache (720, 792; 830), a second tag-less cache (740; 840), a memory allocated to the at least one processor (702, 796; 801), at least one cache location buffer wherein the cache location buffer entries track a corresponding cache line by pointing to its location using a location information pointer, and a set-associative victim buffer (771; 860), wherein each entry of the victim buffer (771; 860) is configured to store a cache line data field, a backwards pointer identifying a cache location buffer entry storing the location information associated with the victim buffer entry, and a victim space identifier storing the location information to which the victim cache line should be written, wherein each entry of the first cache and the second cache is configured to store a backwards pointer identifying a cache location buffer entry storing the location information associated with the cache entry, the method comprising: selecting a dirty victim cache line to be evicted from the first cache (720, 792; 830); finding a victim buffer location corresponding to the victim cache line from a set of the victim buffer (771; 860); copying the data of the victim cache line to the data field of the victim buffer location; copying the backward pointer associated with the victim cache line to the backward pointer field of the victim buffer location; writing the location information for the destination of the data in the victim space identifier of the victim buffer (771; 860); and reclaiming the victim cache line of the first cache (720, 792; 830). selecting a dirty victim cache line to be evicted from the first cache (720, 792; 830); finding a victim buffer location corresponding to the victim cache line from a set of the victim buffer (771; 860); copying the data of the victim cache line to the data field of the victim buffer location; copying the backward pointer associated with the victim cache line to the backward pointer field of the victim buffer location; writing the location information for the destination of the data in the victim space identifier of the victim buffer (771; 860); and reclaiming the victim cache line of the first cache (720, 792; 830).
A light source, comprising: a support member; a liquid media supported by the support member, wherein the liquid media is polar; at least one pair of electrodes disposed on the support member, such that electrodes in the at least one pair of electrodes are arranged coplanar with each other and a surface of each electrode in the pair of electrodes is in direct contact with nanoparticles, where the nanoparticles are comprised of a luminescent material chosen from elemental or composite semiconductor materials and are contained within the liquid media; and an excitation source electrically coupled to the pair of electrodes and operable to apply an excitation signal between the electrodes in the pair of electrodes. a support member; a liquid media supported by the support member, wherein the liquid media is polar; at least one pair of electrodes disposed on the support member, such that electrodes in the at least one pair of electrodes are arranged coplanar with each other and a surface of each electrode in the pair of electrodes is in direct contact with nanoparticles, where the nanoparticles are comprised of a luminescent material chosen from elemental or composite semiconductor materials and are contained within the liquid media; and an excitation source electrically coupled to the pair of electrodes and operable to apply an excitation signal between the electrodes in the pair of electrodes.
A method for preparing an inorganic solid electrolyte composite slurry, comprising the following steps: mixing an inorganic solid electrolyte powder with a first solvent and wet grinding an obtained mixture to form a preparatory slurry A, wherein the inorganic solid electrolyte powder is 20% to 50% by mass of the preparatory slurry A, and the temperature during wet grinding process is in a range from 20°C to 50°C; characterised in mixing a binder with a second solvent to form a preparatory slurry B, wherein the binder is 2% to 20% by mass of the preparatory slurry B; mixing the preparatory slurry A with the preparatory slurry B to obtain the inorganic solid electrolyte composite slurry. mixing an inorganic solid electrolyte powder with a first solvent and wet grinding an obtained mixture to form a preparatory slurry A, wherein the inorganic solid electrolyte powder is 20% to 50% by mass of the preparatory slurry A, and the temperature during wet grinding process is in a range from 20°C to 50°C; characterised in mixing a binder with a second solvent to form a preparatory slurry B, wherein the binder is 2% to 20% by mass of the preparatory slurry B; mixing the preparatory slurry A with the preparatory slurry B to obtain the inorganic solid electrolyte composite slurry.
A method comprising: receiving input audio and target audio having a target audio characteristic, wherein the input audio and the target audio are received as separate signals; estimating key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio; and configuring a neural network, trained to be configured by the key parameters, with the key parameters to cause the neural network to perform a signal transformation of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic, wherein the estimating includes performing a temporal analysis to produce, as the key parameters, temporal key parameters that represent a target temporal characteristic of the target audio; and the configuring includes configuring the neural network with the temporal key parameters to cause the neural network to perform the signal transformation as a transformation of a temporal characteristic of the input audio to a temporal characteristic of the output audio that matches the target temporal characteristic. receiving input audio and target audio having a target audio characteristic, wherein the input audio and the target audio are received as separate signals; estimating key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio; and configuring a neural network, trained to be configured by the key parameters, with the key parameters to cause the neural network to perform a signal transformation of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic, wherein the estimating includes performing a temporal analysis to produce, as the key parameters, temporal key parameters that represent a target temporal characteristic of the target audio; and the configuring includes configuring the neural network with the temporal key parameters to cause the neural network to perform the signal transformation as a transformation of a temporal characteristic of the input audio to a temporal characteristic of the output audio that matches the target temporal characteristic.
A method for determining a plurality of logical channels for data transceiving, characterized in that the method is performed by a terminal in a vehicle-to-everything, V2X, system and comprises: receiving configuration information from a network side, wherein the configuration information is configured with a first mapping relationship between a destination address corresponding to a data packet and at least one of the following resource attributes: a transmission time interval, TTI, or a carrier, wherein the carrier is one of a plurality of carriers for the terminal; determining a second mapping relationship between a logical channel and the destination address corresponding to the data packet; and selecting at least one of the following resource attributes corresponding to the logical channel based on the first mapping relationship and the second mapping relationship: the TTI, or the carrier; wherein a mapping relationship between the logical channel and the resource attribute is a third mapping relationship, and the method further comprises: acquiring a transmission resource; determining at least one of the following resource attributes corresponding to the transmission resource: the TTI or the carrier; and determining a plurality of logical channels associated with the transmission resource based on the resource attribute corresponding to the transmission resource, and the third mapping relationship. receiving configuration information from a network side, wherein the configuration information is configured with a first mapping relationship between a destination address corresponding to a data packet and at least one of the following resource attributes: a transmission time interval, TTI, or a carrier, wherein the carrier is one of a plurality of carriers for the terminal; determining a second mapping relationship between a logical channel and the destination address corresponding to the data packet; and selecting at least one of the following resource attributes corresponding to the logical channel based on the first mapping relationship and the second mapping relationship: the TTI, or the carrier; wherein a mapping relationship between the logical channel and the resource attribute is a third mapping relationship, and the method further comprises: acquiring a transmission resource; determining at least one of the following resource attributes corresponding to the transmission resource: the TTI or the carrier; and determining a plurality of logical channels associated with the transmission resource based on the resource attribute corresponding to the transmission resource, and the third mapping relationship.
An electrochromic device comprising - at least one substrate ; - a first electrode comprising a first aperture and a second electrode comprising a second aperture ; - the two electrodes being positioned such that the two apertures are opposite; - a layer of electrochromic material placed in the first aperture of the first electrode so as to form at least one electrical contact zone between the layer of electrochromic material and the first electrode, said layer of electrochromic material and said first electrode thus together forming a working electrode and the second electrode forming a counter-electrode; - a layer of electrolyte sandwiched between the working electrode and the counter-electrode; - an electrical power supply means configured to apply an electrical voltage to the two electrodes. - at least one substrate ; - a first electrode comprising a first aperture and a second electrode comprising a second aperture ; - the two electrodes being positioned such that the two apertures are opposite; - a layer of electrochromic material placed in the first aperture of the first electrode so as to form at least one electrical contact zone between the layer of electrochromic material and the first electrode, said layer of electrochromic material and said first electrode thus together forming a working electrode and the second electrode forming a counter-electrode; - a layer of electrolyte sandwiched between the working electrode and the counter-electrode; - an electrical power supply means configured to apply an electrical voltage to the two electrodes.
A method pertaining to an SCR system for exhaust cleaning which comprises a container , to accommodate a reducing agent, and a dosing unit , comprising the steps of - continuously detecting (S410) discrete indications of remaining volume of reducing agent in said container, characterised by the steps of - at a first point in time, setting (S420) a first value (V1-VN) for said remaining volume to latest detected indication of remaining volume of reducing agent, - at a second pont in time subsequent to the first point in time, setting (S430) a second value (V1-VN) for said remaining volume to latest detected indication of remaining volume of reducing agent, and - determining a detected reducing agent volume dosed (Vdetect) based on a difference in volume between the volume indications corresponding to the first value (V1-VN) and the second value (V1-VN). - continuously detecting (S410) discrete indications of remaining volume of reducing agent in said container, - at a first point in time, setting (S420) a first value (V1-VN) for said remaining volume to latest detected indication of remaining volume of reducing agent, - at a second pont in time subsequent to the first point in time, setting (S430) a second value (V1-VN) for said remaining volume to latest detected indication of remaining volume of reducing agent, and - determining a detected reducing agent volume dosed (Vdetect) based on a difference in volume between the volume indications corresponding to the first value (V1-VN) and the second value (V1-VN).
Molding device (10; 110; 210) comprising mold shells (11, 12; 111, 112; 211, 212) and a gasket (13; 113; 213; 313) for manufacturing by molding an ophthalmic lens configured to be worn by a wearer, said mold shells (11, 12; 111, 112; 211, 212) each having a molding face and a peripheral side and said gasket (13; 113; 213; 313) comprising a closed loop portion (20; 120; 220) sandwiched between said molding faces and remotely to said peripheral sides of said mold shells (11, 12; 111, 112; 211, 212), thereby forming a molding cavity of said ophthalmic lens inside said closed loop portion of said gasket (13; 113; 213; 313), characterized in that said gasket (13; 113; 213; 313) comprises a plurality of elongated positioning members each projecting externally from said closed loop portion (20; 120; 220) and each being fastened on a said peripheral side of at least one of said mold shells (11, 12; 111, 112; 211, 212), said plurality of elongated positioning members each having a respective length which is determined in function of an optical axis characteristic of said wearer of said ophthalmic lens .
A monolithic microwave integrated circuit, MMIC, front-end module comprising: a gallium nitride structure supported by a silicon substrate ; a silicon-based transmit/receive switch having a transmit mode and a receive mode; a transmit amplifier configured to amplify an outgoing signal to be transmitted by said MMIC front-end module, wherein said transmit amplifier is electrically connected to said transmit/receive switch, wherein said transmit amplifier comprises a gallium nitride high-electron-mobility transistor, HEMT, formed in said gallium nitride structure; and a receive amplifier configured to amplify an incoming signal received by said MMIC front-end module, wherein said receive amplifier is electrically connected to said transmit/receive switch, wherein said receive amplifier comprises a gallium nitride HEMT formed in said gallium nitride structure, characterized in that said gallium nitride structure comprises a first gallium nitride island and a second gallium nitride island , wherein said first gallium nitride island and said second gallium nitride island are physically separated and laterally co-arranged on the silicon substrate. a gallium nitride structure supported by a silicon substrate ; a silicon-based transmit/receive switch having a transmit mode and a receive mode; a transmit amplifier configured to amplify an outgoing signal to be transmitted by said MMIC front-end module, wherein said transmit amplifier is electrically connected to said transmit/receive switch, wherein said transmit amplifier comprises a gallium nitride high-electron-mobility transistor, HEMT, formed in said gallium nitride structure; and a receive amplifier configured to amplify an incoming signal received by said MMIC front-end module, wherein said receive amplifier is electrically connected to said transmit/receive switch, wherein said receive amplifier comprises a gallium nitride HEMT formed in said gallium nitride structure, characterized in that said gallium nitride structure comprises a first gallium nitride island and a second gallium nitride island , wherein said first gallium nitride island and said second gallium nitride island are physically separated and laterally co-arranged on the silicon substrate.