mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for simulating a 3D scene partitioned into a plurality of zones, each zone (A j ) having been sized to satisfy real-time computing constraint by one computing resource (S i ) of a set of identical computing resources, the sizing of each zone (Ai) having been performed based on an iterative manual adjustment of the size of each zone as well as the number of objects and interactions in each zone, said size, number of objects and interactions in said zone defining a capacity limit, a subsequent, individual simulation of said zone on a solver, and a determination whether said simulation of said zone results in a CPU utilization lower than 100% the simulation of the 3D scene being carried out with the set of identical computing resources running in parallel, the method comprising: - assigning each zone of the plurality to a computing resource, one zone being assigned to one computing resource; - computing an estimation of a load (λ i ) of each computing resource (S i ) and determining whether one or more computing resources are under-loaded; - computing, for each zone (A j ), a contribution (£A j ) of the zone to the load of the computing resource to which the zone is assigned; - reassigning one or more zones of a computing resource that is under-loaded to another computing resource, the reassignment resulting from the computed contributions of the zones with a reassignment combinatorial optimization algorithm, wherein the reassignment of one or more zones to another computing resource, is carried out such that a resulting load (λ i ') of each computing resource verifies λ min ≤ λ i ′ ≤ λ max wherein with λ min being the minimum load of a computing resource and λ max being the maximum load of a computing resource, and when λ i < λ min the reassigning of the one or more zones comprises deactivating at least one under-loaded computing resource by transferring its content to one or more other active computing resources. - assigning each zone of the plurality to a computing resource, one zone being assigned to one computing resource; - computing an estimation of a load (λ i ) of each computing resource (S i ) and determining whether one or more computing resources are under-loaded; - computing, for each zone (A j ), a contribution (£A j ) of the zone to the load of the computing resource to which the zone is assigned; - reassigning one or more zones of a computing resource that is under-loaded to another computing resource, the reassignment resulting from the computed contributions of the zones with a reassignment combinatorial optimization algorithm, wherein the reassignment of one or more zones to another computing resource, is carried out such that a resulting load (λ i ') of each computing resource verifies λ min ≤ λ i ′ ≤ λ max wherein with λ min being the minimum load of a computing resource and λ max being the maximum load of a computing resource, and when λ i < λ min the reassigning of the one or more zones comprises deactivating at least one under-loaded computing resource by transferring its content to one or more other active computing resources.
Foot prop adapted to be attached to a child safety seat , comprising - an elongate component the length of which is extendable between a minimal length and a maximal length, comprising - an upper portion and - a lower portion , wherein the lower portion is slidable relative to the upper portion in longitudinal direction of the elongate component ; characterized in that the foot prop is configured such that a force applied in the longitudinal direction to the lower portion causes the lower portion to automatically move away from the upper portion whenever the force exceeds a predetermined threshold, so that the length of the elongate component is increased; and wherein the foot prop is configured such that the lower portion and the upper portion are releasably blocked against relative movement towards one another. - an elongate component the length of which is extendable between a minimal length and a maximal length, comprising - an upper portion and - a lower portion , wherein the lower portion is slidable relative to the upper portion in longitudinal direction of the elongate component ; characterized in that the foot prop is configured such that a force applied in the longitudinal direction to the lower portion causes the lower portion to automatically move away from the upper portion whenever the force exceeds a predetermined threshold, so that the length of the elongate component is increased; and wherein the foot prop is configured such that the lower portion and the upper portion are releasably blocked against relative movement towards one another. - an upper portion and - a lower portion ,
An apparatus for wireless communications, comprising: at least one processor coupled with a memory and comprising: encoder circuitry configured to encode a set of information bits using a systematic code to generate an encoded bit stream with information bits and parity bits, wherein the systematic code comprises a lifted low-density parity-check, LDPC, code; puncturing circuitry configured to puncture one or more information bits in the encoded bit stream according to a puncturing pattern prior to re-ordering; bit ordering circuitry configured to re-order bits in the encoded bit stream to distribute the information bits and the parity bits in the encoded bit stream, wherein the re-ordering comprises distributing an equal number of check nodes, in the lifted LDPC code, having a single edge connected to a punctured information bit in transmissions associated with different redundancy versions, RVs; and a transmitter configured to transmit the re-ordered bits in accordance with a radio technology across a wireless channel via one or more antenna elements situated proximate the transmitter. at least one processor coupled with a memory and comprising: encoder circuitry configured to encode a set of information bits using a systematic code to generate an encoded bit stream with information bits and parity bits, wherein the systematic code comprises a lifted low-density parity-check, LDPC, code; puncturing circuitry configured to puncture one or more information bits in the encoded bit stream according to a puncturing pattern prior to re-ordering; bit ordering circuitry configured to re-order bits in the encoded bit stream to distribute the information bits and the parity bits in the encoded bit stream, wherein the re-ordering comprises distributing an equal number of check nodes, in the lifted LDPC code, having a single edge connected to a punctured information bit in transmissions associated with different redundancy versions, RVs; and encoder circuitry configured to encode a set of information bits using a systematic code to generate an encoded bit stream with information bits and parity bits, wherein the systematic code comprises a lifted low-density parity-check, LDPC, code; puncturing circuitry configured to puncture one or more information bits in the encoded bit stream according to a puncturing pattern prior to re-ordering; bit ordering circuitry configured to re-order bits in the encoded bit stream to distribute the information bits and the parity bits in the encoded bit stream, wherein the re-ordering comprises distributing an equal number of check nodes, in the lifted LDPC code, having a single edge connected to a punctured information bit in transmissions associated with different redundancy versions, RVs; and a transmitter configured to transmit the re-ordered bits in accordance with a radio technology across a wireless channel via one or more antenna elements situated proximate the transmitter.
A data packet transmission method, comprising: receiving (S403), by a base station, a first paging message from a core network device, wherein the first paging message comprises instruction information of a small data packet; sending (S404), by the base station, a second paging message to user equipment, UE; receiving (S405), by the base station, a radio resource control, RRC, message from the UE; receiving (S407), by the base station, the small data packet from the core network device; and sending (S408), by the base station, an RRC connection establishment message to the UE, wherein the RRC connection establishment message comprises the small data packet. receiving (S403), by a base station, a first paging message from a core network device, wherein the first paging message comprises instruction information of a small data packet; sending (S404), by the base station, a second paging message to user equipment, UE; receiving (S405), by the base station, a radio resource control, RRC, message from the UE; receiving (S407), by the base station, the small data packet from the core network device; and sending (S408), by the base station, an RRC connection establishment message to the UE, wherein the RRC connection establishment message comprises the small data packet.
A control method for braking backup in autonomous driving, comprising: receiving a status indication of an execution module associated with braking and a status indication of a function module associated with stability control; determining, based at least in part on the received status indication of the execution module associated with braking and the received status indication of the function module associated with stability control, a braking capability of the execution module associated with braking; and assigning a braking command based at least in part on the received status indication of the execution module associated with braking and the determined braking capability of the execution module associated with braking. receiving a status indication of an execution module associated with braking and a status indication of a function module associated with stability control; determining, based at least in part on the received status indication of the execution module associated with braking and the received status indication of the function module associated with stability control, a braking capability of the execution module associated with braking; and assigning a braking command based at least in part on the received status indication of the execution module associated with braking and the determined braking capability of the execution module associated with braking.
An aerosol provision article arranged to generate a flow of aerosol in use, the aerosol provision article comprising a receptacle section, the receptacle section arranged for receiving therein an activatable element (124, 224 ...924) for modifying, once activated, a property of said flow of aerosol, the receptacle section comprising: a channel for having the activatable element removably installed therein, and at least one activating element operable to apply, after an installation of said activatable element (124, 224 ...924) in the receptacle section by a user, a force to said activatable element (124, 224 ...924) to activate said activatable element (124, 224 ...924) installed in the receptacle section in use, wherein the at least one activating element is moveable between a first position and a different, second position for activating said activatable element (124, 224 ...924) installed in the receptacle section in use, wherein the first position is for allowing removable installation of the activatable element in the channel of the receptacle section by a user, when the receptacle section is connected to the aerosol provision article, and wherein movement of the at least one activating element from the first position to the second position causes said force to be applied to activate said activatable element (124, 224 ...924) installed in the receptacle section in use. a channel for having the activatable element removably installed therein, and at least one activating element operable to apply, after an installation of said activatable element (124, 224 ...924) in the receptacle section by a user, a force to said activatable element (124, 224 ...924) to activate said activatable element (124, 224 ...924) installed in the receptacle section in use, wherein the at least one activating element is moveable between a first position and a different, second position for activating said activatable element (124, 224 ...924) installed in the receptacle section in use, wherein the first position is for allowing removable installation of the activatable element in the channel of the receptacle section by a user, when the receptacle section is connected to the aerosol provision article, and wherein movement of the at least one activating element from the first position to the second position causes said force to be applied to activate said activatable element (124, 224 ...924) installed in the receptacle section in use.
A composition comprising a polyolefin, a polyphenylene oxide (PPO), a compatibiliser and optionally polystyrene (PS) wherein said compatibiliser is a block or graftcopolymer comprising a polyolefin part, and a polystyrene part, wherein the M n of the polyolefin part is between 1 and 40 kg/mol and the M n of the polystyrene part is between 4 and 16 kg/mol, wherein further the compatibiliser is present in an amountof between 2 to 20 wt.% of the total amount of the composition, wherein the polyolefin part of the compatibiliser is either: a propylene homopolymer block or a propylene copolymer block containing at least 90 wt.% of propylene on the basis of the weight of the propylene copolymer block, wherein the propylene copolymer block is derived from a propylene and a comonomer selected from ethylene, a C3-C8 alpha-olefin, or a combination thereof, or an ethylene homopolymer block or an ethylene copolymer block containing at least 90 wt.% of ethylene on the basis of the weight of the ethylene copolymer block, wherein the ethylene copolymer block is derived from a ethylene and a comonomer selected from ethylene, a C3-C8 alpha-olefin, or a combination thereof, and wherein the amount of the polyolefin is from 5 to 95 wt.% and the amount of the polyphenylene oxide and optional polystyrene is from 95 to 5 wt.%, each on the basis of the total amount of the polyolefin, the polyphenylene oxide and optional polystyrene. a propylene homopolymer block or a propylene copolymer block containing at least 90 wt.% of propylene on the basis of the weight of the propylene copolymer block, wherein the propylene copolymer block is derived from a propylene and a comonomer selected from ethylene, a C3-C8 alpha-olefin, or a combination thereof, or an ethylene homopolymer block or an ethylene copolymer block containing at least 90 wt.% of ethylene on the basis of the weight of the ethylene copolymer block, wherein the ethylene copolymer block is derived from a ethylene and a comonomer selected from ethylene, a C3-C8 alpha-olefin, or a combination thereof, and wherein the amount of the polyolefin is from 5 to 95 wt.% and the amount of the polyphenylene oxide and optional polystyrene is from 95 to 5 wt.%, each on the basis of the total amount of the polyolefin, the polyphenylene oxide and optional polystyrene.
A flow sensor unit having: a flow sensor having: a sensor chip in which a flow rate detecting section is formed on an electric insulating film applied to cover at least a part of a concave portion formed on an upper surface of a substrate; and a flow path forming member which is provided on the sensor chip and has a flow path of the fluid flowing through the flow rate detecting section formed therein; and a metal flow path body which accommodates the flow sensor and has an accommodating portion accommodating the flow sensor in a state where an inner peripheral surface of the flow path body is separated from an outer peripheral portion of the flow sensor formed therein, characterized in that the flow sensor unit comprises: a metal attachment plate which is fixed to the flow path body so as to accommodate the flow sensor in a state where the flow sensor is fixed and held in the accommodating portion of the flow path body ; and an insulating member having thermal insulation and electrical insulation which is sandwiched between the sensor chip of the flow sensor and the attachment plate , bonded to the sensor chip , and also bonded to the attachment plate . a flow sensor having: a sensor chip in which a flow rate detecting section is formed on an electric insulating film applied to cover at least a part of a concave portion formed on an upper surface of a substrate; and a flow path forming member which is provided on the sensor chip and has a flow path of the fluid flowing through the flow rate detecting section formed therein; and a metal flow path body which accommodates the flow sensor and has an accommodating portion accommodating the flow sensor in a state where an inner peripheral surface of the flow path body is separated from an outer peripheral portion of the flow sensor formed therein, characterized in that the flow sensor unit comprises: a metal attachment plate which is fixed to the flow path body so as to accommodate the flow sensor in a state where the flow sensor is fixed and held in the accommodating portion of the flow path body ; and an insulating member having thermal insulation and electrical insulation which is sandwiched between the sensor chip of the flow sensor and the attachment plate , bonded to the sensor chip , and also bonded to the attachment plate . a metal attachment plate which is fixed to the flow path body so as to accommodate the flow sensor in a state where the flow sensor is fixed and held in the accommodating portion of the flow path body ; and an insulating member having thermal insulation and electrical insulation which is sandwiched between the sensor chip of the flow sensor and the attachment plate , bonded to the sensor chip , and also bonded to the attachment plate .
A method performed by one or more processors of a storage system, the method comprising: maintaining metadata associated with a plurality of blocks of a particular type or level of a data store within the storage system, wherein the metadata includes a plurality of block identifiers, IDs, each corresponding to a respective block of the plurality of blocks, and wherein each block of the plurality of blocks contains data; creating an efficiency set representing a subset of the plurality of block IDs by statistically sampling the plurality of block IDs; for each characteristic of one or more characteristics relating to a state of compression, entropy of uncompressed data, or a type of the data contained in a subset of the plurality of blocks to which the subset of the plurality of block IDs corresponds, estimating an amount of data stored in the particular type or level of the data store having the characteristic based on the efficiency set by, for each block ID of the subset of the plurality of block IDs, analyzing one or more of the metadata and the data contained in the block to which the block ID corresponds; and based on the estimated amount of data stored in the particular type or level of the data store having the characteristic making available additional compression algorithms or applying compressors specific to the particular type of data. maintaining metadata associated with a plurality of blocks of a particular type or level of a data store within the storage system, wherein the metadata includes a plurality of block identifiers, IDs, each corresponding to a respective block of the plurality of blocks, and wherein each block of the plurality of blocks contains data; creating an efficiency set representing a subset of the plurality of block IDs by statistically sampling the plurality of block IDs; for each characteristic of one or more characteristics relating to a state of compression, entropy of uncompressed data, or a type of the data contained in a subset of the plurality of blocks to which the subset of the plurality of block IDs corresponds, estimating an amount of data stored in the particular type or level of the data store having the characteristic based on the efficiency set by, for each block ID of the subset of the plurality of block IDs, analyzing one or more of the metadata and the data contained in the block to which the block ID corresponds; and based on the estimated amount of data stored in the particular type or level of the data store having the characteristic making available additional compression algorithms or applying compressors specific to the particular type of data.
Method for determining the transverse sensitivity of an arrangement of magnetic field sensors which are arranged on a substrate and/or integrated in a substrate , wherein the arrangement returns an output signal combined from measurement signals of the magnetic field sensors and has a defined direction of sensitivity , in which - one or more coils , which generate a magnetic field upon the application of a current flow are applied on the substrate and/or integrated in the substrate , - wherein the one or more coils are arranged and embodied in such manner that they enclose a common area in which the magnetic field sensors of the arrangement of magnetic field sensors are disposed, and generate one or more magnetic fields at the locations of the magnetic field sensors , of which only one magnetic field component perpendicular to the defined direction of sensitivity contributes to the output signal of the arrangement, and - the output signal induced in the arrangement by the magnetic field component perpendicular to the defined direction of sensitivity is captured to obtain the transverse sensitivity of the arrangement. - one or more coils , which generate a magnetic field upon the application of a current flow are applied on the substrate and/or integrated in the substrate , - wherein the one or more coils are arranged and embodied in such manner that they enclose a common area in which the magnetic field sensors of the arrangement of magnetic field sensors are disposed, and generate one or more magnetic fields at the locations of the magnetic field sensors , of which only one magnetic field component perpendicular to the defined direction of sensitivity contributes to the output signal of the arrangement, and - the output signal induced in the arrangement by the magnetic field component perpendicular to the defined direction of sensitivity is captured to obtain the transverse sensitivity of the arrangement.
Cooking apparatus comprising an oven , the oven comprising a cooking chamber , a heated air source and two or more vents through which, in use, heated air can vent from the cooking chamber, wherein the two or more vents comprise at least one lower vent and at least one upper vent , characterised in that the at least one lower vent being provided at a lower height than the at least one upper vent and the at least one upper vent being controllable to regulate a flow of heated air therethrough, wherein the cooking apparatus comprises at least one flue and, in use, heated air can vent from the cooking chamber through the at least one lower vent into the at least one flue.