mhurhangee/ep-ind-claims huggingface dataset:
A writing data processing control apparatus for control writing data processing comprising: a storage device storing a plurality of pieces of writing data of predetermined divided writing regions of a target workpiece; a plurality of processing apparatuses configured to perform processing of the plurality of pieces of writing data stored in the storage device in parallel; an assignment part configured to serially assign processing of said plurality of pieces of writing data of predetermined divided writing regions, stored in the storage device, one by one to one of the plurality of processing apparatuses in which processing is performed in parallel, wherein each processing apparatus reads the assigned data from the storage device; and a separation part configured, when a processing error occurred as a result of processing of writing data read from the storage device by a first processing apparatus assigned, to separate the first processing apparatus in which the processing error occurred from assigning targets of subsequent writing data processing, wherein the assignment part is configured to reassign the processing of the writing data in which the processing error occurred to a second processing apparatus being different from the first processing apparatus, wherein the second processing apparatus is configured to read the reassigned writing data subsequent to the writing data previously assigned. a storage device storing a plurality of pieces of writing data of predetermined divided writing regions of a target workpiece; a plurality of processing apparatuses configured to perform processing of the plurality of pieces of writing data stored in the storage device in parallel; an assignment part configured to serially assign processing of said plurality of pieces of writing data of predetermined divided writing regions, stored in the storage device, one by one to one of the plurality of processing apparatuses in which processing is performed in parallel, wherein each processing apparatus reads the assigned data from the storage device; and a separation part configured, when a processing error occurred as a result of processing of writing data read from the storage device by a first processing apparatus assigned, to separate the first processing apparatus in which the processing error occurred from assigning targets of subsequent writing data processing, wherein the assignment part is configured to reassign the processing of the writing data in which the processing error occurred to a second processing apparatus being different from the first processing apparatus, wherein the second processing apparatus is configured to read the reassigned writing data subsequent to the writing data previously assigned.
A system for implementing Incremental Redundancy, IR, operations in a wireless receiver comprising: at least one processing device (304, 318, 302) that is operable to receive an analog signal corresponding to a data block, to sample the analog signal to produce samples, to equalize the samples, to produce soft decision bits of the data block, and to initiate IR operations; and an IR processing module operably coupled to the at least one processing device that is operable to receive the soft decision bits and to perform IR operations on the soft decision bits, wherein, in case a currently received data block is not the first transmission of the data block, the IR processing module is adapted to: determine if the quality of the currently received data block is no better than the quality of the data already stored in IR memory, and if so, end the current IR operation without either attempting decoding on the data block or storing the currently received data block. at least one processing device (304, 318, 302) that is operable to receive an analog signal corresponding to a data block, to sample the analog signal to produce samples, to equalize the samples, to produce soft decision bits of the data block, and to initiate IR operations; and an IR processing module operably coupled to the at least one processing device that is operable to receive the soft decision bits and to perform IR operations on the soft decision bits, wherein, in case a currently received data block is not the first transmission of the data block, the IR processing module is adapted to: determine if the quality of the currently received data block is no better than the quality of the data already stored in IR memory, and if so, end the current IR operation without either attempting decoding on the data block or storing the currently received data block. determine if the quality of the currently received data block is no better than the quality of the data already stored in IR memory, and if so, end the current IR operation without either attempting decoding on the data block or storing the currently received data block.
A polyamide composition for forming an inner liner for a pneumatic tire, said polyamide composition comprising: A) a polyamide; B) an anhydride-functional copolymer reactive with said polyamide; C) a poly (ethylene-co-methacrylic acid) ionomer; and D) a synthetic wax; and wherein a weight ratio of (A+B):C in said polyamide composition is from 2:1 to 4:1; and wherein a weight ratio of C:D in said polyamide composition is from 10:1 to 100:1. A) a polyamide; B) an anhydride-functional copolymer reactive with said polyamide; C) a poly (ethylene-co-methacrylic acid) ionomer; and D) a synthetic wax; and
A system for controlling a radiofrequency sensing of a network; wherein the network comprises a plurality of network devices (120, 121, 122, 123, 124), and wherein the network is adapted to perform different radiofrequency sensing modes, wherein the system comprises: an environmental information providing unit for providing environmental information, wherein the environmental information is indicative of a physical property of one or more surfaces in an environment of the network, wherein the physical property is indicative of a material and/or a texture of the one or more surfaces; a selecting unit for selecting and/or modifying at least one of the radiofrequency sensing modes to be performed as radiofrequency sensing by at least a part of the network, wherein the at least one radiofrequency sensing mode is selected and/or modified based on the environmental information, and a controlling unit for controlling the at least a part of the network to perform the at least one selected and/or modified radiofrequency sensing mode. an environmental information providing unit for providing environmental information, wherein the environmental information is indicative of a physical property of one or more surfaces in an environment of the network, wherein the physical property is indicative of a material and/or a texture of the one or more surfaces; a selecting unit for selecting and/or modifying at least one of the radiofrequency sensing modes to be performed as radiofrequency sensing by at least a part of the network, wherein the at least one radiofrequency sensing mode is selected and/or modified based on the environmental information, and a controlling unit for controlling the at least a part of the network to perform the at least one selected and/or modified radiofrequency sensing mode.
Heating, ventilation and/or air-conditioning device for a motor vehicle, comprising an air inlet housing comprising a plurality of walls and a spiral housing arranged downstream of the air inlet housing with respect to the flow of an air stream, said air inlet housing further comprising: a. at least one first air inlet for introducing a first air stream, b. at least one second air inlet for introducing a second air stream, characterized in that, c. said air inlet housing comprises a first internal duct made of porous material that is arranged so as to connect the first air inlet to the inlet of the spiral housing. a. at least one first air inlet for introducing a first air stream, b. at least one second air inlet for introducing a second air stream, characterized in that, c. said air inlet housing comprises a first internal duct made of porous material that is arranged so as to connect the first air inlet to the inlet of the spiral housing.
A three-dimensional printer (1000, 3000) for additive manufacturing of a part comprising: a composite filament supply that provides a fiber reinforced composite filament having axial fiber strands extending within a matrix material; a linear feed mechanism that advances the composite filament at a feed rate; a build platen including a build surface; a print head (1800, 199) opposing the build platen; a plurality of actuators (116, 118) that move the print head (1800, 199) and the build platen relative to one another in three degrees of freedom, including within a printing layer at a printing rate; a filament drive that drives the composite filament into the print head (1800, 199) to deposit the composite filament upon one of the build platen and composite filament previously deposited upon the build platen; a composite filament ironing tip; a heater that heats the composite filament ironing tip; and characterized by a controller operatively connected to the heater, the filament drive and the plurality of actuators (116, 118), wherein the controller executes instructions which cause the heater to heat the composite filament ironing tip to flow the matrix material among the axial fiber strands within the composite filament and cause the plurality of actuators (116, 118) to press the composite filament ironing tip against the composite filament and reshape the composite filament against the one of the build platen and the composite filament previously deposited upon the build platen. a composite filament supply that provides a fiber reinforced composite filament having axial fiber strands extending within a matrix material; a linear feed mechanism that advances the composite filament at a feed rate; a build platen including a build surface; a print head (1800, 199) opposing the build platen; a plurality of actuators (116, 118) that move the print head (1800, 199) and the build platen relative to one another in three degrees of freedom, including within a printing layer at a printing rate; a filament drive that drives the composite filament into the print head (1800, 199) to deposit the composite filament upon one of the build platen and composite filament previously deposited upon the build platen; a composite filament ironing tip; a heater that heats the composite filament ironing tip; and characterized by a controller operatively connected to the heater, the filament drive and the plurality of actuators (116, 118), wherein the controller executes instructions which cause the heater to heat the composite filament ironing tip to flow the matrix material among the axial fiber strands within the composite filament and cause the plurality of actuators (116, 118) to press the composite filament ironing tip against the composite filament and reshape the composite filament against the one of the build platen and the composite filament previously deposited upon the build platen.
A method for producing a molt with a reclaimed molding sand, a binder comprising an acid-hardening resin and a hardening agent, wherein the reclaimed molding sand is mainly composed of Al 2 O 3 and obtained from a mold produced with a spherical molding sand having a sphericity of 0.95 or more, a binder comprising an acid-hardening resin and a hardening agent, and at least one of the hardening agents and comprises an organic sulfonic acid, and, in the hardening agent, a content of sulfuric acid is not more than 5% by weight and a content of phosphoric acid is not more than 5% by weight.
A heat exchanger, comprising: a collecting pipe having a pipe wall and an inner cavity; a baffle disposed in the inner cavity of the collecting pipe, the baffle extending along a length direction of the collecting pipe, the inner cavity of the collecting pipe being divided by the baffle into a first cavity and a second cavity; and a plurality of heat exchange tubes disposed along the length direction of the collecting pipe, each of the heat exchange tubes having a first end and an inner channel; wherein the first end of the heat exchange tube passes through the pipe wall of the collecting pipe, the first cavity and the baffle in sequence so that the inner channel of the heat exchange tube is in communication with the second cavity, and the baffle defines a plurality of slots extending through the baffle along a thickness direction of the baffle, the plurality of slots and the plurality of heat exchange tubes are disposed in a one-to-one correspondence manner, the first end of each of the heat exchange tubes extends into one corresponding slot; characterized in that a flange is formed at each of the plurality of slots in a direction from the second cavity toward the first cavity. a collecting pipe having a pipe wall and an inner cavity; a baffle disposed in the inner cavity of the collecting pipe, the baffle extending along a length direction of the collecting pipe, the inner cavity of the collecting pipe being divided by the baffle into a first cavity and a second cavity; and a plurality of heat exchange tubes disposed along the length direction of the collecting pipe, each of the heat exchange tubes having a first end and an inner channel; wherein the first end of the heat exchange tube passes through the pipe wall of the collecting pipe, the first cavity and the baffle in sequence so that the inner channel of the heat exchange tube is in communication with the second cavity, and the baffle defines a plurality of slots extending through the baffle along a thickness direction of the baffle, the plurality of slots and the plurality of heat exchange tubes are disposed in a one-to-one correspondence manner, the first end of each of the heat exchange tubes extends into one corresponding slot; characterized in that a flange is formed at each of the plurality of slots in a direction from the second cavity toward the first cavity.
An integrated circuit for executing instructions comprising: a processor core including a pipeline configured to execute instructions, including gather-scatter memory instructions; a memory protection circuit configured to check for memory protection violations with a protection granule; and an index range circuit configured to: determine an upper bound of a tuple of indices stored in a vector register of the processor core as a bitwise OR of all the indices stored in the vector register; determine a lower bound of the tuple of indices as a bitwise AND of all the indices stored in the vector register; determine a range of addresses for a gather-scatter memory instruction that takes the vector register as a set of indices based on a base address of a vector in memory, the upper bound, the lower bound; and check, using the memory protection circuit during a single clock cycle, whether accessing elements of the vector within the range of addresses will cause a memory protection violation. a processor core including a pipeline configured to execute instructions, including gather-scatter memory instructions; a memory protection circuit configured to check for memory protection violations with a protection granule; and an index range circuit configured to: determine an upper bound of a tuple of indices stored in a vector register of the processor core as a bitwise OR of all the indices stored in the vector register; determine a lower bound of the tuple of indices as a bitwise AND of all the indices stored in the vector register; determine a range of addresses for a gather-scatter memory instruction that takes the vector register as a set of indices based on a base address of a vector in memory, the upper bound, the lower bound; and check, using the memory protection circuit during a single clock cycle, whether accessing elements of the vector within the range of addresses will cause a memory protection violation. determine an upper bound of a tuple of indices stored in a vector register of the processor core as a bitwise OR of all the indices stored in the vector register; determine a lower bound of the tuple of indices as a bitwise AND of all the indices stored in the vector register; determine a range of addresses for a gather-scatter memory instruction that takes the vector register as a set of indices based on a base address of a vector in memory, the upper bound, the lower bound; and check, using the memory protection circuit during a single clock cycle, whether accessing elements of the vector within the range of addresses will cause a memory protection violation.
Soil compactor comprising: - at least one compactor roller (14, 16) rotatable about a roller rotation axis, - a scraper assembly in association with at least one compactor roller (14, 16), said scraper assembly comprising at least one scraper unit adjustable between an active position for scraping off material adhering to said compactor roller (14, 16) and an inactive position, an actuator assembly being associated to said scraper unit for adjustment between said active position and said inactive position, said actuator assembly comprising at least one pressurised fluid piston/cylinder unit, - a sprinkler assembly in association with at least one compactor roller (14, 16), said sprinkler assembly comprising at least one sprinkler unit (24, 26) for dispensing sprinkler fluid onto an outer circumferential surface of said compactor roller (14, 16) and at least one sprinkler pump for conveying sprinkler fluid to said at least one sprinkler unit (24, 26), characterised in that a pressurised fluid chamber of the at least one pressurised fluid piston/cylinder unit receives sprinkler fluid conveyed by the at least one sprinkler pump for adjusting the at least one scraper unit. - at least one compactor roller (14, 16) rotatable about a roller rotation axis, - a scraper assembly in association with at least one compactor roller (14, 16), said scraper assembly comprising at least one scraper unit adjustable between an active position for scraping off material adhering to said compactor roller (14, 16) and an inactive position, an actuator assembly being associated to said scraper unit for adjustment between said active position and said inactive position, said actuator assembly comprising at least one pressurised fluid piston/cylinder unit, - a sprinkler assembly in association with at least one compactor roller (14, 16), said sprinkler assembly comprising at least one sprinkler unit (24, 26) for dispensing sprinkler fluid onto an outer circumferential surface of said compactor roller (14, 16) and at least one sprinkler pump for conveying sprinkler fluid to said at least one sprinkler unit (24, 26),
A communication system (100; 200) comprising: a terminal apparatus (120; 220) for converting regional information or position information into network connection information, wherein the network connection information is used for establishing a WPAN network; and a communication apparatus (140; 240) for performing network communication by generating a data packet comprising the network connection information, wherein the terminal apparatus (120; 220) is adapted to transmit the network connection information to the communication apparatus (140; 240), wherein the regional or position information comprises numerical values representing a number, a floor and a room of a building wherein the network connection information comprises channel information and PAN IDs, and wherein the terminal apparatus (120; 220) is adapted to convert the numerical values representing the number and room of the building into the two byte PAN ID and converts the numerical value representing the floor of the building into the one byte channel information to allocate different channels to the floors adjacent to each other. a terminal apparatus (120; 220) for converting regional information or position information into network connection information, wherein the network connection information is used for establishing a WPAN network; and a communication apparatus (140; 240) for performing network communication by generating a data packet comprising the network connection information, wherein the terminal apparatus (120; 220) is adapted to transmit the network connection information to the communication apparatus (140; 240), wherein the regional or position information comprises numerical values representing a number, a floor and a room of a building wherein the network connection information comprises channel information and PAN IDs, and wherein the terminal apparatus (120; 220) is adapted to convert the numerical values representing the number and room of the building into the two byte PAN ID and converts the numerical value representing the floor of the building into the one byte channel information to allocate different channels to the floors adjacent to each other.
An environmental conditioning system, comprising: a compressor for compressing air in an air flow path; a turbine coupled to said compressor for driving said compressor and for providing airflow to a passenger compartment; a first evaporator in communication with air from said compressor and configured to cool air from said compressor; and a heat exchanger disposed in said air flow path between said compressor and said first evaporator, said heat exchanger being configured to cool air from said compressor, characterised by: a second evaporator downstream of said first evaporator, wherein said second evaporator is configured to receive air from the passenger compartment of a vehicle, and wherein each of said first and second evaporators are in fluid communication with refrigerant flow in a refrigerant system; and a controller configured to determine what proportion of refrigerant returns to the first evaporator and returns to the second evaporator to balance the cooling demands between the first evaporator and the second evaporator. a compressor for compressing air in an air flow path; a turbine coupled to said compressor for driving said compressor and for providing airflow to a passenger compartment; a first evaporator in communication with air from said compressor and configured to cool air from said compressor; and a heat exchanger disposed in said air flow path between said compressor and said first evaporator, said heat exchanger being configured to cool air from said compressor, characterised by: a second evaporator downstream of said first evaporator, wherein said second evaporator is configured to receive air from the passenger compartment of a vehicle, and wherein each of said first and second evaporators are in fluid communication with refrigerant flow in a refrigerant system; and a controller configured to determine what proportion of refrigerant returns to the first evaporator and returns to the second evaporator to balance the cooling demands between the first evaporator and the second evaporator. a second evaporator downstream of said first evaporator, wherein said second evaporator is configured to receive air from the passenger compartment of a vehicle, and wherein each of said first and second evaporators are in fluid communication with refrigerant flow in a refrigerant system; and a controller configured to determine what proportion of refrigerant returns to the first evaporator and returns to the second evaporator to balance the cooling demands between the first evaporator and the second evaporator.