mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling processing of commands at a graphics processor comprising: receiving input data and generating a command for processing at the graphics processor from the input data, wherein the command will cause the graphics processor to write out at least one buffer of data to an external memory; submitting the command to a queue for later processing at the graphics processor; subsequent to submitting the command, but before the write to external memory has been completed, receiving further input data and determining in dependence on the further input data that the buffer of data does not need to be written to external memory; and signalling to the graphics processor to prevent at least a portion of the write to external memory from being performed for the command. receiving input data and generating a command for processing at the graphics processor from the input data, wherein the command will cause the graphics processor to write out at least one buffer of data to an external memory; submitting the command to a queue for later processing at the graphics processor; subsequent to submitting the command, but before the write to external memory has been completed, receiving further input data and determining in dependence on the further input data that the buffer of data does not need to be written to external memory; and signalling to the graphics processor to prevent at least a portion of the write to external memory from being performed for the command.
A method, comprising: mapping , at a first Universal Plug and Play, UPnP, entity in a first UPnP network by a mapping module provisioned in the first UPnP entity, a first content formatted according to UPnP device architecture, UDA, protocols to at least one stanza formatted according to Extensible Messaging and Presence Protocol, XMPP; generating , by a data generator module provisioned in the first UPnP entity, data comprising the at least one XMPP stanza and a second content formatted according to UPnP device control protocols, DCPs, wherein the second content comprises device-specific information relating to the first UPnP entity; and transmitting the data in an Extensible Markup Language, XML, stream over an XMPP network from the first UPnP entity to a second UPnP entity in a second, remote UPnP network. mapping , at a first Universal Plug and Play, UPnP, entity in a first UPnP network by a mapping module provisioned in the first UPnP entity, a first content formatted according to UPnP device architecture, UDA, protocols to at least one stanza formatted according to Extensible Messaging and Presence Protocol, XMPP; generating , by a data generator module provisioned in the first UPnP entity, data comprising the at least one XMPP stanza and a second content formatted according to UPnP device control protocols, DCPs, wherein the second content comprises device-specific information relating to the first UPnP entity; and transmitting the data in an Extensible Markup Language, XML, stream over an XMPP network from the first UPnP entity to a second UPnP entity in a second, remote UPnP network.
A method for performing a non-contention based random access procedure by an user equipment, UE, in a wireless communication network supporting carrier aggregation, the method comprising: before performing the random access procedure, receiving, by the UE, system information which indicates random access related parameters; deciding a carrier switching for a random access retrial in response to a failure of a random access procedure, Msg2, on one component carrier, wherein the random access procedure is continued on another component carrier in carrier aggregation; wherein the random access procedure consists in the transmission of Msg1 by the UE and reception at the UE of Msg2 containing a resource uplink grant, and depending on the grant size a MAC PDU Msg3 including power headroom report, PHR, control information based on PHR triggers Prohibit_PHR_Timer and Periodic_PHR_Timer is obtained and stored in a Msg3 buffer; wherein continuing the random access procedure on another component carrier comprises: providing a new power headroom report, PHR, trigger; and including PHR information in the Msg3 if the PHR trigger was cancelled during the random access procedure failure or updating PHR information in the msg3 during the random access procedure on the another component carrier based on the new PHR trigger. before performing the random access procedure, receiving, by the UE, system information which indicates random access related parameters; deciding a carrier switching for a random access retrial in response to a failure of a random access procedure, Msg2, on one component carrier, wherein the random access procedure is continued on another component carrier in carrier aggregation; wherein the random access procedure consists in the transmission of Msg1 by the UE and reception at the UE of Msg2 containing a resource uplink grant, and depending on the grant size a MAC PDU Msg3 including power headroom report, PHR, control information based on PHR triggers Prohibit_PHR_Timer and Periodic_PHR_Timer is obtained and stored in a Msg3 buffer; wherein continuing the random access procedure on another component carrier comprises: providing a new power headroom report, PHR, trigger; and including PHR information in the Msg3 if the PHR trigger was cancelled during the random access procedure failure or updating PHR information in the msg3 during the random access procedure on the another component carrier based on the new PHR trigger. providing a new power headroom report, PHR, trigger; and including PHR information in the Msg3 if the PHR trigger was cancelled during the random access procedure failure or updating PHR information in the msg3 during the random access procedure on the another component carrier based on the new PHR trigger.
A method for treating a piece of biological material, not being a fruit or vegetable, for improving the adherence and/or completeness of a coating, wherein in step (a) the outer surface of a piece of biological material is subjected to cold atmospheric plasma, being a plasma generated at temperatures not higher than 60°C, using a surface dielectric barrier discharge plasma unit, wherein step (a) is followed by applying a coating to the piece of biological material.
A thermoplastic resin composition for improving weather resistance comprising: (A) an acrylic graft copolymer; (B) an aromatic vinyl-vinyl cyanide copolymer; and (C) a coloring agent including an inorganic pigment and an organic pigment, wherein the inorganic pigment and the organic pigment are present in a weight ratio inorganic pigment : organic pigment of 1 : 1 to 1 : 4, wherein a "b" value of the composition determined in accordance with the following Equation 1 is controlled to improve weather resistance, dE = dL 2 + da 2 + db 2 wherein in Equation 1, dL is a variation of luminance, da is a variation of red green values, and db is a variation of yellow blue values, all of which are measured by a spectrophotometer; and wherein the coloring agent (C) is present in an amount of 0.1 to 1 part by weight based on 100 parts by weight of a base resin including 30 to 70 wt% of the acrylic graft copolymer (A) and 70 to 30 wt% of the aromatic vinyl-vinyl cyanide copolymer (B). (A) an acrylic graft copolymer; (B) an aromatic vinyl-vinyl cyanide copolymer; and (C) a coloring agent including an inorganic pigment and an organic pigment,
Process for preparing granules containing potassium, magnesium and sulfate, comprising buildup agglomeration of a salt composition which consists to an extent of at least 80% by weight, based on the constituents of the salt composition other than unbound water, of finely divided, calcined polyhalite or of a mixture of finely divided, calcined polyhalite and at least one further salt B selected from potassium sulfate, magnesium sulfate, hydrates thereof, langbeinite and polyhalite, in the presence of water, and subsequent drying of the resulting granules, wherein the salt composition contains at least 40% by weight of calcined polyhalite, based on the constituents of the salt composition other than unbound water.
Method for manufacturing an electrically conductive composite material, said method comprising at least the following steps: - a step of obtaining said composite material which comprises a thermoplastic matrix and short carbon fibers and is free of carbon nanotubes, said composite material comprises a mass content of short carbon fibers of between 20 and 45% and said short carbon fibers having a diameter in the range of one to ten micrometers and a length of between 10 and 500 micrometers and being composed almost exclusively of carbon atoms, - a step of preheating a furnace until a predetermined target temperature is reached, - a step of inserting said composite material into said preheated furnace once the target temperature has been reached, and - a step of heating said composite material in said furnace at the predetermined target temperature which is kept constant for a predetermined duration comprised between 2 hours and 30 hours, said predetermined target temperature being comprised between 200°C and 300°C ± 10°C. - a step of obtaining said composite material which comprises a thermoplastic matrix and short carbon fibers and is free of carbon nanotubes, said composite material comprises a mass content of short carbon fibers of between 20 and 45% and said short carbon fibers having a diameter in the range of one to ten micrometers and a length of between 10 and 500 micrometers and being composed almost exclusively of carbon atoms, - a step of preheating a furnace until a predetermined target temperature is reached, - a step of inserting said composite material into said preheated furnace once the target temperature has been reached, and - a step of heating said composite material in said furnace at the predetermined target temperature which is kept constant for a predetermined duration comprised between 2 hours and 30 hours, said predetermined target temperature being comprised between 200°C and 300°C ± 10°C.
A data processing method, comprising: receiving, by a first user equipment, control information from a second user equipment, wherein the control information comprises indication information ; determining, by the first user equipment, a transmission mode of data scheduled by the control information according to the indication information ; and receiving, by the first user equipment, data according to the transmission mode; characterized in that wherein the control information comprises Sidelink control information, SCI, and the indication information is defined by using a specific bit in the SCI; wherein determining, by the first user equipment, the transmission mode of the data scheduled by the control information according to the indication information, comprises: determining, by the first user equipment, the transmission mode of the data scheduled by the control information according to a value of the specific bit; wherein the value of the specific bit being 0 indicates that the transmission mode of the data scheduled by the control information is a single antenna transmission mode in Release 14, and the value of the specific bit being 1 indicates that the transmission mode of the data scheduled by the control information is a transmission mode of Space Frequency Block Code, SFBC, in Release 15. receiving, by a first user equipment, control information from a second user equipment, wherein the control information comprises indication information ; determining, by the first user equipment, a transmission mode of data scheduled by the control information according to the indication information ; and receiving, by the first user equipment, data according to the transmission mode; characterized in that wherein the control information comprises Sidelink control information, SCI, and the indication information is defined by using a specific bit in the SCI; wherein determining, by the first user equipment, the transmission mode of the data scheduled by the control information according to the indication information, comprises: determining, by the first user equipment, the transmission mode of the data scheduled by the control information according to a value of the specific bit; wherein the value of the specific bit being 0 indicates that the transmission mode of the data scheduled by the control information is a single antenna transmission mode in Release 14, and the value of the specific bit being 1 indicates that the transmission mode of the data scheduled by the control information is a transmission mode of Space Frequency Block Code, SFBC, in Release 15. determining, by the first user equipment, the transmission mode of the data scheduled by the control information according to a value of the specific bit; wherein the value of the specific bit being 0 indicates that the transmission mode of the data scheduled by the control information is a single antenna transmission mode in Release 14, and the value of the specific bit being 1 indicates that the transmission mode of the data scheduled by the control information is a transmission mode of Space Frequency Block Code, SFBC, in Release 15.
An apparatus to train a data structure selection artificial intelligence model , the apparatus comprising: an ordinal assigner to: assign training code operations to be performed on a statistically distributed data set of data structure application programming interface, API, calls to respective first ordered values; and assign candidate data structure types to respective second ordered values; a filter generator to, for a first data structure API call of the training code operations, generate a Bloom filter bit vector pattern based on: (a) one of the first ordered values corresponding to the first data structure API; (b) one of the second ordered values corresponding to a first one of the assigned candidate data structure types; and (c) a size of the first data structure API; a label generator to generate a first model training input feature vector based on the Bloom filter bit vector pattern, data corresponding to the first data structure API, and a performance metric of the first one of the candidate data structure types for the first data structure API; and a neural network manager to train the data structure selection model with the first model training input feature vector. an ordinal assigner to: assign training code operations to be performed on a statistically distributed data set of data structure application programming interface, API, calls to respective first ordered values; and assign candidate data structure types to respective second ordered values; assign training code operations to be performed on a statistically distributed data set of data structure application programming interface, API, calls to respective first ordered values; and assign candidate data structure types to respective second ordered values; a filter generator to, for a first data structure API call of the training code operations, generate a Bloom filter bit vector pattern based on: (a) one of the first ordered values corresponding to the first data structure API; (b) one of the second ordered values corresponding to a first one of the assigned candidate data structure types; and (c) a size of the first data structure API; a label generator to generate a first model training input feature vector based on the Bloom filter bit vector pattern, data corresponding to the first data structure API, and a performance metric of the first one of the candidate data structure types for the first data structure API; and a neural network manager to train the data structure selection model with the first model training input feature vector.
Spraying process for coating a substrate with a substance (F) atomised in a stream of gas, wherein a spray head is used to generate a stream of gas (L) that acts upon the substrate (S), and wherein the substance (F) is present in a syringe-like application container equipped with an application tip (14; 14a; 14b) and, without contact with the spray head , is introduced from the application container into the stream of gas (L) and thereby atomised, characterised in that the application tip (14; 14a; 14b) of the application container containing the substance (F) is introduced into the stream of gas (L) outside the spray head at a distance (d s ) therefrom and transversely with respect to the main direction of flow of the stream of gas (L), and the substance (F) is introduced into the stream of gas (L) at that location.
A stripe reassembling method in a storage system, wherein the storage system comprises N data storage nodes that store data strips and M parity storage nodes that store parity strips; R stripes are distributed on the N+M storage nodes, each stripe S i comprises N data strips and M parity strips, a data strip D ix is distributed on an x th data storage node in the N data storage nodes, and a parity strip P iy is distributed on a y th parity storage node in the M parity storage nodes; and N, M, and R are positive integers, R is not less than 2, a value of i is an integer ranging from 1 to R, a value of x is an integer ranging from 1 to N, and a value of y is an integer ranging from 1 to M; and the method comprises: selecting, by a stripe server, the R stripes, wherein a maximum of one data strip comprises valid data in data strips D ix that are in the R stripes and that are distributed on a same data storage node; generating, by the stripe server, parity data of a parity strip P Ky of a new stripe S K for data of the data strip comprising valid data in the R stripes, wherein the new stripe S K comprises the data strip comprising valid data in the R stripes and the parity strip P Ky , and K is an integer different from 1 to R; and storing, by the stripe server, the parity data of the parity strip P Ky on the y th parity storage node in the M parity storage nodes. selecting, by a stripe server, the R stripes, wherein a maximum of one data strip comprises valid data in data strips D ix that are in the R stripes and that are distributed on a same data storage node; generating, by the stripe server, parity data of a parity strip P Ky of a new stripe S K for data of the data strip comprising valid data in the R stripes, wherein the new stripe S K comprises the data strip comprising valid data in the R stripes and the parity strip P Ky , and K is an integer different from 1 to R; and storing, by the stripe server, the parity data of the parity strip P Ky on the y th parity storage node in the M parity storage nodes.
A handling device intended to be installed on a surface vessel (B) to enable storage and deployment of an underwater device intended to be towed by the surface vessel and comprising a traction cable , a flexible elongate body and an assembly of at least one towed body , situated between the flexible elongate body and the traction cable , the handling device comprising a winch comprising a frame intended to be attached to a structure (S) of the surface vessel (B) and a first drum capable of turning, relative to the frame , about a first rotation axis (x1) and an assembly of at least one second drum which surrounds the first drum and is capable of turning relative to the frame about a second rotation axis (x2) substantially parallel to the first rotation axis (x1), the winch being capable of being in a decoupled state in which the first drum and the second drum are rotationally decoupled about the first rotation axis (x1) and the second rotation axis (x2) so as to allow the traction cable to be wound around the first drum during a first winding step during which the first drum is rotated about the first axis (x1), the second drum being capable of being in an open state, wherein the second drum has a receiving opening that the towed body is capable of passing through to enter the interior of the volume that surrounds the first drum and that is surrounded by the second drum , the winch being capable of being in a coupled state in which the first drum and the second drum are rotationally coupled about the second rotation axis (x2), so as to allow the flexible elongate body to be wound around the second rotation axis (x2) during a second winding step during which the second drum is rotated about the second axis (x2), wherein the towed body incorporates an antenna for emission of acoustic waves, the flexible elongate body comprising a receiving antenna comprising a plurality of electro-acoustic transducers distributed along the flexible elongate body and wherein the towed body is a body elongated along a longitudinal axis (l) intended to extend along an axis that is vertical during towing, the transmit antenna comprising a plurality of electro-acoustic transducers distributed along the longitudinal axis (l).
An apparatus for use with a tire , comprising: a base attached to the tire , the base including an electronic device , the apparatus being characterised by further including a plurality of electrical terminals arranged in a circular array; and a plurality of sensor modules , each of which contains an electronic device and has an electrical terminal , wherein each electrical terminal on a module is configured to releasably electrically connect with any one of the electrical terminals on the base , whereby the modules are interchangeably electrically connectable with the base in the circular array. a base attached to the tire , the base including an electronic device , the apparatus being characterised by further including a plurality of electrical terminals arranged in a circular array; and a plurality of sensor modules , each of which contains an electronic device and has an electrical terminal , wherein each electrical terminal on a module is configured to releasably electrically connect with any one of the electrical terminals on the base , whereby the modules are interchangeably electrically connectable with the base in the circular array.