mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method of generating multiple programs to deliver a computerised function, each program to be executed in a processing unit of a computer comprising a plurality of processing units each having instruction storage for holding a local program, an execution unit for executing the local program and data storage for holding data, and a switching fabric connectable to an input interface of each processing unit by switching circuitry controllable by each processing unit (4the method comprising: generating a local program for each processing unit comprising a sequence of executable instructions; and determining for each processing unit a relative time of execution of the instructions of each local program characterised in that the switching fabric comprises multiple sets of connecting wires , each set connected to an output interface of a respective one of the processing units , and the computer comprises a synchronisation module operable to generate a synchronisation signal, and in that a local program allocated to one processing unit is scheduled to execute with a predetermined delay relative to the synchronisation signal a send instruction to transmit at least one data packet at a predetermined transmit time from the output interface to its set of connecting wires of the switching fabric , relative to the synchronisation signal, destined for a recipient processing unit but having no destination identifier, and a local program allocated to the recipient processing unit is scheduled to execute at a predetermined switch time relative to the execution of the send instruction, a switch control instruction to control the switching circuitry to connect its processing unit to the set of connecting wires of the switching fabric to receive the data packet at a predetermined receive time. generating a local program for each processing unit comprising a sequence of executable instructions; and determining for each processing unit a relative time of execution of the instructions of each local program characterised in that the switching fabric comprises multiple sets of connecting wires , each set connected to an output interface of a respective one of the processing units , and the computer comprises a synchronisation module operable to generate a synchronisation signal, and in that a local program allocated to one processing unit is scheduled to execute with a predetermined delay relative to the synchronisation signal a send instruction to transmit at least one data packet at a predetermined transmit time from the output interface to its set of connecting wires of the switching fabric , relative to the synchronisation signal, destined for a recipient processing unit but having no destination identifier, and a local program allocated to the recipient processing unit is scheduled to execute at a predetermined switch time relative to the execution of the send instruction, a switch control instruction to control the switching circuitry to connect its processing unit to the set of connecting wires of the switching fabric to receive the data packet at a predetermined receive time.
Pre-chamber spark plug having a housing , an earth electrode and a pre-chamber which is defined by the housing and a cover , wherein a central electrode is arranged within the pre-chamber , characterised in that the ratio V/D of pre-chamber volume V to the largest inner diameter D of the pre-chamber is in the range from 40 mm 2 to 70 mm 2 .
A method comprising: - printing a first pattern using at least one first nozzle for depositing a coalescing agent to a layer of build material, - printing a second pattern adjacent to the first pattern using at least one second nozzle for depositing a coalescence modifier agent, - curing the layer of build material, - checking the presence of a difference in height at an edge between the first pattern and the second pattern, and detecting an anomaly if said difference is not present. - printing a first pattern using at least one first nozzle for depositing a coalescing agent to a layer of build material, - printing a second pattern adjacent to the first pattern using at least one second nozzle for depositing a coalescence modifier agent, - curing the layer of build material, - checking the presence of a difference in height at an edge between the first pattern and the second pattern, and detecting an anomaly if said difference is not present.
An in vitro method for inducing non-hepatocyte cells into hepatocytes-like cells (iHeps), comprising the steps of: (a) treating the non-hepatocyte cells to upregulate the following Hepatocyte inducing factors: Hepatocyte nuclear factor 1-alpha (HNF1A), Hepatocyte nuclear factor 4-alpha (HNF4A), and Hepatocyte nuclear factor 6-alpha (HNF6), the maturation factors Activating transcription factor 5 (ATF5), Prospero homeobox protein 1 (PROX1), and CCAAT/enhancer-binding protein alpha (CEBPA) by exogenously introducing nucleic acids encoding the Hepatocyte inducing factors into the non-hepatocyte cells; (b) culturing the non-hepatocyte cells from the step (a) in a somatic cell medium; (c) expanding the cells from the step (b) in a hepatocyte cell culture medium; and (d) culturing the cells from the step (c) in a hepatocyte maturation medium. (a) treating the non-hepatocyte cells to upregulate the following Hepatocyte inducing factors: Hepatocyte nuclear factor 1-alpha (HNF1A), Hepatocyte nuclear factor 4-alpha (HNF4A), and Hepatocyte nuclear factor 6-alpha (HNF6), the maturation factors Activating transcription factor 5 (ATF5), Prospero homeobox protein 1 (PROX1), and CCAAT/enhancer-binding protein alpha (CEBPA) by exogenously introducing nucleic acids encoding the Hepatocyte inducing factors into the non-hepatocyte cells; (b) culturing the non-hepatocyte cells from the step (a) in a somatic cell medium; (c) expanding the cells from the step (b) in a hepatocyte cell culture medium; and (d) culturing the cells from the step (c) in a hepatocyte maturation medium.
A semiconductor device comprising: a processor ; an input/output data converter configured to receive output data (TX_data) via a bus , convert the output data (TX_data) into transmit preGPIO data (TX_preGPIO_data), and transmit the transmit preGPIO data (TX_preGPIO_data) to the bus , wherein the output data (TX_data) includes first output data (TX_data1) indicating information about a communication protocol of the output data (TX_data), second output data (TX_data2) indicating information about at least one GPIO pad among a plurality of GPIO pads from which the data is to be output, and third output data (TX_data3) including data processed by the processor ; and a GPIO input/output unit configured to receive the transmit preGPIO data (TX_preGPIO_data) via the bus , convert the transmit preGPIO data (TX_preGPIO_data) into transmit GPIO data (TX_GPIO_data), and output the transmit GPIO data (TX_GPIO_data) to the at least one GPIO pad, wherein the input/output data converter is configured to convert the output data (TX_data) into transmit protocol data (TX_prtc_data) corresponding to the communication protocol of the first output data (TX_data1) included in the output data (TX_data), and convert the transmit protocol data (TX_prtc_data) into the transmit preGPIO data (TX_preGPIO_data). a processor ; an input/output data converter configured to receive output data (TX_data) via a bus , convert the output data (TX_data) into transmit preGPIO data (TX_preGPIO_data), and transmit the transmit preGPIO data (TX_preGPIO_data) to the bus , wherein the output data (TX_data) includes first output data (TX_data1) indicating information about a communication protocol of the output data (TX_data), second output data (TX_data2) indicating information about at least one GPIO pad among a plurality of GPIO pads from which the data is to be output, and third output data (TX_data3) including data processed by the processor ; and a GPIO input/output unit configured to receive the transmit preGPIO data (TX_preGPIO_data) via the bus , convert the transmit preGPIO data (TX_preGPIO_data) into transmit GPIO data (TX_GPIO_data), and output the transmit GPIO data (TX_GPIO_data) to the at least one GPIO pad, wherein the input/output data converter is configured to convert the output data (TX_data) into transmit protocol data (TX_prtc_data) corresponding to the communication protocol of the first output data (TX_data1) included in the output data (TX_data), and convert the transmit protocol data (TX_prtc_data) into the transmit preGPIO data (TX_preGPIO_data).
A lithium-ion conducting glass ceramic comprising a garnet-like main crystal phase having an amorphous proportion of at least 5 % wt.-%, preferably at least 10 % wt.-%, characterized in that the garnet-like main crystal phase has the chemical formula: Li 7+x-y M x II M 3-x III M 2-y IV M y V O 12 , wherein M II is a bivalent cation, M III a trivalent cation, M IV a tetravalent cation, M V a pentavalent cation, wherein preferably 0≤ x <3, further preferred 0≤ x ≤ 2, 0≤ y <2, and particularly preferred 0≤ y ≤ 1; wherein the glass ceramic comprises 10-25 wt.-% of Li 2 O, in total 40-60 wt.-% of an oxide of at least one lanthanoid, and 15-35 wt.-% of ZrO 2 .
Material comprising a copper/zinc alloy having the following composition in % by weight: Zn: 21 to 27%, Si: 0.2 to 0.8%, Mn: 1.1 to 1.9%, P: 0.005 to 0.2%, optionally Ni: up to a maximum of 0.2%, balance Cu and inevitable impurities, characterised in that the material has a structure having an alpha phase matrix in which manganese-containing phosphides are incorporated, wherein the manganese-containing phosphides are constructed as phosphide particles with a globular form and wherein at least 90% of these phosphide particles have a size of a maximum of 2.0 μm.
Field-sensor device, comprising: - a first field sensor disposed in a first orientation, said first field sensor responsive to an external field to produce a first sensor signal; - a second field sensor disposed in a second orientation different from the first orientation, said second field sensor responsive to the external field to produce a second sensor signal; and - a controller having a control circuit arranged to a) control said first and second field sensors to produce corresponding first and second sensor signals, b) convert the first or second sensor signal, or both the first and second sensor signal, to equivalent comparable sensor signals in a common orientation; c) compare the comparable sensor signals to determine a faulty field sensor, if any; and d) if a faulty field sensor is determined, provide a faulty sensor signal or, if a faulty sensor is not determined, provide an output sensor signal responsive to the first, second or comparable sensor signals, or any combination thereof. - a first field sensor disposed in a first orientation, said first field sensor responsive to an external field to produce a first sensor signal; - a second field sensor disposed in a second orientation different from the first orientation, said second field sensor responsive to the external field to produce a second sensor signal; and - a controller having a control circuit arranged to a) control said first and second field sensors to produce corresponding first and second sensor signals, b) convert the first or second sensor signal, or both the first and second sensor signal, to equivalent comparable sensor signals in a common orientation; c) compare the comparable sensor signals to determine a faulty field sensor, if any; and d) if a faulty field sensor is determined, provide a faulty sensor signal or, if a faulty sensor is not determined, provide an output sensor signal responsive to the first, second or comparable sensor signals, or any combination thereof. a) control said first and second field sensors to produce corresponding first and second sensor signals, b) convert the first or second sensor signal, or both the first and second sensor signal, to equivalent comparable sensor signals in a common orientation; c) compare the comparable sensor signals to determine a faulty field sensor, if any; and d) if a faulty field sensor is determined, provide a faulty sensor signal or, if a faulty sensor is not determined, provide an output sensor signal responsive to the first, second or comparable sensor signals, or any combination thereof.
A silver particle coating composition comprising: silver nano-particles (N) whose surfaces are coated with a protective agent containing an aliphatic hydrocarbon amine; silver microparticles (M); and a dispersion solvent, wherein the amount of the silver nano-particles (N) is 10 to 90 wt%, based on the total amount of the silver nano-particles (N) and the silver microparticles (M), and wherein the total amount of the silver nano-particles (N) and the silver microparticles (M) is 10% by weight or more and 80% by weight or less in the silver particle coating composition. silver nano-particles (N) whose surfaces are coated with a protective agent containing an aliphatic hydrocarbon amine; silver microparticles (M); and a dispersion solvent, wherein the amount of the silver nano-particles (N) is 10 to 90 wt%, based on the total amount of the silver nano-particles (N) and the silver microparticles (M), and wherein the total amount of the silver nano-particles (N) and the silver microparticles (M) is 10% by weight or more and 80% by weight or less in the silver particle coating composition.
A vehicle seat , in particular a passenger seat for a bus, having: a) a seat member , comprising a seat upholstery carrier and seat upholstery which is rigidly arranged on the seat upholstery carrier ; b) a backrest , comprising a back upholstery carrier and back upholstery which is rigidly arranged on the back upholstery carrier ; c) a support structure for receiving forces which act on the vehicle seat; characterized in that d) the support structure is formed as a rigid carrier frame which is arranged at the peripheral side outside the seat member and the backrest and which is connected to the seat upholstery carrier and the back upholstery carrier , and e) which has carrier rails which are arranged in pairs and which extend along opposing lateral edges of the seat member and the backrest , and f1) the inclination of the backrest can be adjusted, the back upholstery carrier being articulated to the carrier rails by means of prismatic joints in order to adjust the inclination of the backrest , and/or f2) the back upholstery carrier is articulated in a guiding groove of the carrier rails with a translational and rotational degree of freedom in order to adjust the inclination of the backrest , and/or f3) a headrest is arranged rigidly on the carrier frame , wherein the vehicle seat by adjusting the inclination of the backrest can be moved from an upper seat position into a lower seat position in such a manner that the backrest covers a part-region of an inner face of the headrest in the upper seat position and in the lower seat position the part-region is exposed. a) a seat member , comprising a seat upholstery carrier and seat upholstery which is rigidly arranged on the seat upholstery carrier ; b) a backrest , comprising a back upholstery carrier and back upholstery which is rigidly arranged on the back upholstery carrier ; c) a support structure for receiving forces which act on the vehicle seat; d) the support structure is formed as a rigid carrier frame which is arranged at the peripheral side outside the seat member and the backrest and which is connected to the seat upholstery carrier and the back upholstery carrier , and e) which has carrier rails which are arranged in pairs and which extend along opposing lateral edges of the seat member and the backrest , and f1) the inclination of the backrest can be adjusted, the back upholstery carrier being articulated to the carrier rails by means of prismatic joints in order to adjust the inclination of the backrest , and/or f2) the back upholstery carrier is articulated in a guiding groove of the carrier rails with a translational and rotational degree of freedom in order to adjust the inclination of the backrest , and/or f3) a headrest is arranged rigidly on the carrier frame , wherein the vehicle seat by adjusting the inclination of the backrest can be moved from an upper seat position into a lower seat position in such a manner that the backrest covers a part-region of an inner face of the headrest in the upper seat position and in the lower seat position the part-region is exposed.
Device for filling moulds with reactive resins comprising a dynamic mixer, whose mixing head is composed of a stator and a rotor mounted therein, wherein the stator has resin and curing agent outlet openings located in the bearing gap and the rotor has driver chambers located at the bearing gap, and a valve housing is formed with the stator, and a blocking element, movably guided in the valve housing, is formed with the rotor, characterized in that the rotor and the stator have mating surfaces closing the resin and curing agent outlet openings in at least one blocking position and releasing the resin and curing agent outlet openings in at least one tap position.
A method of making a composite core comprises: creating a first core insert comprising the steps of: creating a first laminate master pattern; forming a first flexible mold around the first laminate master pattern; removing the first laminate master pattern from the first flexible mold; pouring a refractory metal slurry into the first flexible mold; and sintering the refractory metal slurry to form the first core insert ; and creating a composite core comprising the steps of: creating a second laminate master pattern; forming a second flexible mold around the second laminate master patterns; removing the second laminate master pattern from the second flexible mold; inserting the first core insert into the second flexible mold; pouring a second slurry into the second flexible mold around the first core insert ; and sintering the second slurry to form the composite core with the first core insert . creating a first core insert comprising the steps of: creating a first laminate master pattern; forming a first flexible mold around the first laminate master pattern; removing the first laminate master pattern from the first flexible mold; pouring a refractory metal slurry into the first flexible mold; and sintering the refractory metal slurry to form the first core insert ; and creating a first laminate master pattern; forming a first flexible mold around the first laminate master pattern; removing the first laminate master pattern from the first flexible mold; pouring a refractory metal slurry into the first flexible mold; and sintering the refractory metal slurry to form the first core insert ; and creating a composite core comprising the steps of: creating a second laminate master pattern; forming a second flexible mold around the second laminate master patterns; removing the second laminate master pattern from the second flexible mold; inserting the first core insert into the second flexible mold; pouring a second slurry into the second flexible mold around the first core insert ; and sintering the second slurry to form the composite core with the first core insert . creating a second laminate master pattern; forming a second flexible mold around the second laminate master patterns; removing the second laminate master pattern from the second flexible mold; inserting the first core insert into the second flexible mold; pouring a second slurry into the second flexible mold around the first core insert ; and sintering the second slurry to form the composite core with the first core insert .
Process for producing polyurethane foams by reaction of the components A polyol component comprising A1 from 40 to 100 parts by weight of polyether carbonate polyol having a hydroxyl number in accordance with DIN 53240-1 of June 2013 of from 20 mg KOH/g to 120 mg KOH/g, A2 from 0 to 60 parts by weight of polyether polyol having a hydroxyl number in accordance with DIN 53240-1 of June 2013 of from 20 mg KOH/g to 250 mg KOH/g and a content of ethylene oxide of from 0 to 60% by weight, with polyether polyol A2 being free of carbonate units, B B1 catalyst, and B2 optionally auxiliaries and additives, C water and/or physical blowing agents, with D diisocyanates and/or polyisocyanates, where the production reaction is carried out at an index of from 90 to 120, characterized in that component A comprises a component A5 from 0.05 to 10.00 parts by weight, based on the sum of the parts by weight of the components A1 + A2 = 100 parts by weight, of polyester polyol containing structural units derived from malonic acid. A polyol component comprising A1 from 40 to 100 parts by weight of polyether carbonate polyol having a hydroxyl number in accordance with DIN 53240-1 of June 2013 of from 20 mg KOH/g to 120 mg KOH/g, A2 from 0 to 60 parts by weight of polyether polyol having a hydroxyl number in accordance with DIN 53240-1 of June 2013 of from 20 mg KOH/g to 250 mg KOH/g and a content of ethylene oxide of from 0 to 60% by weight, with polyether polyol A2 being free of carbonate units, A1 from 40 to 100 parts by weight of polyether carbonate polyol having a hydroxyl number in accordance with DIN 53240-1 of June 2013 of from 20 mg KOH/g to 120 mg KOH/g, A2 from 0 to 60 parts by weight of polyether polyol having a hydroxyl number in accordance with DIN 53240-1 of June 2013 of from 20 mg KOH/g to 250 mg KOH/g and a content of ethylene oxide of from 0 to 60% by weight, with polyether polyol A2 being free of carbonate units, B B1 catalyst, and B2 optionally auxiliaries and additives, B1 catalyst, and B2 optionally auxiliaries and additives, C water and/or physical blowing agents, with D diisocyanates and/or polyisocyanates,
A distributed heating network comprising a plurality of individual heat pumps , each heat pump individually coupled to a common heat source of the network, the common heat source of the network comprising a liquid loop within the network, the liquid of the loop being maintained at close to ambient temperature through active heat management of the common heat source, each heat pump being arranged to independently provide or extract heat from the common heat source, the network further comprising heat sinks which can be used to divert excess heat from the common heat source, and wherein the common heat source is further coupled to at least one energy source , the at least one energy source being thermally decoupled from the plurality of individual heat pumps and characterised in that the network further comprises a controller configured to measure the temperature of the common heat source and arranged to deliver energy to the common heat source to raise the temperature within that loop or to extract heat from the loop using the heat sinks to maintain the temperature of the loop of the common heat source within a predetermined range which is independent of energy provided by the at least one energy source.
A method for precoding in wireless communications, comprising: identifying a type of information for transmission; identifying a rank associated with the type of information; and performing a small cyclic delay diversity, SCDD, precoding operation based at least in part on the identified type of information or the rank, characterized in that the SCDD precoding operation is used in combination with space frequency block codes, SFBC, for diversity schemes with four or more transmit, TX, antennas . identifying a type of information for transmission; identifying a rank associated with the type of information; and performing a small cyclic delay diversity, SCDD, precoding operation based at least in part on the identified type of information or the rank, characterized in that the SCDD precoding operation is used in combination with space frequency block codes, SFBC, for diversity schemes with four or more transmit, TX, antennas .