mhurhangee/patent-ind-claim-en huggingface dataset:
A method of fabricating a reinforced molding, comprising: forming a support material in a first shape as a support preform ; additively depositing continuous reinforcing fiber in a reinforcement volume in a second shape following a contour of the support preform to form a continuous fiber reinforcement preform ; locating the continuous fiber reinforcement preform within a mold of a molding apparatus; loading the mold with molten molding material; hardening the molten molding material to overmold the continuous fiber reinforcement preform , thereby forming a reinforced molding having the hardened molding material surrounding the internal continuous fiber reinforcement preform , wherein the reinforcement volume is smaller than a volume of the entire reinforced molding. forming a support material in a first shape as a support preform ; additively depositing continuous reinforcing fiber in a reinforcement volume in a second shape following a contour of the support preform to form a continuous fiber reinforcement preform ; locating the continuous fiber reinforcement preform within a mold of a molding apparatus; loading the mold with molten molding material; hardening the molten molding material to overmold the continuous fiber reinforcement preform , thereby forming a reinforced molding having the hardened molding material surrounding the internal continuous fiber reinforcement preform , wherein the reinforcement volume is smaller than a volume of the entire reinforced molding.
A method for manufacturing a nonwoven fabric having an air permeability of between 100 and 1500 l/m 2 /s when measured at a pressure difference of 200 Pa according to EN ISO 9237, the method comprising the steps of: providing at least two sets of fibers, wherein a first fiber set comprises a significant level of at least 30 wt-% of splittable fibers and a second fiber set comprises a low level of less than 20 wt-% of splittable fibers or no splittable fibers; using the first fiber set to form at least one first fibrous web in a first web formation process and using the second fiber set to form at least one second fibrous web in a second web formation process; stacking the first and second webs so obtained to provide a multilayer web including two distinct layers of fibrous webs; bonding the multilayer web, wherein the bonding comprises spunlacing to direct high pressure fluid jets to the multilayer web; and impregnating the bonded multilayer web, the impregnating comprising adding a binder to stiffen and fixate the nonwoven fabric and a flame retardant. providing at least two sets of fibers, wherein a first fiber set comprises a significant level of at least 30 wt-% of splittable fibers and a second fiber set comprises a low level of less than 20 wt-% of splittable fibers or no splittable fibers; using the first fiber set to form at least one first fibrous web in a first web formation process and using the second fiber set to form at least one second fibrous web in a second web formation process; stacking the first and second webs so obtained to provide a multilayer web including two distinct layers of fibrous webs; bonding the multilayer web, wherein the bonding comprises spunlacing to direct high pressure fluid jets to the multilayer web; and impregnating the bonded multilayer web, the impregnating comprising adding a binder to stiffen and fixate the nonwoven fabric and a flame retardant.
An air-conditioning register comprising a rotation direction changing mechanism (TM1), which changes a rotation direction of an operation knob transmitted through a transmission shaft extending in a flowing direction of air-conditioning air (A1) in an airflow passage and transmits the rotation to a shut-off damper to tilt the shut-off damper between an open position and a closed position about damper pivots , wherein the rotation direction changing mechanism (TM1) includes an arm portion , which extends from the shut-off damper , and a cam member , which includes a cam groove on an outer surface, the arm portion includes a sliding end portion , which moves along an arcuate passage (T1) having a center (C1), which coincides with the damper pivots in accordance with the tilting motion of the shut-off damper , the sliding end portion is slidably engaged with the cam groove , the transmission shaft is coupled to the operation knob with a first Cardan joint (J1), the transmission shaft is coupled to the cam member with a second Cardan joint (J2), the cam groove includes a sliding region , along which the sliding end portion slides when the shut-off damper is tilted between the open position and the closed position, and the sliding region includes a free running region on each of opposite ends of the sliding region , wherein the moving amount of the sliding end portion along the arcuate passage (T1) in each free running region is less than that in an intermediate region at an intermediate section of the sliding region when the cam member is rotated by a certain angle.
A data transmission method, comprising generating, by a mobile terminal , data in universal asynchronous receiver/transmitter, UART, format, comprising: downloading software update information of a power adapter by the mobile terminal ; and converting the software update information into the data in UART format; acquiring, by the mobile terminal , a predetermined number of data from data which has not been transmitted in the data in UART format; simulating universal asynchronous receiver/transmitter, UART, ports via general purpose input/output, GPIO, ports of a processor of the mobile terminal to transmit the predetermined number of data to a receiving terminal , and controlling the processor to be in a locked state to not respond to any interrupts, wherein the receiving terminal is the power adapter, and the mobile terminal is in electrical communication with the power adapter via a charging interface; delaying the mobile terminal for a predetermined time; controlling the processor to be in an unlocked state in the predetermined time; and repeating the acquiring, the simulating, the controlling the processor to be in the locked state, the delaying, and the controlling the processor to be in the unlocked state until all the data in UART format is transmitted to the receiving terminal, wherein the simulating the UART ports via the GPIO ports of the processor of the mobile terminal to transmit the predetermined number of data to the UART ports of the MCU of the power adapter in batches is performed when the power adapter charges the mobile terminal . generating, by a mobile terminal , data in universal asynchronous receiver/transmitter, UART, format, comprising: downloading software update information of a power adapter by the mobile terminal ; and converting the software update information into the data in UART format; acquiring, by the mobile terminal , a predetermined number of data from data which has not been transmitted in the data in UART format; simulating universal asynchronous receiver/transmitter, UART, ports via general purpose input/output, GPIO, ports of a processor of the mobile terminal to transmit the predetermined number of data to a receiving terminal , and controlling the processor to be in a locked state to not respond to any interrupts, wherein the receiving terminal is the power adapter, and the mobile terminal is in electrical communication with the power adapter via a charging interface; delaying the mobile terminal for a predetermined time; controlling the processor to be in an unlocked state in the predetermined time; and repeating the acquiring, the simulating, the controlling the processor to be in the locked state, the delaying, and the controlling the processor to be in the unlocked state until all the data in UART format is transmitted to the receiving terminal, wherein the simulating the UART ports via the GPIO ports of the processor of the mobile terminal to transmit the predetermined number of data to the UART ports of the MCU of the power adapter in batches is performed when the power adapter charges the mobile terminal .
Turbine engine strainer , particularly for oil, the strainer comprising: a filtering portion intended to filter a fluid crossing it; a structure for holding the filtering portion forming a thickening, the structure and the filtering portion are integral and are produced by additive manufacturing, characterized in that the structure exhibits at least one holding ring for the filtering portion , the or at least one or each ring forms a holding wall for the filtering portion , and in that the filtering portion forms an angular tube portion. a filtering portion intended to filter a fluid crossing it; a structure for holding the filtering portion forming a thickening, the structure and the filtering portion are integral and are produced by additive manufacturing, characterized in that the structure exhibits at least one holding ring for the filtering portion , the or at least one or each ring forms a holding wall for the filtering portion , and in that the filtering portion forms an angular tube portion.
A multivalent Pneumococcal conjugate vaccine (PCV) composition consisting of: a1) at least 12 capsular polysaccharides selected from serotypes 1, 3, 4, 5, 6B, 7F, 9N, 9V, 15B, 14, 18C, 19A, 19F, 22F, 23F and 33F of S . pneumoniae activated with CDAP and conjugated to carrier protein selected from CRM 197 , pneumococcal surface protein A (PspA), pneumococcal adhesin protein (PsaA) or combination thereof, and optionally one or more serotypes selected from 6C, 8, 10A, 11A, 12F, 15A, 23A, 23B and 35B of S . pneumoniae; or a2) at least 14 capsular polysaccharides selected from serotypes 1, 3, 4, 5, 6B, 7F, 9N, 9V, 14, 15B, 18C, 19A, 19F, 22F, 23F and 33F of S . pneumoniae activated with CDAP and conjugated to CRM 197 , PspA, PsaA or combination thereof, and optionally one or more serotypes selected from 6C, 8, 10A, 11A, 12F, 15A, 23A, 23B and 35B of S . pneumoniae ; and b) a pharmaceutically acceptable carrier; and optionally a pharmaceutically acceptable diluent or vehicle; and optionally ingredients, wherein the composition contains capsular polysaccharides from serotypes 22F and 33F and does not contain capsular polysaccharide from serotype 6A. a1) at least 12 capsular polysaccharides selected from serotypes 1, 3, 4, 5, 6B, 7F, 9N, 9V, 15B, 14, 18C, 19A, 19F, 22F, 23F and 33F of S . pneumoniae activated with CDAP and conjugated to carrier protein selected from CRM 197 , pneumococcal surface protein A (PspA), pneumococcal adhesin protein (PsaA) or combination thereof, and optionally one or more serotypes selected from 6C, 8, 10A, 11A, 12F, 15A, 23A, 23B and 35B of S . pneumoniae; or a2) at least 14 capsular polysaccharides selected from serotypes 1, 3, 4, 5, 6B, 7F, 9N, 9V, 14, 15B, 18C, 19A, 19F, 22F, 23F and 33F of S . pneumoniae activated with CDAP and conjugated to CRM 197 , PspA, PsaA or combination thereof, and optionally one or more serotypes selected from 6C, 8, 10A, 11A, 12F, 15A, 23A, 23B and 35B of S . pneumoniae ; and b) a pharmaceutically acceptable carrier; and
A touch-sensitive interface , comprising contact surface designed to be touched by an effector , the contact surface comprising: • at least one transducer (10 1 ....10 N ), referred to as actuating transducer, designed to exert a pressure on contact surface, in such a manner as to form a stationary flexural wave extending along the contact surface , according to a resonance frequency, driving a vibration of the contact surface; the touch-sensitive interface further comprising: • at least one detector (20 1 , 20 2 ), designed to detect an amplitude of the flexural wave , each detector being connected to a detection circuit ; • the detection circuit being configured for forming a signal, referred to as attenuation signal ( S att ), representative of an attenuation of the flexural wave resulting from a contact between the effector and the contact surface ; • a processing circuit , configured for estimating a magnitude (F) of a force applied, by the effector, onto the contact surface , based on the attenuation signal ( S att ); the touch-sensitive interface being characterized in that • it comprises a plate, defining the contact surface ; and in that • each actuating transducer (10 n ) is supplied by a power supply signal (V); • the detection circuit is configured for establishing a power supply signal referred to as feedback signal ( δV ) when the amplitude of the flexural wave , detected by the detector (20 1 , 20 2 ), differs from a setpoint value (A); the detection circuit being configured for forming the attenuation signal ( S att ) as a function of the feedback signal ( δV ). • at least one transducer (10 1 ....10 N ), referred to as actuating transducer, designed to exert a pressure on contact surface, in such a manner as to form a stationary flexural wave extending along the contact surface , according to a resonance frequency, driving a vibration of the contact surface; the touch-sensitive interface further comprising: • at least one detector (20 1 , 20 2 ), designed to detect an amplitude of the flexural wave , each detector being connected to a detection circuit ; • the detection circuit being configured for forming a signal, referred to as attenuation signal ( S att ), representative of an attenuation of the flexural wave resulting from a contact between the effector and the contact surface ; • a processing circuit , configured for estimating a magnitude (F) of a force applied, by the effector, onto the contact surface , based on the attenuation signal ( S att ); the touch-sensitive interface being characterized in that • it comprises a plate, defining the contact surface ; and in that • each actuating transducer (10 n ) is supplied by a power supply signal (V); • the detection circuit is configured for establishing a power supply signal referred to as feedback signal ( δV ) when the amplitude of the flexural wave , detected by the detector (20 1 , 20 2 ), differs from a setpoint value (A); the detection circuit being configured for forming the attenuation signal ( S att ) as a function of the feedback signal ( δV ).
A method for the oxidation of ethylene to form ethylene oxide which comprises: providing an aqueous stream containing ethylene glycol and impurities; introducing the aqueous stream into a first ion exchange treatment bed to reduce the content of the impurities; determining whether an outlet of the first ion exchange treatment bed has a conductivity greater than 5 μS/cm; upon determining that the outlet of the first ion exchange treatment bed has a conductivity greater than 5 μS/cm, introducing the outlet of the first ion exchange treatment bed into a second ion exchange treatment bed; and upon determining that the outlet of the first ion exchange treatment bed has a conductivity greater than 20 to 100 μS/cm, redirecting the introduction of the aqueous stream to the second ion exchange treatment bed and regenerating the first ion exchange bed. providing an aqueous stream containing ethylene glycol and impurities; introducing the aqueous stream into a first ion exchange treatment bed to reduce the content of the impurities; determining whether an outlet of the first ion exchange treatment bed has a conductivity greater than 5 μS/cm; upon determining that the outlet of the first ion exchange treatment bed has a conductivity greater than 5 μS/cm, introducing the outlet of the first ion exchange treatment bed into a second ion exchange treatment bed; and upon determining that the outlet of the first ion exchange treatment bed has a conductivity greater than 20 to 100 μS/cm, redirecting the introduction of the aqueous stream to the second ion exchange treatment bed and regenerating the first ion exchange bed.
A homologous recombination competent mouse cell having a genome comprising a human VH gene segment and a portion of a syngeneic Ig heavy chain locus, comprising (a) a part of mouse gene segments downstream of JH, (b) a syngeneic CH1 domain replaced with a human CH1 domain, (c) a human upper hinge gene segment, (ed) a mouse CH2 domain and a mouse CH3 domain, and wherein said human VH gene segment and said syngeneic Ig heavy chain locus replace all or a portion of an endogenous Ig heavy chain locus, thereby resulting in a chimeric Ig heavy chain locus capable of undergoing gene rearrangement and thereby producing a diversified repertoire of chimeric antibodies such that said cell comprises a genome encoding a chimeric Ig heavy chain. (a) a part of mouse gene segments downstream of JH, (b) a syngeneic CH1 domain replaced with a human CH1 domain, (c) a human upper hinge gene segment, (ed) a mouse CH2 domain and a mouse CH3 domain,
Process for manufacturing self-sealing tyres, comprising: a) arranging a tyre comprising a crown portion arranged circumferentially around a rotation axis (R) of the tyre and two side portions which extend respectively from axially opposite sides of the crown portion , wherein each side portion ends in an annular anchoring portion and wherein the crown portion has a radially inner crown surface , b) arranging a self-sealing sleeve having cylindrical shape around a longitudinal axis (A) thereof and having a diameter (D1) smaller than the diameter (D) of the annular anchoring portions of the tyre , said self-sealing sleeve extending along said longitudinal axis (A) between two circumferential end edges delimiting a longitudinal dimension (L) of said self-sealing sleeve , c) introducing the self-sealing sleeve into the tyre up to arranging it in a position coaxial with the crown portion and radially within it, d) radially expanding said self-sealing sleeve within the tyre up to adhering to the radially inner crown surface in an expanded configuration of the self-sealing sleeve . a) arranging a tyre comprising a crown portion arranged circumferentially around a rotation axis (R) of the tyre and two side portions which extend respectively from axially opposite sides of the crown portion , wherein each side portion ends in an annular anchoring portion and wherein the crown portion has a radially inner crown surface , b) arranging a self-sealing sleeve having cylindrical shape around a longitudinal axis (A) thereof and having a diameter (D1) smaller than the diameter (D) of the annular anchoring portions of the tyre , said self-sealing sleeve extending along said longitudinal axis (A) between two circumferential end edges delimiting a longitudinal dimension (L) of said self-sealing sleeve , c) introducing the self-sealing sleeve into the tyre up to arranging it in a position coaxial with the crown portion and radially within it, d) radially expanding said self-sealing sleeve within the tyre up to adhering to the radially inner crown surface in an expanded configuration of the self-sealing sleeve .
An aluminophosphate-metal oxide bonded body comprising a metal oxide having a bonding surface on a part of the surface thereof, and aluminophosphate that is disposed in a form of a membrane shape on the bonding surface of the metal oxide, wherein an alkali metal, an alkaline earth metal or both of these is/are disposed on the bonding surface of the metal oxide, and the content rate of the alkali metal, alkaline earth metal or both is from 0.3 to 30.0% by mass with respect to all of the substances that are disposed on the bonding surface of the metal oxide.
Seabed drill system, comprising a drilling mast module for drill rods , said drill rods drilling the seabed, comprising: - a core barrel rack module comprising a frame for placing core barrels ; - a drill rack module comprising a frame for placing the drill rods ; and - a remotely operated arm module provided with an arm for collecting and moving said drill rods and/or said core ballels from the rack modules to the drilling mast, or vice versa, characterized in that the system also comprises an acoustic sample checker module that detects the presence of a sample inside a core barrel . - a core barrel rack module comprising a frame for placing core barrels ; - a drill rack module comprising a frame for placing the drill rods ; and - a remotely operated arm module provided with an arm for collecting and moving said drill rods and/or said core ballels from the rack modules to the drilling mast, or vice versa, characterized in that the system also comprises an acoustic sample checker module that detects the presence of a sample inside a core barrel .
Vehicle surface cleaning device comprising a vehicle integrated housing including a nozzle carrier said nozzle carrier being provided with at least one fluid nozzle , and comprising means for contactlessly heating the fluid nozzle , wherein the at least one fluid nozzle has a nozzle body comprising an electrically conductive material in contact with the nozzle body or integrated into the nozzle body and in that there is provided at least one electrical coil in proximity to the electrically conductive material which may be selectively energized, characterized in that the electrical coil is positioned around the nozzle body when the nozzle body is in a retracted position, or the electrical coil is integrated into a nozzle carrier housing and the electrical coil functions as an induction heater to defrost the fluid nozzle or the electrical coil is wound around a nozzle carrier housing of the nozzle carrier , or the electrical coil is arranged in the bodywork of the vehicle. wherein the at least one fluid nozzle has a nozzle body comprising an electrically conductive material in contact with the nozzle body or integrated into the nozzle body and in that there is provided at least one electrical coil in proximity to the electrically conductive material which may be selectively energized, characterized in that the electrical coil is positioned around the nozzle body when the nozzle body is in a retracted position, or the electrical coil is integrated into a nozzle carrier housing and the electrical coil functions as an induction heater to defrost the fluid nozzle or the electrical coil is wound around a nozzle carrier housing of the nozzle carrier , or the electrical coil is arranged in the bodywork of the vehicle.
Multilayer thermoelectric sensor for generating an electrical current under the effect of heating, the thermoelectric sensor comprising a carrier and a thermoelectric couple (300a-b) borne by the carrier and comprising: - a first thermoelectric member (70a-b) comprising at least one portion of a bilayer whose layers are of different materials, and - a second thermoelectric member (155a-b) comprising a p-doped semiconductor material and/or a thermoelectric metal, the thermoelectric couple (300a-b) being configured to generate an electron gas at the interface (75a-b) between the layers of the bilayer during the heating of the thermoelectric sensor , characterized in that the layers of the bilayer are each undoped. - a first thermoelectric member (70a-b) comprising at least one portion of a bilayer whose layers are of different materials, and - a second thermoelectric member (155a-b) comprising a p-doped semiconductor material and/or a thermoelectric metal, the thermoelectric couple (300a-b) being configured to generate an electron gas at the interface (75a-b) between the layers of the bilayer during the heating of the thermoelectric sensor , characterized in that the layers of the bilayer are each undoped.