mhurhangee/patent-ind-claim-en huggingface dataset:
Process for manufacturing a laminated glazing unit comprising a core at least one of the faces of which is joined to a glazing substrate by a lamination interlayer made of PVB, characterized in that it comprises: - a step of joining an assembly consisting of said glazing substrate and said lamination interlayer to a core consisting of a 3D textile coating; and - a step formed from a plurality of phases comprising a heating phase, a temperature maintenance phase and a phase of cooling said assembly and, simultaneously, a phase of applying a vacuum, a vacuum maintenance phase and a phase of returning said assembly to ambient pressure following a specific temperature/pressure profile such that the phase of applying a vacuum is carried out during at least part of the temperature maintenance phase, - in that the heating phase is implemented with an upward temperature slope of about 2.6°C/min, - in that the temperature maintenance phase is carried out between 70°C and 100°C and preferably at about 80°C, and - in that the phase of applying a vacuum starts at the same time as the heating phase. - a step of joining an assembly consisting of said glazing substrate and said lamination interlayer to a core consisting of a 3D textile coating; and - a step formed from a plurality of phases comprising a heating phase, a temperature maintenance phase and a phase of cooling said assembly and, simultaneously, a phase of applying a vacuum, a vacuum maintenance phase and a phase of returning said assembly to ambient pressure following a specific temperature/pressure profile such that the phase of applying a vacuum is carried out during at least part of the temperature maintenance phase, - in that the heating phase is implemented with an upward temperature slope of about 2.6°C/min, - in that the temperature maintenance phase is carried out between 70°C and 100°C and preferably at about 80°C, and - in that the phase of applying a vacuum starts at the same time as the heating phase.
Fuel vapour switching and venting valve for an internal combustion engine with an actuator , a first port and a second port , a valve body which is coupled to an axially movable actuating member of the actuator and comprises a first bearing surface by means of which the valve body can be lowered onto a first valve seat and lifted off from the first valve seat , which is arranged between the first port and the second port , and comprises a second bearing surface with which the valve body can be moved against a second valve seat which is axially displaceable and is loaded in the direction of the valve body via a spring , characterised in that the second bearing surface is arranged radially within the first bearing surface and is arranged axially closer to the actuator than the first bearing surface . an actuator , a first port and a second port , a valve body which is coupled to an axially movable actuating member of the actuator and comprises a first bearing surface by means of which the valve body can be lowered onto a first valve seat and lifted off from the first valve seat , which is arranged between the first port and the second port , and comprises a second bearing surface with which the valve body can be moved against a second valve seat which is axially displaceable and is loaded in the direction of the valve body via a spring , characterised in that the second bearing surface is arranged radially within the first bearing surface and is arranged axially closer to the actuator than the first bearing surface .
An eggshell catalyst comprising nickel oxide supported on a calcined support comprising a metal aluminate other than calcium aluminate, wherein the calcined support is in the form of a shaped pellet, extrudate or granule having a length, width and height in the range 3-50 mm and wherein the nickel oxide is not uniformly distributed within the catalyst support but is concentrated at the surface as a layer of thickness ≤ 1000μm, wherein the eggshell catalyst is obtainable by (i) impregnating a calcined support comprising a metal aluminate with a solution comprising nickel acetate at a temperature ≥ 40°C and drying the impregnated support, (ii) calcining the dried impregnated support, to form nickel oxide on the surface of the support and (iii) optionally repeating steps (i) and (ii) on the nickel oxide coated support.
A method for evaluating a quality of a voice usage of a speaker, wherein an acoustic speech signal of the speaker is detected and converted into a digital speech signal, wherein the digital speech signal is analysed in its temporal progression in order a. to determine in the temporal course of the digital speech signal a time of the voice usage of the speaker, b. to determine a fundamental frequency of the speech signal at the time of voice usage, c. to determine from the digital speech signal in a predetermined time interval from the time of the voice usage the temporally resolved course of the energy contained in the speech signal at the fundamental frequency; d. to determine from the digital speech signal, temporally resolved in the predetermined time interval, the course of the energy contained in the speech signal at at least one harmonic multiple of the fundamental frequency; e. determine the temporal course of the ratio of the energies determined in steps c and d, characterised in that a soft use of voice is concluded if, in the time interval, the ratio of the energies determined in accordance with the preceding step e. is first dominated by the energy at the fundamental frequency and only in the further course of the predetermined time interval in a period of time At does the ratio of the energies shift in favour of the energy (energies) at the harmonic multiple(s) of the fundamental frequency. a. to determine in the temporal course of the digital speech signal a time of the voice usage of the speaker, b. to determine a fundamental frequency of the speech signal at the time of voice usage, c. to determine from the digital speech signal in a predetermined time interval from the time of the voice usage the temporally resolved course of the energy contained in the speech signal at the fundamental frequency; d. to determine from the digital speech signal, temporally resolved in the predetermined time interval, the course of the energy contained in the speech signal at at least one harmonic multiple of the fundamental frequency; e. determine the temporal course of the ratio of the energies determined in steps c and d,
A grating coupler, comprising: a substrate layer , a lower confining layer , a waveguide core layer , and an upper confining layer that are sequentially arranged; wherein the waveguide core layer comprises a submicron waveguide and a first tapered waveguide , characterized in that the waveguide core layer further comprises a waveguide array that forms a grating, wherein the waveguide array comprises at least two waveguide groups, each of the waveguide groups comprises at least one waveguide chain, each of the at least one waveguide chain consists of a plurality of cycles, each cycle comprises at least two waveguides that have different widths, the waveguides in the waveguide chain having different width are connected to each other alternately, all of the cycles in the waveguide chains comprised in a same waveguide group have the same at least two waveguides having different width and a same arrangement structure, and the waveguides in the waveguide chains comprised in different waveguide groups have different widths respectively, wherein the arrangement structure of the waveguides in the waveguide array is such that the waveguide chains in the waveguide groups are arranged in parallel or at a specific angle to form a sector ring waveguide array; and an end of each waveguide chain in the waveguide array is connected to a wide end of the first tapered waveguide , and a narrow end of the first tapered waveguide is connected to the submicron waveguide . a substrate layer , a lower confining layer , a waveguide core layer , and an upper confining layer that are sequentially arranged; wherein the waveguide core layer comprises a submicron waveguide and a first tapered waveguide , characterized in that the waveguide core layer further comprises a waveguide array that forms a grating, wherein the waveguide array comprises at least two waveguide groups, each of the waveguide groups comprises at least one waveguide chain, each of the at least one waveguide chain consists of a plurality of cycles, each cycle comprises at least two waveguides that have different widths, the waveguides in the waveguide chain having different width are connected to each other alternately, all of the cycles in the waveguide chains comprised in a same waveguide group have the same at least two waveguides having different width and a same arrangement structure, and the waveguides in the waveguide chains comprised in different waveguide groups have different widths respectively, wherein the arrangement structure of the waveguides in the waveguide array is such that the waveguide chains in the waveguide groups are arranged in parallel or at a specific angle to form a sector ring waveguide array; and an end of each waveguide chain in the waveguide array is connected to a wide end of the first tapered waveguide , and a narrow end of the first tapered waveguide is connected to the submicron waveguide .
A tray table assembly adapted to deploy from a stowage module , comprising: a stowage module; an arcuate rail mounted in the stowage module and movable between a stowed position and a deployed position; a tray table mounted on the arcuate rail for arcuate movement along the arcuate rail between a stowed position and a deployed position of the tray table relative to the arcuate rail , and the tray table mounted on the arcuate rail for fore and aft translating movement relative to the arcuate rail when the tray table is in the deployed position thereof; a channel disposed on a carriage mounted on an underside of the tray table and movable with the tray table in fore and aft translating directions, the channel comprising an arcuate segment defining a curve corresponding to a curve of the arcuate rail ; characterized in that the channel comprises a funnel-shaped centering segment communicating with the arcuate segment of the channel ; and the tray table assembly further comprises at least one roller pin fixed in a predetermined position on the arcuate rail representing a centered position for the tray table to assume before entering the stowage module , wherein the tray table assembly is configured such that, as the tray table moves toward the stowage module the roller pin moves along the arcuate segment of the channel and contacts the funnel-shaped centering segment , and as the funnel-shaped channel engages and moves relative to the roller pin the roller pin centers the tray table relative to the arcuate rail such that the tray table enters the stowage module in a predetermined centered position. a stowage module; an arcuate rail mounted in the stowage module and movable between a stowed position and a deployed position; a tray table mounted on the arcuate rail for arcuate movement along the arcuate rail between a stowed position and a deployed position of the tray table relative to the arcuate rail , and the tray table mounted on the arcuate rail for fore and aft translating movement relative to the arcuate rail when the tray table is in the deployed position thereof; a channel disposed on a carriage mounted on an underside of the tray table and movable with the tray table in fore and aft translating directions, the channel comprising an arcuate segment defining a curve corresponding to a curve of the arcuate rail ; characterized in that the channel comprises a funnel-shaped centering segment communicating with the arcuate segment of the channel ; and the tray table assembly further comprises at least one roller pin fixed in a predetermined position on the arcuate rail representing a centered position for the tray table to assume before entering the stowage module , wherein the tray table assembly is configured such that, as the tray table moves toward the stowage module the roller pin moves along the arcuate segment of the channel and contacts the funnel-shaped centering segment , and as the funnel-shaped channel engages and moves relative to the roller pin the roller pin centers the tray table relative to the arcuate rail such that the tray table enters the stowage module in a predetermined centered position.
A sliding member comprising a base lining layer and a resin coating layer formed on the base layer, wherein the resin coating layer consists of: a polyamide-imide resin as a binder; barium sulfate particles ; molybdenum disulfide particles ; SiC particles as hard particles; and unavoidable impurities, wherein the resin coating layer is composed of an outermost layer (L1) and an inner layer (L2), which are two overcoated application layers, wherein the SiC particles are blended in the outermost layer (L1) and the inner layer (L2), and wherein the content of the SiC particles in the outermost layer (L1) is lower than the content of the SiC particles in the inner layer (L2). a polyamide-imide resin as a binder; barium sulfate particles ; molybdenum disulfide particles ; SiC particles as hard particles; and unavoidable impurities, wherein the resin coating layer is composed of an outermost layer (L1) and an inner layer (L2), which are two overcoated application layers, wherein the SiC particles are blended in the outermost layer (L1) and the inner layer (L2), and wherein the content of the SiC particles in the outermost layer (L1) is lower than the content of the SiC particles in the inner layer (L2).
Target processing system, said system comprising - at least one target marking device , said target marking device comprising at least: • one small-size flying unit , said flying unit being configured to fly at low height and to be guided with the aid of guidance commands, said flying unit being provided with at least one sensor able to measure at least one parameter of the environment; • one data transmission unit ; and • at least one emitter able to emit position information; and - at least one autonomous flying device , said autonomous flying device comprising: • means for detecting position information, emitted by the emitter of said target marking device ; • means for managing this position information for the purpose of guiding the flying device ; and • means for processing a target (C); characterised in that said flying unit has a size less than that of a cube with sides of twenty centimetres, and it that the data transmission unit is configured to emit at least data relating to measurements carried out by the sensor from the flying unit and to receive guidance orders at said flying unit and cin that said emitter is fixed on said flying unit . - at least one target marking device , said target marking device comprising at least: • one small-size flying unit , said flying unit being configured to fly at low height and to be guided with the aid of guidance commands, said flying unit being provided with at least one sensor able to measure at least one parameter of the environment; • one data transmission unit ; and • at least one emitter able to emit position information; and • one small-size flying unit , said flying unit being configured to fly at low height and to be guided with the aid of guidance commands, said flying unit being provided with at least one sensor able to measure at least one parameter of the environment; • one data transmission unit ; and • at least one emitter able to emit position information; and - at least one autonomous flying device , said autonomous flying device comprising: • means for detecting position information, emitted by the emitter of said target marking device ; • means for managing this position information for the purpose of guiding the flying device ; and • means for processing a target (C); characterised in that said flying unit has a size less than that of a cube with sides of twenty centimetres, and it that the data transmission unit is configured to emit at least data relating to measurements carried out by the sensor from the flying unit and to receive guidance orders at said flying unit and cin that said emitter is fixed on said flying unit . • means for detecting position information, emitted by the emitter of said target marking device ; • means for managing this position information for the purpose of guiding the flying device ; and • means for processing a target (C);
A lignocellulosic composite article comprising: a plurality of lignocellulosic pieces derived from wood; and an adhesive system disposed on said plurality of lignocellulosic pieces for bonding said plurality of lignocellulosic pieces; wherein said adhesive system comprises; a binder component, present in an amount of from 2 to 10 parts by weight per 100 parts by weight of said lignocellulosic pieces, wherein said binder component is an isocyanate component chosen from diphenylmethane diisocyanates (MDis), polymeric diphenylmethane diisocyanates (pMDis), and combinations thereof and a compatibilizer component comprising trialkyl phosphate and utilized in an amount of at least 0.5 parts by weight based on 100 parts by weight of said binder component, wherein the weight ratio of the trialkyl phosphate : isocyanate component is from 0.1:1 to 1:1. a plurality of lignocellulosic pieces derived from wood; and an adhesive system disposed on said plurality of lignocellulosic pieces for bonding said plurality of lignocellulosic pieces; wherein said adhesive system comprises; a binder component, present in an amount of from 2 to 10 parts by weight per 100 parts by weight of said lignocellulosic pieces, wherein said binder component is an isocyanate component chosen from diphenylmethane diisocyanates (MDis), polymeric diphenylmethane diisocyanates (pMDis), and combinations thereof and a compatibilizer component comprising trialkyl phosphate and utilized in an amount of at least 0.5 parts by weight based on 100 parts by weight of said binder component, wherein the weight ratio of the trialkyl phosphate : isocyanate component is from 0.1:1 to 1:1. a binder component, present in an amount of from 2 to 10 parts by weight per 100 parts by weight of said lignocellulosic pieces, wherein said binder component is an isocyanate component chosen from diphenylmethane diisocyanates (MDis), polymeric diphenylmethane diisocyanates (pMDis), and combinations thereof and a compatibilizer component comprising trialkyl phosphate and utilized in an amount of at least 0.5 parts by weight based on 100 parts by weight of said binder component, wherein the weight ratio of the trialkyl phosphate : isocyanate component is from 0.1:1 to 1:1.
Composition for use as drier in auto-oxidizable coatings or as accelerator in unsaturated polyester resins, comprising: - a manganese-bearing polymer having a repeating unit according to: - wherein X is one or more groups from the list comprising a hydrocarbon chain, an ester, a polyester, a urethane, a polyurethane, an amide, and a polyamide; - wherein n ≥ 2; and, - at least one donor ligand from the list comprising bidentate, tridentate, pentadentate, and hexadentate nitrogen ligands comprising at least two chelating nitrogen atoms. - a manganese-bearing polymer having a repeating unit according to: - wherein X is one or more groups from the list comprising a hydrocarbon chain, an ester, a polyester, a urethane, a polyurethane, an amide, and a polyamide; - wherein n ≥ 2; and, - wherein X is one or more groups from the list comprising a hydrocarbon chain, an ester, a polyester, a urethane, a polyurethane, an amide, and a polyamide; - wherein n ≥ 2; and, - at least one donor ligand from the list comprising bidentate, tridentate, pentadentate, and hexadentate nitrogen ligands comprising at least two chelating nitrogen atoms.
A nacelle cover (100; 240) for a wind turbine, wherein the nacelle cover (100; 240) comprises a roof (101; 501), opposite sidewalls (102, 103; 502) and a floor (104; 504) assembled together to form a composite material elongate housing (105; 245) defining an interior space for containing machinery components of the wind turbine, the housing (105; 245) having a front end (107; 247) for mounting to a tower (122; 252) of the wind turbine, and an opposite rear end (108; 248), wherein each of the roof (101; 501), the opposite sidewalls (102, 103; 502) and the floor (104; 504) comprises a fibre-reinforced polymer composite material, wherein the front end (107; 247) of the housing (105; 245) is mounted on a bed plate frame (25; 420) which is affixable to the tower (122; 252), the bed plate frame (25; 420) supporting at least one part of a drive train of the wind turbine, and at least one machinery component is mounted on the housing (105; 245) at a position laterally spaced from the bed plate frame (25; 420) in a longitudinal direction along the housing (105; 245), and the housing (105; 245) comprises a structural tube (128; 242) which functions as a vertically displaceable cantilever beam carrying the load of the at least one machinery component mounted thereon, wherein (i) at least one said machinery component is directly mounted on the sidewalls (102, 103; 502) of the housing (105; 245) and the sidewalls (102, 103; 502) of the housing (105; 245) directly support the load of the said machinery component , and/or (ii) at least one said machinery component is mounted on a reinforced area of the floor (104; 504) which is fitted to the sidewalls (102, 103; 502), a transverse reinforced interior floor which is fitted to the sidewalls (102, 103; 502) or a transverse support assembly which is fitted to the sidewalls (102, 103; 502), and thereby the said machinery component is indirectly mounted on the sidewalls (102, 103; 502) of the housing (105; 245), and the sidewalls (102, 103; 502) of the housing (105; 245) indirectly support the load of the said machinery component .
A process for making man-made vitreous fibres (MMVF) which comprise at least 3 wt% iron oxides determined as Fe 2 O 3 , comprising providing an electric furnace having molybdenum electrodes, providing mineral raw material, wherein the mineral raw material comprises (a) material that comprises metallic aluminium and (b) other mineral component, introducing the mineral raw material into the furnace, melting the mineral raw material to form a mineral melt, and forming MMVF from the mineral melt. providing an electric furnace having molybdenum electrodes, providing mineral raw material, wherein the mineral raw material comprises (a) material that comprises metallic aluminium and (b) other mineral component, introducing the mineral raw material into the furnace, melting the mineral raw material to form a mineral melt, and forming MMVF from the mineral melt.
A computer-implemented method comprising, at a verifying nodes of a blockchain network : obtaining a first transaction ( Tx 1 ) which comprises runnable code; receiving a second transaction ( Tx 2 ) which includes information comprising at least a submitted instance of an r-part and an s-part of a first ECDSA signature, and further comprising a nonce; running the code from the first transaction, the code being configured to verify that H PoW ( f ( r , d )) meets a predetermined condition defined in the code, and to return a result of true on condition thereof, where r is the submitted instance of the r-part, d is the nonce, H PoW is a hash function, and f is a function combining r and d. obtaining a first transaction ( Tx 1 ) which comprises runnable code; receiving a second transaction ( Tx 2 ) which includes information comprising at least a submitted instance of an r-part and an s-part of a first ECDSA signature, and further comprising a nonce; running the code from the first transaction, the code being configured to verify that H PoW ( f ( r , d )) meets a predetermined condition defined in the code, and to return a result of true on condition thereof, where r is the submitted instance of the r-part, d is the nonce, H PoW is a hash function, and f is a function combining r and d.