mhurhangee/patent-ind-claim-en huggingface dataset:
A method for dynamically determining a yaw control precision, comprising: collecting (S110), during a predetermined time period, a plurality of pieces of wind speed data and a plurality of pieces of wind direction data and processing the collected plurality of pieces of wind speed data and plurality of pieces of wind direction data; establishing (S120), based on the processed wind speed data and wind direction data, a model of correspondence relationships between wind speed, variation angle of wind direction, yaw control precision, yaw fatigue value and power loss; and determining (S130), based on current wind speed data and wind direction data, a predetermined range of yaw fatigue value and a predetermined range of power loss, a yaw control precision corresponding to a current wind speed and a current variation angle of wind direction by using the model of correspondence relationships. collecting (S110), during a predetermined time period, a plurality of pieces of wind speed data and a plurality of pieces of wind direction data and processing the collected plurality of pieces of wind speed data and plurality of pieces of wind direction data; establishing (S120), based on the processed wind speed data and wind direction data, a model of correspondence relationships between wind speed, variation angle of wind direction, yaw control precision, yaw fatigue value and power loss; and determining (S130), based on current wind speed data and wind direction data, a predetermined range of yaw fatigue value and a predetermined range of power loss, a yaw control precision corresponding to a current wind speed and a current variation angle of wind direction by using the model of correspondence relationships.
A braking pad for vehicles, comprising a support element , a block of friction material supported by the support element , and at least one piezoceramic sensor supported by the support element and interposed between the block of friction material and the support element , said support element supporting at least one protective element enclosing said at least one piezoceramic sensor , said protective element exhibiting mechanical properties adapted to maintain said piezoceramic sensor below its maximum load condition when an external compression force F exceeding 400 kg/cm 2 is applied to integrate said block of friction material on said support element , characterized in that said block of friction material , said piezoceramic sensor and respectively said protective element exhibit a linear elastic behaviour with respective elastic constant k, k' and respectively k p in direction of the compression force F applied to the block of friction material , said protective element experiencing a force whose resultant (F') is different from the compression force F applied to the block of friction material , such a resultant force (F') being also transmitted to the piezoceramic sensor in turn experiencing a final force F, said elastic constant of said block of friction material , said piezoceramic sensor and respectively said protective element being selected so that F p /F is not less than 0.1
A system comprising: a memory storing processor-executable process steps; a processing unit to execute the processor-executable process steps to cause the system to: acquire (S220) meeting data associated with a meeting; acquire e-mail data associated with each of a plurality of meeting participants associated with the meeting; generate (S250) a meeting language model based on the acquired e-mail data and the meeting data; generate (S260) an adapted language model based on the meeting language model and a generic language model ; and provide the adapted meeting language model to a transcription service to transcribe (S270) audio associated with the meeting based on the adapted meeting language model. a memory storing processor-executable process steps; a processing unit to execute the processor-executable process steps to cause the system to: acquire (S220) meeting data associated with a meeting; acquire e-mail data associated with each of a plurality of meeting participants associated with the meeting; generate (S250) a meeting language model based on the acquired e-mail data and the meeting data; generate (S260) an adapted language model based on the meeting language model and a generic language model ; and provide the adapted meeting language model to a transcription service to transcribe (S270) audio associated with the meeting based on the adapted meeting language model. acquire (S220) meeting data associated with a meeting; acquire e-mail data associated with each of a plurality of meeting participants associated with the meeting; generate (S250) a meeting language model based on the acquired e-mail data and the meeting data; generate (S260) an adapted language model based on the meeting language model and a generic language model ; and provide the adapted meeting language model to a transcription service to transcribe (S270) audio associated with the meeting based on the adapted meeting language model.
A gas barrier film comprising a polymer film, an anchor coat layer, and a metal oxide layer; wherein the polymer film and the metal oxide layer are laminated with the anchor coat layer interposed therebetween, the anchor coat layer has a thickness of 25 nm or more, and the anchor coat layer is a layer containing an acrylic resin having an organic acid group, or a layer comprising a cured product of a composition containing an acrylic resin having an organic acid group, the composition further contains a polyisocyanate, and the acrylic resin is an acrylic polyol resin, wherein a mass ratio M A /M I of the content M A of the acrylic polyol resin to the content M I of the polyisocyanate in the composition is 2/8 or more. the polymer film and the metal oxide layer are laminated with the anchor coat layer interposed therebetween, the anchor coat layer has a thickness of 25 nm or more, and the anchor coat layer is a layer containing an acrylic resin having an organic acid group, or a layer comprising a cured product of a composition containing an acrylic resin having an organic acid group, the composition further contains a polyisocyanate, and the acrylic resin is an acrylic polyol resin, wherein a mass ratio M A /M I of the content M A of the acrylic polyol resin to the content M I of the polyisocyanate in the composition is 2/8 or more.
Liquid cooled electric motor comprising: - a frame that develops along a longitudinal axis ; - a first endshield and a second endshield connected at opposite ends of said frame ; - a stator assembly and a rotor assembly , wherein said stator assembly is arranged, at least partially, in a longitudinal cavity of said frame and wherein said rotor assembly is arranged, at least partially, in a longitudinal space defined by said stator assembly and supported, at opposite ends, by said endshields so as to rotate about said longitudinal axis ; liquid cooling means to dissipate the heat generated during the operation of said electric motor , wherein said cooling means comprise a plurality of circulation channels (101-101', 102-102', 103-103', 104-104') defined through said frame for the circulation of a cooling fluid, and at least one hydraulic connecting channel (91,91 A ,91 B ) for connecting hydraulically two of said circulation channels (101-101', 102-102', 103-103', 104-104') at one of said endshields , characterized in that said at least one hydraulic connecting channel (91,91 A ,91 B ) comprises at least a first section (81,81 A ,81 B ) configured by the coupling of a collector element (61',61") with a seat (71', 71") defined by said one of said endshields , wherein said seat (71', 71") has a coupling surface (71A', 71A") that develops around said longitudinal axis , said collector element (61', 61") being a ring-shaped body with an outer surface (61A', 61A") and an inner surface wherein said outer surface (61A', 61A") couples with said coupling surface (71A', 71A") of said seat (71', 71"), wherein said outer surface (61A', 61A") and said coupling surface (71A', 71A") are shaped so as to configure said first section (81,81 A ,81 B ) of said hydraulic connecting channel (91,91 A ,91 B ) following their coupling. - a frame that develops along a longitudinal axis ; - a first endshield and a second endshield connected at opposite ends of said frame ; - a stator assembly and a rotor assembly , wherein said stator assembly is arranged, at least partially, in a longitudinal cavity of said frame and wherein said rotor assembly is arranged, at least partially, in a longitudinal space defined by said stator assembly and supported, at opposite ends, by said endshields so as to rotate about said longitudinal axis ; liquid cooling means to dissipate the heat generated during the operation of said electric motor , wherein said cooling means comprise a plurality of circulation channels (101-101', 102-102', 103-103', 104-104') defined through said frame for the circulation of a cooling fluid, and at least one hydraulic connecting channel (91,91 A ,91 B ) for connecting hydraulically two of said circulation channels (101-101', 102-102', 103-103', 104-104') at one of said endshields ,
A process for the preparation of functionalized weather-resistant and slow-decaying geotextiles comprising the steps of: [a] mixing 3-pentadecenyl phenols with aminoalkyl trialkoxysilanes in the ratio of 3:1 to 1:1 (v/v) at a temperature in the range of 30±5°C and humidity of 60-70%; [b] impregnating or coating the mixture as obtained in step [a] on the coir fibres; [c] curing the coated or impregnated coir fibres as obtained in step [b] under heat, UV, air or sunlight at a temperature ranging from 80 to 90°C to obtain the functionalized weather-resistant and slow-decaying geotextiles. [a] mixing 3-pentadecenyl phenols with aminoalkyl trialkoxysilanes in the ratio of 3:1 to 1:1 (v/v) at a temperature in the range of 30±5°C and humidity of 60-70%; [b] impregnating or coating the mixture as obtained in step [a] on the coir fibres; [c] curing the coated or impregnated coir fibres as obtained in step [b] under heat, UV, air or sunlight at a temperature ranging from 80 to 90°C to obtain the functionalized weather-resistant and slow-decaying geotextiles.
Expansion valve comprising a housing having in inlet port and an outlet port , a valve seat arranged between the inlet port and the outlet port , a valve element movable over an operating stroke between a fully open position away from the valve seat and a first position, which is a closed position at the valve seat , and an actuator connected to the housing , wherein the actuator comprises an electric rotary motor acting on the valve element , characterized in that in a disassembled condition of housing and actuator the actuator has a mounting stroke between the fully open position away from the valve seat and a second position, which is a position beyond the first position, such that the mounting stroke extends the operating stroke, and wherein the mounting stroke is at least two times the operating stroke.
A method of storing data allowing a seed value for generating an encryption key to be retrieved, the method comprising: obtaining, for each of a plurality of biological data sources, a respective set of biometric data from an authorised user; generating, from each set of biometric data, a respective biometric identifier; storing the biometric identifiers in a database; generating a plurality of seed portions that are combinable using a non-commutative function to generate the seed value; storing each seed portion in the database in association with a biometric identifier; and receiving a code from the user defining a sequence of the biometric identifiers indicating which biological data sources the user intends to use, wherein a respective one of the plurality of seed portions is generated for each biometric identifier and stored in the database in association with the corresponding biometric identifier. obtaining, for each of a plurality of biological data sources, a respective set of biometric data from an authorised user; generating, from each set of biometric data, a respective biometric identifier; storing the biometric identifiers in a database; generating a plurality of seed portions that are combinable using a non-commutative function to generate the seed value; storing each seed portion in the database in association with a biometric identifier; and receiving a code from the user defining a sequence of the biometric identifiers indicating which biological data sources the user intends to use, wherein a respective one of the plurality of seed portions is generated for each biometric identifier and stored in the database in association with the corresponding biometric identifier.
A method for manufacturing a secondary battery , the method comprising: a forming step of forming a pouch sheet to form an accommodation part in which an electrode assembly is accommodated; a folding step of folding the pouch sheet with respect to a folding part so that the electrode assembly is accommodated in the accommodation part , and the accommodation part is blocked from the outside to form a battery case; and an anti-wrinkle step of forming an anti-wrinkle bending part on an outer shell to prevent wrinkles from being generated on the outer shell of the folded pouch sheet , wherein, in the anti-wrinkle step, the anti-wrinkle bending part is bent to have a plurality of bent portions, wherein the battery case comprises the accommodation part and a gas pocket part having a passage extending from the accommodation part , the folding part is formed at a first side , the gas pocket part is formed at a fourth side that is opposite to the folding part , a first sealing part is formed at a second side , and a second sealing part is formed at a third side in four directions on the outer shell of the battery case, and in the anti-wrinkle step, the anti-wrinkle bending part is formed at a portion of each of the first sealing part and the second sealing part , which is in the vicinity of the folding part . a forming step of forming a pouch sheet to form an accommodation part in which an electrode assembly is accommodated; a folding step of folding the pouch sheet with respect to a folding part so that the electrode assembly is accommodated in the accommodation part , and the accommodation part is blocked from the outside to form a battery case; and an anti-wrinkle step of forming an anti-wrinkle bending part on an outer shell to prevent wrinkles from being generated on the outer shell of the folded pouch sheet , wherein, in the anti-wrinkle step, the anti-wrinkle bending part is bent to have a plurality of bent portions, wherein the battery case comprises the accommodation part and a gas pocket part having a passage extending from the accommodation part , the folding part is formed at a first side , the gas pocket part is formed at a fourth side that is opposite to the folding part , a first sealing part is formed at a second side , and a second sealing part is formed at a third side in four directions on the outer shell of the battery case, and in the anti-wrinkle step, the anti-wrinkle bending part is formed at a portion of each of the first sealing part and the second sealing part , which is in the vicinity of the folding part .
An olefin polymerization process for producing propylene copolymer composition (P), wherein propylene, C 4 to C 10 α-olefin and optionally ethylene are reacted in the presence of a Ziegler-Natta catalyst in a multistage polymerization process comprising at least two slurry polymerization reactors, wherein the copolymer composition is bimodal with respect to the content of C 4 to C 10 α-olefin and, if present, to ethylene, and wherein the process comprises - feeding fresh propylene monomer (C3) via line into the monomer feed tank (A), - feeding circulated unreacted monomers from a product receiver (D) into (A) via line , - dividing the monomer mixture from (A) in a feed line into a feed line (4-C), which feeds the monomer mixture to a second reactor (C), and to a feed line (4-B), - feeding fresh C4 to C10 α-olefin monomer and optionally ethylene into the feed line (4-B) via line forming a combined feed in line , - feeding the combined monomer mixture via line to the first reactor (B), - polymerizing the monomer mixture in the first reactor (B) to produce a first product mixture comprising a first polymer fraction (P1) and unreacted monomers - transferring the first product mixture from reactor (B) to the second reactor (C) via line , - continuing the polymerization in the reactor (C) to produce the second product mixture comprising the second polymer fraction (P2) and unreacted monomers - taking the second product mixture with unreacted monomers out from the reactor (C) and feeding the mixture via line to the product receiver (D), - separating the unreacted monomers from the second product mixture in the product receiver (D) - circulating at least part of the unreacted monomers back to the monomer feed tank (A) via line and - removing the final copolymer composition (P) from (D) via line 9. - feeding fresh propylene monomer (C3) via line into the monomer feed tank (A), - feeding circulated unreacted monomers from a product receiver (D) into (A) via line , - dividing the monomer mixture from (A) in a feed line into a feed line (4-C), which feeds the monomer mixture to a second reactor (C), and to a feed line (4-B), - feeding fresh C4 to C10 α-olefin monomer and optionally ethylene into the feed line (4-B) via line forming a combined feed in line , - feeding the combined monomer mixture via line to the first reactor (B), - polymerizing the monomer mixture in the first reactor (B) to produce a first product mixture comprising a first polymer fraction (P1) and unreacted monomers - transferring the first product mixture from reactor (B) to the second reactor (C) via line , - continuing the polymerization in the reactor (C) to produce the second product mixture comprising the second polymer fraction (P2) and unreacted monomers - taking the second product mixture with unreacted monomers out from the reactor (C) and feeding the mixture via line to the product receiver (D), - separating the unreacted monomers from the second product mixture in the product receiver (D) - circulating at least part of the unreacted monomers back to the monomer feed tank (A) via line and - removing the final copolymer composition (P) from (D) via line 9.
A load cell, comprising a fixed part , including a PCB mounting hole and a PCB disposed in the PCB mounting hole , the PCB connecting with a cable gland ; a strain part , including a strain hole disposed in the load cell, and strain gages disposed in the strain hole , the load cell further comprising an overload protection mechanism which has an overload gap (β) characterized in that the overload protection mechanism comprises an overload beam that passes through the strain hole and a fracture disposed in the overload beam , the fracture having a projection and a groove that matches the projection, the distance between the projection and the groove being an overload gap (β), and in that a sealing part is welded on the load cell to seal the PCB mounting hole and the strain hole and thereby the overload protection mechanism that passes through the strain hole . a fixed part , including a PCB mounting hole and a PCB disposed in the PCB mounting hole , the PCB connecting with a cable gland ; a PCB mounting hole and a PCB disposed in the PCB mounting hole , the PCB connecting with a cable gland ; a strain part , including a strain hole disposed in the load cell, and strain gages disposed in the strain hole , the load cell further comprising a strain hole disposed in the load cell, and strain gages disposed in the strain hole , the load cell further comprising an overload protection mechanism which has an overload gap (β)
A method of wireless communication performed by a user equipment, UE, the method comprising: identifying a length of a filler signal based at least in part on a maximum allowed length of the filler signal configured by a base station; transmitting the filler signal of the identified length to reserve access to a shared radio frequency, RF, spectrum band, the filler signal transmitted during a transmission gap that occurs between a downlink, DL, transmission and an uplink, UL, transmission in time division duplex, TDD; and transmitting the UL transmission on the reserved shared RF spectrum band subsequent to the transmission of the filler signal. identifying a length of a filler signal based at least in part on a maximum allowed length of the filler signal configured by a base station; transmitting the filler signal of the identified length to reserve access to a shared radio frequency, RF, spectrum band, the filler signal transmitted during a transmission gap that occurs between a downlink, DL, transmission and an uplink, UL, transmission in time division duplex, TDD; and transmitting the UL transmission on the reserved shared RF spectrum band subsequent to the transmission of the filler signal.
A method for detecting an amorphous and/or crystalline structure of phosphate and/or sulphate salts on the surface of a substrate and/or within a substrate, the method comprising the steps of i) providing a substrate comprising an amorphous and/or crystalline structure of phosphate and/or sulphate salts on the surface of the substrate or within the substrate, wherein the substrate is printed or coated with the amorphous and/or crystalline structure of phosphate and/or sulphate salts in the form of a pattern, wherein the phosphate and/or sulphate salts on the surface of the substrate or within the substrate are calcium phosphate and/or calcium sulphate, ii) providing a LWIR detecting device, wherein the LWIR detecting device is a bolometer or a sensor comprising mercury cadmium telluride, iii) irradiating the substrate of i) with infrared light at least over the whole wavelength range of 8 to 14 μm, iv) detecting the intensity of electromagnetic radiation scattered and/or reflected by the substrate and the amorphous and/or crystalline structure of phosphate and/or sulphate salts due to the irradiation in step iii) with the LWIR detecting device provided in step ii), v) reading out the amount of the detected intensity of electromagnetic radiation of step iv) by a computer device, and vi) converting the amount of the detected intensity of electromagnetic radiation into a picture format of the pattern. i) providing a substrate comprising an amorphous and/or crystalline structure of phosphate and/or sulphate salts on the surface of the substrate or within the substrate, wherein the substrate is printed or coated with the amorphous and/or crystalline structure of phosphate and/or sulphate salts in the form of a pattern, wherein the phosphate and/or sulphate salts on the surface of the substrate or within the substrate are calcium phosphate and/or calcium sulphate, wherein the substrate is printed or coated with the amorphous and/or crystalline structure of phosphate and/or sulphate salts in the form of a pattern, wherein the phosphate and/or sulphate salts on the surface of the substrate or within the substrate are calcium phosphate and/or calcium sulphate, ii) providing a LWIR detecting device, wherein the LWIR detecting device is a bolometer or a sensor comprising mercury cadmium telluride, iii) irradiating the substrate of i) with infrared light at least over the whole wavelength range of 8 to 14 μm, iv) detecting the intensity of electromagnetic radiation scattered and/or reflected by the substrate and the amorphous and/or crystalline structure of phosphate and/or sulphate salts due to the irradiation in step iii) with the LWIR detecting device provided in step ii), v) reading out the amount of the detected intensity of electromagnetic radiation of step iv) by a computer device, and vi) converting the amount of the detected intensity of electromagnetic radiation into a picture format of the pattern.