mhurhangee/patent-ind-claim-en huggingface dataset:
An aeroengine having a compressor inlet comprising: an inlet duct for directing an air flow to a compressor ; and at least one deformable wall (36, 38; 63a, 63b) providing a portion of a peripheral wall of the inlet duct and being deformable between an undeployed and a deployed position, the at least one deformable wall (36, 38; 63a, 63b) having a first surface exposed to the air flow and a second surface opposite to the first surface , the at least one deformable wall (36, 38; 63a, 63b) in the undeployed position being shaped as part of the peripheral wall to substantially avoid interfering with the air flow through the inlet duct , and the at least one deformable wall (36, 32; 63a, 63b) in the deployed position being deformed to project into the inlet duct to reduce an effective cross-sectional area of the inlet duct to reduce line-of-sight noise propagation; wherein the inlet duct has an upstream portion and a downstream portion , the downstream portion being annular to direct the airflow in an annular stream toward the compressor and the upstream portion being defined with the peripheral wall, the peripheral wall having opposed and substantially parallel top and bottom walls , and side walls ; and a plurality of acoustic cells are attached to the second surface of the at least one deformable wall (36, 38; 63a, 63b), the at least one deformable wall (36, 38; 63a, 63b) having a plurality of holes extending therethrough from the first to the second surface and being in communication with the respective acoustic cells . an inlet duct for directing an air flow to a compressor ; and at least one deformable wall (36, 38; 63a, 63b) providing a portion of a peripheral wall of the inlet duct and being deformable between an undeployed and a deployed position, the at least one deformable wall (36, 38; 63a, 63b) having a first surface exposed to the air flow and a second surface opposite to the first surface , the at least one deformable wall (36, 38; 63a, 63b) in the undeployed position being shaped as part of the peripheral wall to substantially avoid interfering with the air flow through the inlet duct , and the at least one deformable wall (36, 32; 63a, 63b) in the deployed position being deformed to project into the inlet duct to reduce an effective cross-sectional area of the inlet duct to reduce line-of-sight noise propagation; wherein the inlet duct has an upstream portion and a downstream portion , the downstream portion being annular to direct the airflow in an annular stream toward the compressor and the upstream portion being defined with the peripheral wall, the peripheral wall having opposed and substantially parallel top and bottom walls , and side walls ; and a plurality of acoustic cells are attached to the second surface of the at least one deformable wall (36, 38; 63a, 63b), the at least one deformable wall (36, 38; 63a, 63b) having a plurality of holes extending therethrough from the first to the second surface and being in communication with the respective acoustic cells .
A computer-implemented method for predicting privacy sharing preferences, comprising: detecting by an input interface a first action performed by a user; gathering information associated with the first action; applying machine learning to generate a predictive model , based on the information and past sharing actions associated with the information, wherein the machine learning is applied as a black box that receives the past sharing actions and outputs the predictive model , and wherein a plurality of pipelines are provided for a plurality of respective domains, each of the pipelines applying the machine learning ; retrieving the predictive model based on the information, wherein the predictive model is configured to predict privacy sharing preferences; determining an applicability level of the predictive model to the first action, wherein the predictive model suggests a second action; presenting the second action to the user in the user interface when the applicability level meets a first threshold level; and receiving input from the user selecting the second action or a third action wherein in case the applicability level meets a second threshold level, automatically selecting the second action without the input of the user. detecting by an input interface a first action performed by a user; gathering information associated with the first action; applying machine learning to generate a predictive model , based on the information and past sharing actions associated with the information, wherein the machine learning is applied as a black box that receives the past sharing actions and outputs the predictive model , and wherein a plurality of pipelines are provided for a plurality of respective domains, each of the pipelines applying the machine learning ; retrieving the predictive model based on the information, wherein the predictive model is configured to predict privacy sharing preferences; determining an applicability level of the predictive model to the first action, wherein the predictive model suggests a second action; presenting the second action to the user in the user interface when the applicability level meets a first threshold level; and receiving input from the user selecting the second action or a third action wherein in case the applicability level meets a second threshold level, automatically selecting the second action without the input of the user.
A method of estimating a timing location, characterized in that , the method comprises: obtaining , for each preamble subsequence, a detection window where a peak value of a correlation value power of each preamble subsequence is located; accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, wherein the correlation value powers of each preamble subsequence used for the accumulation are correlation value powers in a detection window where a peak value of a respective correlation value power of each preamble subsequence is located; determining a peak power and a noise power according to the cumulative sum of the correlation value powers; estimating the timing location according to the peak power and the noise power; wherein the accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, comprises: if there are M preamble subsequences, the cumulative sum of the correlation value powers of the M preamble subsequences is: P all , comb k = ∑ m = 1 M P all , m k , wherein P all,m ( k ) represents a correlation value power of a k th sample value of a detection window where an m th preamble subsequence is located, 1≤k≤Ncs, and Ncs is the length of the detection window. obtaining , for each preamble subsequence, a detection window where a peak value of a correlation value power of each preamble subsequence is located; accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, wherein the correlation value powers of each preamble subsequence used for the accumulation are correlation value powers in a detection window where a peak value of a respective correlation value power of each preamble subsequence is located; determining a peak power and a noise power according to the cumulative sum of the correlation value powers; estimating the timing location according to the peak power and the noise power; wherein the accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, comprises: if there are M preamble subsequences, the cumulative sum of the correlation value powers of the M preamble subsequences is: P all , comb k = ∑ m = 1 M P all , m k , wherein P all,m ( k ) represents a correlation value power of a k th sample value of a detection window where an m th preamble subsequence is located, 1≤k≤Ncs, and Ncs is the length of the detection window.
Method for the energy conversion of pressure energy into electrical energy using an expansion turbine , wherein a pressurized gaseous first medium is heated before being fed into the expansion turbine and the expansion turbine drives a generator , wherein the expansion turbine drives a compressor in addition to the generator , wherein at least one gaseous second medium is compressed by the compressor in a heating arrangement and the heat created during compression is used for heating the gaseous first medium, characterized in that the heating arrangement has a closed circuit in which the second medium circulates and is, starting from a heating medium tank , in an at least partially liquid state.
System for displaying video signals, comprising a sun protection device or the like having adjustable elements and comprising video modules for attachment to the elements of the sun protection device, wherein the radiation of the modules can be directed inward or outward depending on the operating position of the adjustable elements , wherein the video modules are detachably fastened to the sun protection device.
Use of closed-pore microspheres of expanded perlite which are closed on their surface as a filler for producing mouldings for the foundry industry.
Method for integrating a further bus subscriber (S1, S2, S3, S4) in a bus system comprising a master module (M) and bus subscribers (S1, S2, S3, S4) arranged in series, said method comprising the chronologically successive method steps: wherein in a first method step the further bus subscriber (S1, S2, S3, S4) sends a data packet to the master module (M) in order to register with the master module (M), characterized in that in a second method step a bus subscriber (S1, S2, S3, S4) arranged between the further bus subscriber (S1, S2, S3, S4) and the master module (M) stops the data packet and checks whether the bus system has already obtained clearance for the production mode after successful initialization, wherein in a third method step the bus subscriber (S1, S2, S3, S4) arranged between the further bus subscriber (S1, S2, S3, S4) and the master module (M) forwards the data packet to the master module (M) if the bus system has not yet obtained clearance, or wherein in a third method step, in particular an alternative third method step, if the bus system has already obtained clearance, the bus subscriber (S1, S2, S3, S4) stores the data packet and waits until the clearance of the bus system is cancelled and forwards the stored data packet to the master module (M) once the clearance has been cancelled. wherein in a first method step the further bus subscriber (S1, S2, S3, S4) sends a data packet to the master module (M) in order to register with the master module (M), characterized in that in a second method step a bus subscriber (S1, S2, S3, S4) arranged between the further bus subscriber (S1, S2, S3, S4) and the master module (M) stops the data packet and checks whether the bus system has already obtained clearance for the production mode after successful initialization, wherein in a third method step the bus subscriber (S1, S2, S3, S4) arranged between the further bus subscriber (S1, S2, S3, S4) and the master module (M) forwards the data packet to the master module (M) if the bus system has not yet obtained clearance, or wherein in a third method step, in particular an alternative third method step, if the bus system has already obtained clearance, the bus subscriber (S1, S2, S3, S4) stores the data packet and waits until the clearance of the bus system is cancelled and forwards the stored data packet to the master module (M) once the clearance has been cancelled.
A communication method, comprising: sending (S301), by a first access network device, a first message to a second access network device, wherein the first message carries a quality-of-service flow identification, QFI, for a split bearer corresponding to the first access network device and a quality-of-service, QoS, parameter corresponding to the QFI; and receiving (S303), by the first access network device, a second message from the second access network device, wherein the second message is a response to the first message characterized in that the second message carries a QFI for a split bearer corresponding to the second access network device and a QoS parameter corresponding to the QFI; and performing, by the first access network device, data transmission based on the QFI for the split bearer corresponding to the second access network device and the QoS parameter corresponding to the QFI. sending (S301), by a first access network device, a first message to a second access network device, wherein the first message carries a quality-of-service flow identification, QFI, for a split bearer corresponding to the first access network device and a quality-of-service, QoS, parameter corresponding to the QFI; and receiving (S303), by the first access network device, a second message from the second access network device, wherein the second message is a response to the first message characterized in that the second message carries a QFI for a split bearer corresponding to the second access network device and a QoS parameter corresponding to the QFI; and performing, by the first access network device, data transmission based on the QFI for the split bearer corresponding to the second access network device and the QoS parameter corresponding to the QFI.
A method of forming a heating element for an aircraft heated floor panel, the method comprising: depositing a conductive ink (106; 206) of silver particles in an epoxy resin to create a conductive circuit (101; 201); and heat curing the conductive circuit to achieve a resistivity of the heating element less than 1.68 x 10 -6 ohm·meter; characterised in that the conductive ink is deposited on a dielectric film; a 0.001 inch (50.8 microns) to .004 inch (101.6 microns) thick post-cure layer of the conductive ink is configured to achieve the resistivity of the heating element and be bent around a 1/4 inch (0.635 cm) diameter cylinder rod without experiencing electrical resistance degradation; and the silver loading is between 65% - 95% weight/weight of dry ink. depositing a conductive ink (106; 206) of silver particles in an epoxy resin to create a conductive circuit (101; 201); and heat curing the conductive circuit to achieve a resistivity of the heating element less than 1.68 x 10 -6 ohm·meter; characterised in that the conductive ink is deposited on a dielectric film; a 0.001 inch (50.8 microns) to .004 inch (101.6 microns) thick post-cure layer of the conductive ink is configured to achieve the resistivity of the heating element and be bent around a 1/4 inch (0.635 cm) diameter cylinder rod without experiencing electrical resistance degradation; and the silver loading is between 65% - 95% weight/weight of dry ink.
A circuit for detecting the appearance of X-rays with a view to triggering a radiological image capture, comprising a set of photodiodes connected to a ground (GD), a transimpedance amplification circuit of the current supplied by the set of photodiodes and a capacitor (C2), the transimpedance amplification circuit comprising an amplifier (AMP) and a voltage source (GEN) configured to produce a reference voltage (V ref ) from power supplies external to the detection circuit, the amplifier (AMP) being connected, on a first input of the amplifier (AMP), to an output of the set of photodiodes, the capacitance (C2) being connected between a ground (G D ) and a second input of the amplifier (AMP), the detecting circuit further comprising a comparator for comparing the output voltage of the amplifier (AMP) with a threshold voltage, the detection circuit being able to produce an image capture trigger signal when the output voltage of the amplifier (AMP) exceeds the threshold voltage, the detection circuit being characterised in that the transimpedance amplification circuit comprises: • means (T2, GEN) configured to charge the capacitor (C2) with the reference voltage (V ref ) generated by the voltage source (GEN) during a first portion of an initializing phase of the detecting circuit, and to isolate the second input of the amplifier (AMP) from the voltage source (GEN) during a second portion of the initializing phase of the detecting circuit, • a capacitor (C1) connected between the first input of the amplifier (AMP) and an output of the amplifier to integrate the current generated by the assembly of photodiodes, during a detecting phase following the second portion of the initializing phase. • means (T2, GEN) configured to charge the capacitor (C2) with the reference voltage (V ref ) generated by the voltage source (GEN) during a first portion of an initializing phase of the detecting circuit, and to isolate the second input of the amplifier (AMP) from the voltage source (GEN) during a second portion of the initializing phase of the detecting circuit, • a capacitor (C1) connected between the first input of the amplifier (AMP) and an output of the amplifier to integrate the current generated by the assembly of photodiodes, during a detecting phase following the second portion of the initializing phase.
Aqueous alkaline pre-treatment solution for use prior to the deposition of a palladium activation layer on a substrate in manufacturing an article with an integrated circuit comprising: - at least one hydroxycarboxylic acid or salt thereof according to the general formula (I) [RCH 2 -(RCH) n -COO - ] m M m+ (I) wherein n is integer from 2 to 4 and m is 1 or 2, R is independently H or OH with proviso that at least one R is OH, and wherein M m+ with m: 1 is hydrogen, ammonium or alkali metal; or M m+ with m: 2 is earth alkali metal, wherein the concentration of the at least one hydroxycarboxylic acid or salt thereof is from 200 to 400 mg/L, - at least one polyoxyethylene sorbitan fatty acid ester, wherein the concentration of the at least one polyoxyethylene sorbitan fatty acid ester is from 0.4 to 1.2 mg/L, - at least one sulphonated fatty acid or a salt thereof, wherein the concentration of the at least one sulphonated fatty acid is from 4 to 12 mg/L. - at least one hydroxycarboxylic acid or salt thereof according to the general formula (I) [RCH 2 -(RCH) n -COO - ] m M m+ (I) wherein n is integer from 2 to 4 and m is 1 or 2, R is independently H or OH with proviso that at least one R is OH, and wherein M m+ with m: 1 is hydrogen, ammonium or alkali metal; or M m+ with m: 2 is earth alkali metal, wherein the concentration of the at least one hydroxycarboxylic acid or salt thereof is from 200 to 400 mg/L, wherein n is integer from 2 to 4 and m is 1 or 2, R is independently H or OH with proviso that at least one R is OH, and wherein M m+ with m: 1 is hydrogen, ammonium or alkali metal; or M m+ with m: 2 is earth alkali metal, wherein the concentration of the at least one hydroxycarboxylic acid or salt thereof is from 200 to 400 mg/L, - at least one polyoxyethylene sorbitan fatty acid ester, wherein the concentration of the at least one polyoxyethylene sorbitan fatty acid ester is from 0.4 to 1.2 mg/L, - at least one sulphonated fatty acid or a salt thereof, wherein the concentration of the at least one sulphonated fatty acid is from 4 to 12 mg/L.
A curable voided composition comprising: a. 15 to 50 parts of a hydroxy-functional or ether functional (meth)acrylate copolymer or syrup thereof; b. 25 to 50 parts of an epoxy resin component; c. 5-15 parts of a liquid polyether polyol; d. optionally up to 25 parts of a hydroxy-functional film-forming polymer; e. 0.1 to 2.5 parts water, relative to 100 parts a to d; f. 0.01-5 parts cationic photoinitiator, relative to 100 parts a to d; g. optionally a polyvinyl acetal polymer h. a sufficient quantity of polymeric microspheres to yield a density reduction of >10% in the cured composition, said microspheres having a neutral surface; i. optionally multifunctional (meth)acrylate and radical photoinitiator; wherein the sum of a) to d) is 100 parts by weight and wherein the density reduction is determined according to the method mentioned in the specification. a. 15 to 50 parts of a hydroxy-functional or ether functional (meth)acrylate copolymer or syrup thereof; b. 25 to 50 parts of an epoxy resin component; c. 5-15 parts of a liquid polyether polyol; d. optionally up to 25 parts of a hydroxy-functional film-forming polymer; e. 0.1 to 2.5 parts water, relative to 100 parts a to d; f. 0.01-5 parts cationic photoinitiator, relative to 100 parts a to d; g. optionally a polyvinyl acetal polymer h. a sufficient quantity of polymeric microspheres to yield a density reduction of >10% in the cured composition, said microspheres having a neutral surface; i. optionally multifunctional (meth)acrylate and radical photoinitiator;
Strength member ply for elastomeric articles, in particular for a belt bandage of a pneumatic vehicle tire, comprising cords as strength members which are arranged substantially parallel to one another within the ply and are embedded in elastomeric material, wherein the cords each comprise precisely two yarns, wherein the two yarns are end-twisted together, wherein the sum of the finenesses of the two yarns is at most 1030 dtex and wherein one yarn of the two yarns is a yarn composed of polyamide 6.6 (PA 6.6), characterized in that ∘ a further yarn of the two yarns of the cord is a yarn composed of high-modulus normal-shrinkage polyethylene terephthalate (HMNS-PET), ∘ in that the yarn composed of HMNS-PET has a higher fineness than the yarn composed of PA 6.6 and ∘ in that the weighted difference in the finenesses of the two yarns is greater than 0 and at most 0.23, wherein the weighted difference in the finenesses of the two yarns is defined as the ratio of the magnitude of the difference in the finenesses of the two yarns of the cord to the sum of the finenesses of the two yarns of the cord. ∘ a further yarn of the two yarns of the cord is a yarn composed of high-modulus normal-shrinkage polyethylene terephthalate (HMNS-PET), ∘ in that the yarn composed of HMNS-PET has a higher fineness than the yarn composed of PA 6.6 and ∘ in that the weighted difference in the finenesses of the two yarns is greater than 0 and at most 0.23, wherein the weighted difference in the finenesses of the two yarns is defined as the ratio of the magnitude of the difference in the finenesses of the two yarns of the cord to the sum of the finenesses of the two yarns of the cord.
A hydrocarbonaceous composition comprising a density at -15°C of 0.84 g/cc to 0.96 g/cc, a T10 distillation point of at least 200°C, and a T90 distillation point of 371°C or less, the hydrocarbonaceous composition comprising 5.0 wt% or less of paraffins, at least 50 wt% naphthenes, at least 30 wt% aromatics, a sulfur content of 50 wppm or less, and a hydrogen content of at least 11.0 wt%, the hydrocarbonaceous composition comprising a cetane index of at least 25 and an energy content of at least 41.0 MJ/kg; wherein the boiling point profile is calculated according to ASTM D2887; wherein the cetane index is calculated according to ASTM D4737; wherein the energy content is calculated according to ISO 8217.
A method for the corrosion inhibition of metal reinforcements present in a hardened concrete construction having one or more surfaces that are exposed to chloride intrusion, wherein the method comprises the step of applying an aqueous alkali metal nitrate solution, an aqueous alkaline earth metal nitrate solution, an aqueous zinc nitrate solution, an aqueous aluminium nitrate solution, an aqueous ammonium nitrate solution or a mixture thereof on one or more of the surfaces, wherein said aqueous nitrate solution further comprises an organic solvent selected from the group consisting of glycol ethers comprising ethylene substituted mono-ethyl, -methyl, -propyl, and -butyl glycol ethers, more in particular ethylene glycol monobutyl ether.