mhurhangee/patent-ind-claim-en huggingface dataset:
Compound according to formula (I) wherein • X and Y, are either both -CH 2 -, or one of X and Y is -CH 2 - and the other one is - O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3 , independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group or R 2 and R 3 , together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------ ) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; and • one of R 6 and R 7 represents a hydrogen atom and the other one represents a radical R 8 , wherein R 4 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, a (CH 2 ) n OR 9 group where n is 1, 2, 3 or 4; and R 5 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a (CH 2 ) n OR 10 group where n is 1, 2 or 3, wherein R 9 and R 10 , independently of each other, represent a hydrogen atom, a methyl group, or an ethyl group. • X and Y, are either both -CH 2 -, or one of X and Y is -CH 2 - and the other one is - O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3 , independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group or R 2 and R 3 , together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------ ) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; and • one of R 6 and R 7 represents a hydrogen atom and the other one represents a radical R 8 , wherein R 4 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, a (CH 2 ) n OR 9 group where n is 1, 2, 3 or 4; and R 5 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a (CH 2 ) n OR 10 group where n is 1, 2 or 3, wherein R 9 and R 10 , independently of each other, represent a hydrogen atom, a methyl group, or an ethyl group.
A rotor overspeed protection (ROP) assembly of a gas turbine engine , comprising: an annular blade outer air seal (BOAS) assembly comprising a ROP segment ; and a stator vane coupled with the BOAS assembly , the stator vane comprising a stator flange disposed about a forward edge portion of the stator vane , wherein the ROP segment comprises a ROP flange extending in an axially aft direction from a main body of the ROP segment toward the stator vane , wherein the ROP flange is disposed radially inward of the stator flange ; and wherein the BOAS assembly further comprises a BOAS segment coupled with the ROP segment , the BOAS segment comprising a BOAS flange extending in an axially aft direction from a main body of the BOAS segment toward the stator vane , wherein the BOAS flange is disposed radially outward of the stator flange of the stator vane . an annular blade outer air seal (BOAS) assembly comprising a ROP segment ; and a stator vane coupled with the BOAS assembly , the stator vane comprising a stator flange disposed about a forward edge portion of the stator vane ,
A valve system for a gas turbine engine comprising: a working fluid inlet ; a working fluid outlet ; a valve configured to open and close a control device in response to a working fluid stream wherein the working fluid stream is a compressed bleed air; a valve controller mounted to the valve and configured to control the flow of the working fluid through the valve; a thermoelectric cooler surrounding the valve controller for transferring heat between the valve controller and an ambient environment; a controller adapted to direct a current to drive the thermoelectric cooler and configured to control the valve controller , and further comprising a temperature sensor mounted in the valve controller adapted to send a temperature signal to the controller as a function of an operating temperature of the valve controller . a working fluid inlet ; a working fluid outlet ; a valve configured to open and close a control device in response to a working fluid stream wherein the working fluid stream is a compressed bleed air; a valve controller mounted to the valve and configured to control the flow of the working fluid through the valve; a thermoelectric cooler surrounding the valve controller for transferring heat between the valve controller and an ambient environment; a controller adapted to direct a current to drive the thermoelectric cooler and configured to control the valve controller , and further comprising a temperature sensor mounted in the valve controller adapted to send a temperature signal to the controller as a function of an operating temperature of the valve controller .
A method for the preparation of compound of formula (I); the method comprises two steps, a step STEP1 and a step STEP2; STEP1 comprises a reaction REAC1 of compound of formula (VII) and compound of formula (VI) in the presence of a base BAS1, BAS1 is compound of formula (VIII); R1, R2, R3 and R4 are identical or different and independently from each other C 1-4 alkyl; X is Na or K; STEP2 comprises a reaction REAC2 of the reaction product of REAC1 with methyl hydrazine in the presence of an acid ACID2; ACID2 is selected from the group consisting of AcOH, H 2 SO 4 , HCOOH, citric acid, benzoic acid, lactic acid and acidic ion exchange resin.
A method of using interaction activity information in a second apparatus , the method comprising: searching for external apparatuses that can communicate with the second apparatus; displaying a list of the found external apparatuses; receiving a selection of a first apparatus from among the found external apparatuses, and connecting the second apparatus to the first apparatus ; displaying second information representing previously stored interaction activity information indicating at least one of functions that the first apparatus can perform among functions of the second apparatus , the second information being displayed with the list of the found external apparatuses indicating that the first apparatus is selected; receiving a selection signal regarding a predetermined function of the displayed second information; and transmitting an instruction that the first apparatus performs the selected function of the second apparatus , to the first apparatus , in response to the selection signal. searching for external apparatuses that can communicate with the second apparatus; displaying a list of the found external apparatuses; receiving a selection of a first apparatus from among the found external apparatuses, and connecting the second apparatus to the first apparatus ; displaying second information representing previously stored interaction activity information indicating at least one of functions that the first apparatus can perform among functions of the second apparatus , the second information being displayed with the list of the found external apparatuses indicating that the first apparatus is selected; receiving a selection signal regarding a predetermined function of the displayed second information; and transmitting an instruction that the first apparatus performs the selected function of the second apparatus , to the first apparatus , in response to the selection signal.
A signal processing device for filtering and performing high frequency reconstruction of an audio signal, the signal processing device comprising: an analysis filter bank that receives real valued time domain input audio samples and generates complex-valued subband samples; a unit that generates modified complex-valued subband samples by modifying gains of the complex valued subband samples according to current spectral envelope adjuster settings; and a synthesis filter bank that receives the modified complex-valued subband samples and generates time domain output audio samples, wherein the synthesis filter bank comprises M synthesis filters f k (n) that are complex exponential modulated versions of a prototype filter p 0 (n) according to: f k n = p 0 n exp i π M k + 1 2 n − D 2 , 0 ≤ n < N , 0 ≤ k < M wherein the analysis filter bank comprises K analysis filters, with K being different from M, that are complex exponential modulated versions of a prototype filter obtained from the prototype filter p 0 (n) by resampling the prototype filter p 0 (n) through either decimation or interpolation, wherein the prototype filter p 0 (n) has a length N, and wherein the analysis filter bank and synthesis filter bank have a system delay of D samples. an analysis filter bank that receives real valued time domain input audio samples and generates complex-valued subband samples; a unit that generates modified complex-valued subband samples by modifying gains of the complex valued subband samples according to current spectral envelope adjuster settings; and a synthesis filter bank that receives the modified complex-valued subband samples and generates time domain output audio samples, wherein the synthesis filter bank comprises M synthesis filters f k (n) that are complex exponential modulated versions of a prototype filter p 0 (n) according to: f k n = p 0 n exp i π M k + 1 2 n − D 2 , 0 ≤ n < N , 0 ≤ k < M wherein the analysis filter bank comprises K analysis filters, with K being different from M, that are complex exponential modulated versions of a prototype filter obtained from the prototype filter p 0 (n) by resampling the prototype filter p 0 (n) through either decimation or interpolation, wherein the prototype filter p 0 (n) has a length N, and wherein the analysis filter bank and synthesis filter bank have a system delay of D samples.
A device for mixing a coolant and a lubricant, the device comprising: an inlet port for receiving the coolant, a pressure amplifier coupled to the inlet port and configured to increase the pressure of the lubricant by means of the pressure of the coolant; a mixing unit coupled to the inlet port and the pressure amplifier and configured to mix the coolant and the lubricant provided by the pressure amplifier ; wherein said pressure amplifier comprises a low pressure chamber coupled to the inlet port and a high pressure chamber configured to contain the lubricant and coupled to the mixing unit , and a piston contained in a cylinder, wherein the piston separates the low pressure chamber from the high pressure chamber ; a lubricant flow valve arranged between the pressure amplifier and the mixing unit , a displacement sensor configured to measure the displacement of the piston ; and a control unit configured to receive data on the displacement of the piston from the displacement sensor and to control the lubricant flow valve using the data on the displacement of the piston . an inlet port for receiving the coolant, a pressure amplifier coupled to the inlet port and configured to increase the pressure of the lubricant by means of the pressure of the coolant; a mixing unit coupled to the inlet port and the pressure amplifier and configured to mix the coolant and the lubricant provided by the pressure amplifier ; wherein said pressure amplifier comprises a low pressure chamber coupled to the inlet port and a high pressure chamber configured to contain the lubricant and coupled to the mixing unit , and a piston contained in a cylinder, wherein the piston separates the low pressure chamber from the high pressure chamber ; a lubricant flow valve arranged between the pressure amplifier and the mixing unit , a displacement sensor configured to measure the displacement of the piston ; and a control unit configured to receive data on the displacement of the piston from the displacement sensor and to control the lubricant flow valve using the data on the displacement of the piston .
An image processing device comprising: a reception section configured to receive an encoded stream encoded in units in which image data have a hierarchical structure, the encoded stream comprising motion vector range limit information which is information on whether a limit is imposed on a vertical direction of a search range of an inter-view motion vector for referring to a view different from a view of a current block, said motion vector range limit information comprising a flag indicating whether to limit a vertical component of the inter-view motion vector to a limit value or less, wherein when the flag is equal to 1, the flag indicates that the vertical component of the inter-view motion vector should be limited to said limit value or less, and the flag is in a sequence parameter set; and a decoding section configured to decode the encoded stream received by the reception section using the motion vector range limit information received by the reception section. a reception section configured to receive an encoded stream encoded in units in which image data have a hierarchical structure, the encoded stream comprising motion vector range limit information which is information on whether a limit is imposed on a vertical direction of a search range of an inter-view motion vector for referring to a view different from a view of a current block, said motion vector range limit information comprising a flag indicating whether to limit a vertical component of the inter-view motion vector to a limit value or less, wherein when the flag is equal to 1, the flag indicates that the vertical component of the inter-view motion vector should be limited to said limit value or less, and the flag is in a sequence parameter set; and a decoding section configured to decode the encoded stream received by the reception section using the motion vector range limit information received by the reception section.
A method for wireless communications at a first user equipment, UE (115-d, 115-f), comprising: receiving , from a base station (105-b), a first timing configuration; receiving , from the base station, a first downlink control information, DCI, comprising a trigger of an aperiodic reference signal; transmitting , to at least a second UE (115-c), the aperiodic reference signal on a sidelink channel based at least in part on the trigger received in the first downlink control information; receiving , from the at least the second UE (115-c), one or more channel state information, CSI, reports comprising CSI parameters derived based at least in part on measurements of the aperiodic reference signal; aggregating the one or more CSI reports; and transmitting , to the base station (105-b), the aggregated CSI reports on an uplink channel; wherein the first timing configuration defines a time period for the first UE to transmit the aggregated CSI reports, and the first UE aggregates the one or more CSI reports and transmits the aggregated CSI reports within the time period defined by the first timing configuration receiving , from a base station (105-b), a first timing configuration; receiving , from the base station, a first downlink control information, DCI, comprising a trigger of an aperiodic reference signal; transmitting , to at least a second UE (115-c), the aperiodic reference signal on a sidelink channel based at least in part on the trigger received in the first downlink control information; receiving , from the at least the second UE (115-c), one or more channel state information, CSI, reports comprising CSI parameters derived based at least in part on measurements of the aperiodic reference signal; aggregating the one or more CSI reports; and transmitting , to the base station (105-b), the aggregated CSI reports on an uplink channel; wherein the first timing configuration defines a time period for the first UE to transmit the aggregated CSI reports, and the first UE aggregates the one or more CSI reports and transmits the aggregated CSI reports within the time period defined by the first timing configuration
A method of a network node of a communication network, the method comprising: receiving, by at least one first processor, neighbor cell information of neighbor cells from at least one base station of a preliminary neighbor set of base stations, wherein the neighbor cell information includes at least one of an available transport bandwidth or latency information of each of the neighbor cells, selecting, by the at least one first processor, at least one neighbor cell from among the neighbor cells based on at least one of the available transport bandwidth or latency information in the neighbor cell information to form a neighbor set of base stations; notifying, by the at least one first processor, one or more base stations of the neighbor set of base stations of a random access channel opportunity associated with a first transmission time interval; receiving, by the at least one first processor, signal information regarding a signal received during the random access channel opportunity from one or more base stations of the neighbor set of base stations for the first transmission time interval; determining, by the at least one first processor, a candidate set of base stations for the first transmission time interval based on the signal information from the one or more base stations of the neighbor set of base stations; and controlling, by the at least one first processor, an operation of joint reception in data communications with a user equipment using the network node, as a serving base station for the user equipment, and at least one base station of the candidate set of base stations. receiving, by at least one first processor, neighbor cell information of neighbor cells from at least one base station of a preliminary neighbor set of base stations, wherein the neighbor cell information includes at least one of an available transport bandwidth or latency information of each of the neighbor cells, selecting, by the at least one first processor, at least one neighbor cell from among the neighbor cells based on at least one of the available transport bandwidth or latency information in the neighbor cell information to form a neighbor set of base stations; notifying, by the at least one first processor, one or more base stations of the neighbor set of base stations of a random access channel opportunity associated with a first transmission time interval; receiving, by the at least one first processor, signal information regarding a signal received during the random access channel opportunity from one or more base stations of the neighbor set of base stations for the first transmission time interval; determining, by the at least one first processor, a candidate set of base stations for the first transmission time interval based on the signal information from the one or more base stations of the neighbor set of base stations; and controlling, by the at least one first processor, an operation of joint reception in data communications with a user equipment using the network node, as a serving base station for the user equipment, and at least one base station of the candidate set of base stations.
A filtration unit for swimming pools, comprising: - a pump , - at least one filter (16.1, 16.2), said filtration unit further comprising a measuring system for measuring a clogging-up level and/or for detecting a clogging-up state in said filter (16.1, 16.2), characterized in that the measuring system includes: - a sensor for measuring a fluid flow or speed, - a suction pipe (30.1) connected to the sensor and having a suction connection (31.1) provided in use in an area communicating with the water in a pool, and - an outlet pipe (30.2) connected to the sensor and having an outlet connection (31.2) provided in a water delivery zone . - a pump , - at least one filter (16.1, 16.2), - a sensor for measuring a fluid flow or speed, - a suction pipe (30.1) connected to the sensor and having a suction connection (31.1) provided in use in an area communicating with the water in a pool, and - an outlet pipe (30.2) connected to the sensor and having an outlet connection (31.2) provided in a water delivery zone .
Spacer for keeping a wall connection-side joint free, for example when laying a rigid floor covering, comprising a spacer element (2, 2.1) with a thickness which corresponds to the width of the joint to be kept free, characterised in that the spacer further comprises an angle bracket (3, 3.1) provided with a strip-shaped holding limb (4, 4.1) for engaging beneath the floor covering being laid, the width of which is less than the joint being formed, with a holding shaft (5, 5.1) connected to one end of the holding limb (4, 4.1) and projecting from the holding limb (4, 4.1), wherein a bore hole is introduced into the spacer element (2, 2.1) and extends in the direction of its height, into which the holding shaft (5, 5.1) engages, and either the spacer element (3, 3.1) and the holding limb (4, 4.1) are detachable from one another, or the bore hole is guided through the spacer element (2.1), the holding shaft (5.1) then engaging through the bore hole and projecting with its end section out of the bore hole, wherein in both cases the holding shaft (5.1) comprises, in its end section facing away from the holding limb (4, 4.1), a rotary entrainment contour .
Monitoring device for monitoring a mains connection of an electronic device , the monitoring device comprising: an AC signal processing unit configured to measure the voltage on the mains connection of the electronic device and to measure a noise on the mains connection of the electronic device , wherein the AC signal processing unit comprises a high pass filter element or a band pass filter element configured to attenuate signals with frequencies up to a mains frequency and pass through signals caused by an electric arc with a frequency higher than the mains frequency, an overvoltage detector configured to detect an overvoltage in the measured voltage that is produced by voltage spikes that are caused by an electrical arc, and wherein the overvoltage detector comprises a comparator that is configured to detect an overvoltage if the measured voltage is higher than a predetermined voltage value, a noise detection unit configured to detect abnormal noise on the mains connection, and a signaling unit configured to output a warning signal if the overvoltage detector detects an overvoltage and/or if the noise detection unit detects an abnormal noise . an AC signal processing unit configured to measure the voltage on the mains connection of the electronic device and to measure a noise on the mains connection of the electronic device , wherein the AC signal processing unit comprises a high pass filter element or a band pass filter element configured to attenuate signals with frequencies up to a mains frequency and pass through signals caused by an electric arc with a frequency higher than the mains frequency, an overvoltage detector configured to detect an overvoltage in the measured voltage that is produced by voltage spikes that are caused by an electrical arc, and wherein the overvoltage detector comprises a comparator that is configured to detect an overvoltage if the measured voltage is higher than a predetermined voltage value, a noise detection unit configured to detect abnormal noise on the mains connection, and a signaling unit configured to output a warning signal if the overvoltage detector detects an overvoltage and/or if the noise detection unit detects an abnormal noise .