mhurhangee/patent-ind-claim-en huggingface dataset:
A serial transmission fan control device comprising: a master controller (MC) configured to generate a serial control data, wherein the serial control data comprises a plurality of packets concatenated in an order and each of the plurality of packets comprises a control parameter set of a fan; a first fan controller (C1) electrically connecting to the master controller (MC), wherein the first fan controller (C1) is configured to receive the serial control data, extract a packet from the plurality of packets of the serial control data and send a first downlink serial data, wherein the first downlink serial data comprises all of the plurality of packets of the serial control data except for the extracted packet; and a second fan controller (C2) electrically connecting the first fan controller (C1), wherein the second fan controller (C2) is configured to receive the first downlink serial data and extract a packet from the packets of the first downlink serial data. a master controller (MC) configured to generate a serial control data, wherein the serial control data comprises a plurality of packets concatenated in an order and each of the plurality of packets comprises a control parameter set of a fan; a first fan controller (C1) electrically connecting to the master controller (MC), wherein the first fan controller (C1) is configured to receive the serial control data, extract a packet from the plurality of packets of the serial control data and send a first downlink serial data, wherein the first downlink serial data comprises all of the plurality of packets of the serial control data except for the extracted packet; and a second fan controller (C2) electrically connecting the first fan controller (C1), wherein the second fan controller (C2) is configured to receive the first downlink serial data and extract a packet from the packets of the first downlink serial data.
A positive electrode comprising a positive electrode current collector and a positive electrode active material-containing layer formed on the positive electrode current collector , the positive electrode active material-containing layer comprising particles of at least one lithium-nickel composite oxide and particles of a conductive agent, characterized in that the particles in the positive electrode active material-containing layer have such a particle size distribution obtained by a laser diffraction scattering method that the average particle diameter d 50 is within a range of 1 μm to 5.5 μm, the maximum particle diameter is within a range of 10 μm to 100 μm, the particle diameter d 10 is within a range of 0.5 μm to 3 μm, and X, represented by X = (d 50 - d 10 )/d 50 , is within a range of 0.5 to less than 1.
An air cooling system applied to a wind turbine generator, characterized in that , the air cooling system comprises: a first dehumidification system , disposed on a wall of a nacelle (C) of the wind turbine generator and in communication with the nacelle (C); a second dehumidification system , disposed in the nacelle (C) and dividing an interior space of the nacelle (C) into a first cavity (C1) and a second cavity (C2), the second cavity (C2) being communicated with an air outlet (O) of a generator (M) of the wind turbine generator; and a driving device , located in the first cavity (C1), wherein under the action of the driving device , external cooling air passes through the first dehumidification system and then is mixed with high-temperature air discharged from the air outlet (O) of the generator (M), and the mixed air enters the first cavity (C1), passes through the second dehumidification system and then enters the second cavity (C2), and exchanges heat with a heat-generating component in the second cavity (C2) and/or the generator (M), and wherein the air cooling system comprises two or more subsystems (S) that operate independently of each other, and each of the two or more subsystems (S) is deiced by operating the two or more subsystems (S) alternately for a predetermined time period. a first dehumidification system , disposed on a wall of a nacelle (C) of the wind turbine generator and in communication with the nacelle (C); a second dehumidification system , disposed in the nacelle (C) and dividing an interior space of the nacelle (C) into a first cavity (C1) and a second cavity (C2), the second cavity (C2) being communicated with an air outlet (O) of a generator (M) of the wind turbine generator; and a driving device , located in the first cavity (C1), wherein under the action of the driving device , external cooling air passes through the first dehumidification system and then is mixed with high-temperature air discharged from the air outlet (O) of the generator (M), and the mixed air enters the first cavity (C1), passes through the second dehumidification system and then enters the second cavity (C2), and exchanges heat with a heat-generating component in the second cavity (C2) and/or the generator (M), and wherein the air cooling system comprises two or more subsystems (S) that operate independently of each other, and each of the two or more subsystems (S) is deiced by operating the two or more subsystems (S) alternately for a predetermined time period.
A method for compensating an output offset of an electronic transmission/reception device operating according to a communications standard, the compensation method comprising the following steps: - step 1: the standard defining standard words made up of Manchester encoded bits and, for each standard word, generating a series of transmissions of said word by shifting, for each transmission, zero or a plurality of rising or falling instants (T/2+ α ) of each bit, the shift α of the rising or falling instant having a value that is constant and independent of the bit; - step 2: determining the transmission comprising zero or a plurality of shifted rising or falling instants of each Manchester encoded bit allowing the lowest average offset (V offset ) to be obtained on all the standard words; - step 3: storing said rising or falling shifts ( α ) in the electronic device so that these rising or falling shifts are applied to the output signals when the electronic device is operational. - step 1: the standard defining standard words made up of Manchester encoded bits and, for each standard word, generating a series of transmissions of said word by shifting, for each transmission, zero or a plurality of rising or falling instants (T/2+ α ) of each bit, the shift α of the rising or falling instant having a value that is constant and independent of the bit; - step 2: determining the transmission comprising zero or a plurality of shifted rising or falling instants of each Manchester encoded bit allowing the lowest average offset (V offset ) to be obtained on all the standard words; - step 3: storing said rising or falling shifts ( α ) in the electronic device so that these rising or falling shifts are applied to the output signals when the electronic device is operational.
Arrangement for aligning a sub-calibre barrel for use in a principal weapon barrel comprising i) an insert arranged in said principal weapon barrel ii) front securing means for aligning the sub-calibre barrel iii) rear securing means for securing the rear end of the sub-calibre barrel , wherein said rear securing means comprises iii.a) a barrel nut in which said sub-calibre barrel is inserted; and iii.b) clamping means securing said barrel nut to said insert and said clamping means in said principal weapon barrel, wherein the clamping means comprises front and rear clamping means . i) an insert arranged in said principal weapon barrel ii) front securing means for aligning the sub-calibre barrel iii) rear securing means for securing the rear end of the sub-calibre barrel , wherein said rear securing means comprises iii.a) a barrel nut in which said sub-calibre barrel is inserted; and iii.b) clamping means securing said barrel nut to said insert and said clamping means in said principal weapon barrel, wherein the clamping means comprises front and rear clamping means . iii.a) a barrel nut in which said sub-calibre barrel is inserted; and iii.b) clamping means securing said barrel nut to said insert and said clamping means in said principal weapon barrel, wherein the clamping means comprises front and rear clamping means .
A micro-plate reader for use with a portable electronic device having a camera therein comprising: an opto-mechanical attachment configured to attach/detach to the portable electronic device comprising: an array of illumination sources ; a power source disposed in the opto-mechanical attachment for powering the array of illumination sources. a slot disposed in the opto-mechanical attachment and dimensioned to receive an optically transparent plate containing an array of wells therein; a plurality of optical fibers , wherein each optical fiber of the plurality of optical fibers terminates at a first end in a base plate contained in the opto-mechanical attachment and forming a bottom surface of the slot to form an input array of optical fibers and terminates at a second end in a header to form an output array of optical fibers therein, wherein the output array of optical fibers in the header has a cross-sectional area that is at least 10X less than a cross-sectional area of the array of wells in the optically transparent plate ; and a lens disposed in the opto-mechanical attachment and interposed in an optical path formed between the array of optical fibers in the header and the camera of the portable electronic device . an array of illumination sources ; a power source disposed in the opto-mechanical attachment for powering the array of illumination sources. a slot disposed in the opto-mechanical attachment and dimensioned to receive an optically transparent plate containing an array of wells therein; a plurality of optical fibers , wherein each optical fiber of the plurality of optical fibers terminates at a first end in a base plate contained in the opto-mechanical attachment and forming a bottom surface of the slot to form an input array of optical fibers and terminates at a second end in a header to form an output array of optical fibers therein, wherein the output array of optical fibers in the header has a cross-sectional area that is at least 10X less than a cross-sectional area of the array of wells in the optically transparent plate ; and a lens disposed in the opto-mechanical attachment and interposed in an optical path formed between the array of optical fibers in the header and the camera of the portable electronic device .
A method for wirelessly calibrating/testing a digital receiver module of a multi-antenna receiver of a device under test , the method comprising: wirelessly transmitting a first signaling information between the device under test and a device tester , the first signaling information indicating a calibration request, wherein the first signaling information is transmitted by the device under test or the device tester ; estimating , in response to the first signaling information, channel transfer function matrices between active antenna ports or RF ports of the multi-antenna receiver of the device under test and antenna ports of the device tester using reference signals wirelessly transmitted from the device tester to the device under test ; wirelessly transmitting a second signaling information between the device under test and the device tester , the second signaling information indicating a precoded transmission request, wherein the second signaling information is transmitted by the device under test or the device tester ; and wirelessly transmitting , in response to the second signaling information, reference signals from the device tester to the device under test using precoder matrices selected or determined based on the estimated channel transfer function matrices or an information derived therefrom, to obtain interference free channels between the device tester and the device under test allowing the reference signals to be received independently at each active antenna port or RF port of the multi-antenna receiver of the device under test . wirelessly transmitting a first signaling information between the device under test and a device tester , the first signaling information indicating a calibration request, wherein the first signaling information is transmitted by the device under test or the device tester ; estimating , in response to the first signaling information, channel transfer function matrices between active antenna ports or RF ports of the multi-antenna receiver of the device under test and antenna ports of the device tester using reference signals wirelessly transmitted from the device tester to the device under test ; wirelessly transmitting a second signaling information between the device under test and the device tester , the second signaling information indicating a precoded transmission request, wherein the second signaling information is transmitted by the device under test or the device tester ; and wirelessly transmitting , in response to the second signaling information, reference signals from the device tester to the device under test using precoder matrices selected or determined based on the estimated channel transfer function matrices or an information derived therefrom, to obtain interference free channels between the device tester and the device under test allowing the reference signals to be received independently at each active antenna port or RF port of the multi-antenna receiver of the device under test .
A method for producing a polyisoprenoid, the method comprising the step of binding a protein expressed by a gene coding for a cis-prenyltransferase (CPT) family protein and a protein expressed by a gene coding for a Nogo-B receptor (NgBR) family protein to rubber particles in vitro.
A method for manufacturing 1,4-bis(4-phenoxybenzoyl)benzene, comprising: - providing a reactant mixture comprising terephthaloyl chloride and diphenyl ether in a solvent, wherein the solvent is selected from methylene chloride, carbon disulfide, ortho-dichlorobenzene, meta-dichlorobenzene, para-dichlorobenzene, 1,2,4-trichlorobenzene, 1,2,3-trichlorobenzene, ortho-difluorobenzene, 1,2-dichloroethane, 1,1,2,2-tetrachloroethane, tetrachloroethylene, dichloromethane, nitrobenzene and mixtures thereof and, wherein the weight ratio of terephthaloyl chloride to diphenyl ether is from 0.2 to 0.5; - adding a Lewis acid to the reactant mixture, so as to obtain a product mixture; wherein the temperature of the reactant mixture is greater than 5°C during at least part of the step of adding the Lewis acid to the reactant mixture. - providing a reactant mixture comprising terephthaloyl chloride and diphenyl ether in a solvent, wherein the solvent is selected from methylene chloride, carbon disulfide, ortho-dichlorobenzene, meta-dichlorobenzene, para-dichlorobenzene, 1,2,4-trichlorobenzene, 1,2,3-trichlorobenzene, ortho-difluorobenzene, 1,2-dichloroethane, 1,1,2,2-tetrachloroethane, tetrachloroethylene, dichloromethane, nitrobenzene and mixtures thereof and, wherein the weight ratio of terephthaloyl chloride to diphenyl ether is from 0.2 to 0.5; - adding a Lewis acid to the reactant mixture, so as to obtain a product mixture;
An absorbent article having a longitudinal centerline and a longitudinal direction along and in parallel to the longitudinal centerline; a transverse centerline and a transverse direction along and in parallel to the transverse centerline, a front waist region with a front waist edge , a back waist region with a back waist edge and a crotch region extending longitudinally between the front and back waist region , the absorbent article comprising an absorbent main body , the absorbent main body comprising a topsheet , a backsheet , and an absorbent core sandwiched there between; wherein a waist guard (WG) is disposed in and attached to the back waist region , the waist guard (WG) comprising one waist guard sheets , and the waist guard (WG) comprising at least a first and a second pocket , the first pocket being formed by the one waist guard sheets , and the second pocket being at least partially provided between the topsheet and the first pocket ; the first pocket having a first closed base line at or adjacent to the back waist edge and extending along the longitudinal direction from the first closed base line towards a first open edge , and the second pocket having a second closed base line at or adjacent to the back waist edge and extending along the longitudinal direction from the second closed base line towards a second open edge , wherein the complete area of each of the first pocket and of the second pocket superposes the backsheet ; wherein the first pocket comprises at least a first elastic portion provided at or adjacent to the first open edge and the second pocket comprises at least a second elastic portion provided at or adjacent to the second open edge , wherein the second open edge is provided closer to the transverse centerline than the first open edge . the absorbent article comprising an absorbent main body , the absorbent main body comprising a topsheet , a backsheet , and an absorbent core sandwiched there between; wherein a waist guard (WG) is disposed in and attached to the back waist region , the waist guard (WG) comprising one waist guard sheets , and the waist guard (WG) comprising at least a first and a second pocket , the first pocket being formed by the one waist guard sheets , and the second pocket being at least partially provided between the topsheet and the first pocket ; the first pocket having a first closed base line at or adjacent to the back waist edge and extending along the longitudinal direction from the first closed base line towards a first open edge , and the second pocket having a second closed base line at or adjacent to the back waist edge and extending along the longitudinal direction from the second closed base line towards a second open edge , wherein the complete area of each of the first pocket and of the second pocket superposes the backsheet ; wherein the first pocket comprises at least a first elastic portion provided at or adjacent to the first open edge and the second pocket comprises at least a second elastic portion provided at or adjacent to the second open edge , wherein the second open edge is provided closer to the transverse centerline than the first open edge .
A fastening device , comprising: an insertion region for a capillary which at least partially surrounds a sensor region of an optical waveguide , the capillary comprising a fastening region which is arrangeable spaced apart from the sensor region of the optical waveguide ; a detector configured to detect a marker on the capillary provided on the capillary to indicate the fastening region of the capillary ; a heating region configured to heat the fastening region of the capillary , preferably automatically, for a predetermined period of time when the detector detects the marker . an insertion region for a capillary which at least partially surrounds a sensor region of an optical waveguide , the capillary comprising a fastening region which is arrangeable spaced apart from the sensor region of the optical waveguide ; a detector configured to detect a marker on the capillary provided on the capillary to indicate the fastening region of the capillary ; a heating region configured to heat the fastening region of the capillary , preferably automatically, for a predetermined period of time when the detector detects the marker .
A method to compensate for low frequency vibrations in a quantum information processing (QIP) system, comprising: measuring a low frequency vibration of a trap holder holding an ion trap with ions, the measuring including: introducing a laser beam into an optical path parallel to an optical path of one of two Raman laser beams applied to at least one of the ions in the ion trap, the optical path of the one Raman laser beam and the parallel optical path of the laser beam having at least one optical component in common, and the laser beam and the one Raman laser beam having different wavelengths, providing the laser beam along the parallel optical path to a sensor mirror attached to the trap holder, and performing an interferometric measurement based on a reflection of the laser beam from the sensor mirror; generating a feedback control signal based on the interferometric measurement to adjust one or more optical components on the optical path of the one Raman laser beam; and controlling an operation of the one or more optical components using the control signal. measuring a low frequency vibration of a trap holder holding an ion trap with ions, the measuring including: introducing a laser beam into an optical path parallel to an optical path of one of two Raman laser beams applied to at least one of the ions in the ion trap, the optical path of the one Raman laser beam and the parallel optical path of the laser beam having at least one optical component in common, and the laser beam and the one Raman laser beam having different wavelengths, providing the laser beam along the parallel optical path to a sensor mirror attached to the trap holder, and performing an interferometric measurement based on a reflection of the laser beam from the sensor mirror; introducing a laser beam into an optical path parallel to an optical path of one of two Raman laser beams applied to at least one of the ions in the ion trap, the optical path of the one Raman laser beam and the parallel optical path of the laser beam having at least one optical component in common, and the laser beam and the one Raman laser beam having different wavelengths, providing the laser beam along the parallel optical path to a sensor mirror attached to the trap holder, and performing an interferometric measurement based on a reflection of the laser beam from the sensor mirror; generating a feedback control signal based on the interferometric measurement to adjust one or more optical components on the optical path of the one Raman laser beam; and controlling an operation of the one or more optical components using the control signal.
Method for cooking product to be cooked using at least one microwave unit , the method comprising the following steps: - identifying a type of product to be cooked , - setting a time course of a homogeneity measure for the subsequent cooking as a function of the type of product to be cooked , wherein the homogeneity measure is a measure for the homogeneity of heat distribution within the product to be cooked , and - cooking the product to be cooked using the microwave unit , wherein a respective number of different frequencies and/or phases of radiated microwaves employed is adjusted based on the homogeneity measure valid at a respective point in time. - identifying a type of product to be cooked , - setting a time course of a homogeneity measure for the subsequent cooking as a function of the type of product to be cooked , wherein the homogeneity measure is a measure for the homogeneity of heat distribution within the product to be cooked , and - cooking the product to be cooked using the microwave unit , wherein a respective number of different frequencies and/or phases of radiated microwaves employed is adjusted based on the homogeneity measure valid at a respective point in time.