mhurhangee/ep-ind-claims huggingface dataset:
Two-compartment aerosol device, comprising: a) in a first compartment, a styling composition comprising at least one compound chosen from an anionic carboxylic polymer free of urethane units in an alcoholic or aqueous-alcoholic medium which comprises from 20% to 98% by weight, relative to the weight of said composition, of a C 1 -C 4 monohydric alcohol, and b) in a second compartment, a compressed gas chosen from air, nitrogen and carbon dioxide, and mixtures thereof. a) in a first compartment, a styling composition comprising at least one compound chosen from an anionic carboxylic polymer free of urethane units in an alcoholic or aqueous-alcoholic medium which comprises from 20% to 98% by weight, relative to the weight of said composition, of a C 1 -C 4 monohydric alcohol, and b) in a second compartment, a compressed gas chosen from air, nitrogen and carbon dioxide, and mixtures thereof.
A bogie, comprising: a frame provided with two parallel side beams extending in a longitudinal direction; annular hoops connected to bottom surfaces of end portions of the side beams, a centerline of the annular hoop extending in a lateral direction; axle boxes, the axle box being located in a space defined by the annular hoop, a centerline of the axle box coinciding with the centerline of the annular hoop; and a plurality of buffer blocks uniformly arranged between the annular hoop and the axle box; characterised in that, a first longitudinal positioning structure is arranged on inner side of the buffer block, and a second longitudinal positioning structure is arranged on outer peripheral surface of the axle box wherein the first longitudinal positioning structure and the second longitudinal positioning structure mutually cooperate with each other for restricting longitudinal movement of the buffer block. a frame provided with two parallel side beams extending in a longitudinal direction; annular hoops connected to bottom surfaces of end portions of the side beams, a centerline of the annular hoop extending in a lateral direction; axle boxes, the axle box being located in a space defined by the annular hoop, a centerline of the axle box coinciding with the centerline of the annular hoop; and a plurality of buffer blocks uniformly arranged between the annular hoop and the axle box; characterised in that, a first longitudinal positioning structure is arranged on inner side of the buffer block, and a second longitudinal positioning structure is arranged on outer peripheral surface of the axle box wherein the first longitudinal positioning structure and the second longitudinal positioning structure mutually cooperate with each other for restricting longitudinal movement of the buffer block.
A method for obtaining information about a service chain in a cloud computing system, comprising: receiving, a path forwarding identifier that is of a path used to transmit service data and that is sent by a service chain decision device; obtaining, information that is about a path instance and that corresponds to the path forwarding identifier, wherein the information about the path instance comprises an identifier of the path instance, an address of each node in the path, and a rank of each node in the path; obtaining, an address that is of a virtual controller and that corresponds to the identifier of the path instance; obtaining, an identifier of a physical service chain from the virtual controller according to the address of the virtual controller, the address of each node in the path, and the rank of each node in the path; and sending, information about the physical service chain to the service chain decision device, wherein the information about the physical service chain comprises the identifier of the physical service chain, the address of each node in the path, and the rank of each node in the path, and the information about the physical service chain is used to instruct to route and forward the service data. receiving, a path forwarding identifier that is of a path used to transmit service data and that is sent by a service chain decision device; obtaining, information that is about a path instance and that corresponds to the path forwarding identifier, wherein the information about the path instance comprises an identifier of the path instance, an address of each node in the path, and a rank of each node in the path; obtaining, an address that is of a virtual controller and that corresponds to the identifier of the path instance; obtaining, an identifier of a physical service chain from the virtual controller according to the address of the virtual controller, the address of each node in the path, and the rank of each node in the path; and sending, information about the physical service chain to the service chain decision device, wherein the information about the physical service chain comprises the identifier of the physical service chain, the address of each node in the path, and the rank of each node in the path, and the information about the physical service chain is used to instruct to route and forward the service data.
A cage for spacing a plurality of rolling elements in a rolling element bearing assembly containing a working fluid, the cage comprising: a first axial end ring; a second axial end ring; a central rotation axis extending centrally through the first axial end ring and the second axial end ring; a plurality of bridges extending between the first axial end ring and the second axial end ring; and a plurality of roller pockets defined between the plurality of bridges, the plurality of roller pockets spaced circumferentially about the cage, each of the plurality of roller pockets configured to receive a rolling element therein, characterised in that at least one of the plurality of roller pockets includes a Rayleigh step array configured to selectively generate a hydrodynamic force within the working fluid in response to a skew angle between a rotational axis of the rolling element within the roller pocket and the central rotation axis. a first axial end ring; a second axial end ring; a central rotation axis extending centrally through the first axial end ring and the second axial end ring; a plurality of bridges extending between the first axial end ring and the second axial end ring; and a plurality of roller pockets defined between the plurality of bridges, the plurality of roller pockets spaced circumferentially about the cage, each of the plurality of roller pockets configured to receive a rolling element therein, characterised in that at least one of the plurality of roller pockets includes a Rayleigh step array configured to selectively generate a hydrodynamic force within the working fluid in response to a skew angle between a rotational axis of the rolling element within the roller pocket and the central rotation axis.
Process for modifying isocyanates, in which at least one monomeric organic isocyanate having an NCO functionality > 1 is oligomerized in the presence of at least one catalyst, characterized in that the catalyst comprises at least one spirocyclic ammonium salt having a cation of the formula I as catalysts for the isocyanate modification. where the nitrogen substituents X and Y are identical or different, substituted or unsubstituted C2-C20-alkylene chains optionally interrupted by heteroatoms (O, N, S) and aromatic rings.
An ultrasonic electromechanical system for an ultrasonic surgical instrument, the ultrasonic electromechanical system comprising: an ultrasonic blade; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to a drive signal; and a control circuit coupled to the ultrasonic transducer, the control circuit configured to: determine a first resonant frequency of the ultrasonic electromechanical system; determine a second resonant frequency of the ultrasonic electromechanical system as the ultrasonic blade oscillates against a tissue; and, determine a state of the ultrasonic surgical instrument according to a comparison between the first resonant frequency and the second resonant frequency; wherein the state of the ultrasonic surgical instrument comprises a temperature of the ultrasonic blade; and, wherein the control circuit is configured to adjust the amplitude of the ultrasonic blade to maintain the temperature of the ultrasonic blade at a predefined temperature. an ultrasonic blade; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to a drive signal; and a control circuit coupled to the ultrasonic transducer, the control circuit configured to: determine a first resonant frequency of the ultrasonic electromechanical system; determine a second resonant frequency of the ultrasonic electromechanical system as the ultrasonic blade oscillates against a tissue; and, determine a state of the ultrasonic surgical instrument according to a comparison between the first resonant frequency and the second resonant frequency; determine a first resonant frequency of the ultrasonic electromechanical system; determine a second resonant frequency of the ultrasonic electromechanical system as the ultrasonic blade oscillates against a tissue; and, determine a state of the ultrasonic surgical instrument according to a comparison between the first resonant frequency and the second resonant frequency; wherein the state of the ultrasonic surgical instrument comprises a temperature of the ultrasonic blade; and, wherein the control circuit is configured to adjust the amplitude of the ultrasonic blade to maintain the temperature of the ultrasonic blade at a predefined temperature.
An atom beam gyroscope system comprising: an atom beam system configured to generate an atom beam comprising alkali metal atoms along a length of a detection region orthogonal to a sensitive axis; a detection system comprising a detection laser and a photodetector, the detection laser being configured to generate an optical detection beam (O DET) arranged orthogonal with respect to a path of the atom beam and the sensitive axis, that illuminates the detection region to pump the alkali metal atoms, and the photodetector being configured to measure an optical absorption of the optical detection beam (O DET) by the alkali metal atoms in the atom beam and to generate an intensity signal associated with the measured optical absorption; a gyroscope sensor configured to calculate rotation of the atom beam gyroscope system about the sensitive axis; characterized in that the gyroscope sensor is configured to calculate rotation of the atom beam gyroscope system about the sensitive axis based on a magnitude of the intensity signal due to a Doppler-shift in energy of the alkali metal atoms in the atom beam; and in that the atom beam gyroscope system comprises an accelerometer configured to detect and factor-out linear acceleration of the atom beam gyroscope system from detection of the rotation of the atom beam gyroscope system about the sensitive axis. an atom beam system configured to generate an atom beam comprising alkali metal atoms along a length of a detection region orthogonal to a sensitive axis; a detection system comprising a detection laser and a photodetector, the detection laser being configured to generate an optical detection beam (O DET) arranged orthogonal with respect to a path of the atom beam and the sensitive axis, that illuminates the detection region to pump the alkali metal atoms, and the photodetector being configured to measure an optical absorption of the optical detection beam (O DET) by the alkali metal atoms in the atom beam and to generate an intensity signal associated with the measured optical absorption; a gyroscope sensor configured to calculate rotation of the atom beam gyroscope system about the sensitive axis; characterized in that the gyroscope sensor is configured to calculate rotation of the atom beam gyroscope system about the sensitive axis based on a magnitude of the intensity signal due to a Doppler-shift in energy of the alkali metal atoms in the atom beam; and in that the atom beam gyroscope system comprises an accelerometer configured to detect and factor-out linear acceleration of the atom beam gyroscope system from detection of the rotation of the atom beam gyroscope system about the sensitive axis.
A composition for use in treating a disease selected from the group consisting of cardiovascular disease and Tangier disease, the composition consisting of a mixture of a plasmid vector encoding an active form of ATP-binding cassette transporter A1 (ABCA1) and sonochemically-active microspheres in a pharmaceutically acceptable aqueous carrier; wherein the vector comprises an expressible open reading frame encoding the active form of ABCA1 and at least one sequence adapted to promote expression of the open reading frame in a mammalian cell; and wherein the sonochemically-active microspheres comprise gas bubbles encapsulated within shells comprising a protein, a lipid, or a combination thereof, the microspheres being disruptable upon exposure to ultrasonic acoustic energy to release the encapsulated gas bubbles. the composition consisting of a mixture of a plasmid vector encoding an active form of ATP-binding cassette transporter A1 (ABCA1) and sonochemically-active microspheres in a pharmaceutically acceptable aqueous carrier; wherein the vector comprises an expressible open reading frame encoding the active form of ABCA1 and at least one sequence adapted to promote expression of the open reading frame in a mammalian cell; and wherein the sonochemically-active microspheres comprise gas bubbles encapsulated within shells comprising a protein, a lipid, or a combination thereof, the microspheres being disruptable upon exposure to ultrasonic acoustic energy to release the encapsulated gas bubbles.
Electromagnetic actuator, having: - a housing, - a coil former which is arranged in the housing and bears at least one coil winding which at least partially surrounds an armature space, - an armature arranged axially movably in the armature space, - a first bearing portion for the radial mounting of the armature, and - a plate-like portion which is arranged on the first bearing portion, on a side facing away from the armature space, wherein the first bearing portion and the plate-like portion form an integral, combined bearing component, characterized in that a transition region between the plate-like portion and the first bearing portion has a first outer shoulder which, for positioning the bearing component, is insertable into a yoke opening, and a second outer shoulder adjoins the first outer shoulder, on the side of the bearing component facing away from the plate-like portion, with a reduced outer diameter. - a housing, - a coil former which is arranged in the housing and bears at least one coil winding which at least partially surrounds an armature space, - an armature arranged axially movably in the armature space, - a first bearing portion for the radial mounting of the armature, and - a plate-like portion which is arranged on the first bearing portion, on a side facing away from the armature space,
A mass intake air flow measurement device integrally incorporating a mass air flow measurement device for measuring a mass intake air flow in an air intake tube and a humidity sensing device for sensing humidity in the air Intake tube, comprising a first bypass passage into which part of air flowing in the air intake tube is flowing, a mass air flow sensing element of the air flow measurement device being arranged in the first bypass passage, characterized by a second bypass passage being connected to the first bypass passage in such a way that the inlet and the outlet of the second bypass passage are opening to the first bypass passage, the humidity sensing device being arranged in the second bypass passage.
Method for connecting a component of a power conversion circuit of a wind turbine to one or more connection means, wherein the component is arranged on a supporting structure in the interior of the wind turbine, wherein the connection means comprises at least one connector and the component comprises at least one counterpart to the connector, comprising the steps: - Providing the connection means and lifting the component from the supporting structure, - Arranging the connection means on the supporting structure and aligning the connector of the connection means with respect to the counterpart at the lifted component, and - Lowering the component onto the supporting structure and thereby establishing a connection between the connector and the counterpart for connecting the component to the connection means. - Providing the connection means and lifting the component from the supporting structure, - Arranging the connection means on the supporting structure and aligning the connector of the connection means with respect to the counterpart at the lifted component, and - Lowering the component onto the supporting structure and thereby establishing a connection between the connector and the counterpart for connecting the component to the connection means.
A system (601, 703) configured to generate a wideband output audio signal from a narrow band input audio signal, wherein the system (601, 703) is configured to: receive the narrow band input audio signal; generate, by a quadrature mirror filter analysis filterbank, a plurality of low frequency audio subband signals from the narrow band input audio signal; receive a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency audio subband signals lying within the target interval; generate a plurality of high frequency audio subband signals from the plurality of low frequency audio subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency audio subband signals, respectively; adjust the energy of the plurality of high frequency audio subband signals using the set of target energies; combine the low frequency audio subband signals and the energy-adjusted high frequency audio subband signals; and generate, by a QMF synthesis filterbank, the wideband output audio signal from the combined audio subband signals. receive the narrow band input audio signal; generate, by a quadrature mirror filter analysis filterbank, a plurality of low frequency audio subband signals from the narrow band input audio signal; receive a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency audio subband signals lying within the target interval; generate a plurality of high frequency audio subband signals from the plurality of low frequency audio subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency audio subband signals, respectively; adjust the energy of the plurality of high frequency audio subband signals using the set of target energies; combine the low frequency audio subband signals and the energy-adjusted high frequency audio subband signals; and generate, by a QMF synthesis filterbank, the wideband output audio signal from the combined audio subband signals.
A device forming a temporary connection with a assembly (4, 104, 204) and able to be separated from this assembly in a pyrotechnic manner, this temporary connection comprising a longitudinal axis, said device comprising a pyrotechnic expansion tube (14, 114, 214) mounted in a space (11, 111, 211) formed in a connection zone between said assembly (4, 104,204) and another assembly (2, 102, 202) to be separated from said assembly, the device also comprising at least one metal part (10.1, 10.2, 110, 210.1, 210.2), said assembly (4, 104, 204) being formed of a stack of plies (12.1, 12.2, 112.1, 112.2, 212.1, 212.2) bonded together, said stack comprising two outer plies (12.1, 112.1) and inner plies (12.2, 112.2), said plies (12.1, 12.2, 112.1, 112.2, 212.1, 212.2) being approximately parallel to the longitudinal direction, the two assemblies (2, 4, 102, 104) being connectable to each other by at least one metal part10.1, 10.2, 110, 210.1, 210.2), said metal part being able to be fixed onto the another assembly and to be bonded onto one of the outer plies (12.1, 112.1, 212.1) of the second assembly (4, 104, 204), characterised in that the bonding area between said outer ply (12.1, 112.1, 212.1) and the inner ply (12.2, 112.2, 212.2) adjacent to it is smaller than the bonding area between two inner plies (12.2, 112.2, 212.2) forming a fuse ply, and in that the bonding area between the metal part (10.1, 10.2, 110, 210.1, 210.2) and the outer ply (12.1, 112.1, 212.1) is smaller than or equal to the area of the outer ply (12.1, 112.1, 212.1), such that when the pyrotechnic expansion tube is used (14, 114, 214), the outer ply (12.1, 112.1, 212.1) becomes delaminated from the adjacent inner ply.
A method for verifying an intent of a user to activate voice command processing of a computing device, the method comprising: submitting a first audio signal to a keyword detector, the keyword detector producing a first indication of whether one or more words designed to activate the voice command processing are present in the first audio signal; submitting a second audio signal, received from an audio capture device communicatively coupled to the computing device, to the keyword detector producing a second indication of whether the one or more words designed to activate the voice command processing is present in the second audio signal; determining whether to activate the voice command processing based upon both the first and second indications of whether the one or more words are present; and refraining from activating the voice command processing of the device based upon first indication and the second indication both indicating that the one or more words are present. submitting a first audio signal to a keyword detector, the keyword detector producing a first indication of whether one or more words designed to activate the voice command processing are present in the first audio signal; submitting a second audio signal, received from an audio capture device communicatively coupled to the computing device, to the keyword detector producing a second indication of whether the one or more words designed to activate the voice command processing is present in the second audio signal; determining whether to activate the voice command processing based upon both the first and second indications of whether the one or more words are present; and refraining from activating the voice command processing of the device based upon first indication and the second indication both indicating that the one or more words are present.