mhurhangee/ep-ind-claims huggingface dataset:
A defoamer formulation comprising up to 50% by weight of a polymer in a suitable diluent, the polymer being an acrylate polymer with 1-20 mol % of acrylic acid or a methacrylate polymer with 1-20 mol % methacrylic acid and the diluent being selected from diisodecyl phthalate, diisooctyl adipate, bis-2-ethylhexyl adipate, dioctyl adipate, 2-ethyl-1-hexanol, isooctyl alcohol, dihexyl phthalate, or mixtures thereof; 20-80% by weight of an organic carrier, the organic carrier being selected from polybutenes having a molecular weight of from 300-1300 atomic mass units, fatty acid esters, polyethylene glycol, polypropylene glycol, or mixtures thereof; up to 15% by weight of an additive selected from hydrophobic silica, fatty alcohols, fatty acids, or mixtures thereof; and optionally up to 30% by weight of a surfactant selected from polypropylene triol, butoxy polypropylene polyethylene glycol,alkoxylated dimethylpolysiloxane, alkyl modified siloxanes, polyether-modified polysiloxanes, fluorine modified siloxanes, mercapto modified siloxanes, siloxane wax, hydroxy modified siloxanes, ethylene oxide/propylene oxide block copolymer, the esters of polyethylene glycol, polypropylene glycol, polypropylene triol, butoxy polypropylene polyethylene glycol, ethylene oxide/propylene oxide block copolymer, alkylpolyoxyethylene ethers, alkylpolyoxyethylenes, polyoxypropylene ethers, polyoxyethylene castor oils, alkylpolyoxyethylene amines and amides, or mixtures thereof, wherein the defoamer formulation does not contain oil or free silicone.
A method of receiving data by a user equipment, UE, on an unlicensed band in a wireless communication system, the method performed by the UE and comprising: receiving, from a base station, BS, first information related to a presence of data to be transmitted to the UE; receiving a timer value from the BS; performing channel sensing in a duration in which a timer, which is based on the timer value, runs; determining that a channel is in use based on the performed channel sensing; based on (i) that the timer has expired and (ii) the determination that the channel is in use, transmitting, to the BS, second information informing that it is impossible to receive data; and receiving, from the BS, fifth information related to a presence of data to be transmitted to the UE, wherein the fifth information is transmitted from the BS based on that the second information is received by the BS, and wherein the fifth information includes a receiver address, which is different from a receiver address of the first information. receiving, from a base station, BS, first information related to a presence of data to be transmitted to the UE; receiving a timer value from the BS; performing channel sensing in a duration in which a timer, which is based on the timer value, runs; determining that a channel is in use based on the performed channel sensing; based on (i) that the timer has expired and (ii) the determination that the channel is in use, transmitting, to the BS, second information informing that it is impossible to receive data; and receiving, from the BS, fifth information related to a presence of data to be transmitted to the UE, wherein the fifth information is transmitted from the BS based on that the second information is received by the BS, and wherein the fifth information includes a receiver address, which is different from a receiver address of the first information.
A method for execution on a processor, comprising: identifying a game state of a game being executed for display on a head mounted display, the game state including a location in a virtual world of an avatar controlled by a user wearing the HMD; obtaining user intensity ratings from user play of the game, the user intensity ratings representing a level of sensory stimulus presented to users during the user play of the game via an HMD of the respective users, wherein the user intensity ratings are received from users that enter a subjective rating of an intensity being delivered by the game at different times during the user play, determining a game intensity value for said game state based on the obtained user intensity ratings, wherein the level of sensory stimulus for the game is corresponded to intensity game areas having game intensity values determined from the intensity ratings collected from said user play of the game; wherein the intensity game areas are defined using a statistical analysis of the intensity ratings by identifying clusters including a high concentration of intensity ratings; and presenting the game intensity value to the HMD for rendering during execution of the game before the user enters one of said intensity game areas during play of the game, the game intensity value being indicative of likely discomfort for increased game intensity values, the game intensity value rendered as one or more of a game intensity bar, or a numerical value, or a sound, or a verbal output, or a color selected from a plurality of colors associated with respective game intensity values. identifying a game state of a game being executed for display on a head mounted display, the game state including a location in a virtual world of an avatar controlled by a user wearing the HMD; obtaining user intensity ratings from user play of the game, the user intensity ratings representing a level of sensory stimulus presented to users during the user play of the game via an HMD of the respective users, wherein the user intensity ratings are received from users that enter a subjective rating of an intensity being delivered by the game at different times during the user play, determining a game intensity value for said game state based on the obtained user intensity ratings, wherein the level of sensory stimulus for the game is corresponded to intensity game areas having game intensity values determined from the intensity ratings collected from said user play of the game; wherein the intensity game areas are defined using a statistical analysis of the intensity ratings by identifying clusters including a high concentration of intensity ratings; and presenting the game intensity value to the HMD for rendering during execution of the game before the user enters one of said intensity game areas during play of the game, the game intensity value being indicative of likely discomfort for increased game intensity values, the game intensity value rendered as one or more of a game intensity bar, or a numerical value, or a sound, or a verbal output, or a color selected from a plurality of colors associated with respective game intensity values.
An ink jet recording apparatus comprising: an aqueous ink composition; a liquid ejecting head having a nozzle for discharging the aqueous ink composition; and a cap member for protecting the nozzle, wherein: the aqueous ink composition has a surface tension of 40 mN/m or less; the cap member has a coating film containing a silicone defoamer on a contact surface with the nozzle; characterized in that: the aqueous ink composition contains a wax having a melting point of 100°C or more. an aqueous ink composition; a liquid ejecting head having a nozzle for discharging the aqueous ink composition; and a cap member for protecting the nozzle, wherein: the aqueous ink composition has a surface tension of 40 mN/m or less; the cap member has a coating film containing a silicone defoamer on a contact surface with the nozzle; characterized in that: the aqueous ink composition contains a wax having a melting point of 100°C or more. the aqueous ink composition has a surface tension of 40 mN/m or less; the cap member has a coating film containing a silicone defoamer on a contact surface with the nozzle;
An energy storage device comprising: a positive electrode, a negative electrode, a separator disposed between the positive electrode and the negative electrode, a nonaqueous electrolyte, and an insulating layer disposed between the positive electrode and the separator, wherein the positive electrode contains a compound represented by Li a Ni b Co c M d W x Nb y Zr z O 2, provided that a, b, c, d, x, y and z satisfy the equations of 0 ≤ a ≤ 1.2, 0 ≤ b ≤ 1, 0.1 ≤ c ≤ 0.4, 0 ≤ d ≤ 0.5, 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.1, 0 ≤ z ≤ 0.1 and b + c + d = 1, and M denotes at least one kind of element selected from the group consisting of Mn, Ti, Cr, Fe, Co, Cu, Zn, Al, Ge, Sn and Mg, as a positive active material and the negative electrode contains hardly graphitizable carbon with a D50 particle diameter greater than or equal to 1.0 μm and less than or equal to 6.0 μm as a negative active material, and wherein the negative electrode includes a negative substrate layer and a negative composite layer containing the negative active material on the negative substrate layer, characterized in that the proportion of a D90 particle diameter of the negative active material to the thickness of the negative composite layer disposed at one side of the negative substrate layer is greater than or equal to 0.07 and less than or equal to 0.7.
A carrier assembly for receiving an RFID transponder chip, the carrier assembly having an attachment side for being attached to a consumer device and having an operation side for receiving an RF signal in operational use of the RFID transponder chip, wherein: - the carrier assembly comprises a layer stack that includes an antenna layer, a magnetic layer, and an electrically conductive shielding layer; - the antenna layer is arranged between the operation side and the magnetic layer; - the electrically conductive shielding layer is arranged between the magnetic layer and the attachment side; - the antenna layer comprises an antenna having contacts (T1, T2) for being coupled to the RFID transponder chip; wherein an outer contour of a first projection of the magnetic layer in the direction perpendicular to the antenna layer fully encloses the outer contour of a second projection of the antenna in the direction perpendicular to the antenna layer; characterized in that an outer contour of the second projection of the antenna in a direction perpendicular to the antenna layer fully encloses an outer contour of a third projection of the electrically conductive shielding layer in the direction perpendicular to the antenna layer. - the carrier assembly comprises a layer stack that includes an antenna layer, a magnetic layer, and an electrically conductive shielding layer; - the antenna layer is arranged between the operation side and the magnetic layer; - the electrically conductive shielding layer is arranged between the magnetic layer and the attachment side; - the antenna layer comprises an antenna having contacts (T1, T2) for being coupled to the RFID transponder chip; wherein an outer contour of a first projection of the magnetic layer in the direction perpendicular to the antenna layer fully encloses the outer contour of a second projection of the antenna in the direction perpendicular to the antenna layer; characterized in that an outer contour of the second projection of the antenna in a direction perpendicular to the antenna layer fully encloses an outer contour of a third projection of the electrically conductive shielding layer in the direction perpendicular to the antenna layer.
A solar cell lead wire, comprising: a strip-shaped conductive material formed by slitting; and upper and lower melt solder-plated layers formed to be flat on upper and lower surfaces respectively of the strip-shaped conductive material by supplying melt solder thereto, wherein the lower surface of the strip-shaped conductive material is formed to be depressed, characterized in that the lower melt solder-plated layer formed on the lower surface of the strip-shaped conductive material has a plating thickness of not less than 5 μm at both ends. a strip-shaped conductive material formed by slitting; and upper and lower melt solder-plated layers formed to be flat on upper and lower surfaces respectively of the strip-shaped conductive material by supplying melt solder thereto, wherein the lower surface of the strip-shaped conductive material is formed to be depressed, characterized in that the lower melt solder-plated layer formed on the lower surface of the strip-shaped conductive material has a plating thickness of not less than 5 μm at both ends.
A receiver of an FBMC signal synthesised by means of a bank of N synthesis filters having an overlap factor K, said receiver comprising: - an FFT module of size KN in order to effect an FFT on a block of KN samples of said signal, after baseband demodulation, and to supply a block of KN samples in the frequency domain, corresponding to KN subcarriers: - a filtering module per bank of N analysis and spectral de-spreading filters in the frequency domain, said receiver also comprising: - an estimator for estimating the carrier frequency offset between the carrier frequency of the signal and the baseband demodulation frequency of the receiver; - a shift module downstream of the FFT module shifting the samples at the output of the FFT by a predetermined number of samples according to the carrier frequency offset estimated by said estimator; - an interference reduction filter in order to reduce the interference between subcarriers by means of a multiplication by a matrix having a band of non-zero coefficients of width 2 Q +1, around the main diagonal, with Q < K, and zeroes everywhere else, said interference reduction filter operating on blocks of samples at the output of the shift module and supplying them to the filtering and spectral de-spreading module. - an FFT module of size KN in order to effect an FFT on a block of KN samples of said signal, after baseband demodulation, and to supply a block of KN samples in the frequency domain, corresponding to KN subcarriers: - a filtering module per bank of N analysis and spectral de-spreading filters in the frequency domain, said receiver also comprising: - an estimator for estimating the carrier frequency offset between the carrier frequency of the signal and the baseband demodulation frequency of the receiver; - a shift module downstream of the FFT module shifting the samples at the output of the FFT by a predetermined number of samples according to the carrier frequency offset estimated by said estimator; - an interference reduction filter in order to reduce the interference between subcarriers by means of a multiplication by a matrix having a band of non-zero coefficients of width 2 Q +1, around the main diagonal, with Q < K, and zeroes everywhere else, said interference reduction filter operating on blocks of samples at the output of the shift module and supplying them to the filtering and spectral de-spreading module.
Watch striking mechanism, the mechanism including: - a gong, which is connected to a gong-carrier, - a hammer mounted on a plate to strike the gong at predetermined times, - a damper counter-spring for keeping the hammer away from the gong in an idle mode, and - a drive spring for the hammer, which includes a fixed end and an end that is free to move, said spring being able to be wound to drive said hammer against the gong in a strike mode to produce an acoustic sound, characterized in that it includes means for actuating the damper counter-spring in a strike mode with a time lag after the hammer strikes the gong, so that after the hammer has struck the gong, the counter-spring pushes said hammer towards an idle position, said means for actuating the damper counter-spring in the strike mode including a stop member (10, 12) arranged on the path of the drive spring, and in that the hammer includes a shaft, which is kept in contact with a first end of the counter-spring and the free end of the drive spring in an idle mode, and which is driven by the free end of the drive spring when said spring is in action when the hammer strikes the gong. - a gong, which is connected to a gong-carrier, - a hammer mounted on a plate to strike the gong at predetermined times, - a damper counter-spring for keeping the hammer away from the gong in an idle mode, and - a drive spring for the hammer, which includes a fixed end and an end that is free to move, said spring being able to be wound to drive said hammer against the gong in a strike mode to produce an acoustic sound,
A marine propulsion system (102, 202, 302, 402) comprising: a propulsion device configured to be on or in a hull; an up-and-down movement sensor configured to measure at least one of an up-and-down speed or an up-and-down acceleration of the hull; and a controller (4, 204, 304, 404) configured or programmed to control driving of the propulsion device, and perform a wave control including an attitude control to reduce an up-and-down attitude change of the hull by temporarily reducing a vessel speed based on a measurement result of the up-and-down movement sensor each time a marine vessel rides over a wave when waves are occurring; characterised in that the controller is configured or programmed to, in the wave control, make a wave direction determination to determine whether a wave condition relative to the hull is a head wave or a following wave based on at least the measurement result of the up-and-down movement sensor, perform the attitude control when determining that the wave condition is the head wave in the wave direction determination, and not perform the attitude control when determining that the wave condition is the following wave in the wave direction determination. a propulsion device configured to be on or in a hull; an up-and-down movement sensor configured to measure at least one of an up-and-down speed or an up-and-down acceleration of the hull; and a controller (4, 204, 304, 404) configured or programmed to control driving of the propulsion device, and perform a wave control including an attitude control to reduce an up-and-down attitude change of the hull by temporarily reducing a vessel speed based on a measurement result of the up-and-down movement sensor each time a marine vessel rides over a wave when waves are occurring; characterised in that the controller is configured or programmed to, in the wave control, make a wave direction determination to determine whether a wave condition relative to the hull is a head wave or a following wave based on at least the measurement result of the up-and-down movement sensor, perform the attitude control when determining that the wave condition is the head wave in the wave direction determination, and not perform the attitude control when determining that the wave condition is the following wave in the wave direction determination.
An audio decoder (100; 300) for providing a decoded audio information (112;312) on the basis of an encoded audio information (110; 310), the audio decoder comprising: an error concealment (130; 380; 500) configured to provide an error concealment audio information (132; 382; 512) for concealing a loss of an audio frame following an audio frame encoded in a frequency domain representation using a time domain excitation signal; wherein the error concealment (130;380;500) is configured to copy a pitch cycle of the time domain excitation signal derived from the audio frame encoded in the frequency domain representation preceding the lost audio frame one time or multiple times, in order to obtain a excitation signal for a synthesis of the error concealment audio information (132; 382; 512); characterised in that the error concealment (130; 380; 500) is configured to low-pass filter the pitch cycle of the time domain excitation signal derived from the time domain representation of the audio frame encoded in the frequency domain representation preceding the lost audio frame using a sampling-rate dependent filter, a bandwidth of which is dependent on a sampling rate of the audio frame encoded in a frequency domain representation. an error concealment (130; 380; 500) configured to provide an error concealment audio information (132; 382; 512) for concealing a loss of an audio frame following an audio frame encoded in a frequency domain representation using a time domain excitation signal; wherein the error concealment (130;380;500) is configured to copy a pitch cycle of the time domain excitation signal derived from the audio frame encoded in the frequency domain representation preceding the lost audio frame one time or multiple times, in order to obtain a excitation signal for a synthesis of the error concealment audio information (132; 382; 512); characterised in that the error concealment (130; 380; 500) is configured to low-pass filter the pitch cycle of the time domain excitation signal derived from the time domain representation of the audio frame encoded in the frequency domain representation preceding the lost audio frame using a sampling-rate dependent filter, a bandwidth of which is dependent on a sampling rate of the audio frame encoded in a frequency domain representation.
An apparatus for controlling a formation flight of a trailing aircraft relative to a vortex generated by a leading aircraft, comprising: a position module configured to determine a position of the vortex relative to the trailing aircraft based on an estimator state vector comprising a relative position between the vortex and trailing aircraft, wherein the position module is further configured to update the estimator state vector based on a comparison between the position of the vortex relative to the trailing aircraft determined by the position module and at least one actual measurement of the relative position of the trailing aircraft with respect to the vortex; a desired position module configured to determine a desired position of the trailing aircraft relative to the vortex for providing desired vortex-induced aerodynamic benefits based on the position of the vortex; and a control module configured to control flight of the trailing aircraft based on the desired position of the trailing aircraft. a position module configured to determine a position of the vortex relative to the trailing aircraft based on an estimator state vector comprising a relative position between the vortex and trailing aircraft, wherein the position module is further configured to update the estimator state vector based on a comparison between the position of the vortex relative to the trailing aircraft determined by the position module and at least one actual measurement of the relative position of the trailing aircraft with respect to the vortex; a desired position module configured to determine a desired position of the trailing aircraft relative to the vortex for providing desired vortex-induced aerodynamic benefits based on the position of the vortex; and a control module configured to control flight of the trailing aircraft based on the desired position of the trailing aircraft.