mhurhangee/patent-ind-claim-en huggingface dataset:
An augmented reality, AR, display apparatus, comprising: an outputter configured to output a first radiation including visual information in a predetermined first spectrum and reflect a p-polarized radiation from a second radiation of a second spectrum different from the first spectrum; a polarizing plate configured to absorb a first s-polarized radiation from the first radiation while transmitting a first p-polarized radiation from the first radiation and absorb a second s-polarized radiation from the second radiation while transmitting the second p-polarized radiation ; and an optical layer configured to reflect at least a portion of the first p-polarized radiation incident on a first side of the optical layer , in particular, with a wavelength corresponding to the predetermined first spectrum; the display apparatus characterized in that the optical layer comprises a multiband dichroic coating such that the second radiation of the second spectrum is passed through the optical layer when incident on a second side of the optical layer , the second side opposing the first side of the optical layer , a third radiation with a wavelength corresponding to the predetermined first spectrum is reflected when incident on the second side of the optical layer , and the second p-polarized radiation is passing through the optical layer when incident on the first side of the optical layer . an outputter configured to output a first radiation including visual information in a predetermined first spectrum and reflect a p-polarized radiation from a second radiation of a second spectrum different from the first spectrum; a polarizing plate configured to absorb a first s-polarized radiation from the first radiation while transmitting a first p-polarized radiation from the first radiation and absorb a second s-polarized radiation from the second radiation while transmitting the second p-polarized radiation ; and an optical layer configured to reflect at least a portion of the first p-polarized radiation incident on a first side of the optical layer , in particular, with a wavelength corresponding to the predetermined first spectrum; the display apparatus characterized in that the optical layer comprises a multiband dichroic coating such that the second radiation of the second spectrum is passed through the optical layer when incident on a second side of the optical layer , the second side opposing the first side of the optical layer , a third radiation with a wavelength corresponding to the predetermined first spectrum is reflected when incident on the second side of the optical layer , and the second p-polarized radiation is passing through the optical layer when incident on the first side of the optical layer .
A method for manufacturing an electrode, comprising: cleaning an end of a coated part contacting a non-coated part by irradiating laser to a top-coated electrode mixture layer and a back-coated electrode mixture layer of an electrode current collector along a boundary line of the coated part, wherein the cleaning is performed so that a line of irradiating laser to the top-coated electrode mixture layer of the electrode current collector and a line of irradiating laser to the back-coated electrode mixture layer of the electrode current collector correspond to each other in a direction perpendicular to that of the electrode current collector , wherein during the cleaning, a process of irradiating laser to the top-coated electrode mixture layer of the electrode current collector ; and a process of irradiating laser to the back-coated electrode mixture layer of the electrode current collector are performed simultaneously. cleaning an end of a coated part contacting a non-coated part by irradiating laser to a top-coated electrode mixture layer and a back-coated electrode mixture layer of an electrode current collector along a boundary line of the coated part, wherein the cleaning is performed so that a line of irradiating laser to the top-coated electrode mixture layer of the electrode current collector and a line of irradiating laser to the back-coated electrode mixture layer of the electrode current collector correspond to each other in a direction perpendicular to that of the electrode current collector , wherein during the cleaning, a process of irradiating laser to the top-coated electrode mixture layer of the electrode current collector ; and a process of irradiating laser to the back-coated electrode mixture layer of the electrode current collector are performed simultaneously.
A fuel injector assembly for a combustor comprising: a fuel nozzle configured to inject fuel into the combustor, wherein the fuel nozzle comprises an axial inflow swirler arranged within a nozzle air passage configured to produce a first airstream into the combustor, a fuel filmer lip configured to form a first fuel film at a downstream end of the fuel nozzle, a fuel swirler disposed upstream of the fuel filmer lip and radially outward of the axial inflow swirler and located outside of the nozzle air passage, and a fuel filmer associated with the fuel swirler, the fuel filmer terminating proximate the fuel filmer lip, the fuel filmer proximate the downstream end of the fuel nozzle; a first radial inflow swirler having a first plurality of vanes configured to produce a second airstream into the combustor, wherein the first radial inflow swirler is mounted to the combustor as opposed to the fuel nozzle and spaced radially outward of the downstream end of the fuel nozzle ; and a radial inflow swirler cone extending from the vanes of the first radial inflow swirler through a bulkhead of the combustor and into a combustion chamber of the combustor. a fuel nozzle configured to inject fuel into the combustor, wherein the fuel nozzle comprises an axial inflow swirler arranged within a nozzle air passage configured to produce a first airstream into the combustor, a fuel filmer lip configured to form a first fuel film at a downstream end of the fuel nozzle, a fuel swirler disposed upstream of the fuel filmer lip and radially outward of the axial inflow swirler and located outside of the nozzle air passage, and a fuel filmer associated with the fuel swirler, the fuel filmer terminating proximate the fuel filmer lip, the fuel filmer proximate the downstream end of the fuel nozzle; a first radial inflow swirler having a first plurality of vanes configured to produce a second airstream into the combustor, wherein the first radial inflow swirler is mounted to the combustor as opposed to the fuel nozzle and spaced radially outward of the downstream end of the fuel nozzle ; and a radial inflow swirler cone extending from the vanes of the first radial inflow swirler through a bulkhead of the combustor and into a combustion chamber of the combustor.
A slot format indication method, which is applied to a base station , comprising: determining a plurality of Listen Before Talk, LBT, bandwidth units, BW units, included in an active bandwidth part, BWP, in a target serving cell corresponding to a terminal; performing LBT on the plurality of LBT BW units; determining , from the plurality of LBT BW units, at least one LBT BW unit of which a corresponding channel is idle, as a target LBT BW unit; and sending downlink control information, DCI, to the terminal, wherein the DCI comprises one or more types of slot format indications, SFIs, of one or more target LBT BW units. determining a plurality of Listen Before Talk, LBT, bandwidth units, BW units, included in an active bandwidth part, BWP, in a target serving cell corresponding to a terminal; performing LBT on the plurality of LBT BW units; determining , from the plurality of LBT BW units, at least one LBT BW unit of which a corresponding channel is idle, as a target LBT BW unit; and sending downlink control information, DCI, to the terminal, wherein the DCI comprises one or more types of slot format indications, SFIs, of one or more target LBT BW units.
An information processing device comprising: an image display unit configured to display an image, the image display unit being head-mounted by a user , a cylindrical coordinate system (C) being defined around the user serving as the center thereof; a sound output unit configured to output a sound; a computation unit configured to compute coordinates of the display region (A) of the image display unit in the cylindrical coordinate system (C) based on information indicating the direction of the image display unit ; a position designation unit configured to designate a position of a target (T) outside the display region (A) of the image display unit in the cylindrical coordinate system (C); a trajectory setting unit configured to set a trajectory of an augmented reality, AR, object such that the AR object moves toward the designated position, the trajectory passing through the display region (A) of the image display unit at least once, the trajectory being defined by a sequence of points in the cylindrical coordinate system (C); and a control unit configured to control output of a sound of the AR object while moving the AR object with constant speed according to the trajectory set by the trajectory setting unit to indicate the target (T), wherein the control unit causes an image of the AR object to be displayed when the AR object passes through the display region (A) of the image display unit . an image display unit configured to display an image, the image display unit being head-mounted by a user , a cylindrical coordinate system (C) being defined around the user serving as the center thereof; a sound output unit configured to output a sound; a computation unit configured to compute coordinates of the display region (A) of the image display unit in the cylindrical coordinate system (C) based on information indicating the direction of the image display unit ; a position designation unit configured to designate a position of a target (T) outside the display region (A) of the image display unit in the cylindrical coordinate system (C); a trajectory setting unit configured to set a trajectory of an augmented reality, AR, object such that the AR object moves toward the designated position, the trajectory passing through the display region (A) of the image display unit at least once, the trajectory being defined by a sequence of points in the cylindrical coordinate system (C); and a control unit configured to control output of a sound of the AR object while moving the AR object with constant speed according to the trajectory set by the trajectory setting unit to indicate the target (T), wherein the control unit causes an image of the AR object to be displayed when the AR object passes through the display region (A) of the image display unit .
A system for determining a classification for a disassembled binary file according to the presence of malware in said file, comprising: at least one processor; and at least one memory including program code which when executed by the at least one memory provides operations comprising: receiving a disassembled binary file that includes a plurality of instructions; processing the disassembled binary file with a convolutional neural network configured to detect a presence of one or more sequences of instructions amongst the plurality of instructions and determine the classification for the disassembled binary file based at least in part on the presence of the one or more sequences of instructions; and providing, as an output, the classification of the disassembled binary file wherein the convolutional neural network is configured to apply a first plurality of kernels to the disassembled binary file, and wherein each of the first plurality of kernels is adapted to detect a different sequence of two or more instructions; wherein the convolutional neural network is further configured to apply a second plurality of kernels to the output from the first plurality of kernels, and wherein each of the second plurality of kernels is adapted to detect a different sequence of two or more sequences of instructions. receiving a disassembled binary file that includes a plurality of instructions; processing the disassembled binary file with a convolutional neural network configured to detect a presence of one or more sequences of instructions amongst the plurality of instructions and determine the classification for the disassembled binary file based at least in part on the presence of the one or more sequences of instructions; and providing, as an output, the classification of the disassembled binary file wherein the convolutional neural network is configured to apply a first plurality of kernels to the disassembled binary file, and wherein each of the first plurality of kernels is adapted to detect a different sequence of two or more instructions; wherein the convolutional neural network is further configured to apply a second plurality of kernels to the output from the first plurality of kernels, and wherein each of the second plurality of kernels is adapted to detect a different sequence of two or more sequences of instructions.
A method of establishing a wireless communications link performed by an aircraft terminal, AT, comprising: determining a timing offset based at least in part on a propagation delay between the AT and a ground station; transmitting an initial access message to the ground station based at least in part on the determined timing offset; receiving an access response message from the ground station that includes a timing alignment value; adjusting the timing offset based at least in part on the timing alignment value; and transmitting a connection message based at least in part on the adjusted timing offset, the connection message including location information of the AT. determining a timing offset based at least in part on a propagation delay between the AT and a ground station; transmitting an initial access message to the ground station based at least in part on the determined timing offset; receiving an access response message from the ground station that includes a timing alignment value; adjusting the timing offset based at least in part on the timing alignment value; and transmitting a connection message based at least in part on the adjusted timing offset, the connection message including location information of the AT.
A method for controlling a restricted user equipment, UE, capability of a terminal, the method comprising: sending , by a base station, UE capability configuration information to the terminal, wherein the UE capability configuration information is used to indicate whether the terminal can send to the base station a request message for using the restricted UE capability; and sending , by the base station, a response message confirming the use of the restricted UE capability to the terminal in response to receiving the request message for using the restricted UE capability sent by the terminal. sending , by a base station, UE capability configuration information to the terminal, wherein the UE capability configuration information is used to indicate whether the terminal can send to the base station a request message for using the restricted UE capability; and sending , by the base station, a response message confirming the use of the restricted UE capability to the terminal in response to receiving the request message for using the restricted UE capability sent by the terminal.
Wind turbine tower, with a plurality of concrete tower segments which are placed one on top of another on a foundation so as to form the tower , wherein a lowest concrete tower segment has a lower end face , wherein a plurality of cavities and through bores are provided in the lower region of the lowest tower segment, wherein the through bores are provided between the lower end face of the lowest tower segment and a bottom of each cavity , wherein each cavity is configured for receiving a levelling unit for levelling the lowest tower segment on the foundation, wherein the plurality of cavities are provided on an inside of the lowest tower segment and are open towards an inner side, further comprising: a plurality of levelling units which are placed in the cavities , wherein each levelling unit has a supporting foot and a rod which are inserted through the respective through bore into the respective cavity , wherein each levelling unit is configured to set a separation of the rod between the respective cavity and the lower end of the supporting foot . a plurality of levelling units which are placed in the cavities , wherein each levelling unit has a supporting foot and a rod which are inserted through the respective through bore into the respective cavity , wherein each levelling unit is configured to set a separation of the rod between the respective cavity and the lower end of the supporting foot .
A method for qualitative analysis of an insoluble pigment compound, comprising the steps of: (a) determining a molecular weight of the insoluble pigment compound with mass spectrometry MS; and (b) bringing the pigment compound into degradation by ultrasonic treatment in a solvent to form partial structural compounds and analyzing the partial structural compounds by liquid chromatography/mass spectrometry LC/MS and nuclear magnetic resonance NMR. (a) determining a molecular weight of the insoluble pigment compound with mass spectrometry MS; and (b) bringing the pigment compound into degradation by ultrasonic treatment in a solvent to form partial structural compounds and analyzing the partial structural compounds by liquid chromatography/mass spectrometry LC/MS and nuclear magnetic resonance NMR.
A method for multibeam coverage of a region of the surface of the Earth comprising: - the generation, by a telecommunications payload embedded on a satellite, of a plurality of radiofrequency beams, called elementary beams (FE1, FE2, FE4); - the formation of a plurality of radiofrequency beams, called composite beams (FC', FC"), having footprints on the ground of different sizes, each said composite beam being obtained by the grouping of one or more elementary beams; and - the transmission or the reception of data through said composite beams, identical data being transmitted or received through all the elementary beams forming one and the same composite beam; wherein at least one said composite beam is formed by the grouping of a plurality of non-adjacent elementary beams of the same colour, a colour being defined by a frequency band and a polarisation state, and the method comprising introducing a phase shift between at least two of said non-adjacent elementary beams of the same colour forming said composite beam. - the generation, by a telecommunications payload embedded on a satellite, of a plurality of radiofrequency beams, called elementary beams (FE1, FE2, FE4); - the formation of a plurality of radiofrequency beams, called composite beams (FC', FC"), having footprints on the ground of different sizes, each said composite beam being obtained by the grouping of one or more elementary beams; and - the transmission or the reception of data through said composite beams, identical data being transmitted or received through all the elementary beams forming one and the same composite beam; wherein at least one said composite beam is formed by the grouping of a plurality of non-adjacent elementary beams of the same colour, a colour being defined by a frequency band and a polarisation state, and the method comprising introducing a phase shift between at least two of said non-adjacent elementary beams of the same colour forming said composite beam. wherein at least one said composite beam is formed by the grouping of a plurality of non-adjacent elementary beams of the same colour, a colour being defined by a frequency band and a polarisation state, and the method comprising introducing a phase shift between at least two of said non-adjacent elementary beams of the same colour forming said composite beam.
A system comprising: a frequency modulated signal generator producing a frequency modulated continuous wave signal; a feed system coupled to the frequency modulated signal generator for propagating the frequency modulated continuous wave signal; and an array of antenna elements coupled to the feed system and configured to be excited by the frequency modulated continuous wave signal, each of the antenna elements including a resonant frequency that is determined to generate a radiative field pattern corresponding to a known goal field pattern when the array of antenna elements is excited by the frequency modulated continuous wave signal, wherein each antenna element includes an individual passive antenna lacking an amplifier and lacking a phase shifter; characterised in that the resonant frequency of each of the antenna elements is determined such that, at a particular excitation frequency of the frequency modulated continuous wave signal, a subset of antenna elements in the array of antenna elements produce the radiative field pattern within an error criterion of the known goal field pattern and wherein different field patterns are generated at different excitation frequencies. a frequency modulated signal generator producing a frequency modulated continuous wave signal; a feed system coupled to the frequency modulated signal generator for propagating the frequency modulated continuous wave signal; and an array of antenna elements coupled to the feed system and configured to be excited by the frequency modulated continuous wave signal, each of the antenna elements including a resonant frequency that is determined to generate a radiative field pattern corresponding to a known goal field pattern when the array of antenna elements is excited by the frequency modulated continuous wave signal, wherein each antenna element includes an individual passive antenna lacking an amplifier and lacking a phase shifter; characterised in that the resonant frequency of each of the antenna elements is determined such that, at a particular excitation frequency of the frequency modulated continuous wave signal, a subset of antenna elements in the array of antenna elements produce the radiative field pattern within an error criterion of the known goal field pattern and wherein different field patterns are generated at different excitation frequencies.
A system for transferring liquefied gas between a first facility and a second facility, said transfer system including: - an articulated arm including a first proximal part suitable for being mounted so that it can rotate on the first facility about a first vertical axis (A), a second median part that is mounted pivoting on the first proximal part about a second axis (B) and a third distal part that is mounted pivoting on the second median part about a third axis (C); and - at least one transfer line , suitable for transferring liquefied gas between the first facility and the second facility, and including a flexible first proximal portion suitable for being connected to a liquefied gas storage tank of the first facility; a rigid second median portion that is fastened to the second median part of the articulated arm and a third distal portion that is suspended on the third distal part of the articulated arm and has an end suitable for being connected to a manifold of the second facility, characterized in that the second median portion is provided with a valve . - an articulated arm including a first proximal part suitable for being mounted so that it can rotate on the first facility about a first vertical axis (A), a second median part that is mounted pivoting on the first proximal part about a second axis (B) and a third distal part that is mounted pivoting on the second median part about a third axis (C); and - at least one transfer line , suitable for transferring liquefied gas between the first facility and the second facility, and including a flexible first proximal portion suitable for being connected to a liquefied gas storage tank of the first facility; a rigid second median portion that is fastened to the second median part of the articulated arm and a third distal portion that is suspended on the third distal part of the articulated arm and has an end suitable for being connected to a manifold of the second facility, characterized in that the second median portion is provided with a valve .