mhurhangee/patent-ind-claim-en huggingface dataset:
A method for high-spatial and temporal resolution imaging of microvessels using an ultrasound system, the steps of the method comprising: (a) accessing ultrasound data with a computer system, the ultrasound data having been acquired with the ultrasound system from a region-of-interest in a subject in which a microbubble contrast agent was present when the ultrasound data were acquired; (b) generating microbubble signal data with the computer system by separating microbubble signals in the ultrasound data from other signals in the ultrasound data; (c) determining a point spread function (PSF) for the ultrasound system used to acquire the ultrasound data; (d) generating a cross-correlation map by: determining a first Nth power of the microbubble signal data, wherein N for the first Nth power is an integer greater than 1; determining a second Nth power of the PSF of the ultrasound system, wherein N for the second Nth power is an integer greater than 1; and generating the cross-correlation map between the first Nth power of the microbubble signal data and the second Nth power of the point spread function of the ultrasound system; and (e) producing a high spatial and temporal resolution microvessel image based at least in part on the generated cross-correlation map. (a) accessing ultrasound data with a computer system, the ultrasound data having been acquired with the ultrasound system from a region-of-interest in a subject in which a microbubble contrast agent was present when the ultrasound data were acquired; (b) generating microbubble signal data with the computer system by separating microbubble signals in the ultrasound data from other signals in the ultrasound data; (c) determining a point spread function (PSF) for the ultrasound system used to acquire the ultrasound data; (d) generating a cross-correlation map by: determining a first Nth power of the microbubble signal data, wherein N for the first Nth power is an integer greater than 1; determining a second Nth power of the PSF of the ultrasound system, wherein N for the second Nth power is an integer greater than 1; and generating the cross-correlation map between the first Nth power of the microbubble signal data and the second Nth power of the point spread function of the ultrasound system; and determining a first Nth power of the microbubble signal data, wherein N for the first Nth power is an integer greater than 1; determining a second Nth power of the PSF of the ultrasound system, wherein N for the second Nth power is an integer greater than 1; and generating the cross-correlation map between the first Nth power of the microbubble signal data and the second Nth power of the point spread function of the ultrasound system; and (e) producing a high spatial and temporal resolution microvessel image based at least in part on the generated cross-correlation map.
A band steering method for a wireless network comprising at least first and second radio bands, at least one access node , and a plurality of client devices , wherein the client devices either have single or dual band capability, the method comprising: receiving, by the access node, a probe request from one of said client devices on the first or second radio band, wherein the probe request indicates whether the client device has single or dual band capability; and generating, by the access node, a probe response if: (i) the probe request indicates that the client device has single band capability, or (ii) the probe request indicates that the client device has dual band capability and the probe request is received by the access node on the second radio band; and not generating, by the access node, a probe response if: (iii) the probe request indicates that the client device has dual band capability and the probe request is received by the access node on the first radio band; wherein the probe response is to cause the client device to use the first or second radio band for communications within the network, characterized in that the probe request comprises a WPS information element of the client device using Wi-Fi Protected Setup (WPS) Protocol, wherein the WPS information element indicates if the client device has single band or dual band capability. receiving, by the access node, a probe request from one of said client devices on the first or second radio band, wherein the probe request indicates whether the client device has single or dual band capability; and generating, by the access node, a probe response if: (i) the probe request indicates that the client device has single band capability, or (ii) the probe request indicates that the client device has dual band capability and the probe request is received by the access node on the second radio band; and (i) the probe request indicates that the client device has single band capability, or (ii) the probe request indicates that the client device has dual band capability and the probe request is received by the access node on the second radio band; and not generating, by the access node, a probe response if: (iii) the probe request indicates that the client device has dual band capability and the probe request is received by the access node on the first radio band; (iii) the probe request indicates that the client device has dual band capability and the probe request is received by the access node on the first radio band; wherein the probe response is to cause the client device to use the first or second radio band for communications within the network, characterized in that the probe request comprises a WPS information element of the client device using Wi-Fi Protected Setup (WPS) Protocol, wherein the WPS information element indicates if the client device has single band or dual band capability.
A method for generating ghost corrected magnetic resonance data, the method comprising: (a) accessing magnetic resonance data with a computer system, the magnetic resonance data being acquired from a subject with a magnetic resonance imaging (MRI) system using a reversed readout polarity echo planar imaging (EPI) acquisition comprising two sequential phase-encoded EPI acquisitions whose readout gradient polarities have opposite signs at onset; (b) accessing a signal model with the computer system, wherein the signal model includes a system response function that includes system response parameters associated with phase modulations corresponding to one of Nyquist ghost artifacts or complex ghosting artifacts due to one or more of anisotropic gradient delays, cross-term and higher-order readout eddy currents, or encoding gradient eddy currents; (c) constructing a cost function with the computer system, wherein the cost function is based on the signal model; (d) generating estimated system response parameter values by inputting the magnetic resonance data to the cost function and minimizing the cost function with the computer system, generating output as the estimated system response parameter values; and (e) generating ghost corrected data with the computer system using the estimated system response parameter values. (a) accessing magnetic resonance data with a computer system, the magnetic resonance data being acquired from a subject with a magnetic resonance imaging (MRI) system using a reversed readout polarity echo planar imaging (EPI) acquisition comprising two sequential phase-encoded EPI acquisitions whose readout gradient polarities have opposite signs at onset; (b) accessing a signal model with the computer system, wherein the signal model includes a system response function that includes system response parameters associated with phase modulations corresponding to one of Nyquist ghost artifacts or complex ghosting artifacts due to one or more of anisotropic gradient delays, cross-term and higher-order readout eddy currents, or encoding gradient eddy currents; (c) constructing a cost function with the computer system, wherein the cost function is based on the signal model; (d) generating estimated system response parameter values by inputting the magnetic resonance data to the cost function and minimizing the cost function with the computer system, generating output as the estimated system response parameter values; and (e) generating ghost corrected data with the computer system using the estimated system response parameter values.
A cathode for an electrochemical accumulator including: - a current collector , - an interfacing layer , the interfacing layer being coated on the current collector , and - an electrode , the electrode being formed by deposition, in particular by coating, of a first composition (C1) on the interfacing layer , the first composition (C1) having a potential of hydrogen greater than or equal to 10, the potential of hydrogen being measured at a temperature of 25°C, the first composition (C1) being a water-based cathode composition comprising a first insertion material (MI1), a first binder material (ML1) and first conductive additive (AC1), the interfacing layer being formed by deposition, in particular by coating, on the current collector of a second composition (C2), the second composition (C2) comprising a second binder material (ML2) and a second conductive additive (AC2), the second binder material (ML2) comprising a mixture of a first polymer and a second polymer, the first polymer being chosen from among polyimides, polyamide-imides, polyether-imides, and a mixture thereof, and the second polymer being chosen from among polyvinylpyrrolidone, polyvinyl alcohols, ethylene-vinyl alcohol copolymers, polyacrylic acid, and a mixture thereof. - a current collector , - an interfacing layer , the interfacing layer being coated on the current collector , and - an electrode , the electrode being formed by deposition, in particular by coating, of a first composition (C1) on the interfacing layer , the first composition (C1) having a potential of hydrogen greater than or equal to 10, the potential of hydrogen being measured at a temperature of 25°C, the first composition (C1) being a water-based cathode composition comprising a first insertion material (MI1), a first binder material (ML1) and first conductive additive (AC1), the interfacing layer being formed by deposition, in particular by coating, on the current collector of a second composition (C2), the second composition (C2) comprising a second binder material (ML2) and a second conductive additive (AC2), the first composition (C1) being a water-based cathode composition comprising a first insertion material (MI1), a first binder material (ML1) and first conductive additive (AC1), the interfacing layer being formed by deposition, in particular by coating, on the current collector of a second composition (C2), the second composition (C2) comprising a second binder material (ML2) and a second conductive additive (AC2), the second binder material (ML2) comprising a mixture of a first polymer and a second polymer, the first polymer being chosen from among polyimides, polyamide-imides, polyether-imides, and a mixture thereof, and the second polymer being chosen from among polyvinylpyrrolidone, polyvinyl alcohols, ethylene-vinyl alcohol copolymers, polyacrylic acid, and a mixture thereof.
A casing component configured for housing an antenna unit , comprising: a decorating film including a metal layer , the metal layer being formed on a base film by vapor deposition, fine cracks being formed in the metal layer by stretching the base film and a casing part ; wherein the casing part has a decorated region , the decorating film being adhered to the decorated region ; characterized in that the fine cracks are formed by performing biaxial stretching on the base film . a decorating film including a metal layer , the metal layer being formed on a base film by vapor deposition, fine cracks being formed in the metal layer by stretching the base film and a casing part ;
A frequency calibration method comprising: generating an input signal (230; 332; 410) based on an external RF signal (210; 310; 1310) and an oscillation signal (220; 320; 1330) generated by an oscillator; extracting, from the input signal (230; 332; 410), a frequency difference signal (920; 1340) having a frequency corresponding to a frequency difference between an external frequency of the external RF signal (210; 310; 1310) and an oscillation frequency of the oscillation signal (220; 320; 1330); generating a signal having the oscillation frequency (411; 1320) by removing an envelope of the input signal (230; 332; 410); generating a division signal (413; 910; 1350) by dividing by a division ratio the signal having the oscillation frequency (411; 1320); tuning the oscillation frequency of the oscillation signal (220; 320; 1330) of the oscillator to a target frequency based on a result of comparing the frequency of the frequency difference signal (920; 1340) to a frequency of the division signal (413; 910; 1350); detecting a signal strength of the frequency difference signal; continuing a frequency calibration in response to the signal strength of the frequency difference signal exceeding a threshold strength (V TH ); and terminating the frequency calibration in response to the signal strength of the frequency difference signal being less than or equal to the threshold strength (V TH ). generating an input signal (230; 332; 410) based on an external RF signal (210; 310; 1310) and an oscillation signal (220; 320; 1330) generated by an oscillator; extracting, from the input signal (230; 332; 410), a frequency difference signal (920; 1340) having a frequency corresponding to a frequency difference between an external frequency of the external RF signal (210; 310; 1310) and an oscillation frequency of the oscillation signal (220; 320; 1330); generating a signal having the oscillation frequency (411; 1320) by removing an envelope of the input signal (230; 332; 410); generating a division signal (413; 910; 1350) by dividing by a division ratio the signal having the oscillation frequency (411; 1320); tuning the oscillation frequency of the oscillation signal (220; 320; 1330) of the oscillator to a target frequency based on a result of comparing the frequency of the frequency difference signal (920; 1340) to a frequency of the division signal (413; 910; 1350); detecting a signal strength of the frequency difference signal; continuing a frequency calibration in response to the signal strength of the frequency difference signal exceeding a threshold strength (V TH ); and terminating the frequency calibration in response to the signal strength of the frequency difference signal being less than or equal to the threshold strength (V TH ).
A refrigerator comprising: a cabinet defining a first storage region for storing food; a door which opens and closes the first storage region and is filled with a thermal insulator therein; a gasket which is provided on an inner surface of the door and seals the first storage region from outdoor air by forming a sealing boundary when the door closes the first storage region ; a first hinge member with a first rotary shaft , which rotatably connects the door to the cabinet ; a container which is rotatably coupled to the door and defines a second storage region for storing food and is received in the first storage region ; a second hinge member with a second rotary shaft which rotatably connects the door to the container ; and a connection member coupling the first and second hinge members to each other, wherein the connection member is structurally coupled to the second hinge member within the door , in order to prevent distortions of the relative axial direction of the rotary shafts ; and to prevent a distortion of a position of a rotary shaft of the second hinge member relative to a rotary shaft of the first hinge member , wherein the container is received in the first storage region for storing food formed when the door closes the first storage region . a cabinet defining a first storage region for storing food; a door which opens and closes the first storage region and is filled with a thermal insulator therein; a gasket which is provided on an inner surface of the door and seals the first storage region from outdoor air by forming a sealing boundary when the door closes the first storage region ; a first hinge member with a first rotary shaft , which rotatably connects the door to the cabinet ; a container which is rotatably coupled to the door and defines a second storage region for storing food and is received in the first storage region ; a second hinge member with a second rotary shaft which rotatably connects the door to the container ; and a connection member coupling the first and second hinge members to each other, wherein the connection member is structurally coupled to the second hinge member within the door , in order to prevent distortions of the relative axial direction of the rotary shafts ; and to prevent a distortion of a position of a rotary shaft of the second hinge member relative to a rotary shaft of the first hinge member , wherein the container is received in the first storage region for storing food formed when the door closes the first storage region .
A mattress assembly , comprising: a base layer ; a coil layer disposed over the base layer , the coil layer comprising a plurality of pocketed coils ; an upper layer comprising a foam disposed over the coil layer ; an elastomeric cushioning element disposed over an upper surface of the upper layer ; and an outer covering encasing at least the elastomeric cushioning element , the upper layer , and the coil layer ; the mattress assembly characterized by : a stabilization material comprising a relatively thin material or a scrim fabric between the elastomeric cushioning element and the upper layer with portions of the elastomeric cushioning element seeping through the stabilization material and creating a non-slip or reduced slip surface on a lower surface of the stabilization material and contacting the upper surface of the upper layer ; and the elastomeric cushioning element comprising buckling walls interconnected to one another and defining voids , the elastomeric cushioning element having a thickness of about 5.08 cm (2.0 inches) to about 11.43 cm (4.5 inches). a base layer ; a coil layer disposed over the base layer , the coil layer comprising a plurality of pocketed coils ; an upper layer comprising a foam disposed over the coil layer ; an elastomeric cushioning element disposed over an upper surface of the upper layer ; and an outer covering encasing at least the elastomeric cushioning element , the upper layer , and the coil layer ; the mattress assembly characterized by : a stabilization material comprising a relatively thin material or a scrim fabric between the elastomeric cushioning element and the upper layer with portions of the elastomeric cushioning element seeping through the stabilization material and creating a non-slip or reduced slip surface on a lower surface of the stabilization material and contacting the upper surface of the upper layer ; and the elastomeric cushioning element comprising buckling walls interconnected to one another and defining voids , the elastomeric cushioning element having a thickness of about 5.08 cm (2.0 inches) to about 11.43 cm (4.5 inches). a stabilization material comprising a relatively thin material or a scrim fabric between the elastomeric cushioning element and the upper layer with portions of the elastomeric cushioning element seeping through the stabilization material and creating a non-slip or reduced slip surface on a lower surface of the stabilization material and contacting the upper surface of the upper layer ; and the elastomeric cushioning element comprising buckling walls interconnected to one another and defining voids , the elastomeric cushioning element having a thickness of about 5.08 cm (2.0 inches) to about 11.43 cm (4.5 inches).
A deep-hole drill comprising a drill head , wherein the drill head has an axis of rotation , a drill diameter (D), one or two cutting edges , wherein each cutting edge being associated with a rake face , and having one or two secondary cutting edges characterized in that in each rake face in the direction of the axis of rotation several chip formers and/or several troughs are arranged spaced from one another in the direction of the axis of rotation .
A composition comprising steviol glycosides and glycosylated steviol glycosides, wherein: the composition comprises steviol glycosides and glycosylated steviol glycosides in a total amount of at least 85% of the composition, on a dry weight basis; and glycosylated rebaudioside B, glycosylated steviolbioside, steviolbioside and rebaudioside B are each present and together comprise from 5 to 50%, on a dry weight basis, of the composition. the composition comprises steviol glycosides and glycosylated steviol glycosides in a total amount of at least 85% of the composition, on a dry weight basis; and glycosylated rebaudioside B, glycosylated steviolbioside, steviolbioside and rebaudioside B are each present and together comprise from 5 to 50%, on a dry weight basis, of the composition.
A method for autonomous optimization of a grinding process, comprising the steps of: a) Measuring a plurality of process parameters values during a grinding cycle by real time in-line sensing and/or between grinding cycles for a set of process variables values; b) Determining a computed characteristic value of the grinding process based on the measured process parameters values, predetermined data derived from constraints of the grinding process and/or economic data; c) Generating a surrogate model by means of a stochastic process as an approximation of an expected characteristic value and quantifying an uncertainty in the surrogate model; d) Using a predetermined acquisition function considering the surrogate model prediction and the uncertainty in the surrogate model to determine a set of new process variables values corresponding to the absolute maximum of the predetermined acquisition function; e) Repeating steps a) to d) until a predetermined stopping criterion is reached or until a predetermined number of expected characteristic values have been determined; and f) Determining, by means of the adjusted surrogate model, optimum process variables values corresponding to an optimum computed characteristic value. a) Measuring a plurality of process parameters values during a grinding cycle by real time in-line sensing and/or between grinding cycles for a set of process variables values; b) Determining a computed characteristic value of the grinding process based on the measured process parameters values, predetermined data derived from constraints of the grinding process and/or economic data; c) Generating a surrogate model by means of a stochastic process as an approximation of an expected characteristic value and quantifying an uncertainty in the surrogate model; d) Using a predetermined acquisition function considering the surrogate model prediction and the uncertainty in the surrogate model to determine a set of new process variables values corresponding to the absolute maximum of the predetermined acquisition function; e) Repeating steps a) to d) until a predetermined stopping criterion is reached or until a predetermined number of expected characteristic values have been determined; and f) Determining, by means of the adjusted surrogate model, optimum process variables values corresponding to an optimum computed characteristic value.