mhurhangee/ep-ind-claims huggingface dataset:
Method performed by a transform audio decoder for supporting bandwidth extension, BWE, of an harmonic audio signal, the method comprising: - receiving a plurality of gain values associated with a frequency band b and a number of adjacent frequency bands of band b; - determining whether a reconstructed corresponding frequency band b' of a bandwidth extended frequency region comprises a spectral peak, and: when the reconstructed frequency band b' comprises at least one spectral peak: - setting (406a:1) a gain value associated with the reconstructed frequency band b' to a first value based on the received plurality of gain values; wherein the first value is a weighted sum of the received plurality of gain values, and when the reconstructed frequency band b' does not comprise any spectral peak: - setting (406a:2) a gain value associated with the reconstructed frequency band b' to a second value based on the received plurality of gain values, wherein the second value is lower than or equal to the first value, thus enabling bringing gain values into agreement with peak positions in the bandwidth extended frequency region. - receiving a plurality of gain values associated with a frequency band b and a number of adjacent frequency bands of band b; - determining whether a reconstructed corresponding frequency band b' of a bandwidth extended frequency region comprises a spectral peak, and: when the reconstructed frequency band b' comprises at least one spectral peak: - setting (406a:1) a gain value associated with the reconstructed frequency band b' to a first value based on the received plurality of gain values; wherein the first value is a weighted sum of the received plurality of gain values, and when the reconstructed frequency band b' does not comprise any spectral peak: - setting (406a:2) a gain value associated with the reconstructed frequency band b' to a second value based on the received plurality of gain values, wherein the second value is lower than or equal to the first value, thus enabling bringing gain values into agreement with peak positions in the bandwidth extended frequency region. when the reconstructed frequency band b' comprises at least one spectral peak: - setting (406a:1) a gain value associated with the reconstructed frequency band b' to a first value based on the received plurality of gain values; wherein the first value is a weighted sum of the received plurality of gain values, and - setting (406a:1) a gain value associated with the reconstructed frequency band b' to a first value based on the received plurality of gain values; wherein the first value is a weighted sum of the received plurality of gain values, and when the reconstructed frequency band b' does not comprise any spectral peak: - setting (406a:2) a gain value associated with the reconstructed frequency band b' to a second value based on the received plurality of gain values, wherein the second value is lower than or equal to the first value, - setting (406a:2) a gain value associated with the reconstructed frequency band b' to a second value based on the received plurality of gain values, wherein the second value is lower than or equal to the first value,
An eyepiece optical system including a diffractive optical element, wherein: the diffractive optical element has a concave lens component having a first diffractive optical surface, and an optical member having a second diffractive optical surface; the concave lens component and the optical member are arranged so that the first diffractive optical surface and the second diffractive optical surface face each other; and the conditional expression 0.003 < t/f < 0.3 is satisfied, where t is a thickness of the concave lens component on an optical axis of the eyepiece optical system, and f is a focal length of the eyepiece optical system, wherein the eyepiece optical system further comprises, in this order from an eye point of the eyepiece optical system: a first convex lens component, and a cemented lens formed by a second convex lens component and the concave lens component; wherein the refractive index of one of the concave lens component and the optical member is higher than the refractive index of the other of the concave lens component and the optical member, and the dispersion of one of the concave lens component and the optical member is lower than the dispersion of the other of the concave lens component and the optical member. the diffractive optical element has a concave lens component having a first diffractive optical surface, and an optical member having a second diffractive optical surface; the concave lens component and the optical member are arranged so that the first diffractive optical surface and the second diffractive optical surface face each other; and the conditional expression 0.003 < t/f < 0.3 is satisfied, where t is a thickness of the concave lens component on an optical axis of the eyepiece optical system, and f is a focal length of the eyepiece optical system, wherein the eyepiece optical system further comprises, in this order from an eye point of the eyepiece optical system: a first convex lens component, and a cemented lens formed by a second convex lens component and the concave lens component; wherein the refractive index of one of the concave lens component and the optical member is higher than the refractive index of the other of the concave lens component and the optical member, and the dispersion of one of the concave lens component and the optical member is lower than the dispersion of the other of the concave lens component and the optical member. a first convex lens component, and a cemented lens formed by a second convex lens component and the concave lens component; wherein the refractive index of one of the concave lens component and the optical member is higher than the refractive index of the other of the concave lens component and the optical member, and the dispersion of one of the concave lens component and the optical member is lower than the dispersion of the other of the concave lens component and the optical member.
A method of detecting one failure in a burner of a combustor of a turbine system, wherein the combustor comprises a plurality of burners (32-1,.., 32-12) arranged annularly, wherein the turbine system comprises a turbine (4, 5) downstream of said combustor, the method comprising the steps of: A) providing a plurality of temperature sensors (52-1,..., 52-6) arranged annularly at said turbine (4, 5); B) detecting a plurality of temperatures through said plurality of temperature sensors (52-1,..., 52-6); C) calculating a temperature spread indicator as a function of said plurality of temperatures; and D) carrying out a comparison between said temperature spread indicator and a threshold; wherein a positive result of said comparison or a set of consecutive positive results of said comparison indicates that the value of said temperature spread indicator is above the threshold value and a burner failure, characterized in that for locating the burner failure the method further comprises the steps of: E) identifying a temperature sensor detecting a minimum temperature; F) determining a sensor angular position of said temperature sensor; and G) subtracting a predetermined angular shift or a predetermined angular shift range from said sensor angular position to obtain a burner position or a burner position range of the faulty burner; wherein the plurality of temperature sensors (52-1,...,52-6) is annularly arranged at the output of the turbine (4, 5) and is lower in number than the burners (32-1,..., 32-12). A) providing a plurality of temperature sensors (52-1,..., 52-6) arranged annularly at said turbine (4, 5); B) detecting a plurality of temperatures through said plurality of temperature sensors (52-1,..., 52-6); C) calculating a temperature spread indicator as a function of said plurality of temperatures; and D) carrying out a comparison between said temperature spread indicator and a threshold; E) identifying a temperature sensor detecting a minimum temperature; F) determining a sensor angular position of said temperature sensor; and G) subtracting a predetermined angular shift or a predetermined angular shift range from said sensor angular position to obtain a burner position or a burner position range of the faulty burner;
A method of determining the condition of a compressor (14, 15) with respect to rotating stall comprising: i) comparing the difference between the largest and smallest values of a variable occurring during a time period with a difference threshold, the variable at any given time being dependent on the compressor (14, 15) exit pressure at that time; and ii) increasing an integrator counter when the difference is less than the difference threshold, with a determination that the compressor (14, 15) is not in rotating stall being made only when the integrator counter reaches an integrator counter limit, and a determination that the compressor (14, 15) is in rotating stall being made otherwise. i) comparing the difference between the largest and smallest values of a variable occurring during a time period with a difference threshold, the variable at any given time being dependent on the compressor (14, 15) exit pressure at that time; and ii) increasing an integrator counter when the difference is less than the difference threshold, with a determination that the compressor (14, 15) is not in rotating stall being made only when the integrator counter reaches an integrator counter limit, and a determination that the compressor (14, 15) is in rotating stall being made otherwise.
A seal system comprising: a first seal configured to couple to a first thrust reverser portion, the first seal having a first cross-sectional shape; and a second seal configured to couple to a second thrust reverser portion opposite the first seal, the second seal having a second cross-sectional shape different than the first cross-sectional shape, the second seal having a concave portion characterized in that said concave portion is configured to at least partially collapse and wrap around at least a portion of the first seal in response to the first seal engaging the second seal. a first seal configured to couple to a first thrust reverser portion, the first seal having a first cross-sectional shape; and a second seal configured to couple to a second thrust reverser portion opposite the first seal, the second seal having a second cross-sectional shape different than the first cross-sectional shape, the second seal having a concave portion characterized in that said concave portion is configured to at least partially collapse and wrap around at least a portion of the first seal in response to the first seal engaging the second seal.
Apparatus for implanting a prosthetic device in a patient, the apparatus comprising: a trocar tube, a first portion of which is configured to be placed in a left (right) ventricle of the patient during a procedure for implantation of the prosthetic device, and a second portion of which is configured to be placed in an extracardiac location during the procedure, the first portion being shaped so as to define at least one opening to an interior thereof; and one or more flexible bypass tubes (103, 104), each of which is coupled to the second portion, and each of which is configured to be coupled to at least one artery of the patient, so as to create a blood flow bypass path during the procedure, from the left (right) ventricle, via the opening and the bypass tubes, to the at least one artery, wherein a distal end of the first portion is shaped so as to define the at least one opening therethrough to the interior of the first portion, and wherein the trocar tube is configured to enable introduction of the prosthetic device via the at least one opening. a trocar tube, a first portion of which is configured to be placed in a left (right) ventricle of the patient during a procedure for implantation of the prosthetic device, and a second portion of which is configured to be placed in an extracardiac location during the procedure, the first portion being shaped so as to define at least one opening to an interior thereof; and a first portion of which is configured to be placed in a left (right) ventricle of the patient during a procedure for implantation of the prosthetic device, and a second portion of which is configured to be placed in an extracardiac location during the procedure, the first portion being shaped so as to define at least one opening to an interior thereof; and one or more flexible bypass tubes (103, 104), each of which is coupled to the second portion, and each of which is configured to be coupled to at least one artery of the patient, so as to create a blood flow bypass path during the procedure, from the left (right) ventricle, via the opening and the bypass tubes, to the at least one artery, wherein a distal end of the first portion is shaped so as to define the at least one opening therethrough to the interior of the first portion, and wherein the trocar tube is configured to enable introduction of the prosthetic device via the at least one opening.
A decorative sheet comprising a base material, and at least a protective layer, a primer layer and a decorative layer laminated in this order on the base material, the decorative layer containing a black pigment, the primer layer being formed of a cured product of a resin composition containing a resin A having a hydroxyl value of 44 mg KOH/g or less which is an acryl-based resin and an isocyanate-based curing agent. the decorative layer containing a black pigment, the primer layer being formed of a cured product of a resin composition containing a resin A having a hydroxyl value of 44 mg KOH/g or less which is an acryl-based resin and an isocyanate-based curing agent.
A method for releasing at least one spring accumulator brake, which is operated by a pressure medium, wherein in normal operation, said at least one brake is connected to a brake-release-pressure supply-circuit for releasing of the brake by a brake release pressure, and wherein in service operation, when the brake release pressure fails, said at least one brake is separated from the circuit and is released by an auxiliary pressure medium source against the force of the spring accumulator, characterized in that the at least one spring accumulator brake, after a service operation, for the renewed establishment of the brake releasing pressure, is being connected automatically to the brake-release-pressure supply-circuit.
A plug-in coupling system for the transfer of high-power electrical energy, and also for the transfer of a pressurised fluid, consisting of at least one coupling plug (2, 2') and at least one coupling socket (3, 3') with at least one electrical conductor (4, 5) in each case, wherein the coupling plug (2, 2') is insertable into the coupling socket (3, 3') for purposes of forming a coupled state, and is removable from the coupling socket (3, 3') for purposes of forming a decoupled state, characterised in that the plug-in coupling system has at least one electromechanical protective system consisting of at least one electronic switching means and at least one mechanical switching means (4, 11) arranged within the coupling socket and/or the coupling plug for establishing or severing the electrically conducting connection, wherein the electronic switching means and the mechanical switching means (4, 11) can be actuated independently from one another.
Dough processing machine for treating products in the food industry, said dough processing machine comprising at least two workstations (101 - 107) arranged successively along a transport path of products, where the operation of the workstation, in the direction of transport being the first one, depends on a first performance parameter L 1, and the operation of the workstation, in the direction of transport being the second one, depends on a second performance parameter L 2, a control unit which is connected to said workstations (101 - 107) for adjusting the performance parameters, characterized by an input device connected to said control unit via which a factor F = L 1 L 2 can be adjusted, where said control unit is configured to adjust the performance parameters of said first and said second workstation as a function of F and to leave all other factors F nm = L n L m unchanged, where L n, L m are performance parameters of different workstations n, m of the dough processing machine.
A message transmission method, comprising: • obtaining, by a terminal, network congestion control configuration information (step 201), ▪ wherein the network congestion control configuration information comprises information about modulation control for sending a message, and the information about modulation control for sending a message comprises information about a highest modulation order for sending the message and information about a lowest modulation order for sending the message; • processing, by the terminal, according to the network congestion control configuration information, the message generated by the terminal, and obtaining the processed message (step 202); and • sending, by the terminal, the processed message to a another terminal by using a wireless interface between the terminals (step 203). • obtaining, by a terminal, network congestion control configuration information (step 201), ▪ wherein the network congestion control configuration information comprises information about modulation control for sending a message, and the information about modulation control for sending a message comprises information about a highest modulation order for sending the message and information about a lowest modulation order for sending the message; ▪ wherein the network congestion control configuration information comprises information about modulation control for sending a message, and the information about modulation control for sending a message comprises information about a highest modulation order for sending the message and information about a lowest modulation order for sending the message; • processing, by the terminal, according to the network congestion control configuration information, the message generated by the terminal, and obtaining the processed message (step 202); and • sending, by the terminal, the processed message to a another terminal by using a wireless interface between the terminals (step 203).
A method for generating a power signal in a device in a power distribution system, the device comprising at least one capacitor parallel to a load of the device, the power distribution system comprising a power supply arranged for powering the device when at least a minimum current is drawn by the device from the power supply; the method characterized by: - measuring a voltage over the at least one capacitor while the device is drawing current, - controlling the device to draw a current based on the measured voltage, wherein the device is controlled to draw a first current as long as the measured voltage is decreasing over time and subsequently draw a second current equal to or greater than the minimum current. - measuring a voltage over the at least one capacitor while the device is drawing current, - controlling the device to draw a current based on the measured voltage, wherein the device is controlled to draw a first current as long as the measured voltage is decreasing over time and subsequently draw a second current equal to or greater than the minimum current.
Valve closing device, having a driven shaft and having an input shaft which is coupled to the driven shaft and by means of which the driven shaft is drivable in normal operation, and having an emergency drive, wherein the driven shaft is transferable additionally by the emergency drive from a position of use into an end position, wherein the emergency drive is realized as at least one constant force spring motor (28, 39, 40), the at least one constant force spring motor (28, 39, 40) comprises at least one band-shaped spring element, the at least one band-shaped spring element is coiled in a spiral manner in a slackened state and, for tensioning the at least one constant force spring motor (28, 39, 40), can be wrapped around at least one further roller from the spiral-shaped coiling of the slackened state, characterized in that the emergency drive is coupled to the driven shaft by means of an overriding gear arrangement, wherein the input shaft and the driven shaft are coupled by means of the overriding gear arrangement, and wherein the overriding gear arrangement is realized as an epicyclic gearing arrangement, wherein, in the case of the epicyclic gearing arrangement, there are two sun wheels (44, 45) which are arranged coaxially, a first sun wheel being connected to an input shaft of the overriding gear arrangement for rotation therewith and a second sun wheel being connected to an output shaft of the overriding gear arrangement, and the sun wheels (44, 45) being coupled together by means of at least one planetary wheel block.
A yarn which comprises a tubular member, and a plurality of filler materials that are formed into a strip-like shape, and in which the filler materials are loaded into the tubular member in a state where longitudinal directions of the filler materials are made extending along an axial direction of the tubular member, wherein the tubular member is configured by using a wire material which is knitted so as to produce stitches, the wire material has arcuate loop portions which define parts of external shapes of the stitches, characterised in that the loop portions are inclined at an angle in a range of 5 degrees to 45 degrees with respect to a straight line that extends in the axial direction of the tubular member.
A computer-implemented method for integrating fire-protection systems in building design, the method comprising: receiving design data associated with a building, wherein the design data comprises at least one of electrical data, low voltage data, plumbing data, wall boundaries, and obstructions; analyzing design data including electrical data, low voltage data, and plumbing data to determine an occupancy type for the building, wherein determining an occupancy type for the building comprises: analyzing the electrical data, low voltage data, and plumbing data for each of a plurality of locations in the building to determine an occupancy type; accessing one or more fire-protection protocols; generating one or more fire-protection designs for the building based at least in part on the one or more fire-protection protocols and the design data; and integrating the one or more fire-protection designs in to the design data. receiving design data associated with a building, wherein the design data comprises at least one of electrical data, low voltage data, plumbing data, wall boundaries, and obstructions; analyzing design data including electrical data, low voltage data, and plumbing data to determine an occupancy type for the building, wherein determining an occupancy type for the building comprises: analyzing the electrical data, low voltage data, and plumbing data for each of a plurality of locations in the building to determine an occupancy type; accessing one or more fire-protection protocols; generating one or more fire-protection designs for the building based at least in part on the one or more fire-protection protocols and the design data; and integrating the one or more fire-protection designs in to the design data.