mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method to control an aerial vehicle , comprising: detecting a failure of a first propulsion mechanism (702-2), the aerial vehicle comprising six propulsion mechanisms (702-1, 702-2, 702-3, 702-4, 702-5, 702-6), wherein adjacent propulsion mechanisms are angled in opposing directions to form pairs of propulsion mechanisms; causing stopping of the first propulsion mechanism; causing stopping of a second propulsion mechanism (702-5), the second propulsion mechanism being positioned on the aerial vehicle opposite the first propulsion mechanism with respect to a center of mass of the aerial vehicle; reversing rotational directions of two of the remaining four propulsion mechanisms such that a rotational direction of each of the remaining four propulsion mechanisms is opposite a rotational direction of adjacent propulsion mechanisms; modifying a coordinate frame of the aerial vehicle to a tilted coordinate frame such that a net thrust of remaining four propulsion mechanisms of the six propulsion mechanisms is substantially vertical in an absence of pitch or roll; and instructing at least one of hover, pitch, roll, or yaw of the aerial vehicle using the remaining four propulsion mechanisms. detecting a failure of a first propulsion mechanism (702-2), the aerial vehicle comprising six propulsion mechanisms (702-1, 702-2, 702-3, 702-4, 702-5, 702-6), wherein adjacent propulsion mechanisms are angled in opposing directions to form pairs of propulsion mechanisms; causing stopping of the first propulsion mechanism; causing stopping of a second propulsion mechanism (702-5), the second propulsion mechanism being positioned on the aerial vehicle opposite the first propulsion mechanism with respect to a center of mass of the aerial vehicle; reversing rotational directions of two of the remaining four propulsion mechanisms such that a rotational direction of each of the remaining four propulsion mechanisms is opposite a rotational direction of adjacent propulsion mechanisms; modifying a coordinate frame of the aerial vehicle to a tilted coordinate frame such that a net thrust of remaining four propulsion mechanisms of the six propulsion mechanisms is substantially vertical in an absence of pitch or roll; and instructing at least one of hover, pitch, roll, or yaw of the aerial vehicle using the remaining four propulsion mechanisms.
A nucleic acid molecule encoding (I) a polypeptide having the activity of an endonuclease, which is (a) a nucleic acid molecule encoding a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule encoding an endonuclease, the amino acid sequence of which is at least 70% identical to the amino acid sequence of SEQ ID NO: 1; (d) a nucleic acid molecule comprising a nucleotide sequence which is at least 50% identical to the nucleotide sequence of SEQ ID NO: 2; (e) a nucleic acid molecule which is degenerate with respect to the nucleic acid molecule of (d); or (f) a nucleic acid molecule corresponding to the nucleic acid molecule of any one of (a) to (e) wherein T is replaced by U; (II) a fragment of the polypeptide of (I) having the activity of an endonuclease. (I) a polypeptide having the activity of an endonuclease, which is (a) a nucleic acid molecule encoding a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule encoding an endonuclease, the amino acid sequence of which is at least 70% identical to the amino acid sequence of SEQ ID NO: 1; (d) a nucleic acid molecule comprising a nucleotide sequence which is at least 50% identical to the nucleotide sequence of SEQ ID NO: 2; (e) a nucleic acid molecule which is degenerate with respect to the nucleic acid molecule of (d); or (f) a nucleic acid molecule corresponding to the nucleic acid molecule of any one of (a) to (e) wherein T is replaced by U; (a) a nucleic acid molecule encoding a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule encoding an endonuclease, the amino acid sequence of which is at least 70% identical to the amino acid sequence of SEQ ID NO: 1; (d) a nucleic acid molecule comprising a nucleotide sequence which is at least 50% identical to the nucleotide sequence of SEQ ID NO: 2; (e) a nucleic acid molecule which is degenerate with respect to the nucleic acid molecule of (d); or (f) a nucleic acid molecule corresponding to the nucleic acid molecule of any one of (a) to (e) wherein T is replaced by U; (II) a fragment of the polypeptide of (I) having the activity of an endonuclease.
An agricultural vehicle comprising a chassis and a rechargeable high voltage DC electric battery and a battery pack housing, wherein the chassis incorporates an intermediate frame section and an encapsulated power electronics unit separated from the electric battery and located within the intermediate frame section ; wherein the chassis is provided with a three point mounting for the electric battery pack housing, provided by: two transversely fixed battery mounting supports at the rear of the intermediate frame section ; two rubber dampers connecting the battery pack to the fixed mounting supports ; a support structure at the rear end of a front frame section , connected to a first front end of the intermediate frame section ; and a front support beam extending transversely across the chassis for the electric battery pack housing, resiliently mounted at the support structure by a central rubber damper for enabling the front support beam to pivot about a longitudinal axis of the vehicle; and together with dampers of the two rear mounting supports provides the three point mounting for the electric battery pack housing. two transversely fixed battery mounting supports at the rear of the intermediate frame section ; two rubber dampers connecting the battery pack to the fixed mounting supports ; a support structure at the rear end of a front frame section , connected to a first front end of the intermediate frame section ; and a front support beam extending transversely across the chassis for the electric battery pack housing, resiliently mounted at the support structure by a central rubber damper for enabling the front support beam to pivot about a longitudinal axis of the vehicle; and together with dampers of the two rear mounting supports provides the three point mounting for the electric battery pack housing.
Method to detect and counteract a crank in a rotary kiln the rotary kiln comprising a kiln shell rotating about its longitudinal axis (L) and arranged on three or more tyres each supported by support rollers characterized by measuring a displacement of the one or more support rollers along the line of force exerted by the tyres on the support rollers by means of one or more displacement sensors said displacement corresponding to load changes on the support rollers due to a crank in the kiln , directing displacement data from the one or more displacement sensors to a controller , processing the displacement data from the one or more displacement sensors by means of the controller and detecting an amplitude and phase of a sinusoidal function of the displacement data by applying a sine-fit algorithm to the displacement data, and comparing the displacement data to a threshold value, and upon reaching the threshold value directing a control signal to a cooling arrangement and dispensing a cooling medium onto the kiln shell surface during its rotation, cooling the kiln shell at a location (P) of the largest extent of displacement of the kiln shell and within a given angular range (α, SA) about that location (P) of largest extent of displacement of the kiln shell .
A medical nuclear imaging system comprising: a plurality of pixels configured to detect radiation events and estimate the energy of the detected radiation events; a memory configured to store a plurality of energy windows , the energy windows corresponding to the pixels; an event verification module configured to window the radiation events with the energy windows corresponding to the detecting pixels; an energy calibration module configured to: receive calibration energy spectra corresponding to the plurality of pixels , the calibration energy spectra generated from gamma photons from a calibration phantom; fit the calibration energy spectra with Gaussian curves; fit trend lines to both sides of the Gaussian curves of the calibration energy spectra; and determine lower level discriminators (LLDs) and upper level discriminators (ULDs) from the fitted trend lines, the LLDs and the ULDs defining the energy windows ; and a reconstruction processor configured to reconstruct the windowed radiation events into an image representation. a plurality of pixels configured to detect radiation events and estimate the energy of the detected radiation events; a memory configured to store a plurality of energy windows , the energy windows corresponding to the pixels; an event verification module configured to window the radiation events with the energy windows corresponding to the detecting pixels; an energy calibration module configured to: receive calibration energy spectra corresponding to the plurality of pixels , the calibration energy spectra generated from gamma photons from a calibration phantom; fit the calibration energy spectra with Gaussian curves; fit trend lines to both sides of the Gaussian curves of the calibration energy spectra; and determine lower level discriminators (LLDs) and upper level discriminators (ULDs) from the fitted trend lines, the LLDs and the ULDs defining the energy windows ; and a reconstruction processor configured to reconstruct the windowed radiation events into an image representation. receive calibration energy spectra corresponding to the plurality of pixels , the calibration energy spectra generated from gamma photons from a calibration phantom; fit the calibration energy spectra with Gaussian curves; fit trend lines to both sides of the Gaussian curves of the calibration energy spectra; and determine lower level discriminators (LLDs) and upper level discriminators (ULDs) from the fitted trend lines, the LLDs and the ULDs defining the energy windows ; and a reconstruction processor configured to reconstruct the windowed radiation events into an image representation.
Vehicle tyre having a sensor arrangement , wherein the sensor arrangement - has a sensor module for recording a measured variable, - a sensor central module for processing and/or transmitting the measured variable recorded by the sensor module and - a sensor supply line for connecting the sensor module to the sensor central module , wherein the sensor module is at least partially embedded in a tyre structure of the vehicle tyre , wherein the sensor supply line is at least partially integrated in the tyre structure , characterized in that the sensor supply line runs, starting from the sensor module at least partially embedded in the vehicle tyre , in the direction of an outer surface of the vehicle tyre and is routed, following said outer surface, to an inner surface of the vehicle tyre and runs along said inner surface to the sensor central module arranged in an interior of the vehicle tyre . - has a sensor module for recording a measured variable, - a sensor central module for processing and/or transmitting the measured variable recorded by the sensor module and - a sensor supply line for connecting the sensor module to the sensor central module ,
Method for operating a driver assistance system of a vehicle, wherein the driver assistance system is configured to automatically prepare for or carry out interventions in the movement of the vehicle on the basis of a risk value and triggering threshold values, wherein at least two intervention levels are defined which prepare for or produce ever greater interventions in the movement of the vehicle, wherein a triggering threshold value is respectively assigned to each intervention level, wherein, in the method, the vehicle environment is captured, the position of at least one object in the captured vehicle environment relative to the position of the vehicle is determined, a check is carried out in order to determine whether the object is a risk to the vehicle and, if the object is a risk to the vehicle, this object is classified as a critical object and is assigned a specific risk value, a viewing direction of a driver of the vehicle is captured and is used to determine a field of view , and the position of a critical object is taken as a basis for checking whether this critical object is outside the field of view of the driver, characterized in that if the critical object is outside the field of view of the driver, relative to the triggering threshold values for which the critical object is in the field of view of the driver, the triggering threshold value for the intervention of the lower intervention level is reduced to a greater extent than for the intervention of the higher intervention level. the vehicle environment is captured, the position of at least one object in the captured vehicle environment relative to the position of the vehicle is determined, a check is carried out in order to determine whether the object is a risk to the vehicle and, if the object is a risk to the vehicle, this object is classified as a critical object and is assigned a specific risk value, a viewing direction of a driver of the vehicle is captured and is used to determine a field of view , and the position of a critical object is taken as a basis for checking whether this critical object is outside the field of view of the driver, characterized in that if the critical object is outside the field of view of the driver, relative to the triggering threshold values for which the critical object is in the field of view of the driver, the triggering threshold value for the intervention of the lower intervention level is reduced to a greater extent than for the intervention of the higher intervention level.
A transmission for a vehicle comprising: - an engine drive shaft configured to be driven by an engine ; - a planetary gear unit configured to be driven by power from the engine and to provide power to drive a transmission output shaft ; - a hydrostatic drive unit configured to be driven by power from the engine and to drive a primary hydrostatic drive shaft ; - an engine clutch configured to be driven by the engine to drive an input sun gear of the planetary gear unit while engaged; and characterized in that the transmission further comprises: - a secondary hydrostatic drive shaft configured to be driven by the primary hydrostatic drive shaft and to drive a ring gear of the planetary gear unit ; and - a hydrostatic output clutch configured to be driven by the secondary hydrostatic drive shaft and to provide power to drive an output sun gear of the planetary gear unit while engaged. - an engine drive shaft configured to be driven by an engine ; - a planetary gear unit configured to be driven by power from the engine and to provide power to drive a transmission output shaft ; - a hydrostatic drive unit configured to be driven by power from the engine and to drive a primary hydrostatic drive shaft ; - an engine clutch configured to be driven by the engine to drive an input sun gear of the planetary gear unit while engaged; and characterized in that the transmission further comprises: - a secondary hydrostatic drive shaft configured to be driven by the primary hydrostatic drive shaft and to drive a ring gear of the planetary gear unit ; and - a hydrostatic output clutch configured to be driven by the secondary hydrostatic drive shaft and to provide power to drive an output sun gear of the planetary gear unit while engaged.
A stack of layers comprising - a first outer layer , - a second outer layer , the first outer layer and the second outer layer are of a light transmitting polymeric material and have an oxygen transmission rate lower than 30 cm 3 /(m 2 ·day) under standard temperature and pressure (STP), and - a luminescent layer being sandwiched between the first outer layer and the second outer layer , the luminescent layer comprises a light transmitting matrix polymer and a luminescent material being configured to absorb light according to an absorption spectrum and convert a portion of the absorbed light towards light of a light emission spectrum. - a first outer layer , - a second outer layer , the first outer layer and the second outer layer are of a light transmitting polymeric material and have an oxygen transmission rate lower than 30 cm 3 /(m 2 ·day) under standard temperature and pressure (STP), and - a luminescent layer being sandwiched between the first outer layer and the second outer layer , the luminescent layer comprises a light transmitting matrix polymer and a luminescent material being configured to absorb light according to an absorption spectrum and convert a portion of the absorbed light towards light of a light emission spectrum.
A radome equipment comprising an antenna device , a radome configured to protect the antenna device from an operating environment by housing the antenna device therein and to transmit electric power necessary for communication, and a matching layer ; wherein: the matching layer made of a single-layer dielectric is attached to an inner surface of the radome ; and a thickness of the matching layer is configured to set to a value that minimizes reflection based on an impedance estimated from an interface between the matching layer and the radome before the matching layer of the radome is attached, a characteristic impedance of a medium of the matching layer , a wavelength in the matching layer within an operating frequency range of the antenna device , and a characteristic impedance of a medium of a space in which the radome is disposed; wherein, when defining that Z r denotes the impedance estimated from the interface between the matching layer and the radome before the radome matching layer is attached, Z m denotes the characteristic impedance of the matching layer , λ denotes the wavelength in the matching layer , and Z 0 denotes the characteristic impedance of the medium of the space in which the radome is disposed, Z m <Z 0 is established, a thickness d m of the matching layer is expressed by the following expression, d m = λ 4 π tan − 1 2 Z m Im Z r Z r 2 − Z m 2 provided that 0≤tan -1 X≤π is established when Im[Z r ]>0 holds, while π<tan -1 X≤2π is established when Im[Z r ]<0 holds, wherein X is 2Z m Im[Z r ]/(|Z r | 2 -Z m 2 ) ; and wherein Γ = (Z r -Z m )/(Z r +Z m ) with Γ being a reflection coefficient of the radome . the matching layer made of a single-layer dielectric is attached to an inner surface of the radome ; and a thickness of the matching layer is configured to set to a value that minimizes reflection based on an impedance estimated from an interface between the matching layer and the radome before the matching layer of the radome is attached, a characteristic impedance of a medium of the matching layer , a wavelength in the matching layer within an operating frequency range of the antenna device , and a characteristic impedance of a medium of a space in which the radome is disposed;
A discharge electrode generating glow corona discharge, comprising: a tip section including a continuous blade forming a closed curve in a plane perpendicular to the longitudinal direction of the discharge electrode , the blade including a serrated edge formed in the direction that the blade extends, characterized in that the tip section has a cylindrical shape, and the blade is formed by a part of the inner surface of the cylindrical shape and a part of the outer surface thereof inclined inward. a tip section including a continuous blade forming a closed curve in a plane perpendicular to the longitudinal direction of the discharge electrode , the blade including a serrated edge formed in the direction that the blade extends, characterized in that the tip section has a cylindrical shape, and the blade is formed by a part of the inner surface of the cylindrical shape and a part of the outer surface thereof inclined inward.
A method for channel information quantification feedback, comprising: receiving , by a terminal, a quantification feedback parameter of channel information from a base station, and feeding back quantized channel information according to the quantification feedback parameter of channel information, wherein the channel information comprises: channel information subsets corresponding to L resource groups, wherein L≥1, wherein a kth channel information subset among the channel information subsets comprises B k pieces of precoding indication information, wherein L≥ k≥1 and B k ≥ 0; and information about M amplitude coefficients and information about N phase coefficients, wherein M≥0 and N≥0, and wherein M and N cannot be both zero, wherein the information about M amplitudes and the information about N phase coefficients are obtained by reducing an original channel matrix to an equivalent channel matrix by using the obtained precoding of each group, calculating a correlation matrix of the equivalent channel matrix and a feature vector of the correlation matrix, and quantizing amplitude coefficients and phase coefficients of at least one of the correlation matrix, correlation coefficient or the feature vector. receiving , by a terminal, a quantification feedback parameter of channel information from a base station, and feeding back quantized channel information according to the quantification feedback parameter of channel information, wherein the channel information comprises: channel information subsets corresponding to L resource groups, wherein L≥1, wherein a kth channel information subset among the channel information subsets comprises B k pieces of precoding indication information, wherein L≥ k≥1 and B k ≥ 0; and information about M amplitude coefficients and information about N phase coefficients, wherein M≥0 and N≥0, and wherein M and N cannot be both zero, channel information subsets corresponding to L resource groups, wherein L≥1, wherein a kth channel information subset among the channel information subsets comprises B k pieces of precoding indication information, wherein L≥ k≥1 and B k ≥ 0; and information about M amplitude coefficients and information about N phase coefficients, wherein M≥0 and N≥0, and wherein M and N cannot be both zero, wherein the information about M amplitudes and the information about N phase coefficients are obtained by reducing an original channel matrix to an equivalent channel matrix by using the obtained precoding of each group, calculating a correlation matrix of the equivalent channel matrix and a feature vector of the correlation matrix, and quantizing amplitude coefficients and phase coefficients of at least one of the correlation matrix, correlation coefficient or the feature vector.
A non-aqueous electrolyte secondary battery, comprising: a separator having an adhesive on at least one surface thereof; and an electrode having a core and an electrode mixture layer, the electrode mixture layer contacting the adhesive , wherein in the electrode mixture layer, a concentration of a porous material in a thickness direction increases from the core to the adhesive . a separator having an adhesive on at least one surface thereof; and an electrode having a core and an electrode mixture layer, the electrode mixture layer contacting the adhesive , wherein in the electrode mixture layer, a concentration of a porous material in a thickness direction increases from the core to the adhesive .