mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine comprising: a rotor wheel coupled to a rotor; a turbine bucket comprising: a base mechanically coupled to the rotor wheel, an airfoil extending radially from the base , relative to a rotor axis of the turbomachine , wherein the airfoil includes a bucket tip proximal to a radially outer end thereof; and a magnetized material coupled to the bucket tip ; and a stationary component radially distal to the bucket tip ; and a magnetic sensor coupled to the stationary component and configured to measure a magnetic field strength of the magnetized material ; and a computing device in communication with the magnetic sensor , wherein the computing device identifies the turbine bucket as being one of deformed and non-deformed based on the magnetic field strength of the magnetized material . a rotor wheel coupled to a rotor; a turbine bucket comprising: a base mechanically coupled to the rotor wheel, an airfoil extending radially from the base , relative to a rotor axis of the turbomachine , wherein the airfoil includes a bucket tip proximal to a radially outer end thereof; and a magnetized material coupled to the bucket tip ; and a stationary component radially distal to the bucket tip ; and a magnetic sensor coupled to the stationary component and configured to measure a magnetic field strength of the magnetized material ; and a computing device in communication with the magnetic sensor , wherein the computing device identifies the turbine bucket as being one of deformed and non-deformed based on the magnetic field strength of the magnetized material . a base mechanically coupled to the rotor wheel, an airfoil extending radially from the base , relative to a rotor axis of the turbomachine , wherein the airfoil includes a bucket tip proximal to a radially outer end thereof; and a magnetized material coupled to the bucket tip ; and a stationary component radially distal to the bucket tip ; and a magnetic sensor coupled to the stationary component and configured to measure a magnetic field strength of the magnetized material ; and a computing device in communication with the magnetic sensor , wherein the computing device identifies the turbine bucket as being one of deformed and non-deformed based on the magnetic field strength of the magnetized material .
A signal transmission method, comprising: transmitting (S320) N modulated signals on N subcarriers , the N subcarriers are subcarriers on frequency domain resources of M channels, N is an integer greater than or equal to 2, M is an integer greater than or equal to 2; wherein at least two modulated signals transmitted on different channels are conjugate, and wherein the N subcarriers are subcarriers on frequency domain resources of M channels is that each channel has N/M subcarriers; and wherein high-order modulated signals and low-order modulated signals are expressed as x 1 x 2 x 3 x 4 = 1 2 1 j 0 0 0 0 1 j 0 0 1 − j 1 − j 0 0 } Q s 2 s 2 s 3 s 4 , wherein the N modulated signals are based on a channel matrix Q, wherein the channel matrix Q is Q = 1 2 1 j 0 0 0 0 1 j 0 0 1 − j 1 − j 0 0 , s 1 , s 2 , s 3 , s 4 are BPSK modulated signals, x 1 , x 2 , x 3 , x 4 are QPSK modulated signals, x 3 = x 2 ′ , x 4 = x 1 ′ , and ( )' means obtaining a conjugate. transmitting (S320) N modulated signals on N subcarriers , the N subcarriers are subcarriers on frequency domain resources of M channels, N is an integer greater than or equal to 2, M is an integer greater than or equal to 2; wherein at least two modulated signals transmitted on different channels are conjugate, and wherein the N subcarriers are subcarriers on frequency domain resources of M channels is that each channel has N/M subcarriers; and wherein high-order modulated signals and low-order modulated signals are expressed as x 1 x 2 x 3 x 4 = 1 2 1 j 0 0 0 0 1 j 0 0 1 − j 1 − j 0 0 } Q s 2 s 2 s 3 s 4 , wherein the N modulated signals are based on a channel matrix Q, wherein the channel matrix Q is Q = 1 2 1 j 0 0 0 0 1 j 0 0 1 − j 1 − j 0 0 , s 1 , s 2 , s 3 , s 4 are BPSK modulated signals, x 1 , x 2 , x 3 , x 4 are QPSK modulated signals, x 3 = x 2 ′ , x 4 = x 1 ′ , and ( )' means obtaining a conjugate.
A method for training a classification task model based on medical images, the method being performed by a computer device, the method comprising: training an initial feature extractor by using a first dataset to obtain a feature extractor, the first dataset being a class imbalanced dataset which comprises first class samples and second class samples, the first class samples being negative samples, and the second class samples being positive samples, the number of the first class samples being greater than the number of the second class samples, the first dataset being determined based on medical images, the first dataset comprising a plurality of sub-images of non-lesion regions and lesion regions that are extracted from the medical images ; constructing a generative adversarial network, the generative adversarial network comprising the feature extractor and an initial feature generator, the initial feature generator being configured to generate a feature vector of the same dimension as the feature extractor; training the generative adversarial network by using the second class samples to obtain a feature generator, the feature generator being used to augment the second class samples in a feature space during a training process; constructing a classification task model, the classification task model comprising the feature generator and the feature extractor; and training the classification task model by using the first dataset, the trained classification task model being used to perform lesion classification based on a medical image. training an initial feature extractor by using a first dataset to obtain a feature extractor, the first dataset being a class imbalanced dataset which comprises first class samples and second class samples, the first class samples being negative samples, and the second class samples being positive samples, the number of the first class samples being greater than the number of the second class samples, the first dataset being determined based on medical images, the first dataset comprising a plurality of sub-images of non-lesion regions and lesion regions that are extracted from the medical images ; constructing a generative adversarial network, the generative adversarial network comprising the feature extractor and an initial feature generator, the initial feature generator being configured to generate a feature vector of the same dimension as the feature extractor; training the generative adversarial network by using the second class samples to obtain a feature generator, the feature generator being used to augment the second class samples in a feature space during a training process; constructing a classification task model, the classification task model comprising the feature generator and the feature extractor; and training the classification task model by using the first dataset, the trained classification task model being used to perform lesion classification based on a medical image.
A method for producing frozen ice cream products , such as extruded edible ice cream products, using a freezing system comprising a freezing apparatus , said method comprising the steps of: - placing the pre-products to be frozen onto a number of product plates - conveying pre-products to be frozen into the freezing apparatus (PPIN), - cooling the pre-products to form frozen products inside the freezing apparatus (FRZ), while conveying them around inside the freezing apparatus (FRZ) by exposing them to cold air provided and circulated by means of fans and/or evaporators - conveying the frozen products out of the freezing apparatus (FPOUT), - measuring one or more surface temperatures of frozen products leaving the freezing apparatus (STM), - lifting the frozen products off the product plates, after conveying them out of the freezing apparatus, by means of a product handling system driven by a driving arrangement, such as one or more servo motors, and - using the one or more measured surface temperatures as input for a control device for controlling one or more operational parameters of the freezing apparatus (REG), wherein - one or more torque values exerted by the driving arrangement are measured during the step of lifting the frozen products off the product plates and used as input for a control device for controlling one or more operational parameters of the freezing system. - placing the pre-products to be frozen onto a number of product plates - conveying pre-products to be frozen into the freezing apparatus (PPIN), - cooling the pre-products to form frozen products inside the freezing apparatus (FRZ), while conveying them around inside the freezing apparatus (FRZ) by exposing them to cold air provided and circulated by means of fans and/or evaporators - conveying the frozen products out of the freezing apparatus (FPOUT), - measuring one or more surface temperatures of frozen products leaving the freezing apparatus (STM), - lifting the frozen products off the product plates, after conveying them out of the freezing apparatus, by means of a product handling system driven by a driving arrangement, such as one or more servo motors, and - using the one or more measured surface temperatures as input for a control device for controlling one or more operational parameters of the freezing apparatus (REG), wherein - one or more torque values exerted by the driving arrangement are measured during the step of lifting the frozen products off the product plates and used as input for a control device for controlling one or more operational parameters of the freezing system.
A motor control apparatus , for controlling a motor , the motor control apparatus comprising: a command value generating portion , configured to generate a command value for driving the motor ; an output value determining portion , configured to determine whether a driving value for driving the motor generated based on the command value exceeds a threshold driving value capable of being output by the motor control apparatus ; a command value correcting portion , configured to correct the command value when the output value determining portion determines as exceeding the threshold driving value; a measured value acquiring portion , configured to acquire a measured value representing a driving state of the motor driven according to the command value or the corrected command value; and an outputting portion , configured to output the corrected command value and the measured value based on the corrected command value to an analysis apparatus for performing a frequency analysis based on a relationship of the command value and the measured value when the output value determining portion determines as exceeding the driving value capable of being output, the motor control apparatus being characterized in that when the output value determining portion determines as exceeding the threshold driving value, the command value correcting portion is configured to adopt an output of a low pass filter as the corrected command value when the command value is input to the low pass filter adopting the frequency of the command value at the moment as a cut-off frequency. a command value generating portion , configured to generate a command value for driving the motor ; an output value determining portion , configured to determine whether a driving value for driving the motor generated based on the command value exceeds a threshold driving value capable of being output by the motor control apparatus ; a command value correcting portion , configured to correct the command value when the output value determining portion determines as exceeding the threshold driving value; a measured value acquiring portion , configured to acquire a measured value representing a driving state of the motor driven according to the command value or the corrected command value; and an outputting portion , configured to output the corrected command value and the measured value based on the corrected command value to an analysis apparatus for performing a frequency analysis based on a relationship of the command value and the measured value when the output value determining portion determines as exceeding the driving value capable of being output, the motor control apparatus being characterized in that when the output value determining portion determines as exceeding the threshold driving value, the command value correcting portion is configured to adopt an output of a low pass filter as the corrected command value when the command value is input to the low pass filter adopting the frequency of the command value at the moment as a cut-off frequency.
A ducted gas turbine engine comprising a fan and a guide vane downstream of the fan, wherein the fan is a Variable Pitch Fan (VPF) configured to operate in a first position for generating forward thrust and a second position for generating reverse thrust; wherein a duct wall positioned radially outside the Variable Pitch Fan comprises one or more vents extending through the duct wall, and characterised in that each vent is located adjacent to, or downstream of the VPF and forward of the guide vane and wherein the fan has an inlet area and the combined flow area of the vents is greater than 1% but no more than 15% of the fan inlet area. wherein the fan is a Variable Pitch Fan (VPF) configured to operate in a first position for generating forward thrust and a second position for generating reverse thrust; wherein a duct wall positioned radially outside the Variable Pitch Fan comprises one or more vents extending through the duct wall, and characterised in that each vent is located adjacent to, or downstream of the VPF and forward of the guide vane and wherein the fan has an inlet area and the combined flow area of the vents is greater than 1% but no more than 15% of the fan inlet area.
A method implemented by one or more processors, the method comprising: determining, at a computing device , a prediction that a user of the computing device is traveling in a vehicle , wherein the computing device provides access to an automated assistant and is separate from a vehicle computing device of the vehicle; when the prediction that the user is traveling in the vehicle is based on: user-initiated accessing of a navigation interface via the computing device or the vehicle computing device, and the computing device being in communication with the vehicle computing device: causing an assistant driving mode graphical user interface (GUI) to be automatically rendered at a display interface of the computing device, wherein the assistant driving mode GUI includes the navigation interface and content predicted to be accessed by the user while the user is traveling in the vehicle; and when the prediction that the user is traveling in the vehicle is based on the computing device being in communication with the vehicle computing device while the navigation interface is not being accessed via the computing device: causing a selectable assistant GUI element to be rendered at the display interface of the computing device, wherein a selection of the selectable assistant GUI element causes the assistant driving mode GUI to be rendered at the display interface of the computing device. determining, at a computing device , a prediction that a user of the computing device is traveling in a vehicle , wherein the computing device provides access to an automated assistant and is separate from a vehicle computing device of the vehicle; when the prediction that the user is traveling in the vehicle is based on: user-initiated accessing of a navigation interface via the computing device or the vehicle computing device, and the computing device being in communication with the vehicle computing device: causing an assistant driving mode graphical user interface (GUI) to be automatically rendered at a display interface of the computing device, wherein the assistant driving mode GUI includes the navigation interface and content predicted to be accessed by the user while the user is traveling in the vehicle; and causing an assistant driving mode graphical user interface (GUI) to be automatically rendered at a display interface of the computing device, wherein the assistant driving mode GUI includes the navigation interface and content predicted to be accessed by the user while the user is traveling in the vehicle; and when the prediction that the user is traveling in the vehicle is based on the computing device being in communication with the vehicle computing device while the navigation interface is not being accessed via the computing device: causing a selectable assistant GUI element to be rendered at the display interface of the computing device, wherein a selection of the selectable assistant GUI element causes the assistant driving mode GUI to be rendered at the display interface of the computing device.
A diarylamine-based compound represented by General Formula : where, in General Formula , A 1 and A 2 represent a 1,4-phenylene group, and A 3 and A 4 each independently represent any of organic groups represented by General Formulae , , and : where, in General Formulae , , and , R 3 to R 8 each independently represent a hydrogen atom, a C 1 to C 30 alkyl group, a C 1 to C 30 alkenyl group, -O-R 9 , -O-C(=O)-R 9 , -C(=O)-O-R 9 , -C(=O)-NR 9 (R 10 ), -NR 9 -C(=O)-R 10 , -CN, -SR 9 , -S(=O)-R 9 , or -S(=O) 2 -R 9 ; R 9 and R 10 each independently represent a C 1 to C 30 alkyl group, a C 1 to C 30 alkenyl group, or a C 6 to C 12 aromatic group; and when two or more R 3 to R 8 are present, these may be the same or may be different.
A system to perform seismic imaging, comprising: a data processing system comprising a propagation component , gating component , and wavefield combination component , the data processing system to: receive seismic data from one or more seismic data sources comprising data ensembles of common-source or common-receiver data; propagate the received seismic data forward in time through a subsurface model to generate a first wavefield; propagate the received seismic data backward in time through the subsurface model to generate a second wavefield; characterised by combining the first wavefield with the second wavefield using a time gate imaging condition; generate a 4-dimensional image from the combination of the first wavefield with the second wavefield using the time gate imaging condition; the time gate imaging condition to isolate multiple imaged events in time so that the events are mapped individually to the angle domain such that the data processing system separates noise from real reflector images. receive seismic data from one or more seismic data sources comprising data ensembles of common-source or common-receiver data; propagate the received seismic data forward in time through a subsurface model to generate a first wavefield; propagate the received seismic data backward in time through the subsurface model to generate a second wavefield; characterised by combining the first wavefield with the second wavefield using a time gate imaging condition; generate a 4-dimensional image from the combination of the first wavefield with the second wavefield using the time gate imaging condition; the time gate imaging condition to isolate multiple imaged events in time so that the events are mapped individually to the angle domain such that the data processing system separates noise from real reflector images.
A method performed by a User Equipment, UE, the method comprising: receiving a Configuration Update Command message from an Access and mobility Management Function, AMF, ; determining whether the Configuration Update Command message includes: acknowledgement indication indicating that acknowledgement for the Configuration Update Command message is requested to the UE , and Short Message Service, SMS, indication indicating whether or not the UE is allowed for SMS over Non-Access Stratum, NAS, sending a Configuration Update Complete message to the AMF , if the Configuration Update Command message includes the acknowledgement indication; and considering the SMS over NAS is not allowed for the UE if the SMS indication indicates that the UE is not allowed for the SMS over NAS. receiving a Configuration Update Command message from an Access and mobility Management Function, AMF, ; determining whether the Configuration Update Command message includes: acknowledgement indication indicating that acknowledgement for the Configuration Update Command message is requested to the UE , and Short Message Service, SMS, indication indicating whether or not the UE is allowed for SMS over Non-Access Stratum, NAS, acknowledgement indication indicating that acknowledgement for the Configuration Update Command message is requested to the UE , and Short Message Service, SMS, indication indicating whether or not the UE is allowed for SMS over Non-Access Stratum, NAS, sending a Configuration Update Complete message to the AMF , if the Configuration Update Command message includes the acknowledgement indication; and considering the SMS over NAS is not allowed for the UE if the SMS indication indicates that the UE is not allowed for the SMS over NAS.
A kit comprising a vehicle towing device and a vehicle structural member , which comprises an abutment surface for the vehicle towing device , the abutment surface comprising an attachment surface portion and a tapered inner contact surface portion , said vehicle towing device having a first extremity comprising a towing member , a second extremity comprising an attachment arrangement , and an elongated part extending there between, the elongated part comprising a first portion and a second portion , the first portion extending partially along the elongated part from the towing member towards the second portion , and the second portion extending partially along the elongated part from the first portion towards the attachment arrangement , the second portion having a conical outer contact surface extending peripherally from the first portion towards the attachment arrangement , the conical contact surface having a first cone radius at an end of the second portion facing the first portion and a second cone radius at an end of the second portion facing the attachment arrangement , where the first cone radius is larger than the second cone radius and a longitudinal extension of the second portion exceeds the second cone radius , wherein substantially the entire conical outer contact surface is in contact with the inner contact surface portion of the abutment surface when the vehicle towing device is attached to the vehicle structural member , wherein the longitudinal extension of the second portion and/or an angle between a centre axis in the longitudinal direction of the vehicle towing device and the conical contact surface are such that substantially all bending forces that will act on the vehicle towing device during towing will be transferred between the conical outer contact surface and the tapered inner contact surface portion .