mhurhangee/ep-ind-claims huggingface dataset:
A method (200, 500) for performing diagnostics for an engine using operational data for the engine, the method (200, 500) comprising the steps of: identifying an engine component (402, 504) as potentially being related to the operational data; calculating a component deviation (210, 602) from a first model, wherein the component deviation (210, 602) relates the engine component (402, 504) to an adjustment to the first model with respect to a variable of the first model, based at least in part on the operational data characterized by the following steps: comparing the component deviation (210, 602) with a plurality of root cause deviation measures, each root cause deviation measure relating one of a plurality of potential root causes to the first model with respect to the variable of the first model. identifying an engine component (402, 504) as potentially being related to the operational data; calculating a component deviation (210, 602) from a first model, wherein the component deviation (210, 602) relates the engine component (402, 504) to an adjustment to the first model with respect to a variable of the first model, based at least in part on the operational data characterized by the following steps: comparing the component deviation (210, 602) with a plurality of root cause deviation measures, each root cause deviation measure relating one of a plurality of potential root causes to the first model with respect to the variable of the first model.
A method comprising: receiving, by an access point, AP, of a wireless local area network, WLAN, prior to association of a wireless device with the WLAN, a request from the wireless device, the request requesting any Extensible Authentication Protocol, EAP, method supported by either a home public land mobile network, HPLMN, accessible via the WLAN, or a visited public land mobile network, VPLMN, accessible via the WLAN; and either transmitting by the AP, prior to association of the wireless device with the WLAN, a first identifier indicative of a first EAP method supported by the HPLMN; or transmitting by the AP, prior to association of the wireless device with the WLAN, a second identifier indicative of a second EAP method supported by the VPLMN receiving, by an access point, AP, of a wireless local area network, WLAN, prior to association of a wireless device with the WLAN, a request from the wireless device, the request requesting any Extensible Authentication Protocol, EAP, method supported by either a home public land mobile network, HPLMN, accessible via the WLAN, or a visited public land mobile network, VPLMN, accessible via the WLAN; and either transmitting by the AP, prior to association of the wireless device with the WLAN, a first identifier indicative of a first EAP method supported by the HPLMN; or transmitting by the AP, prior to association of the wireless device with the WLAN, a second identifier indicative of a second EAP method supported by the VPLMN
A coating method, comprising: disposing a coating composition into a fluidly communicating space defined by an internal surface of a turbine component the fluidly communicating space including at least one aperture, wherein the coating composition comprises a slurry comprising a donor material comprising metallic aluminum, a halide activator and a binder containing an organic polymer; sealing the at least one aperture, forming an enclosed space; heating the internal surface and the coating composition under autogenous pressure, vaporizing the coating composition and coating the internal surface with the coating composition; and unsealing the at least one aperture, reforming the fluidly communicating space. disposing a coating composition into a fluidly communicating space defined by an internal surface of a turbine component the fluidly communicating space including at least one aperture, wherein the coating composition comprises a slurry comprising a donor material comprising metallic aluminum, a halide activator and a binder containing an organic polymer; sealing the at least one aperture, forming an enclosed space; heating the internal surface and the coating composition under autogenous pressure, vaporizing the coating composition and coating the internal surface with the coating composition; and unsealing the at least one aperture, reforming the fluidly communicating space.
Unmanned guided missile with an outer casing and an outer coating applied thereto in the form of an ablation layer, characterized in that the ablation layer contains a matrix material intended to at least partially decompose during a flight, wherein a) hollow glass bodies are embedded in the matrix material, b) the ablation layer has a decomposing temperature of between 150°C and 250°C, c) the composition comprising the matrix material and the hollow glass bodies is chosen such that the thickness of the ablation layer is reduced by between 50 μm and 200 μm when energy of 1 MW/m 2 is introduced within 20 s, and d) the thickness of the ablation layer is below 1 mm. a) hollow glass bodies are embedded in the matrix material, b) the ablation layer has a decomposing temperature of between 150°C and 250°C, c) the composition comprising the matrix material and the hollow glass bodies is chosen such that the thickness of the ablation layer is reduced by between 50 μm and 200 μm when energy of 1 MW/m 2 is introduced within 20 s, and d) the thickness of the ablation layer is below 1 mm.
A method for accessing a personalized tag-based service using a mobile communication device, the service being provided by an application server, the method comprising the steps of: - capturing the tag using a reader unit of the mobile communication device and passing information included in the tag to an application, - the application generating a service request based on the information and adding to the service request a security feature, the security feature being generated using information uniquely assigned to a user of the mobile communication device, - transmitting the service request from the mobile communication device to a certification unit, and - the certification unit verifying the security feature included in the service request and confirming the authenticity of the service request to the application server in response to a successful verification of the security feature characterized in that the application includes into the service request address information of the application server, the address information being included in the tag, the certification unit determining the application server using the address information included in the service request, wherein the certification unit is configured as a certification server, the certification server being spatially separated from the application server and being trusted by the application server, and the certification unit being independent from the application server such that the security feature is independent from the requested service. - capturing the tag using a reader unit of the mobile communication device and passing information included in the tag to an application, - the application generating a service request based on the information and adding to the service request a security feature, the security feature being generated using information uniquely assigned to a user of the mobile communication device, - transmitting the service request from the mobile communication device to a certification unit, and - the certification unit verifying the security feature included in the service request and confirming the authenticity of the service request to the application server in response to a successful verification of the security feature
A method performed by a user equipment, UE, for wireless communication, the method comprising: receiving, from a base station, configuration information for one of at least two uplink carriers associated with the base station, the at least two UL carriers comprising a supplementary uplink, SUL, carrier and a normal uplink, NUL, carrier, the configuration information comprising an association between one or more contention-free random access, CFRA, resources and the one of the at least two uplink carriers; selecting, from the one or more CFRA resources, a CFRA resource associated with a downlink reference signal on the one of the at least two uplink carriers according to the association in a case that a power of the downlink reference signal measured by the UE is above a threshold value; and performing a random access procedure using the selected CFRA resource and the one of the at least two uplink carriers, wherein the downlink reference signal is a synchronization signal block, SSB, or a channel state information reference signal, CSI-RS. receiving, from a base station, configuration information for one of at least two uplink carriers associated with the base station, the at least two UL carriers comprising a supplementary uplink, SUL, carrier and a normal uplink, NUL, carrier, the configuration information comprising an association between one or more contention-free random access, CFRA, resources and the one of the at least two uplink carriers; selecting, from the one or more CFRA resources, a CFRA resource associated with a downlink reference signal on the one of the at least two uplink carriers according to the association in a case that a power of the downlink reference signal measured by the UE is above a threshold value; and performing a random access procedure using the selected CFRA resource and the one of the at least two uplink carriers, wherein the downlink reference signal is a synchronization signal block, SSB, or a channel state information reference signal, CSI-RS.
A circuit substrate comprising: first wiring configured to transmit a first drive signal (COMB) to drive a driving element; second wiring configured to transmit a control signal (c1-c4) to control application of the first drive signal to the driving element; third wiring configured to transmit the first drive signal (COMA); a receiving unit configured to receive a transmission signal (d1-d4) based on a plurality of original control signals and restore the plurality of control signals based on the transmission signal; and a first input terminal that is connected to the first wiring and is configured to input the transmission signal, wherein the receiving unit is connected to the first wiring and the second wiring, characterized in that: the receiving unit, the first wiring, and the first input terminal are provided on a first layer, and the third wiring is provided on a second layer different from the first layer. first wiring configured to transmit a first drive signal (COMB) to drive a driving element; second wiring configured to transmit a control signal (c1-c4) to control application of the first drive signal to the driving element; third wiring configured to transmit the first drive signal (COMA); a receiving unit configured to receive a transmission signal (d1-d4) based on a plurality of original control signals and restore the plurality of control signals based on the transmission signal; and a first input terminal that is connected to the first wiring and is configured to input the transmission signal, wherein the receiving unit is connected to the first wiring and the second wiring, characterized in that: the receiving unit, the first wiring, and the first input terminal are provided on a first layer, and the third wiring is provided on a second layer different from the first layer. the receiving unit, the first wiring, and the first input terminal are provided on a first layer, and the third wiring is provided on a second layer different from the first layer.
A method comprising: providing a reference image and a source image; using a wavelet transformation (14, 16) to produce a transformed reference image and a transformed source image; using the transformed reference image and the transformed source image to estimate affine transform parameters; using the reference image, the source image, and the estimated affine transform parameters to maximize normalized mutual information between the reference image and the source image; and using the maximized normalized mutual information to perform sub-pixel geo- spatial registration of the reference image and the source image to produce an output image. providing a reference image and a source image; using a wavelet transformation (14, 16) to produce a transformed reference image and a transformed source image; using the transformed reference image and the transformed source image to estimate affine transform parameters; using the reference image, the source image, and the estimated affine transform parameters to maximize normalized mutual information between the reference image and the source image; and using the maximized normalized mutual information to perform sub-pixel geo- spatial registration of the reference image and the source image to produce an output image.
Timepiece provided with a bezel comprising a near field communication device able to receive/send a signal, said communication device comprising a chip and an antenna and being arranged in the bezel of said timepiece, the communication device being associated with a magnetic screen, characterized in that the bezel is a monobloc piece comprising a lower surface having a pocket in which said communication device is arranged, the magnetic screen being situated on a lower surface of the bezel so as to close an opening formed by the pocket on the lower surface, or in that the bezel comprises first and second components (17a, 17b), the second component comprising a interior surface provided with a pocket in which said communication device is arranged, the magnetic screen being situated on a bottom wall and/or a lateral wall of the pocket. the bezel is a monobloc piece comprising a lower surface having a pocket in which said communication device is arranged, the magnetic screen being situated on a lower surface of the bezel so as to close an opening formed by the pocket on the lower surface, or in that the bezel comprises first and second components (17a, 17b), the second component comprising a interior surface provided with a pocket in which said communication device is arranged, the magnetic screen being situated on a bottom wall and/or a lateral wall of the pocket.
A device for modeling antenna radiation characteristics, featuring: a plurality of mechanically separable radiation modules (4; 11; 20), which respectively feature a radiating surface that is penetrated by slots, wherein the radiation modules are arranged and coupled to one another along at least one direction in space so as to form a slotted microwave waveguide, which can be fed due to the excitation of a waveguide mode, such that a continuous space is formed along the modules, wherein a wave fed into this continuous space propagates therein in the form of a mode and supplies the slots without requiring an additional feed network, and wherein a dimension of at least one of the radiation modules in the direction in space corresponds to a wavelength of the mode in the waveguide, a plurality of exchangeable covers (5; 13; 25), which are arranged in front of the radiating surfaces of the modules in order to cover at least a section of the slots and extend over one or two modules, and an excitation device, which is arranged in the waveguide in order to excite the waveguide mode of microwaves, wherein the waveguide mode propagates in the at least one direction in space, in which the radiation modules are arranged. a plurality of mechanically separable radiation modules (4; 11; 20), which respectively feature a radiating surface that is penetrated by slots, wherein the radiation modules are arranged and coupled to one another along at least one direction in space so as to form a slotted microwave waveguide, which can be fed due to the excitation of a waveguide mode, such that a continuous space is formed along the modules, wherein a wave fed into this continuous space propagates therein in the form of a mode and supplies the slots without requiring an additional feed network, and wherein a dimension of at least one of the radiation modules in the direction in space corresponds to a wavelength of the mode in the waveguide, a plurality of exchangeable covers (5; 13; 25), which are arranged in front of the radiating surfaces of the modules in order to cover at least a section of the slots and extend over one or two modules, and an excitation device, which is arranged in the waveguide in order to excite the waveguide mode of microwaves, wherein the waveguide mode propagates in the at least one direction in space, in which the radiation modules are arranged.
Radio node for a Radio Access Network, the radio node being adapted for communicating in the Radio Access Network based on a scheduled slot aggregation comprising a plurality of slots consecutive in time, wherein a slot format of at least one slot of the slot aggregation is adapted based on a structure of the slot aggregation, the structure of the slot aggregation indicating the number of slots of the slot aggregation; the scheduled slot aggregation being configured to the radio node, wherein adapting the slot aggregation based on the structure of the slot aggregation is based on receiving control information indicating which slot format/s to use, and wherein for different slots of the slot aggregation, different slot formats are adapted. wherein a slot format of at least one slot of the slot aggregation is adapted based on a structure of the slot aggregation, the structure of the slot aggregation indicating the number of slots of the slot aggregation; the scheduled slot aggregation being configured to the radio node, wherein adapting the slot aggregation based on the structure of the slot aggregation is based on receiving control information indicating which slot format/s to use, and wherein for different slots of the slot aggregation, different slot formats are adapted.
A pharmaceutical composition comprising an extract of Moutan Root Bark (Moutan Radicis Cortex), Angelica Dahurica Root (Angelicae Dahuricae Radix) and Bupleurum Root (Bupleuri Radix), for use in treating or preventing degenerative neurological disorders.
A system for the automated serial testing and/or measuring of a plurality of substantially identical components by X-radiation, comprising a testing device with a support, a rotor mounted so as to be continuously rotatable on the support, and an X-ray device (24, 25) disposed on the rotor, a protective enclosure surrounding the testing device, a handling device for handling a component during X-ray testing, and a control/evaluation unit configured for automatically controlling the system as well as evaluating the X-ray signals by computer tomography, characterized in that the handling device is configured for periodically reciprocating between a loading region and a testing region and comprises a vertically oriented end face element, i.e. a plate, said endface element providing an accommodating and/or retaining means on which the component can be disposed on the side of the end face.
A fixer fluid, comprising: a fixer vehicle including water, an NH-type or N-alkylated lactam co-solvent, and a phosphate ester surfactant; and from 0.5 wt% to 12 wt% an azetidinium-containing polyamine polymer dispersed in the fixer vehicle. a fixer vehicle including water, an NH-type or N-alkylated lactam co-solvent, and a phosphate ester surfactant; and from 0.5 wt% to 12 wt% an azetidinium-containing polyamine polymer dispersed in the fixer vehicle.
A hearing aid comprising a receiver assembly, the receiver assembly comprising a receiver and a suspension including a suspension member arranged in a receiver housing (24, 36), the suspension member comprises vibration dampers (11, 40) protruding from an outer periphery of the suspension, and one or more cushions or one or more enclosed structures containing a material provided between the receiver and the suspension member, wherein the receiver assembly comprises a plurality of spacers provided at an inner periphery of the suspension, characterized in that the plurality of spacers is positioned to arrange and fix the one or more cushions or one or more enclosed structures in predefined grooves formed by adjacent spacers in the space between the receiver and the suspension member.
A hybrid measurement instrument comprising: a sensor circuit comprising a drive circuit for transmitting a pulse signal at a target of interest and a receive circuit receiving reflected echoes of the pulse signal and developing an analog signal representative of the reflected echoes; an analog processing circuit operatively coupled to the sensor circuit for receiving the analog signal and comprising a gate for selectively transferring the analog signal to a comparator that compares the gated analog signal to a select threshold level to develop a data signal representative of location of the target of interest; and characterized in that the instrument further comprises a programmed digital processing circuit operatively coupled to the sensor circuit and the analog processing circuit, and comprising an analog to digital converter receiving the analog signal representative of the reflected echoes and developing a digital representation of the analog signal, a measurement module configured to control the drive circuit and evaluate the data signal to determine material location, and an echo processing module configured to periodically evaluate the digital representation of the analog signal, to determine an expected window time and expected amplitude of a reflected echo representing the target of interest, to develop a gate control signal to control the gate based on expected window time and to develop the select threshold level based on the expected amplitude. a sensor circuit comprising a drive circuit for transmitting a pulse signal at a target of interest and a receive circuit receiving reflected echoes of the pulse signal and developing an analog signal representative of the reflected echoes; an analog processing circuit operatively coupled to the sensor circuit for receiving the analog signal and comprising a gate for selectively transferring the analog signal to a comparator that compares the gated analog signal to a select threshold level to develop a data signal representative of location of the target of interest; and characterized in that the instrument further comprises a programmed digital processing circuit operatively coupled to the sensor circuit and the analog processing circuit, and comprising an analog to digital converter receiving the analog signal representative of the reflected echoes and developing a digital representation of the analog signal, a measurement module configured to control the drive circuit and evaluate the data signal to determine material location, and an echo processing module configured to periodically evaluate the digital representation of the analog signal, to determine an expected window time and expected amplitude of a reflected echo representing the target of interest, to develop a gate control signal to control the gate based on expected window time and to develop the select threshold level based on the expected amplitude.