mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor structure, comprising: a Group III-N channel layer; a Group III-N top-barrier polarization-generating layer forming a heterojunction with an upper surface of the channel layer; a Group III-N back-barrier polarization-generating layer forming a heterojunction with a lower surface of the channel layer; wherein the Group III-N channel layer has disposed therein a predetermined n-type conductive dopant; and wherein the dopant is a delta-doped region having a peak doping concentration at a predetermined distance from the upper surface of the channel layer and from the lower surface of the channel layer. a Group III-N channel layer; a Group III-N top-barrier polarization-generating layer forming a heterojunction with an upper surface of the channel layer; a Group III-N back-barrier polarization-generating layer forming a heterojunction with a lower surface of the channel layer; wherein the Group III-N channel layer has disposed therein a predetermined n-type conductive dopant; and wherein the dopant is a delta-doped region having a peak doping concentration at a predetermined distance from the upper surface of the channel layer and from the lower surface of the channel layer.
A system, comprising: a processor configured to: generate a plurality of reservoir property profiles for a plurality of pseudo wells, wherein each reservoir property profile of the plurality of reservoir property profiles comprises reservoir properties of a pseudo well of the plurality of pseudo wells; generate a plurality of attributes for the plurality of pseudo wells, wherein the plurality of attributes comprise a frequency-dependent amplitude variation with offset (FAVO) response of each pseudo well of the plurality of pseudo wells, wherein at least one FAVO response corresponds to at least one reservoir property; train a machine learning model to predict reservoir properties for use with seismic exploration above a region of a subsurface containing structural or stratigraphic features conducive to a presence, migration, or accumulation of hydrocarbons by comparing the plurality of reservoir property profiles against the plurality of attributes; receive input in the form of information relating to an actual, real-life seismic region; and predict locations of the hydrocarbons within the region of the subsurface and reservoir properties based on the trained machine learning model and the received input. generate a plurality of reservoir property profiles for a plurality of pseudo wells, wherein each reservoir property profile of the plurality of reservoir property profiles comprises reservoir properties of a pseudo well of the plurality of pseudo wells; generate a plurality of attributes for the plurality of pseudo wells, wherein the plurality of attributes comprise a frequency-dependent amplitude variation with offset (FAVO) response of each pseudo well of the plurality of pseudo wells, wherein at least one FAVO response corresponds to at least one reservoir property; train a machine learning model to predict reservoir properties for use with seismic exploration above a region of a subsurface containing structural or stratigraphic features conducive to a presence, migration, or accumulation of hydrocarbons by comparing the plurality of reservoir property profiles against the plurality of attributes; receive input in the form of information relating to an actual, real-life seismic region; and predict locations of the hydrocarbons within the region of the subsurface and reservoir properties based on the trained machine learning model and the received input.
A synthetic particle, comprising: a plurality of oligonucleotide barcodes coupled thereto, wherein each of the plurality of oligonucleotide barcodes comprises an identical cellular label sequence, a molecular label sequence, and a target-binding region hybridizes with a target nucleic acid in a sample, and wherein at least 10 of the plurality of oligonucleotide barcodes comprise different molecular label sequences, wherein each cellular label sequence comprises at least 6 nucleotides, wherein each molecular label sequence comprises at least 6 nucleotides; and a first plurality of spacer oligonucleotides coupled thereto, wherein each of the first plurality of spacer oligonucleotides does not comprise the target-binding region, and wherein the first plurality of spacer oligonucleotides reduces the density of the plurality of oligonucleotide barcodes on the synthetic particle, wherein the ratio of the plurality of oligonucleotide barcodes and the first plurality of spacer oligonucleotides ranges from 1:10 to 10:1. a plurality of oligonucleotide barcodes coupled thereto, wherein each of the plurality of oligonucleotide barcodes comprises an identical cellular label sequence, a molecular label sequence, and a target-binding region hybridizes with a target nucleic acid in a sample, and wherein at least 10 of the plurality of oligonucleotide barcodes comprise different molecular label sequences, wherein each cellular label sequence comprises at least 6 nucleotides, wherein each molecular label sequence comprises at least 6 nucleotides; and a first plurality of spacer oligonucleotides coupled thereto, wherein each of the first plurality of spacer oligonucleotides does not comprise the target-binding region, and wherein the first plurality of spacer oligonucleotides reduces the density of the plurality of oligonucleotide barcodes on the synthetic particle, wherein the ratio of the plurality of oligonucleotide barcodes and the first plurality of spacer oligonucleotides ranges from 1:10 to 10:1.
A method of processing power signals comprising: receiving an analog poly-phase signal associated with power delivered using alternating current, AC, the analog poly-phase signal having at least one current component and at least one voltage component comprising a reference voltage component; converting, using an analog to digital converter, ADC, the analog poly-phase signal to a digital poly-phase signal sampled at a first sampling rate; detecting a fundamental frequency of the analog poly-phase signal based on the digital poly-phase signal; determining a second sampling rate, wherein the second sampling rate is based on and tracks the fundamental frequency; resampling the digital poly-phase signal at the second sampling rate; for each cycle of the resampled digital poly-phase signal: transforming the resampled digital poly-phase digital signal to a frequency-domain signal using Fast Fourier Transformation, FFT; calculating a phase angle of the reference voltage component based on the frequency-domain signal; adjusting the resampled digital poly-phase signal by compensating the calculated phase angle; and transforming the adjusted resampled digital poly-phase signal to an updated frequency-domain signal using FFT; and calculating one or more measurements based on the updated frequency-domain signal. receiving an analog poly-phase signal associated with power delivered using alternating current, AC, the analog poly-phase signal having at least one current component and at least one voltage component comprising a reference voltage component; converting, using an analog to digital converter, ADC, the analog poly-phase signal to a digital poly-phase signal sampled at a first sampling rate; detecting a fundamental frequency of the analog poly-phase signal based on the digital poly-phase signal; determining a second sampling rate, wherein the second sampling rate is based on and tracks the fundamental frequency; resampling the digital poly-phase signal at the second sampling rate; for each cycle of the resampled digital poly-phase signal: transforming the resampled digital poly-phase digital signal to a frequency-domain signal using Fast Fourier Transformation, FFT; calculating a phase angle of the reference voltage component based on the frequency-domain signal; adjusting the resampled digital poly-phase signal by compensating the calculated phase angle; and transforming the adjusted resampled digital poly-phase signal to an updated frequency-domain signal using FFT; and calculating one or more measurements based on the updated frequency-domain signal. transforming the resampled digital poly-phase digital signal to a frequency-domain signal using Fast Fourier Transformation, FFT; calculating a phase angle of the reference voltage component based on the frequency-domain signal; adjusting the resampled digital poly-phase signal by compensating the calculated phase angle; and transforming the adjusted resampled digital poly-phase signal to an updated frequency-domain signal using FFT; and calculating one or more measurements based on the updated frequency-domain signal.
A method for moving page content, wherein the method comprises: acquiring an initial display position of page content if it is detected that display content reaches a bottom or top of the page content; acquiring a slide operation of a user on the page content (S 402); determining a preset direction and a magnitude of moving displacement according to the displacement of the slide operation on the page content if it is detected that the displacement of the slide operation on the page content is greater than a preset slide displacement (S 403); determining a target position according to the determined preset direction and the determined magnitude of the moving displacement (S 404); determining a preset position corresponding to a preset position threshold as a target display position if releasing of the slide operation on the page content is detected and it is detected that the target position meets the preset position threshold (S 405); moving the page content from the initial display position to the target display position in a one-hand operation area according to the determined preset direction and the determined magnitude of the moving displacement (S 406); displaying the page content at the target display position (S 407); moving the page content in a direction opposite to the preset direction at a preset first speed when a page return instruction of the user in the one-hand operation area is received (S 408). acquiring an initial display position of page content if it is detected that display content reaches a bottom or top of the page content; acquiring a slide operation of a user on the page content (S 402); determining a preset direction and a magnitude of moving displacement according to the displacement of the slide operation on the page content if it is detected that the displacement of the slide operation on the page content is greater than a preset slide displacement (S 403); determining a target position according to the determined preset direction and the determined magnitude of the moving displacement (S 404); determining a preset position corresponding to a preset position threshold as a target display position if releasing of the slide operation on the page content is detected and it is detected that the target position meets the preset position threshold (S 405); moving the page content from the initial display position to the target display position in a one-hand operation area according to the determined preset direction and the determined magnitude of the moving displacement (S 406); displaying the page content at the target display position (S 407); moving the page content in a direction opposite to the preset direction at a preset first speed when a page return instruction of the user in the one-hand operation area is received (S 408).
A method for updating a user interface on a computer system, the method comprising: detecting, by the computer system, a gaze position on the user interface, the user interface including a first open window and a second open window, the first open window being in a foreground of the user interface, the second open window being in a background of the user interface; determining, by the computer system, a region of the user interface around the gaze position; and displaying, by the computer system, a viewer based on the region, the viewer displayed in the foreground of the user interface and showing content of at least a portion of the second open window, wherein the viewer is positioned over the region of the user interface and occludes a portion of the first open window in the foreground of the user interface, wherein the occluded portion is within the region. detecting, by the computer system, a gaze position on the user interface, the user interface including a first open window and a second open window, the first open window being in a foreground of the user interface, the second open window being in a background of the user interface; determining, by the computer system, a region of the user interface around the gaze position; and displaying, by the computer system, a viewer based on the region, the viewer displayed in the foreground of the user interface and showing content of at least a portion of the second open window, wherein the viewer is positioned over the region of the user interface and occludes a portion of the first open window in the foreground of the user interface, wherein the occluded portion is within the region.
Derivation method of protein-peptide complex, possessing antihypoxic, tissue-specific reparative action on the central and peripheral nervous system, consisting in the following stages performed with the nervous tissue of hoofed livestock embryos within the gestation period from the middle of the first third till the middle of the last third of pregnancy: - homogenization in the buffer solution with simultaneous extraction in the presence of reversible proteolysis inhibitors and non-ionic detergents at pH at least 5.2 and not higher than 8.5 with further centrifugation with g value within the range of 10,000 - 28,000 during 90-30 minutes respectively; - obtained supernatant is filtered; - filtrate is subject to anion-exchange chromatography on the column with anion-exchange carrier, proteins and peptides connected with the carrier are separated, using for a buffer solution as a mobile phase, initially having ionic strength not higher than 0.1 mmol/L, increasing it gradually or stepwise by step 0.025 mmol/L and starting collection of target fractions with the eluent ionic strength from 0.125 to 0.15 mol/L with pH from 5.2 to 8.5; - obtained fractions are combined and subject to sterilization filtration. - homogenization in the buffer solution with simultaneous extraction in the presence of reversible proteolysis inhibitors and non-ionic detergents at pH at least 5.2 and not higher than 8.5 with further centrifugation with g value within the range of 10,000 - 28,000 during 90-30 minutes respectively; - obtained supernatant is filtered; - filtrate is subject to anion-exchange chromatography on the column with anion-exchange carrier, proteins and peptides connected with the carrier are separated, using for a buffer solution as a mobile phase, initially having ionic strength not higher than 0.1 mmol/L, increasing it gradually or stepwise by step 0.025 mmol/L and starting collection of target fractions with the eluent ionic strength from 0.125 to 0.15 mol/L with pH from 5.2 to 8.5; - obtained fractions are combined and subject to sterilization filtration.
An assembly comprising a turbine engine and an attachment system for attaching the turbine engine to an aircraft structure, in which assembly: - the turbine engine is a bypass engine with an annular passage in which the core stream flows that opens out to the rear around a central body, and an annular passage along which the bypass stream flows that opens out to the rear between a primary cover and the rear end of a secondary cover; and - the attachment system comprises a mast, at least two rear attachments connecting the mast to two rear attachment points of the turbine engine, and a rear covering of the mast covering the rear attachments, providing a streamlined fairing and having a rear portion that extends rearwards beyond the opening of the core stream flow passage, the distance between the rear attachment points being substantially greater than the width of the mast level with the rear attachments; the assembly being characterized in that the rear covering has two side walls (42, 44) each having a first portion (42a, 44a) extending along and in the proximity of the mast and extended rearwards, and a second portion (42b, 44b) that projects sideways relative to the first wall portion on the outside thereof so as to cover the rear attachments; and the second portions (42b, 44b) of the side wall of the rear covering are substantially in the form of bulges and they connect to the first portions (42a, 44a) of the side wall along curved connection lines (42c, 44c) extending between front points and rear points situated substantially level with the inner longitudinal edges of the first side wall portions. - the turbine engine is a bypass engine with an annular passage in which the core stream flows that opens out to the rear around a central body, and an annular passage along which the bypass stream flows that opens out to the rear between a primary cover and the rear end of a secondary cover; and - the attachment system comprises a mast, at least two rear attachments connecting the mast to two rear attachment points of the turbine engine, and a rear covering of the mast covering the rear attachments, providing a streamlined fairing and having a rear portion that extends rearwards beyond the opening of the core stream flow passage, the distance between the rear attachment points being substantially greater than the width of the mast level with the rear attachments;
A deflection control apparatus configured to perform a deflection control in which a subject vehicle (1, 2) is deflected by a braking force difference between left and right wheels, said deflection control apparatus comprising: a calculator (172, 174) configured, in the deflection control, to calculate a target yaw moment; and a controller configured to control a braking force of each wheel (FL, FR, RL, RR) so that the target yaw moment is applied to the subject vehicle (1, 2), characterized in that said calculator (172, 174) is configured, in the deflection control, (i) to calculate a target yaw rate so that the subject vehicle (1, 2) drives on a target track by the deflection control, and (ii) to calculate the target yaw moment by dividing the calculated target yaw rate by a coefficient based on a velocity of the subject vehicle (1, 2). a calculator (172, 174) configured, in the deflection control, to calculate a target yaw moment; and a controller configured to control a braking force of each wheel (FL, FR, RL, RR) so that the target yaw moment is applied to the subject vehicle (1, 2), characterized in that said calculator (172, 174) is configured, in the deflection control, (i) to calculate a target yaw rate so that the subject vehicle (1, 2) drives on a target track by the deflection control, and (ii) to calculate the target yaw moment by dividing the calculated target yaw rate by a coefficient based on a velocity of the subject vehicle (1, 2).
A front-loading washing machine, comprising: a cabinet having a front panel, wherein the front panel is provided with an opening; a tub having an access port for loading and unloading laundry, wherein the tub is disposed in the cabinet; a rotatable drum disposed in the tub; a door unit mounted to the tub and configured to cover the access port; and a driving mechanism provided in the cabinet, and coupled to the tub; wherein the driving mechanism comprises: a longitudinal pushrod disposed at a front side of the tub; a transverse shaft disposed at a rear side of and coupled to the tub; and a support frame disposed in the cabinet and having a hole, wherein the transverse shaft is configured to rotate in the hole of the support frame; wherein the driving mechanism is configured to drive the tub to rotate about the transverse shaft, such that the access port is capable of being moved up and down in the opening; and wherein the front-loading washing machine further comprises a damping shock absorber supported between the cabinet and the support frame. a cabinet having a front panel, wherein the front panel is provided with an opening; a tub having an access port for loading and unloading laundry, wherein the tub is disposed in the cabinet; a rotatable drum disposed in the tub; a door unit mounted to the tub and configured to cover the access port; and a driving mechanism provided in the cabinet, and coupled to the tub; wherein the driving mechanism comprises: a longitudinal pushrod disposed at a front side of the tub; a transverse shaft disposed at a rear side of and coupled to the tub; and a support frame disposed in the cabinet and having a hole, wherein the transverse shaft is configured to rotate in the hole of the support frame; wherein the driving mechanism is configured to drive the tub to rotate about the transverse shaft, such that the access port is capable of being moved up and down in the opening; and wherein the front-loading washing machine further comprises a damping shock absorber supported between the cabinet and the support frame. a longitudinal pushrod disposed at a front side of the tub; a transverse shaft disposed at a rear side of and coupled to the tub; and a support frame disposed in the cabinet and having a hole, wherein the transverse shaft is configured to rotate in the hole of the support frame; wherein the driving mechanism is configured to drive the tub to rotate about the transverse shaft, such that the access port is capable of being moved up and down in the opening; and wherein the front-loading washing machine further comprises a damping shock absorber supported between the cabinet and the support frame.
Watch case including a case middle made of plastic or electroformed material and a removable crystal, where said crystal, or respectively said case middle, includes a plurality of elbowed catches, each frontally insertable in a corresponding recess included in correspondence in said case middle or respectively in said crystal, in a first relative angular position between said case middle and said crystal called the first position of insertion or of removal, and each said catch being arranged to occupy, in said first angular position of insertion or of removal, a first pressed-in position when the distance between said case middle and said crystal is minimal, said case middle and said crystal being arranged to pivot in relation to each other, in said pressed-in first position of said catches, to a second angular holding position wherein a part of each catch is frontally locked behind a holding surface forming a safety catch included in said case middle or respectively in said crystal, where said case includes a rotation stop means, characterized in that said rotation stop means is: - external to said case middle and to said crystal; and - arranged to be snap-fitted and prevent said crystal from rotating with respect to said case middle; and - arranged to angularly secure said case middle and said crystal in said second angular holding position; and - arranged to frontally snap-fitted on said case middle and/or said crystal by snap-fit fingers at the distal end of elastic tabs, included in said rotation stop means and said snap-fit fingers are arranged to cooperate with at least one complementary stop surface, or with complementary snap-fit fingers, included in said case middle and/or said crystal. - external to said case middle and to said crystal; and - arranged to be snap-fitted and prevent said crystal from rotating with respect to said case middle; and - arranged to angularly secure said case middle and said crystal in said second angular holding position; and - arranged to frontally snap-fitted on said case middle and/or said crystal by snap-fit fingers at the distal end of elastic tabs, included in said rotation stop means and said snap-fit fingers are arranged to cooperate with at least one complementary stop surface, or with complementary snap-fit fingers, included in said case middle and/or said crystal.