mhurhangee/ep-ind-claims huggingface dataset:
Mainframe for a wind turbine, having a top side, a bottom side, a front side and a rear side, comprising a circumferential annular wall between the bottom side and the top side, comprising two lateral portions of the wall that extend between the front side and the rear side of the mainframe, and comprising two lateral flanges on the top side of the mainframe, a plurality of arms (110, 111) being arranged within the wall, characterized in that the arms (110, 111) are connected to the wall via a box profile, and at least four arms (110, 111) are arranged, two arms being connected, as a symmetrical pair, on the rear side of the mainframe, at an angle with the box profile and the wall, and two arms being connected, as a symmetrical pair, on the front side of the mainframe, at an angle with the box profile and the wall.
A method, performed by a user application, of creating a trusted bond between a hearing device and the user application, wherein the method comprises: - obtaining first authentication material; - transmitting a first authentication request comprising a first authentication type identifier and first authentication data to the hearing device; - receiving a first authentication response comprising a sound signal from the hearing device; - deriving second authentication material based on the sound signal; - determining second authentication data based on the second authentication material; - transmitting a second authentication request comprising the second authentication data to the hearing device; - receiving a second authentication response comprising an authentication key identifier from the hearing device; - storing an authentication key and the authentication key identifier, wherein the authentication key is based on the first authentication material; and - connecting the user application to the hearing device using the authentication key and the authentication key identifier. - obtaining first authentication material; - transmitting a first authentication request comprising a first authentication type identifier and first authentication data to the hearing device; - receiving a first authentication response comprising a sound signal from the hearing device; - deriving second authentication material based on the sound signal; - determining second authentication data based on the second authentication material; - transmitting a second authentication request comprising the second authentication data to the hearing device; - receiving a second authentication response comprising an authentication key identifier from the hearing device; - storing an authentication key and the authentication key identifier, wherein the authentication key is based on the first authentication material; and - connecting the user application to the hearing device using the authentication key and the authentication key identifier.
A valve diagnosis apparatus comprising: an ultrasonic transmitter configured to transmit ultrasound towards a valve element configured to open and close a valve to be diagnosed; an ultrasonic receiver configured to receive the ultrasound transmitted from the ultrasonic transmitter; a controller configured to drive the ultrasonic transmitter and process a reception signal received by the ultrasonic receiver; and a memory configured to store the reception signal; characterized in that: the ultrasonic receiver is configured to receive the ultrasound transmitted from the ultrasonic transmitter that propagates through the valve element or passes by along the front and back sides of the valve element; and the controller is configured to detect corrosion of the valve element from a difference in intensity of the reception signal in an initial state of the valve and at a time of diagnosis. an ultrasonic transmitter configured to transmit ultrasound towards a valve element configured to open and close a valve to be diagnosed; an ultrasonic receiver configured to receive the ultrasound transmitted from the ultrasonic transmitter; a controller configured to drive the ultrasonic transmitter and process a reception signal received by the ultrasonic receiver; and a memory configured to store the reception signal; characterized in that: the ultrasonic receiver is configured to receive the ultrasound transmitted from the ultrasonic transmitter that propagates through the valve element or passes by along the front and back sides of the valve element; and the controller is configured to detect corrosion of the valve element from a difference in intensity of the reception signal in an initial state of the valve and at a time of diagnosis. the ultrasonic receiver is configured to receive the ultrasound transmitted from the ultrasonic transmitter that propagates through the valve element or passes by along the front and back sides of the valve element; and the controller is configured to detect corrosion of the valve element from a difference in intensity of the reception signal in an initial state of the valve and at a time of diagnosis.
A method of amplifying a target sequence comprising the steps of: a) contacting the target nucleic acid with a primer and a polymerase, wherein the primer comprises a target-binding site and a unique molecular identification tag; b) conducting a polymerase extension reaction and a termination to create a single-stranded primer extension product; c) ligating adaptors to each end of the single-stranded primer extension product to create a ligation product, wherein adaptors comprise at least one universal priming site; d) amplifying the ligation product in an amplification reaction utilizing at least one primer binding to the at least one universal priming site to create the amplified target sequence wherein the termination is effected by a method selected from the list consisting of temperature shift, addition of a specific enzyme inhibitor, addition of a chelator, incorporation of uridine-containing bases followed by treatment with uracil-N-DNA glycosylase. a) contacting the target nucleic acid with a primer and a polymerase, wherein the primer comprises a target-binding site and a unique molecular identification tag; b) conducting a polymerase extension reaction and a termination to create a single-stranded primer extension product; c) ligating adaptors to each end of the single-stranded primer extension product to create a ligation product, wherein adaptors comprise at least one universal priming site; d) amplifying the ligation product in an amplification reaction utilizing at least one primer binding to the at least one universal priming site to create the amplified target sequence
Porous ceramic material comprising: - a microstructure comprising a material having a crystalline xonotlite structure and/or a crystallised tobermorite structure in the form of needles which are interconnected such as to form therebetween a pore diameter D95 of greater than or equal to 0.4 μm and less than 5 μm and an average pore diameter D50 of greater than or equal to 0.4 μm and less than 1.5 μm, preferably of from 0.4 to 1 μm; and - a continuous macrostructure formed by interconnected channels in the microstructure. - a microstructure comprising a material having a crystalline xonotlite structure and/or a crystallised tobermorite structure in the form of needles which are interconnected such as to form therebetween a pore diameter D95 of greater than or equal to 0.4 μm and less than 5 μm and an average pore diameter D50 of greater than or equal to 0.4 μm and less than 1.5 μm, preferably of from 0.4 to 1 μm; and - a continuous macrostructure formed by interconnected channels in the microstructure.
Computer-implemented method for generating a training set with annotated images, wherein the annotated images are to be used to train a convolutional neural network for quantifying plant infestation by estimating the number (N EST) of biological objects on leaves of plants; the method comprising: receiving leaf-images (413-A) showing leaves and showing biological objects on the leaves, the leaf-images (413-A) being coded in a first color-coding; changing the color-coding of the pixels (477, 478) of the leaf-images to a second color-coding, wherein the contrast between the pixels for the biological objects and the pixels for the leaves is higher in the second color-coding than in the first color-coding; assigning pixels (477, 478) associated with a first color cluster in the second color-coding to a first binary value, and pixels associated with a second color cluster to a second binary value; differentiating - in the leaf-images with binary coding (413-D) - areas with contiguous pixels in the first binary value into into non-object areas (1, 5) and object areas (2, 3, 4, 6, 7, 8) by an area size criterion; identifying pixel-coordinates of the object areas (2, 3, 4, 6, 7, 8), wherein the pixel-coordinates identify rectangular tile-areas with biological objects in the center, with the tile-areas in an input dimension for the CNN; and annotating the leaf-images (414-A) in first color-coding by assigning the pixel-coordinates (i, j) to corresponding tile-areas to obtain the annotated image. receiving leaf-images (413-A) showing leaves and showing biological objects on the leaves, the leaf-images (413-A) being coded in a first color-coding; changing the color-coding of the pixels (477, 478) of the leaf-images to a second color-coding, wherein the contrast between the pixels for the biological objects and the pixels for the leaves is higher in the second color-coding than in the first color-coding; assigning pixels (477, 478) associated with a first color cluster in the second color-coding to a first binary value, and pixels associated with a second color cluster to a second binary value; differentiating - in the leaf-images with binary coding (413-D) - areas with contiguous pixels in the first binary value into into non-object areas (1, 5) and object areas (2, 3, 4, 6, 7, 8) by an area size criterion; identifying pixel-coordinates of the object areas (2, 3, 4, 6, 7, 8), wherein the pixel-coordinates identify rectangular tile-areas with biological objects in the center, with the tile-areas in an input dimension for the CNN; and annotating the leaf-images (414-A) in first color-coding by assigning the pixel-coordinates (i, j) to corresponding tile-areas to obtain the annotated image.
A turbine shroud segment (22, 222, 322, 422) adapted for use in a gas turbine engine, the turbine shroud segment (22, 222, 322, 422) comprising a carrier segment (24, 224, 324, 424) comprising metallic materials, the carrier segment (24, 224, 324, 424) formed to include an attachment-receiving space (34, 234, 334, 434), a blade track segment (26, 226, 326, 426) comprising ceramic matrix composite materials, the blade track formed to include a runner (52, 252, 352, 452) shaped to extend at least partway around a central axis and an attachment box portion (54, 254, 354, 454) that extends radially outward from the runner (52, 252, 352, 452) into the attachment-receiving space (34, 234, 334, 434) formed by the carrier segment (24, 224, 324, 424), and an attachment assembly (28, 228, 328, 428) including an attachment post (62, 262, 362, 462) that extends from the carrier segment (24, 224, 324, 424) into the attachment box portion (54, 254, 354, 454) of the blade track segment (26, 226, 326, 426), the attachment post (62, 262, 362, 462) formed to include a post passageway (65, 265, 365, 465) that provides part of a cooling system configured to conduct cooling air into the attachment box portion (54, 254, 354, 454) of the blade track segment (26, 226, 326, 426) to cool the blade track segment (26, 226, 326, 426) when the turbine shroud segment (22, 222, 322, 422) is used in a gas turbine engine, wherein the attachment assembly (28, 228, 328, 428) includes an attachment support (66, 266, 366, 466) arranged inside the attachment box portion (54, 254, 354, 454) of the blade track segment (26, 226, 326, 426) that is coupled to the attachment post (62, 262, 362, 462), and the attachment support (66, 266, 366, 466) is formed to include distribution passageways (88, 388, 488) fluidly coupled to the post passageway (65, 265, 365, 465) formed in the attachment post (62, 262, 362, 462) so that cooling air conducted through the post passageway (65, 265, 365, 465) is distributed to various locations along the blade track segment (26, 226, 326, 426) when the turbine shroud segment (22, 222, 322, 422) is used in a gas turbine engine, characterized in that the attachment support is configured to exert a clamp load on the blade track segment that draws the blade track segment toward the carrier segment.
A process for preparing whitened fly ash, wherein the process comprises the steps of: (a) subjecting fly ash to a size classification step to obtain size classified fly ash having a particle size such that at least 90wt% has a particle size of from 44μm to 250μm; (b) optionally, contacting the size classified fly ash from step (a) with water so as to form a slurry, wherein the slurry has a solid content of less than 40wt%; (c) subjecting the size classified fly ash obtained in step (a) or the slurry obtained in step (b) to an exhaustive magnetic separation step to form magnetically treated fly ash, wherein the exhaustive magnetic separation step comprises a first magnetic extraction step and a second magnetic extraction step, wherein the second magnetic extraction step is carried out at a higher magnetic field strength than the first magnetic extraction step; and (d) subjecting the magnetically treated fly ash obtained in step (c) to a milling step to form whitened fly ash. (a) subjecting fly ash to a size classification step to obtain size classified fly ash having a particle size such that at least 90wt% has a particle size of from 44μm to 250μm; (b) optionally, contacting the size classified fly ash from step (a) with water so as to form a slurry, wherein the slurry has a solid content of less than 40wt%; (c) subjecting the size classified fly ash obtained in step (a) or the slurry obtained in step (b) to an exhaustive magnetic separation step to form magnetically treated fly ash, wherein the exhaustive magnetic separation step comprises a first magnetic extraction step and a second magnetic extraction step, wherein the second magnetic extraction step is carried out at a higher magnetic field strength than the first magnetic extraction step; and (d) subjecting the magnetically treated fly ash obtained in step (c) to a milling step to form whitened fly ash.
A compact front regulation system for leveling feet for furniture with a bottom and shoulders, of the type comprising, in combination: at least one front foot and at least one rear foot, wherein said at least one rear foot comprises a regulation mechanism in height which is accessible from outside the foot and can be maneuvered by means of a tool, said at least one front foot provides a pass-through hole (41, 42, 43) for the passage from one side to the other of a stem of said regulation tool of said at least one rear foot, wherein said pass-through hole acts as a support and guide for said stem of said tool towards said at least one rear foot, wherein said front feet and said rear feet are inserted in connections that can be applied beneath said bottom, characterized in that said pass-through hole of said front foot is produced as a pass-through hole (42, 43) in said connections and a pass-through hole formed in said front feet, aligned with said pass-through hole (42, 43) of said connection, said pass-through hole (41,42,43) being provided for the passage from one side to the other of a stem of said regulation tool of said at least one rear foot.
An aircraft turbomachine, comprising: - a gas generator having a longitudinal axis, - a fan located at an upstream end of the gas generator and configured to rotate about said axis, and - an electric machine of generally annular shape which is mounted coaxially downstream of the fan, and which comprises a rotor rotatably coupled to the fan, and a stator, the fan being configured to generate a main gas flow, a portion of which flows into a primary annular duct of the gas generator to form a primary flow, and another portion of which flows around the gas generator to form a secondary flow, the primary duct being delimited by a first and a second annular envelopes (37a, 37b) coaxial with the gas generator, the primary duct being passed through by bladings, referred to as IGV, for connecting the first and second envelopes, as well as by tubular arms of an inlet casing located downstream of the IGV arms, the gas generator comprising a third annular envelope which coaxially surrounds the second envelope, the second and third envelopes (37b, 39) being connected together at their upstream ends to form an annular splitter nose for separating the primary and secondary flows (36, 38), characterised in that the stator of the electric machine is connected to a power electronic circuit by at least one rigid electroconductive bar, this bar comprising a first portion extending substantially radially with respect to said axis inside one of the IGV arms, and a second portion extending substantially parallel to said axis between the second and third envelopes (37b, 39). - a gas generator having a longitudinal axis, - a fan located at an upstream end of the gas generator and configured to rotate about said axis, and - an electric machine of generally annular shape which is mounted coaxially downstream of the fan, and which comprises a rotor rotatably coupled to the fan, and a stator, the fan being configured to generate a main gas flow, a portion of which flows into a primary annular duct of the gas generator to form a primary flow, and another portion of which flows around the gas generator to form a secondary flow, the primary duct being delimited by a first and a second annular envelopes (37a, 37b) coaxial with the gas generator, the primary duct being passed through by bladings, referred to as IGV, for connecting the first and second envelopes, as well as by tubular arms of an inlet casing located downstream of the IGV arms, the gas generator comprising a third annular envelope which coaxially surrounds the second envelope, the second and third envelopes (37b, 39) being connected together at their upstream ends to form an annular splitter nose for separating the primary and secondary flows (36, 38), characterised in that the stator of the electric machine is connected to a power electronic circuit by at least one rigid electroconductive bar, this bar comprising a first portion extending substantially radially with respect to said axis inside one of the IGV arms, and a second portion extending substantially parallel to said axis between the second and third envelopes (37b, 39).
A sound processing method for feedback cancellation, the method comprising: receiving an input signal; providing an adaptive feedback cancellation filter configured to filter an output signal output by a processor which adapts under the control of a control modulo, whereby the control module provides updated filter taps for the adaptive feedback cancellation filter, and whereby the adaptive feedback cancellation filter produces a feedback cancellation signal; subtracting the feedback cancellation signal from the input signal to produce a feedback cancelled signal; filtering the input signal with a first whitening filter to produce a first whitened signal and filtering the output signal with a second whitening filter to generate a second whitened signal, the first and second whitening filters being configured to whiten the spectrum of the signal at their input, operating the control module upon the first and second whitened signals (133, 135) to generate the updated filter taps; the method being characterised by: partially whitening the feedback cancelled signal with a partial whitening filter to generate a partially whitened feedback cancelled signal; and processing the partially whitened feedback cancelled signal by the processor. receiving an input signal; providing an adaptive feedback cancellation filter configured to filter an output signal output by a processor which adapts under the control of a control modulo, whereby the control module provides updated filter taps for the adaptive feedback cancellation filter, and whereby the adaptive feedback cancellation filter produces a feedback cancellation signal; subtracting the feedback cancellation signal from the input signal to produce a feedback cancelled signal; filtering the input signal with a first whitening filter to produce a first whitened signal and filtering the output signal with a second whitening filter to generate a second whitened signal, the first and second whitening filters being configured to whiten the spectrum of the signal at their input, operating the control module upon the first and second whitened signals (133, 135) to generate the updated filter taps; partially whitening the feedback cancelled signal with a partial whitening filter to generate a partially whitened feedback cancelled signal; and processing the partially whitened feedback cancelled signal by the processor.
Modified polystyrene-based resin particles comprising polyacrylic acid ester-based resin microparticles having an average particle diameter in the range of from 30 to 1,000 nm being dispersed therein, wherein said polyacrylic acid ester-based resin microparticles are present in the area ratio of from 0.1 to 15% in a surface area, which includes areas up to 20 μm from the surface of each resin particle, and are present in the area ratio of from 11 to 50% in the inner area, which includes the area between the center of each resin particle and a point 30% of the radius from the center of each resin particle; wherein the polyacrylic acid ester-based resin microparticles are formed by polymers of ethyl acrylate, butyl acrylate, 2-ethylhexyl acrylate, or a mixture thereof. are present in the area ratio of from 0.1 to 15% in a surface area, which includes areas up to 20 μm from the surface of each resin particle, and are present in the area ratio of from 11 to 50% in the inner area, which includes the area between the center of each resin particle and a point 30% of the radius from the center of each resin particle;
A therapeutic combination for use in the treatment of cancer, wherein Epidermal growth factor receptor (EGFR) and GM3 N-glycolyl ganglioside (NeuGcGM3) are co-expressed on the tumor, said combination comprising a compound against the EGF receptor selected from a monoclonal antibody that recognizes the EGFR and an anti-EGFR vaccine, and said combination further comprising a compound against the NeuGcGM3 ganglioside wherein the compound against NeuGcGM3 ganglioside is a vaccine.
A compound represented by the following Chemical Formula 1: in Chemical Formula 1, A1 to A5 are each independently a C 6-60 aromatic ring; or a C 2-60 heteroaromatic ring containing at least one of N, O and S, Ar 1 and Ar 2 are each independently a substituted or unsubstituted C 6-60 aromatic ring; or a substituted or unsubstituted C 2-60 heteroaromatic ring containing any one or more of N, O, and S, and at least one of R is benzofuranyl, and the rest are each independently hydrogen; deuterium, halogen; nitrile; nitro; amino; a substituted or unsubstituted C 1-60 alkyl; a substituted or unsubstituted C 3-60 cycloalkyl; a substituted or unsubstituted C 2-60 alkenyl group; or a substituted or unsubstituted C 6-60 aryl, or two adjacent Rs are connected to each other to form a substituted or unsubstituted C 3-6 alkylene. A1 to A5 are each independently a C 6-60 aromatic ring; or a C 2-60 heteroaromatic ring containing at least one of N, O and S, Ar 1 and Ar 2 are each independently a substituted or unsubstituted C 6-60 aromatic ring; or a substituted or unsubstituted C 2-60 heteroaromatic ring containing any one or more of N, O, and S, and at least one of R is benzofuranyl, and the rest are each independently hydrogen; deuterium, halogen; nitrile; nitro; amino; a substituted or unsubstituted C 1-60 alkyl; a substituted or unsubstituted C 3-60 cycloalkyl; a substituted or unsubstituted C 2-60 alkenyl group; or a substituted or unsubstituted C 6-60 aryl, or two adjacent Rs are connected to each other to form a substituted or unsubstituted C 3-6 alkylene.