mhurhangee/ep-ind-claims huggingface dataset:
A method for super resolution using fidelity visual data and using neural networks, the method comprising the steps of: receiving a section of low resolution visual data; receiving a section of fidelity visual data having a higher resolution than the low resolution visual data; extracting, using a first neural network trained to predict content features of high resolution visual data from low resolution visual data, content features from the section of low resolution visual data; extracting, using activations of different layers in a second neural network trained for object recognition, high frequency features of the fidelity visual data from the section of fidelity visual data; and obtaining a section of high resolution visual data by optimising a cost function, wherein the cost function is defined for the section of high resolution visual data as a sum of: a squared error between content features extracted from the section of high resolution visual data using the activations of different layers in a second neural network and the extracted content features of the section of low resolution visual data; and a squared error between the high-frequency features extracted from the section of high resolution visual data using activations of the different layers in the second neural network and the extracted high frequency features of the fidelity visual data. receiving a section of low resolution visual data; receiving a section of fidelity visual data having a higher resolution than the low resolution visual data; extracting, using a first neural network trained to predict content features of high resolution visual data from low resolution visual data, content features from the section of low resolution visual data; extracting, using activations of different layers in a second neural network trained for object recognition, high frequency features of the fidelity visual data from the section of fidelity visual data; and obtaining a section of high resolution visual data by optimising a cost function, wherein the cost function is defined for the section of high resolution visual data as a sum of: a squared error between content features extracted from the section of high resolution visual data using the activations of different layers in a second neural network and the extracted content features of the section of low resolution visual data; and a squared error between the high-frequency features extracted from the section of high resolution visual data using activations of the different layers in the second neural network and the extracted high frequency features of the fidelity visual data. a squared error between content features extracted from the section of high resolution visual data using the activations of different layers in a second neural network and the extracted content features of the section of low resolution visual data; and a squared error between the high-frequency features extracted from the section of high resolution visual data using activations of the different layers in the second neural network and the extracted high frequency features of the fidelity visual data.
A laminated glass cutting apparatus for dividing laminated glass sheets, preferably laminated safety glass sheets, comprising at least two glass plates and an intermediate laminated glass film disposed therebetween, into laminated glass panes, preferably laminated safety glass panes, comprising: - an edge decoating device, - a laminated glass cutting device for separating a laminated glass sheet part (14b;14c) from the laminated glass sheet(14;14a) and/or from a separated laminated glass sheet part (14b-d), - a returning device for returning a separated laminated glass sheet part (14b;14c) to the laminated glass cutting device, the returning device comprising a pivot device for pivoting the separated laminated glass sheet part (14b;14c) about a vertical pivot axis and a transverse transport device for transporting a laminated glass sheet part (14b;14c) in a horizontal transverse direction (y) perpendicular to a main conveying direction, wherein the returning device is arranged such that the returning in a return direction opposite to a main conveying direction takes place above or next to the laminated glass cutting device. - an edge decoating device, - a laminated glass cutting device for separating a laminated glass sheet part (14b;14c) from the laminated glass sheet(14;14a) and/or from a separated laminated glass sheet part (14b-d), - a returning device for returning a separated laminated glass sheet part (14b;14c) to the laminated glass cutting device, the returning device comprising a pivot device for pivoting the separated laminated glass sheet part (14b;14c) about a vertical pivot axis and a transverse transport device for transporting a laminated glass sheet part (14b;14c) in a horizontal transverse direction (y) perpendicular to a main conveying direction, wherein the returning device is arranged such that the returning in a return direction opposite to a main conveying direction takes place above or next to the laminated glass cutting device.
A blow mould for plastic containers, defining a longitudinal axis, comprising at least two lateral half-moulds and a base of the mould, wherein the base of the mould comprises a first member and a second member connectable to each other by means of a quick coupling system comprising at least a first connection pin, between said first member and second member, said at least one first connection pin being fixed to said first member, wherein said second member includes therein - a first slider, defining a first longitudinal sliding direction, sliding along said first direction on an orthogonal plane with respect to said longitudinal axis and capable of taking an unlocking position and a locking position, said first slider being provided with at least one hole to lock said at least one first connection pin therein when the first slider is in the locking position, - and a second slider defining a second longitudinal sliding direction on said plane, intersecting said first sliding direction; said second slider being slidable along said second sliding direction from a first position of mechanical connection with the first slider, wherein the first slider is in the unlocking position, to a second position of releasing from said first slider, wherein the first member and the second member are connected to each other by means of said at least one first connection pin and the first slider is in the blocking position. - a first slider, defining a first longitudinal sliding direction, sliding along said first direction on an orthogonal plane with respect to said longitudinal axis and capable of taking an unlocking position and a locking position, said first slider being provided with at least one hole to lock said at least one first connection pin therein when the first slider is in the locking position, - and a second slider defining a second longitudinal sliding direction on said plane, intersecting said first sliding direction; said second slider being slidable along said second sliding direction from a first position of mechanical connection with the first slider, wherein the first slider is in the unlocking position, to a second position of releasing from said first slider, wherein the first member and the second member are connected to each other by means of said at least one first connection pin and the first slider is in the blocking position.
A sound capture apparatus comprising: a base unit comprising a microphone array arranged to capture a plurality of local audio signals for producing a spatially encoded sound-field signal; a remote microphone device comprising a microphone and an associated storage portion, wherein the remote microphone device is arranged to capture a remote audio signal associated with a sound source with the microphone and store said remote audio signal in the associated storage portion; wherein the apparatus is arranged to: use the plurality of captured local audio signals to produce a spatially encoded sound-field signal comprising a plurality of components; determine a position of the remote microphone device by comparing said remote audio signal with the plurality of components of the spatially encoded sound-field signal; and generate a spatially encoded soundtrack using the spatially encoded sound-field signal and the stored remote audio signal in accordance with the determined position of the remote microphone device. a base unit comprising a microphone array arranged to capture a plurality of local audio signals for producing a spatially encoded sound-field signal; a remote microphone device comprising a microphone and an associated storage portion, wherein the remote microphone device is arranged to capture a remote audio signal associated with a sound source with the microphone and store said remote audio signal in the associated storage portion; use the plurality of captured local audio signals to produce a spatially encoded sound-field signal comprising a plurality of components; determine a position of the remote microphone device by comparing said remote audio signal with the plurality of components of the spatially encoded sound-field signal; and generate a spatially encoded soundtrack using the spatially encoded sound-field signal and the stored remote audio signal in accordance with the determined position of the remote microphone device.
Method of production of a plurality of glass reaction vessels formed as recesses in a single-piece first glass plate, comprising the steps of 1. irradiation of laser pulses with pulse lengths of at most 100 ps at spaced positions of a wavelength, for which the glass plate is transparent, onto the respective locations of the glass plate at which a respective recess is to be produced as a reaction vessel, wherein the laser is set up such that the laser beam does not strike the glass plate between the locations, wherein the focal position of the laser pulses is adjusted such that the focus of the laser pulses does not extend over the entire thickness of the first glass plate, 2. etching the glass plate, for a period of time sufficient to produce recesses having a depth along the locations to produce the recesses, 3. wherein the etching of the glass plate is terminated when the depth of the recesses is only a proportion of the thickness of the first glass plate and therefore the recesses have a bottom formed single-piece in the first glass plate, wherein a concave depression is formed in the bottom at each position of a location. 1. irradiation of laser pulses with pulse lengths of at most 100 ps at spaced positions of a wavelength, for which the glass plate is transparent, onto the respective locations of the glass plate at which a respective recess is to be produced as a reaction vessel, wherein the laser is set up such that the laser beam does not strike the glass plate between the locations, wherein the focal position of the laser pulses is adjusted such that the focus of the laser pulses does not extend over the entire thickness of the first glass plate, 2. etching the glass plate, for a period of time sufficient to produce recesses having a depth along the locations to produce the recesses, 3. wherein the etching of the glass plate is terminated when the depth of the recesses is only a proportion of the thickness of the first glass plate and therefore the recesses have a bottom formed single-piece in the first glass plate, wherein a concave depression is formed in the bottom at each position of a location.
A method of making a tubing assembly comprising: inserting an inner tube (16, 16', 156) into an intermediate tube ( 14, 14', 154) comprising a polymeric material; and inserting the intermediate tube (14, 14', 154) into an outer tube (12, 12', 152) comprising a metallic material; characterised by further comprising: compressing a collet to deform the outer tube (12, 12', 152) to form a uniform radial crimp at an inlet end and/or an outlet end of the tubing assembly to thereby press the intermediate tube (14, 14', 154) against the inner tube (16, 16', 156) and generate a fluid-tight radial seal between the inner, intermediate and outer tubes, the uniform radial crimp including a base region where the diameter of the outer tube (12, 12', 152) is reduced to a constant smaller diameter value for an extended non-zero longitudinal length. inserting an inner tube (16, 16', 156) into an intermediate tube ( 14, 14', 154) comprising a polymeric material; and inserting the intermediate tube (14, 14', 154) into an outer tube (12, 12', 152) comprising a metallic material; characterised by further comprising: compressing a collet to deform the outer tube (12, 12', 152) to form a uniform radial crimp at an inlet end and/or an outlet end of the tubing assembly to thereby press the intermediate tube (14, 14', 154) against the inner tube (16, 16', 156) and generate a fluid-tight radial seal between the inner, intermediate and outer tubes, the uniform radial crimp including a base region where the diameter of the outer tube (12, 12', 152) is reduced to a constant smaller diameter value for an extended non-zero longitudinal length.
A compass comprising a base member; and a vial assembly pivotally coupled to said base member, the vial assembly comprising: a vial with at least one orienting marker; an azimuth ring; and a magnetized indicator member journaled in the vial, the magnetized indicator member pointing to magnetic north; characterized in that the magnetized indicator member comprises a through hole; and the orienting marker has an outer contour, wherein the shape of the outer contour of the orienting marker essentially corresponds to the shape of the inner contour of the through hole, such that outer contour of the orienting marker virtually matches the inner contour of the through hole when pointing northwards; wherein the outer contour of the orienting marker and the inner contour of the through hole are of a circular shape; and wherein the circular shaped contours further comprise matching indentations (9, 10). a vial with at least one orienting marker; an azimuth ring; and a magnetized indicator member journaled in the vial, the magnetized indicator member pointing to magnetic north;
Layered support alternately comprising several elastomeric layers and several reinforcing layers, wherein at least one elastomeric layer comprises an elastically compressible elastomeric block with a top surface and a bottom surface situated opposite each other and with at least one bulging surface in between them, wherein the elastomeric block has a height amounting to the distance between the top surface and the bottom surface, wherein the bulging surface of the elastomeric block bulges out elastically when the elastomeric block is compressed between its top surface and its bottom surface by a load, such that the height of the elastomeric block amounts to a compressed height, wherein at least a first reinforcing layer comprises a rigid top plate which abuts against the top surface of the elastomeric block and at least a second reinforcing layer comprises a rigid bottom plate which abuts against the bottom surface of the elastomeric block, wherein at least the top plate and/or the bottom plate are/is provided with a raised edge, characterised in that the raised edge has a surface extending at least partly opposite the bulging surface, wherein the bulging surface bulges out elastically and abuts at least partly against the surface of the raised edge when the elastomeric block is compressed between the top surface and the bottom surface and the height is decreased to a minimum height.
A sweetener composition comprising a stevia extract comprising 90 mass% or more, preferably 95 mass% or more of rebaudioside A, and mogroside V, wherein rebaudioside A and mogroside V are mixed in the sweetener composition at a mass ratio of rebaudioside A to mogroside V of 96:4 to 98:2.
A method of precoding a plurality of orthogonal frequency division multiplex, OFDM, symbols in an uplink transmission stream, comprising: assigning a first precoding matrix to a first OFDM symbol, wherein the first precoding matrix is selected from a known library of precoding matrices; assigning a second precoding matrix to a second OFDM symbol, the second precoding matrix being different from the first precoding matrix, wherein the assigning the second precoding matrix includes: permuting columns of the first precoding matrix; selecting another precoding matrix from the known library of precoding matrices when the first precoding matrix has been permuted a number of times equal to a transmission rank, the selecting another precoding matrix conducted according to a predetermined selection sequence; and assigning the another precoding matrix to a next OFDM symbol. assigning a first precoding matrix to a first OFDM symbol, wherein the first precoding matrix is selected from a known library of precoding matrices; assigning a second precoding matrix to a second OFDM symbol, the second precoding matrix being different from the first precoding matrix, wherein the assigning the second precoding matrix includes: permuting columns of the first precoding matrix; selecting another precoding matrix from the known library of precoding matrices when the first precoding matrix has been permuted a number of times equal to a transmission rank, the selecting another precoding matrix conducted according to a predetermined selection sequence; and assigning the another precoding matrix to a next OFDM symbol. permuting columns of the first precoding matrix; selecting another precoding matrix from the known library of precoding matrices when the first precoding matrix has been permuted a number of times equal to a transmission rank, the selecting another precoding matrix conducted according to a predetermined selection sequence; and assigning the another precoding matrix to a next OFDM symbol.
An X-ray sensor having an active detector region comprising a plurality of detector diodes arranged on a surface region of the X-ray sensor said X-ray sensor further comprising a junction termination surrounding said surface area comprising said plurality of detector diodes, said junction termination comprising a guard ring arranged closest to the end of said surface region, a field stop arranged outside said guard ring and a number N of field limiting rings, FLRs arranged between said guard ring and said field stop characterised in that each of the FLRs is positioned so that the distance Δ 1 between the guan ring and the first FLR closest to the guard ring and the distances Δ n between adjacent FLRs n and n-1 (n ≧ 2) fulfil the following constraints: - the distances Δ(n) lie within an effective area on the Δ - n diagram, said effective area being bounded by the lines α = (10 +1,3 × (n-1)) μm and β= (5+1,05 × (n-1)) μm, and - the distance between successive FLRs is either constant or increases with increasing n where n denotes the index position of the FLRs, wherein1 ≤ n ≤ N, where N is the total number of FLRs. - the distances Δ(n) lie within an effective area on the Δ - n diagram, said effective area being bounded by the lines α = (10 +1,3 × (n-1)) μm and β= (5+1,05 × (n-1)) μm, and - the distance between successive FLRs is either constant or increases with increasing n where n denotes the index position of the FLRs, wherein1 ≤ n ≤ N, where N is the total number of FLRs.
A wired/wireless charging apparatus (100, 200, 300, 400, 500) comprising: a body (120, 220, 320, 420, 520) including a wired charging circuit for wired charging, a wireless charging circuit for wireless charging, and a battery mounting space; a cover (110, 210, 310, 410, 510) coupled with the body and including a transmission coil (111, 211, 311, 411, 511) generating a magnetic field for the wireless charging; and a contact unit (140, 340, 440, 540, 760, 880) for connecting the transmission coil to the wireless charging circuit, wherein wired charging for a first battery in the battery mounting space and wireless charging for a second battery mounted in a portable terminal may be performed simultaneously, wherein the transmission coil is electrically connected with the wireless charging circuit through the contact unit when the cover is closed and is isolated to the wireless charging circuit when the cover is open. a body (120, 220, 320, 420, 520) including a wired charging circuit for wired charging, a wireless charging circuit for wireless charging, and a battery mounting space; a cover (110, 210, 310, 410, 510) coupled with the body and including a transmission coil (111, 211, 311, 411, 511) generating a magnetic field for the wireless charging; and a contact unit (140, 340, 440, 540, 760, 880) for connecting the transmission coil to the wireless charging circuit, wherein wired charging for a first battery in the battery mounting space and wireless charging for a second battery mounted in a portable terminal may be performed simultaneously, wherein the transmission coil is electrically connected with the wireless charging circuit through the contact unit when the cover is closed and is isolated to the wireless charging circuit when the cover is open.
A process for preparing polyunsaturated fatty acid-concentrated oil, which comprises: subjecting oil and fat that contain polyunsaturated fatty acids as constituent fatty acids to alcoholysis reaction using lipase in the presence of an alcohol and water and at least one compound, as a reaction additive, selected from magnesium oxide, magnesium hydroxide, calcium oxide and calcium hydroxide, wherein the amount of water added is 1% to 30% (v/v) relative to the alcohol, wherein the lipase is selected from lipases obtained from the microorganisms of Alcaligenes sp., Thermomyces lanuginosus, Burkholderia cepacia, and Pseudomonas fluorescens, and wherein the polyunsaturated fatty acids have 20 to 22 carbon atoms and 4 to 6 double bonds; and separating a glyceride fraction in which polyunsaturated fatty acids are concentrated. subjecting oil and fat that contain polyunsaturated fatty acids as constituent fatty acids to alcoholysis reaction using lipase in the presence of an alcohol and water and at least one compound, as a reaction additive, selected from magnesium oxide, magnesium hydroxide, calcium oxide and calcium hydroxide, wherein the amount of water added is 1% to 30% (v/v) relative to the alcohol, wherein the lipase is selected from lipases obtained from the microorganisms of Alcaligenes sp., Thermomyces lanuginosus, Burkholderia cepacia, and Pseudomonas fluorescens, and wherein the polyunsaturated fatty acids have 20 to 22 carbon atoms and 4 to 6 double bonds; and separating a glyceride fraction in which polyunsaturated fatty acids are concentrated.