mhurhangee/ep-ind-claims huggingface dataset:
Method for checking functionality of a membrane filtration module (3, 13) in a filtration system (1, 14) characterised in that at least one filtrate (4, 12) is analysed during a filtration process of a liquid by a surface plasmon resonance sensor, so-called SPR sensor, on the filtrate side, the method further comprises a measuring of a substance concentration (8, 15) of at least one substance of the filtrate (4, 12) by the SPR sensor on the filtrate side and a measuring of a substance concentration of at least one substance of the non-filtrate by a SPR sensor on the non-filtrate side.
Processor-implemented method for creating a perceptual harmony map of an image from eight harmonious color templates ( T m) made of multiple sectors of a hue wheel, each sector having an angular position of its center (α m) and a size (wm), characterized in that it comprises: - calculating a multi-resolution decomposition of the image, - at each resolution level, - for each harmonious color template ( T m), computing an optimal rotation angle (α m,l) of said harmonious color template ( T m) and a harmony distance ( HD m,l ( h)) for the hue value associated with each pixel of the image at the resolution level, - computing a harmony distance map (HDMap l ( x,y)) by weighting the sum of harmony distances ( HD m,l ( h)) computed for the harmonious color templates, - calculating a contrast map ( CM l,o ( m,n)) and an entropy activity map (SML l ( x,y)) reflecting the uncertainty of the image, - obtaining a perceptual harmony map ( PHDMap l ( x,y)) by integrating together the contrast map ( CM l,o ( m,n)), the entropy activity map (SML l ( x,y)) and the harmony distance map (HDMap l ( x,y)), and - obtaining the perceptual harmony map of the image ( PHMap (x, y)) by accumulating the perceptual harmony maps ( PHDMap l ( x,y)) calculated over the different resolution levels. - calculating a multi-resolution decomposition of the image, - at each resolution level, - for each harmonious color template ( T m), computing an optimal rotation angle (α m,l) of said harmonious color template ( T m) and a harmony distance ( HD m,l ( h)) for the hue value associated with each pixel of the image at the resolution level, - computing a harmony distance map (HDMap l ( x,y)) by weighting the sum of harmony distances ( HD m,l ( h)) computed for the harmonious color templates, - calculating a contrast map ( CM l,o ( m,n)) and an entropy activity map (SML l ( x,y)) reflecting the uncertainty of the image, - obtaining a perceptual harmony map ( PHDMap l ( x,y)) by integrating together the contrast map ( CM l,o ( m,n)), the entropy activity map (SML l ( x,y)) and the harmony distance map (HDMap l ( x,y)), and - for each harmonious color template ( T m), computing an optimal rotation angle (α m,l) of said harmonious color template ( T m) and a harmony distance ( HD m,l ( h)) for the hue value associated with each pixel of the image at the resolution level, - computing a harmony distance map (HDMap l ( x,y)) by weighting the sum of harmony distances ( HD m,l ( h)) computed for the harmonious color templates, - calculating a contrast map ( CM l,o ( m,n)) and an entropy activity map (SML l ( x,y)) reflecting the uncertainty of the image, - obtaining a perceptual harmony map ( PHDMap l ( x,y)) by integrating together the contrast map ( CM l,o ( m,n)), the entropy activity map (SML l ( x,y)) and the harmony distance map (HDMap l ( x,y)), and - obtaining the perceptual harmony map of the image ( PHMap (x, y)) by accumulating the perceptual harmony maps ( PHDMap l ( x,y)) calculated over the different resolution levels.
An endoscope comprising: an imaging device (20A, B, C) that is provided in a tip portion of an insertion part capable of being inserted into a body cavity, wherein the imaging device (20A, B, C) includes a solid-state imaging element that photoelectrically converts imaging light incident on an imaging area of an image receiving surface thereof through an imaging lens, and a circuit substrate (41, 61) including a connecting surface (25a, 41a) facing a terminal face that is a surface opposite to the image receiving surface of the solid-state imaging element, wherein a plurality of terminals are uniformly arranged longitudinally and laterally in a two-dimensional matrix form on the terminal face (23a, 41a) of the solid-state imaging element, the connecting surface of the circuit substrate and the terminal face of the solid-state imaging element are connected to each other through the plurality of terminals, the total area of the plurality of terminals, which are arranged on the terminal face, occupies 10% or more of the area of the imaging area of the image receiving surface of the solid-state imaging element, characterised in that: the circuit substrate (41, 61) is a rigid substrate of which bending stiffness is higher than bending stiffness of the solid-state imaging element. an imaging device (20A, B, C) that is provided in a tip portion of an insertion part capable of being inserted into a body cavity, wherein the imaging device (20A, B, C) includes a solid-state imaging element that photoelectrically converts imaging light incident on an imaging area of an image receiving surface thereof through an imaging lens, and a circuit substrate (41, 61) including a connecting surface (25a, 41a) facing a terminal face that is a surface opposite to the image receiving surface of the solid-state imaging element, wherein a plurality of terminals are uniformly arranged longitudinally and laterally in a two-dimensional matrix form on the terminal face (23a, 41a) of the solid-state imaging element, the connecting surface of the circuit substrate and the terminal face of the solid-state imaging element are connected to each other through the plurality of terminals, the total area of the plurality of terminals, which are arranged on the terminal face, occupies 10% or more of the area of the imaging area of the image receiving surface of the solid-state imaging element, characterised in that: the circuit substrate (41, 61) is a rigid substrate of which bending stiffness is higher than bending stiffness of the solid-state imaging element.
A method for locating an abnormality within a breast, the method comprising: acquiring first imaging data for a breast from a first imaging modality, wherein the first imaging modality is at least one of an x-ray-based imaging modality or a magnetic resonance imaging modality; acquiring second imaging data for the breast from a second imaging modality, wherein the second imaging modality is at least one of an ultrasound imaging modality or a thermal imaging modality; co-registering the first imaging data from the first imaging modality with the second imaging data from the second imaging modality, such that the first imaging data and the second imaging data share a common coordinate space; based on the second imaging data from the second imaging modality, generating a model of one or more structures within the breast to generate a mapping of the one or more structures; locating from the first imaging data, the abnormality in the breast; and based at least on the generated model of the one or more structures, determining a location of the abnormality relative to modeled one or more structures within the breast. acquiring first imaging data for a breast from a first imaging modality, wherein the first imaging modality is at least one of an x-ray-based imaging modality or a magnetic resonance imaging modality; acquiring second imaging data for the breast from a second imaging modality, wherein the second imaging modality is at least one of an ultrasound imaging modality or a thermal imaging modality; co-registering the first imaging data from the first imaging modality with the second imaging data from the second imaging modality, such that the first imaging data and the second imaging data share a common coordinate space; based on the second imaging data from the second imaging modality, generating a model of one or more structures within the breast to generate a mapping of the one or more structures; locating from the first imaging data, the abnormality in the breast; and based at least on the generated model of the one or more structures, determining a location of the abnormality relative to modeled one or more structures within the breast.
A manufacturing method for manufacturing a rubber composition, for a tire, which contains a rubber component having at least two kinds of rubber components, a compound represented by Formula, and a silane coupling agent having a mercapto group, the manufacturing method comprising: a step X1 of kneading a first rubber component of the rubber component and the compound; a step X2 of adding the silane coupling agent to a kneaded product obtained in the step X1, and kneading a product obtained by the addition; and a step X3 of adding a second rubber component of the rubber component to a kneaded product obtained in the step X2, and kneading a product obtained by the addition, wherein the first rubber component has a lower activating ability with respect to a mercapto group than the second rubber component. (In the Formula, R 1 to R 4 each independently represent a straight chain or branched chain alkyl group having 1 to 18 carbon atoms, or a cycloalkyl group having 5 to 12 carbon atoms.) a step X1 of kneading a first rubber component of the rubber component and the compound; a step X2 of adding the silane coupling agent to a kneaded product obtained in the step X1, and kneading a product obtained by the addition; and a step X3 of adding a second rubber component of the rubber component to a kneaded product obtained in the step X2, and kneading a product obtained by the addition, wherein the first rubber component has a lower activating ability with respect to a mercapto group than the second rubber component. (In the Formula, R 1 to R 4 each independently represent a straight chain or branched chain alkyl group having 1 to 18 carbon atoms, or a cycloalkyl group having 5 to 12 carbon atoms.)
Oil supply system for a machine, in particular for a power unit of a motor vehicle, with a module body made of plastic comprising a collection tank which is divided into a prechamber and a main chamber, a predelivery pump which can extract oil from the prechamber and pump it into the main chamber, a main delivery pump which can extract oil from the main chamber and pump it to the machine, and a return line which can return oil from the machine to the prechamber and/or the main chamber, characterized in that the predelivery pump and the main delivery pump are driven by a common electric motor forming a compact oil pump assembly and this oil pump assembly is arranged on or integrated in the module body.
A method, comprising: detecting, by an accelerometer disposed in a mobile station motion of said mobile station; changing a power state of the accelerometer in response to the accelerometer detecting motion of said device; characterized in that the method further comprises: changing a power state of a gyroscope, also disposed in said mobile station, from a sleep mode to a normal operational mode to perform a first measurement activity in response to said detecting said motion of the device, the sleep mode being different from the normal operational mode, wherein said changing the power state of the accelerometer comprises changing the power state of the accelerometer from a low-power mode to a normal operational mode in response to detecting said motion of the device in order to perform a second measurement activity, the low-power mode drawing more power than in a sleep mode; and changing the power state of the gyroscope back to the sleep mode, and the power state of the accelerometer back to the low-power mode, upon completion of the first or second measurement activity. detecting, by an accelerometer disposed in a mobile station motion of said mobile station; changing a power state of the accelerometer in response to the accelerometer detecting motion of said device; characterized in that the method further comprises: changing a power state of a gyroscope, also disposed in said mobile station, from a sleep mode to a normal operational mode to perform a first measurement activity in response to said detecting said motion of the device, the sleep mode being different from the normal operational mode, wherein said changing the power state of the accelerometer comprises changing the power state of the accelerometer from a low-power mode to a normal operational mode in response to detecting said motion of the device in order to perform a second measurement activity, the low-power mode drawing more power than in a sleep mode; and changing the power state of the gyroscope back to the sleep mode, and the power state of the accelerometer back to the low-power mode, upon completion of the first or second measurement activity. changing a power state of a gyroscope, also disposed in said mobile station, from a sleep mode to a normal operational mode to perform a first measurement activity in response to said detecting said motion of the device, the sleep mode being different from the normal operational mode, wherein said changing the power state of the accelerometer comprises changing the power state of the accelerometer from a low-power mode to a normal operational mode in response to detecting said motion of the device in order to perform a second measurement activity, the low-power mode drawing more power than in a sleep mode; and changing the power state of the gyroscope back to the sleep mode, and the power state of the accelerometer back to the low-power mode, upon completion of the first or second measurement activity.
A method for producing triethyl citrate from one or more plants of genus Nicotiana, the method comprising: isolating an ethanol-containing component from harvested biomass or seed of the Nicotiana species by subjecting the harvested biomass or seed or a portion thereof to fermentation followed by cold pressing, solvent extraction, chromatography, distillation, filtration, recrystallization, solvent-solvent partitioning, or a combination thereof to form an isolated ethanol-containing component; isolating a citric-acid-containing component from harvested biomass or one or more anatomical parts of the Nicotiana species by subjecting the harvested biomass or one or more anatomical parts or a portion thereof to cold pressing, solvent extraction, chromatography, distillation, filtration, recrystallization, solvent-solvent partitioning, or a combination thereof to form an isolated citric-acid-containing component; reacting the ethanol-containing component with the citric-acid-containing component under conditions favoring esterification, thereby forming a triethyl-citrate-containing component. isolating an ethanol-containing component from harvested biomass or seed of the Nicotiana species by subjecting the harvested biomass or seed or a portion thereof to fermentation followed by cold pressing, solvent extraction, chromatography, distillation, filtration, recrystallization, solvent-solvent partitioning, or a combination thereof to form an isolated ethanol-containing component; isolating a citric-acid-containing component from harvested biomass or one or more anatomical parts of the Nicotiana species by subjecting the harvested biomass or one or more anatomical parts or a portion thereof to cold pressing, solvent extraction, chromatography, distillation, filtration, recrystallization, solvent-solvent partitioning, or a combination thereof to form an isolated citric-acid-containing component; reacting the ethanol-containing component with the citric-acid-containing component under conditions favoring esterification, thereby forming a triethyl-citrate-containing component.
Kit for fitting a spring suspension device of a vehicle, characterized in that it comprises a retaining cup intended to act as a support base for said spring, a first guide piece for fitting the spring in the clockwise direction and a second guide piece for fitting said spring in the counterclockwise direction, and in that said cup has a common receiving surface suitable for receiving one or the other of said two guide pieces (10, 11) depending on the direction of fitting chosen.
Laminated cellulose-based, liquid- or semi-liquid food packaging material (10a;10b;10c;10d), for heat sealing into aseptic packaging containers, comprising a bulk material layer (11a;11b;11c;11d) of paper, paperboard or other cellulose-based material, an innermost, heat sealable and liquid-tight layer (15a;15b;15c;15d) of a thermoplastic polymer, the innermost polymer layer intended to be in direct contact with the packaged food product, a barrier layer (12-13-14 (a;b;c;d)) laminated between the bulk layer and the innermost layer, wherein the bulk material layer is selected from a layer comprising a foam-formed fibrous cellulose and having a density lower than 700 kg/m3, a layer of linerboard having a density lower than 850 kg/m3 and a layer of fluting paper having a density from 600 to 750 kg/m3, wherein the barrier layer is a compact-surface barrier paper (12a;12b;12c;12d), which is coated with a pre-coating material (13a;13b;13c;13d) and subsequently further coated with a vapour deposition barrier coating (14a;14b;14c;14d) onto the pre-coating surface, the pre-coating material being a barrier material selected from the group consisting of polyvinyl alcohol (PVOH), ethylene vinyl alcohol (EVOH), starch and starch derivatives, cellulose and cellulose derivatives, such as nano-/micro-fibrillar cellulose and nanocrystalline cellulose, and other polysaccharides and polysaccharide derivatives, polyvinylidene chloride (PVDC), and polyamides, wherein the compact-surface barrier paper has a density of 800 kg/m3 or higher, a surface smoothness value below 300 ml/minute Bendtsen (ISO 8791-2), a thickness of 60 μm or lower and a grammage of 60 g/m2 or lower, an air permeance below 2,0 nm/Pas (SCAN P26), and a tensile strength from 40 to 80 MPa in cross direction, CD, and from 140 to 180 MPa in the machine direction, MD.
An aircraft turbine engine comprising at least one combustion chamber and a body, in particular a low-pressure body, said body comprising, upstream of said chamber, an axial compressor, in particular low-pressure, intended to deliver air to said chamber and, downstream of said chamber, a turbine receiving hot gases from said chamber and intended to drive the rotor of said compressor, said compressor comprising at least one compression stage (201, 202, 203, 204) having a first stationary vane ring secured to a casing and a first movable vane ring extending radially at the periphery of said rotor of the compressor, said turbine engine being characterised in that it furthermore comprises, downstream of said compressor and upstream of said chamber, at least one electric machine which is coaxial or parallel to said body, the stator of which is secured to said casing and the rotor of which drives in rotation a second movable vane ring configured so as to generate a flow of air when it is rotated, said rotor of the electric machine being furthermore guided in rotation by at least one bearing secured to said casing so that the speed of rotation of said rotor of the electric machine is independent of the speed of rotation of the rotor of the compressor.
A color processing program comprising instructions which, when said program is executed by a computer, cause the computer to execute processing of: transforming a first color information indicating a first color in a first color space into a second color information in a second color space which is an opponent color space different from the first color space, according to a type of a color vision and a color vision strength indicating a degree of the color vision, wherein the second color space is an ATD color space indicating a color space of a human optic nerve layer, wherein the ATD color space is a three-dimensional space made of a brightness coordinate A and opponent color coordinates T and D; calculating, in the second color space, a third color information having a predetermined color difference with respect to the transformed second color information, wherein the processing of calculating the third color information calculates the third color information by changing at least a T component or a D component of an A component, the T component, and the D component which are included in the second color information; and transforming the calculated third color information into a fourth color information indicating a second color in the first color space, according to a type of a color vision and a color vision strength indicating a degree of the color vision. transforming a first color information indicating a first color in a first color space into a second color information in a second color space which is an opponent color space different from the first color space, according to a type of a color vision and a color vision strength indicating a degree of the color vision, wherein the second color space is an ATD color space indicating a color space of a human optic nerve layer, wherein the ATD color space is a three-dimensional space made of a brightness coordinate A and opponent color coordinates T and D; calculating, in the second color space, a third color information having a predetermined color difference with respect to the transformed second color information, wherein the processing of calculating the third color information calculates the third color information by changing at least a T component or a D component of an A component, the T component, and the D component which are included in the second color information; and transforming the calculated third color information into a fourth color information indicating a second color in the first color space, according to a type of a color vision and a color vision strength indicating a degree of the color vision.