mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a ceramic matrix composite component having an internal cooling circuit, the method comprising: wrapping at least a first sheet (22; 122) around a first mandrel (20; 120); wrapping at least a second sheet (22; 122) around a second mandrel (20; 120); creating a first plurality of holes (26; 126) in the first sheet (22; 122) corresponding to a plurality of openings (24; 124) in the first mandrel (20; 120); creating a second plurality of holes (26; 126) in the second sheet (22; 122) corresponding to a plurality of openings (24; 124) in the second mandrel (20; 120); aligning the first mandrel (20; 120) and the second mandrel (20; 120); wrapping at least a third sheet (22; 122) around both the first mandrel (20; 120) and second mandrel (20; 120) to form a preform (28; 128), the preform (28; 128) comprising each of the first sheet (22; 122), the second sheet (22; 122), and the third sheet (22; 122); and densifying the preform (28; 128), wherein the first sheet (22; 122), second sheet (22; 122), and third sheet (22; 122) are formed from a ceramic fiber material; characterized in that the step of aligning the first mandrel (20; 120) and the second mandrel (20; 120) is carried out such that the first plurality of holes (26; 126) face and are aligned with the second plurality of holes (26; 126) forming a corresponding plurality of open channels (30; 130). wrapping at least a first sheet (22; 122) around a first mandrel (20; 120); wrapping at least a second sheet (22; 122) around a second mandrel (20; 120); creating a first plurality of holes (26; 126) in the first sheet (22; 122) corresponding to a plurality of openings (24; 124) in the first mandrel (20; 120); creating a second plurality of holes (26; 126) in the second sheet (22; 122) corresponding to a plurality of openings (24; 124) in the second mandrel (20; 120); aligning the first mandrel (20; 120) and the second mandrel (20; 120); wrapping at least a third sheet (22; 122) around both the first mandrel (20; 120) and second mandrel (20; 120) to form a preform (28; 128), the preform (28; 128) comprising each of the first sheet (22; 122), the second sheet (22; 122), and the third sheet (22; 122); and densifying the preform (28; 128), wherein the first sheet (22; 122), second sheet (22; 122), and third sheet (22; 122) are formed from a ceramic fiber material; characterized in that the step of aligning the first mandrel (20; 120) and the second mandrel (20; 120) is carried out such that the first plurality of holes (26; 126) face and are aligned with the second plurality of holes (26; 126) forming a corresponding plurality of open channels (30; 130).
A solid composition in the form of a plurality of composite particles, wherein each composite particle comprises a core that is at least partially coated with elementary particles having weight average particle size at least 10 times smaller than the D50 of the core, wherein: - the core comprises a low crystallinity fluoropolymer (fluoropolymer (a)), having a heat of fusion not higher than 4 J/g, and - the elementary particles have a D50 from 1 to 1000 nm as determined via photon correlation spectroscopy using the method ISO 13321:1996, and comprise a high crystallinity fluoropolymer (fluoropolymer (b)), having a heat of fusion above 10 J/g, said heat of fusion values being determined by DSC following the procedure of ASTM D3418-08, said composition being characterised in that the weight ratio of fluoropolymer (a) to fluoropolymer (b) is from 96:4 to 99.99:0.01. - the core comprises a low crystallinity fluoropolymer (fluoropolymer (a)), having a heat of fusion not higher than 4 J/g, and - the elementary particles have a D50 from 1 to 1000 nm as determined via photon correlation spectroscopy using the method ISO 13321:1996, and comprise a
A body-enhancing garment, the body-enhancing garment comprising: a front side; a rear side, the rear side opposite the front side; an adjusted pattern displayed on at least one of the front side and the rear side, characterized in that the adjusted pattern is created based on a desired 3-D body shape and a shaping effect of warping by: converting the desired 3-D body shape into a 2-D depth map; positioning a flat pattern on the 2-D depth map; and modifying the flat pattern based on the positioning of the flat pattern on the 2-D depth map to create the adjusted pattern, and wherein the adjusted pattern is manipulated around a first feature of a wearer to change a perceived shape of the first feature of the wearer toward a desired first feature shape of the desired 3-D body shape. a front side; a rear side, the rear side opposite the front side; an adjusted pattern displayed on at least one of the front side and the rear side, characterized in that the adjusted pattern is created based on a desired 3-D body shape and a shaping effect of warping by: converting the desired 3-D body shape into a 2-D depth map; positioning a flat pattern on the 2-D depth map; and modifying the flat pattern based on the positioning of the flat pattern on the 2-D depth map to create the adjusted pattern, and converting the desired 3-D body shape into a 2-D depth map; positioning a flat pattern on the 2-D depth map; and modifying the flat pattern based on the positioning of the flat pattern on the 2-D depth map to create the adjusted pattern, and wherein the adjusted pattern is manipulated around a first feature of a wearer to change a perceived shape of the first feature of the wearer toward a desired first feature shape of the desired 3-D body shape.
Screw with a screw head having a screw drive, said screw drive comprising cams (14a, 14b, 14c) formed by making recesses in the screw head around the cams (14a, 14b, 14c), each cam having two side faces (18a, 18b) used for transmitting a rotary motion, and an end face (16a, 16b, 16c) connecting the side faces (18a, 18b), which end face (16a, 16b, 16c) has a concave surface contour at the end of the contact area facing away from the screw shank, characterized in that the end face (16a, 16b, 16c) is designed in such a way that a virtual circumference (20a, 20b, 20c), which extends around the screw axis in a plane orthogonal to the screw axis and has a radius assigned to the plane, has a contact point (22a, 22b, 22c) on the cam at the end face (16a, 16b, 16c) of the latter, with a multitude of such contact points (22a, 22b, 22c) being formed over at least part of the axial height of the end face (16a, 16b, 16c) - the contact area - which points of contact (22a, 22b, 22c) form a contact line (24a, 24b, 24c) at the centre of the end face (16a, 16b, 16c) so that when a matching tool having a base body of circular cross-section is used, said tool, when inserted, will only make linear contact with the end face.
A method for controlling selection of information on a touch-sensitive display, the information including at least one of text, characters, symbols, images and icons, the method comprising: displaying the information on the touch-sensitive display; detecting a first touch at a first location on the touch-sensitive display, the first touch meeting a touch criterion or criteria; in response to detecting the first touch, identifying one or both of punctuation in the information and paragraph breaks in the information as delimiters in the information displayed on the touch-sensitive display, and displaying a graphical selection element including only control delimiters that correspond to the delimiters identified in the information displayed; in response to detecting a second touch that begins at a second location associated with the graphical selection element and moves along the graphical selection element: identifying a nearest one of the control delimiters displayed in the graphical selection element to the second touch; and selecting information from the first location to one of the delimiters identified in the information displayed that corresponds to the identified nearest one of the control delimiters displayed in the graphical selection element. displaying the information on the touch-sensitive display; detecting a first touch at a first location on the touch-sensitive display, the first touch meeting a touch criterion or criteria; in response to detecting the first touch, identifying one or both of punctuation in the information and paragraph breaks in the information as delimiters in the information displayed on the touch-sensitive display, and displaying a graphical selection element including only control delimiters that correspond to the delimiters identified in the information displayed; in response to detecting a second touch that begins at a second location associated with the graphical selection element and moves along the graphical selection element: identifying a nearest one of the control delimiters displayed in the graphical selection element to the second touch; and selecting information from the first location to one of the delimiters identified in the information displayed that corresponds to the identified nearest one of the control delimiters displayed in the graphical selection element. identifying a nearest one of the control delimiters displayed in the graphical selection element to the second touch; and selecting information from the first location to one of the delimiters identified in the information displayed that corresponds to the identified nearest one of the control delimiters displayed in the graphical selection element.
A use of a system for encoding images, wherein the use comprises encoding multi-view stereoscopic image data into a monoscopic video format, wherein the system is configured to reduce pixels of a pair of stereoscopic images, format the reduced pixels into an image pattern, and encode the image pattern as a frame in the monoscopic video format, characterized in that the reduction and formatting of pixels comprises alternately subsampling each image of the pair of stereoscopic images and placing the subsamples in locations of the image pattern corresponding to the locations of the image from which they were subsampled, the image pattern alternates, at a predetermined rate, between a first lattice of pixels and a second lattice of pixels, the first lattice of pixels comprising a checkerboard wherein "black" pixels of the checkerboard comprise pixels derived from a first image of the stereoscopic pair of images and "white" pixels of the checkerboard comprise pixels derived from a second image of the stereoscopic pair of images, and the second lattice of pixels comprising a checkerboard wherein "white" pixels of the checkerboard comprise pixels derived from the first image of the stereoscopic pair of images and "black" pixels of the checkerboard comprise pixels derived from the second image of the stereoscopic pair of images.
A method comprising: monitoring audio samples in a first component in an integrated circuit during a time that a remainder of the integrated circuit is powered down, wherein the first component is powered on during the time and is operating according to a first clock; detecting a key phrase in the audio samples by the first component; powering up at least a portion of the integrated circuit responsive to the detecting; determining that a second clock used within the integrated circuit is available, wherein the second clock has at least one characteristic indicative of higher performance/quality to the integrated circuit than a corresponding characteristic of the first clock; responsive to determining that the second clock is available, switching to the second clock in the first component while ensuring that no more than a threshold number of audio samples is lost or corrupted during the switching; capturing a first plurality of the audio samples by the first component operating according to the first clock; capturing a second plurality of the audio samples by the first component operating according to the second clock; writing the first plurality of the audio samples and the second plurality of the audio samples to a memory to which the integrated circuit is coupled; and processing the first plurality of the audio samples and the second plurality of the audio samples from the memory as a single phrase. monitoring audio samples in a first component in an integrated circuit during a time that a remainder of the integrated circuit is powered down, wherein the first component is powered on during the time and is operating according to a first clock; detecting a key phrase in the audio samples by the first component; powering up at least a portion of the integrated circuit responsive to the detecting; determining that a second clock used within the integrated circuit is available, wherein the second clock has at least one characteristic indicative of higher performance/quality to the integrated circuit than a corresponding characteristic of the first clock; responsive to determining that the second clock is available, switching to the second clock in the first component while ensuring that no more than a threshold number of audio samples is lost or corrupted during the switching; capturing a first plurality of the audio samples by the first component operating according to the first clock; capturing a second plurality of the audio samples by the first component operating according to the second clock; writing the first plurality of the audio samples and the second plurality of the audio samples to a memory to which the integrated circuit is coupled; and processing the first plurality of the audio samples and the second plurality of the audio samples from the memory as a single phrase.
Motor vehicle having at least one sound-generating system (7, 8) for generating artificial engine noise, which system (7, 8) has at least one electrically controllable vibration exciter and one component to which the vibration exciter is attached, wherein the vibration exciter serves to excite vibrations of the component, and the component is decoupled (9, 70) from the bodywork of the motor vehicle acoustically and/or in terms of vibrations, characterized in that the component is of planar design and is itself secured to the motor vehicle (1, 10, 20) by means of a securing device, which device at least for the most part covers the component, and in that the vibration exciter is attached to a side of the component which is at least for the most part covered by the securing device.
A method of providing power to an electrosurgical instrument comprising: generating a non-sinusoidal driving voltage having a constant driving frequency; providing the non- sinusoidal driving voltage to a series LC circuit; generating a quasi- sinusoidal current in the series LC circuit from the non-sinusoidal driving voltage; and providing the quasi-sinusoidal current to an electrical output, wherein the electrical output is configured for coupling to an electrical input of a bipolar tissue-sealing surgical instrument, characterized in that the electrical output has a maximum threshold voltage of 75 Volts and a maximum threshold current of 1.8 amperes, and in that the series LC circuit has a resonant frequency of twice the constant driving frequency.
A machine-readable medium of a video decoding device having a plurality of processing units (1245, 1250, 1255, 1260), the machine-readable medium storing a program which when executed by at least one processing unit of the video decoding device decodes a video clip, the program comprising sets of instructions for: receiving, at the video decoding device, a video clip that comprises a plurality of video images; identifying a format of the video clip, wherein the format of a video clip indicates whether the video images in the video clip are temporally encoded, characterised by; for each of the plurality of video images, assigning slices (1270, 1275, 1280, 1285) of the video image to the plurality of processing units when the identified format indicates that the video clip is non-temporally encoded and that the video image is encoded as a plurality of slices, wherein each slice is non-temporally encoded without referencing any other slice; and decoding the assigned slices at the plurality of processing units in parallel, said decoding comprising decoding each slice independently from any other slice in the non-temporally encoded video clip. receiving, at the video decoding device, a video clip that comprises a plurality of video images; identifying a format of the video clip, wherein the format of a video clip indicates whether the video images in the video clip are temporally encoded, characterised by; for each of the plurality of video images, assigning slices (1270, 1275, 1280, 1285) of the video image to the plurality of processing units when the identified format indicates that the video clip is non-temporally encoded and that the video image is encoded as a plurality of slices, wherein each slice is non-temporally encoded without referencing any other slice; and decoding the assigned slices at the plurality of processing units in parallel, said decoding comprising decoding each slice independently from any other slice in the non-temporally encoded video clip.
A process for the conversion of lignocellulose into an organic acid, the process comprising the following steps: a) pretreating a feed comprising lignocellulose material with an alkaline agent comprising a divalent calcium or magnesium cation, in the presence of water at a pretreatment temperature, to obtain an aqueous slurry of alkaline pretreated lignocellulose material; b) supplying at least part of the slurry of alkaline pretreated lignocellulose material to a fermentation zone and subjecting the pretreated lignocellulose material, in the fermentation zone in the presence of a hydrolytic enzyme and a micro-organism that is able to convert saccharides into an organic acid, to enzymatic hydrolysis and fermentation to obtain a fermentation broth comprising insoluble lignocellulose, precipitated and dissolved salt of the organic acid with the divalent cation, and enzyme; c) discharging fermentation broth obtained in step (b) from the fermentation zone; d) separating from the fermentation broth a liquid phase comprising the dissolved salt of the organic acid and a solid phase comprising insoluble lignocellulose and the precipitated salt of the organic acid; and e) recycling at least part of the liquid phase to alkaline pre-treatment step a) and/or to the fermentation zone. a) pretreating a feed comprising lignocellulose material with an alkaline agent comprising a divalent calcium or magnesium cation, in the presence of water at a pretreatment temperature, to obtain an aqueous slurry of alkaline pretreated lignocellulose material; b) supplying at least part of the slurry of alkaline pretreated lignocellulose material to a fermentation zone and subjecting the pretreated lignocellulose material, in the fermentation zone in the presence of a hydrolytic enzyme and a micro-organism that is able to convert saccharides into an organic acid, to enzymatic hydrolysis and fermentation to obtain a fermentation broth comprising insoluble lignocellulose, precipitated and dissolved salt of the organic acid with the divalent cation, and enzyme; c) discharging fermentation broth obtained in step (b) from the fermentation zone; d) separating from the fermentation broth a liquid phase comprising the dissolved salt of the organic acid and a solid phase comprising insoluble lignocellulose and the precipitated salt of the organic acid; and e) recycling at least part of the liquid phase to alkaline pre-treatment step a) and/or to the fermentation zone.
An aqueous ink composition at least comprising, as colorants, both a compound represented by Formula or its salt or a mixture thereof and a colorant having a maximum absorption wavelength λmax in a range of 560 to 680 nm and having a phthalocyanine skeleton, where R 1, R 2, R 5, R 6, and R 7 each independently represent a group selected from the group consisting of a hydrogen atom, a halogen atom, a cyano group, a hydroxy group, a carboxy group, a sulfo group, a sulfamoyl group, a nitro group, an alkoxy group optionally having a substituent, an alkylsulfonyl group optionally having a substituent, an alkyl group, an arylsulfamoylamino group optionally having a substituent, and an alkylcarbonylamino group; R 3 and R 4 each independently represent a group selected from the group consisting of a hydrogen atom, a halogen atom, a cyano group, a sulfo group, a carboxy group, a nitro group, an alkoxy group optionally having a substituent, and an alkyl group; and n represents 0 or 1. R 1, R 2, R 5, R 6, and R 7 each independently represent a group selected from the group consisting of a hydrogen atom, a halogen atom, a cyano group, a hydroxy group, a carboxy group, a sulfo group, a sulfamoyl group, a nitro group, an alkoxy group optionally having a substituent, an alkylsulfonyl group optionally having a substituent, an alkyl group, an arylsulfamoylamino group optionally having a substituent, and an alkylcarbonylamino group; R 3 and R 4 each independently represent a group selected from the group consisting of a hydrogen atom, a halogen atom, a cyano group, a sulfo group, a carboxy group, a nitro group, an alkoxy group optionally having a substituent, and an alkyl group; and n represents 0 or 1.
Clamp device for clamping a plate on a work surface of a machining apparatus, said apparatus comprising a work head carrying a tool for machining the edge of the plate, said device comprising: - a base structure which can be secured to the work surface, and - a lower clamp element and an upper clamp element for clamping said plate therebetween, defining a clamping vertical axis, and movable relative to each other in the direction of said clamping vertical axis, between an opened inoperative position and a closed operative position in which the plate is clamped, - wherein said lower clamp element is carried by said base structure, - wherein said upper clamp element is carried by a clamp element supporting unit which is rotatably mounted on said base structure around said vertical clamping axis, and being characterized in that - said clamp element supporting unit is adapted to detect the presence of the work head adjacent to it, and to make an oscillation movement around said vertical clamping axis as the work head proceeds around the plate for machining the edge of the plate, so as to avoid interference with the work head. - a base structure which can be secured to the work surface, and - a lower clamp element and an upper clamp element for clamping said plate therebetween, defining a clamping vertical axis, and movable relative to each other in the direction of said clamping vertical axis, between an opened inoperative position and a closed operative position in which the plate is clamped, - wherein said lower clamp element is carried by said base structure, - wherein said upper clamp element is carried by a clamp element supporting unit which is rotatably mounted on said base structure around said vertical clamping axis, and being characterized in that - said clamp element supporting unit is adapted to detect the presence of the work head adjacent to it, and to make an oscillation movement around said vertical clamping axis as the work head proceeds around the plate for machining the edge of the plate, so as to avoid interference with the work head.