mhurhangee/ep-ind-claims huggingface dataset:
A non-volatile memory cell comprising: a semiconductor substrate; a coupling capacitor located in a first active region of the semiconductor substrate; at a shared second active region of the semiconductor substrate, a sense transistor and a tunnelling capacitor configured in parallel with the gate of the sense transistor, wherein the coupling capacitor, sense transistor and tunnelling capacitor share a common floating gate electrode and the sense transistor includes source and drain regions arranged such that the tunnelling capacitor is defined by an overlap between the floating gate electrode and the source region of the sense transistor; and a third active region of the semiconductor substrate supporting contacts for a word line, the third active region being located in a first doped well of the first active region but, down to a first depth in the semiconductor substrate, separated from the first active region by shallow trench isolation, wherein the first depth is less than the depth of the first doped well of the first active region and the third active region is electrically connected to the coupling capacitor through that part of the first doped well of the first active region that extends below the first depth. a semiconductor substrate; a coupling capacitor located in a first active region of the semiconductor substrate; at a shared second active region of the semiconductor substrate, a sense transistor and a tunnelling capacitor configured in parallel with the gate of the sense transistor, wherein the coupling capacitor, sense transistor and tunnelling capacitor share a common floating gate electrode and the sense transistor includes source and drain regions arranged such that the tunnelling capacitor is defined by an overlap between the floating gate electrode and the source region of the sense transistor; and a third active region of the semiconductor substrate supporting contacts for a word line, the third active region being located in a first doped well of the first active region but, down to a first depth in the semiconductor substrate, separated from the first active region by shallow trench isolation, wherein the first depth is less than the depth of the first doped well of the first active region and the third active region is electrically connected to the coupling capacitor through that part of the first doped well of the first active region that extends below the first depth.
An edible water-in-oil emulsion of the spreadable fats type comprising: - a fat content of between 15 and 55% with - a shea stearin content of between 4 and 20% in the fatty phase, said emulsion having a solid content of the fatty phase of less than 10% at 20°C, preferably less than 5%. - a fat content of between 15 and 55% with - a shea stearin content of between 4 and 20% in the fatty phase,
A substrate panel for greening a roof, which is formed from renewable raw materials, characterized in that with respect to its total weight, a panel body of the substrate panel has a hemp fraction in a range between 40 % by weight and 90 % by weight as well as a flax fraction in a range between 1 % by weight and 40 % by weight, wherein the hemp fraction and/or the flax fraction contains shives, wherein the shives contribute to the substrate panel as a whole obtaining a rigid structure and as such of not being capable of being rolled up, but of having an inherent rigidity which enables it to be manipulated as a self-supporting panel. with respect to its total weight, a panel body of the substrate panel has a hemp fraction in a range between 40 % by weight and 90 % by weight as well as a flax fraction in a range between 1 % by weight and 40 % by weight, wherein the hemp fraction and/or the flax fraction contains shives, wherein the shives contribute to the substrate panel as a whole obtaining a rigid structure and as such of not being capable of being rolled up, but of having an inherent rigidity which enables it to be manipulated as a self-supporting panel.
An airfoil comprising pressure and suction side walls (86, 88) extending in a chord-wise direction between leading and trailing edges (82, 84), the pressure and suction side walls (86, 88) extending in a radial direction to provide an exterior airfoil surface, wherein a main-body core cooling passage (90, 94, 96) is arranged between the pressure and suction side walls (86, 88) in a thickness direction and extends radially toward a platform (76a, 76b), a skin core cooling passage is arranged in one of the pressure and suction side walls (86, 88) to form a hot side wall and a cold side wall, the hot side wall defines a portion of the exterior airfoil surface, and the cold side wall defines a portion of the skin core cooling passage, the skin core cooling passage is divided by a wall into two discrete first and second skin core cooling passages (98b, 98a) each supplied with cooling fluid from opposing sides; characterised in that the first and second skin core cooling passages (98b, 98a) each have an aspect ratio, H/W, that varies along its length between 3:1 and 1:5, wherein H corresponds to a passage height, which is in the thickness direction and normal to a tangent line at the exterior airfoil surface, and W corresponds to a passage width, and the passage height is in a range of 0.010-0.200 inches (0.25-5.08 mm).
Apparatus for encoding directional audio coding parameters comprising diffuseness parameters and direction parameters, comprising: a parameter calculator for calculating the diffuseness parameters with a first time or frequency resolution and for calculating the direction parameters with a second time or frequency resolution, wherein the second time or frequency resolution is different from the first time or frequency resolution; and a quantizer and encoder processor for generating a quantized and encoded representation of the diffuseness parameters and the direction parameters. a parameter calculator for calculating the diffuseness parameters with a first time or frequency resolution and for calculating the direction parameters with a second time or frequency resolution, wherein the second time or frequency resolution is different from the first time or frequency resolution; and a quantizer and encoder processor for generating a quantized and encoded representation of the diffuseness parameters and the direction parameters.
A plant disease control composition containing as an active ingredient a compound represented by formula or salt thereof (in the formula, R 1 and R 2 represents a hydrogen atom or methyl group but excepting cases where R 1 and R 2 are the same).
An assembly comprising: a blade outer air seal (BOAS) assembly, including a BOAS segment including a radial inner face that circumferentially extends between a first mate face and a second mate face and axially extends between a leading edge face and a trailing edge face, and at least one contour extending radially a prescribed distance from another area of the radially inner face; a vane stage that is directly upstream from the BOAS segment, wherein the at least one contour includes a contour at the leading edge face configured to align with a contour extending radially a prescribed distance from a vane wall of the vane stage. a blade outer air seal (BOAS) assembly, including a BOAS segment including a radial inner face that circumferentially extends between a first mate face and a second mate face and axially extends between a leading edge face and a trailing edge face, and at least one contour extending radially a prescribed distance from another area of the radially inner face; a vane stage that is directly upstream from the BOAS segment, wherein the at least one contour includes a contour at the leading edge face configured to align with a contour extending radially a prescribed distance from a vane wall of the vane stage.
A method of displaying a proportional timeline of recorded video stream, the method comprising: dividing the recorded video into known timespans; providing a thumbnail and a timestamp for each timespan that has recorded video, wherein each timespan is indicated by respective timestamps; providing a gap and a timestamp between thumbnails for each timespan in which there is no recorded video; displaying a first timeline containing the provided thumbnails and timestamps and the provided gaps and timestamps having an uncompressed format; receiving user input requesting that the first timeline be compressed; removing the gaps and their respective timestamps from the first timeline and moving the thumbnails and their respective timestamps located on either side of the gaps so that the thumbnails and timestamps are adjacent to provide a compressed timeline; and displaying the compressed timeline.
Holder (1; 20), such as for instance a plastic container, jerrycan or the like, for holding a liquid, the holder (1; 20) comprising: - a supply chamber (2; 21) with a bottom surface, a peripheral wall standing from the peripheral edge of the bottom surface and a closing upper surface, wherein a passage opening is arranged close to or in the upper surface; - a dosing chamber (3; 22) arranged on the passage opening of the supply chamber (2; 21), extending at least partly below the level of the passage opening, wherein the dosing chamber further comprises a pouring opening (9; 23) for pouring the liquid out of the dosing chamber; and - a closure (10, 11, 12, 14, 15; 24, 25, 27, 28) for closing either the pouring opening (9; 23) or the passage opening as desired, comprising a valve (12; 27) for closing the passage opening and a closing cap (10; 24, 25) arranged on the pouring opening (9; 23) wherein the closure (10, 11, 12, 14, 15; 24, 25) comprises a coupling (11, 14, 15; 28, 29, 30) for effecting a coupling between the closing cap (10; 24, 25) and the valve (12; 27) during sealing of the pouring opening (9; 23) with the closing cap (10; 24, 25) and wherein the coupling (11, 14, 15; 28, 29, 30) comprises an elongate coupling element or valve stem and at least one finger or hook and a cooperating groove or thickened upper side characterized in that the finger or hook extends substantially perpendicular to the coupling element or valve stem. - a supply chamber (2; 21) with a bottom surface, a peripheral wall standing from the peripheral edge of the bottom surface and a closing upper surface, wherein a passage opening is arranged close to or in the upper surface; - a dosing chamber (3; 22) arranged on the passage opening of the supply chamber (2; 21), extending at least partly below the level of the passage opening, wherein the dosing chamber further comprises a pouring opening (9; 23) for pouring the liquid out of the dosing chamber; and - a closure (10, 11, 12, 14, 15; 24, 25, 27, 28) for closing either the pouring opening (9; 23) or the passage opening as desired, comprising a valve (12; 27) for closing the passage opening and a closing cap (10; 24, 25) arranged on the pouring opening (9; 23)
An assembly for forming multiple nacelle components, comprising: a plurality of dies (404, 406; 424, 430), a first one (406; 430) of the plurality of dies (404... 430) having a first wall (428, 454) and a first cavity extending through the first wall (428, 454) and a second one of the plurality of dies (404... 430) having a second wall (422, 456) and a second cavity extending through the second wall (422, 456), wherein the first wall (428, 454) and the second wall (422, 456) are configured to sandwich a pair of metal blanks (200; 402) therebetween; characterized in that: the plurality of dies (404... 430) are arranged about a central axis; and the first one (406; 430) of the plurality of dies (404... 430) is a radially outer die (406; 430) configured for arrangement within an outer circular pattern and wherein the first wall (428, 454) is a radially inward facing wall (428, 454). a first one (406; 430) of the plurality of dies (404... 430) having a first wall (428, 454) and a first cavity extending through the first wall (428, 454) and a second one of the plurality of dies (404... 430) having a second wall (422, 456) and a second cavity extending through the second wall (422, 456), wherein the first wall (428, 454) and the second wall (422, 456) are configured to sandwich a pair of metal blanks (200; 402) therebetween; characterized in that: the plurality of dies (404... 430) are arranged about a central axis; and the first one (406; 430) of the plurality of dies (404... 430) is a radially outer die (406; 430) configured for arrangement within an outer circular pattern and wherein the first wall (428, 454) is a radially inward facing wall (428, 454). the plurality of dies (404... 430) are arranged about a central axis; and the first one (406; 430) of the plurality of dies (404... 430) is a radially outer die (406; 430) configured for arrangement within an outer circular pattern and wherein the first wall (428, 454) is a radially inward facing wall (428, 454).
A method comprising: supplying a first glass composition and a second glass composition to a divided delivery tube comprising a plurality of flow channels; and flowing each of the first glass composition and the second glass composition down a forming surface of an overflow distributor to form a glass sheet (100, 100a, 100b) comprising the first glass composition and the second glass composition; wherein each flow channel of the divided delivery tube corresponds to a determined region of the glass sheet (100, 100a, 100b) disposed at a determined transverse position relative to a width of the glass sheet (100, 100a, 100b) and a determined axial position relative to a thickness of the glass sheet (100, 100a, 100b). supplying a first glass composition and a second glass composition to a divided delivery tube comprising a plurality of flow channels; and flowing each of the first glass composition and the second glass composition down a forming surface of an overflow distributor to form a glass sheet (100, 100a, 100b) comprising the first glass composition and the second glass composition; wherein each flow channel of the divided delivery tube corresponds to a determined region of the glass sheet (100, 100a, 100b) disposed at a determined transverse position relative to a width of the glass sheet (100, 100a, 100b) and a determined axial position relative to a thickness of the glass sheet (100, 100a, 100b).
A thermal printer comprising: a platen roller; a frame including side plates (110, 111), each of the side plates (110, 111) including a platen roller receiving part (120, 125) configured to detachably support a bearing of the platen roller; and a thermal head supported by the side plates (110, 111) and pressed toward the platen roller by a head spring attached to a main body of the frame, wherein the platen roller receiving part (120, 125) includes an open mouth for inserting and pulling out the bearing of the platen roller in a direction perpendicular to an axial direction of the platen roller, wherein the open mouth includes a single protrusion, which projects toward an upper part of the platen roller receiving part from a lower side of the open mouth, and over which the bearing passes when the platen roller is inserted into the platen roller receiving part. a platen roller; a frame including side plates (110, 111), each of the side plates (110, 111) including a platen roller receiving part (120, 125) configured to detachably support a bearing of the platen roller; and a thermal head supported by the side plates (110, 111) and pressed toward the platen roller by a head spring attached to a main body of the frame, wherein the platen roller receiving part (120, 125) includes an open mouth for inserting and pulling out the bearing of the platen roller in a direction perpendicular to an axial direction of the platen roller, wherein the open mouth includes a single protrusion, which projects toward an upper part of the platen roller receiving part from a lower side of the open mouth, and over which the bearing passes when the platen roller is inserted into the platen roller receiving part.
Channel for a UV irradiation device in which the UV irradiation device is arranged in a closed channel, wherein a flow straightener is arranged in the channel before the UV irradiation device with at least one inner first guide element and at least one outer second guide element, wherein the outer guide element is arranged at a distance from the outer wall, characterised in that an inflow cone is provided in the flow direction before a UV reactor, in that the flow straightener is arranged in the inflow cone and in that the inner guide element is a substantially circular cylindrical pipe and the outer guide element runs substantially parallel to the outer wall.
A method for preserving an aluminium-salt adjuvant during freezing or freeze-drying comprising freezing or freeze-drying an aqueous suspension or solution comprising: (a) an aluminium salt adjuvant; (b) a N,N-di(C 1-6 alkyl)- or N,N,N-tri(C 1-6 alkyl)-glycine or a physiologically acceptable salt or ester thereof; and (c) one or more sugars. (a) an aluminium salt adjuvant; (b) a N,N-di(C 1-6 alkyl)- or N,N,N-tri(C 1-6 alkyl)-glycine or a physiologically acceptable salt or ester thereof; and (c) one or more sugars.
Vacuum cleaner with a motor blower unit for creating a suction air flow, and a dust separation unit arranged in a dust chamber for separation of dust, and at least one additional device, which is disposed in the suction air flow, and the additional device has at least one additional material, characterised in that the additional device has at least one bypass opening to connect a first chamber before the additional device to a second chamber after the additional device.
A method for initial acquisition in a communication system comprising: running a plurality of predetermined amplifier gain states for at least one amplifier in a predefined order during initial acquisition in a time division duplex, TDD, system; and determining initial acquisition from received signals based on searching across the plurality of predetermined amplifier gain states run in the predefined order until a known pilot signal is detected, characterized in that said running includes running a first said gain state for a first signal, received via a first amplifier via a first antenna, simultaneously with running at least a second said gain state for a second signal received via a second amplifier and a second antenna. running a plurality of predetermined amplifier gain states for at least one amplifier in a predefined order during initial acquisition in a time division duplex, TDD, system; and determining initial acquisition from received signals based on searching across the plurality of predetermined amplifier gain states run in the predefined order until a known pilot signal is detected, characterized in that said running includes running a first said gain state for a first signal, received via a first amplifier via a first antenna, simultaneously with running at least a second said gain state for a second signal received via a second amplifier and a second antenna.
Aircraft tyre whose tread comprises a composition based on at least: - an elastomeric matrix comprising from 20 to 100 phr of isoprene elastomer and from 0 to 80 phr of a copolymer of butadiene and styrene; - a reinforcing filler predominantly comprising carbon black; - from 1 to 30 phr of at least one hydrocarbon resin predominantly composed of units derived from aromatic and cycloaliphatic monomers; - a crosslinking system. - an elastomeric matrix comprising from 20 to 100 phr of isoprene elastomer and from 0 to 80 phr of a copolymer of butadiene and styrene; - a reinforcing filler predominantly comprising carbon black; - from 1 to 30 phr of at least one hydrocarbon resin predominantly composed of units derived from aromatic and cycloaliphatic monomers; - a crosslinking system.
An aqueous hair cleansing agent comprising the following components,: a sulfate-type anionic surfactant represented by the following general formula: R 1 O(CH 2 CH 2 O) n SO 3 M wherein, in the general formula, R 1 represents an alkyl group or alkenyl group having 10 to 18 carbon atoms, M represents an alkali metal, alkali earth metal, ammonium, alkanolamine or basic amino acid, and n represents a number of 0 to 5 estimated based on weight average; and polyoxyethylene alkyl ether-type nonionic surfactant represented by the following structural formula: R 2 O(CH 2 CH 2 O) m H wherein, in the general formula, R 2 represents a straight-chain or branched alkyl group or alkenyl group having 18 carbon atoms, and m represents a number of 6 to 10 estimated based on weight average, and further comprising water, wherein the ratio of the component, relative to the total of the components and is 1/100 to 25/100 based on the weight ratio. a sulfate-type anionic surfactant represented by the following general formula: R 1 O(CH 2 CH 2 O) n SO 3 M wherein, in the general formula, R 1 represents an alkyl group or alkenyl group having 10 to 18 carbon atoms, M represents an alkali metal, alkali earth metal, ammonium, alkanolamine or basic amino acid, and n represents a number of 0 to 5 estimated based on weight average; and polyoxyethylene alkyl ether-type nonionic surfactant represented by the following structural formula: R 2 O(CH 2 CH 2 O) m H wherein, in the general formula, R 2 represents a straight-chain or branched alkyl group or alkenyl group having 18 carbon atoms, and m represents a number of 6 to 10 estimated based on weight average, and further comprising water, wherein the ratio of the component, relative to the total of the components and is 1/100 to 25/100 based on the weight ratio.
A panic pressure bar for actuating a lock comprising a housing and at least one swivelling lever (10, 16) arranged therein, wherein the housing is composed of an upper part configured as activation handle and a lower part, wherein the swivelling lever (10, 16) is arranged between the upper part and the housing such that the upper part can be moved with respect to the lower part and wherein a damping element (30, 41) dampens the swivel movement of the swivelling lever (10, 16), characterized in that the damping element (30, 41) dampens a linear movement of a connecting element, via which the swivel movement of the swivelling lever (10, 16) is converted into a linear movement for actuating the lock, in a rotatory movement in the damping element and that a slider is connected to the connecting element, wherein a linear movement of the slider can be converted into a rotatory movement of a connecting element which engages in a follower of the lock.