mhurhangee/ep-ind-claims huggingface dataset:
A test substance assay method comprising: (i) forming a mixed solution by mixing (a) first dry particles that are fluorescent latex particles with an average particle size of 100 nm to 200 nm and modified with first binding substances which are antibodies, antigens or complexes of these having binding properties specific to a test substance, and (b) second dry particles that are non-fluorescent latex particles with an average particle size of 100 nm to 200 nm and modified with second binding substances which are antibodies not having binding properties specific to the test substance, with (c) a test sample solution containing the test substance, the mass ratio of the second dry particles to the first dry particles being 2:1 to 6:1; (ii) applying the mixed solution obtained in the step (i) onto a substrate having a reaction site, the reaction site having third binding substances which are antibodies, antigens or complexes of these with binding properties specific to the test substance; or has substances exhibiting binding properties with respect to the first binding substances; (iii) causing the test substance to be trapped in the reaction site on the substrate; and (iv) detecting the test substance trapped in the reaction site. (i) forming a mixed solution by mixing (a) first dry particles that are fluorescent latex particles with an average particle size of 100 nm to 200 nm and modified with first binding substances which are antibodies, antigens or complexes of these having binding properties specific to a test substance, and (b) second dry particles that are non-fluorescent latex particles with an average particle size of 100 nm to 200 nm and modified with second binding substances which are antibodies not having binding properties specific to the test substance, with (c) a test sample solution containing the test substance, the mass ratio of the second dry particles to the first dry particles being 2:1 to 6:1; (ii) applying the mixed solution obtained in the step (i) onto a substrate having a reaction site, the reaction site having third binding substances which are antibodies, antigens or complexes of these with binding properties specific to the test substance; or has substances exhibiting binding properties with respect to the first binding substances; (iii) causing the test substance to be trapped in the reaction site on the substrate; and (iv) detecting the test substance trapped in the reaction site.
A device to assist with the winemaking process and/or the storage of wine in a vessel by regulating the level of the liquid in said vessel, comprising: a) a vessel, containing a liquid, such as grape juice undergoing maceration or fermentation of the wine, and able to contain a gas in the space comprised between the level of the liquid and the upper inner wall of said vessel, called headspace, b) indicator means of the level of the liquid in the vessel, preferably in the form of a float, c) means for adjusting the level of the liquid, without adding additional liquid, in the form of at least one inflatable pouch (10, 20) submerged in the liquid inside the vessel, d) the pouch or pouches being coupled to inflating and deflating means controlled by the float, characterized in that the pouch or pouches is (are) placed in the vessel using an arrangement offset relative to the vertical passing through the opening for filling the vessel and, in the at least partially inflated state, bearing on the upper inner wall of the vessel. a) a vessel, containing a liquid, such as grape juice undergoing maceration or fermentation of the wine, and able to contain a gas in the space comprised between the level of the liquid and the upper inner wall of said vessel, called headspace, b) indicator means of the level of the liquid in the vessel, preferably in the form of a float, c) means for adjusting the level of the liquid, without adding additional liquid, in the form of at least one inflatable pouch (10, 20) submerged in the liquid inside the vessel, d) the pouch or pouches being coupled to inflating and deflating means controlled by the float,
A heating zone for a cooking hob, in particular for an induction cooking hob, wherein: - the heating zone comprises an illumination device, - the illumination device comprises at least one light source element, - the illumination device comprises at least one reflecting element, and - the illumination device comprises at least one reflecting, diffusing and/or refracting layer, characterised in that - the illumination device comprises at least one insulating layer horizontally arranged within the heating zone, - said insulating layer includes at least one light channel formed as a cut-out, - the reflecting, diffusing and/or refracting layer covers at least the light channel, - the light source element and the reflecting element are arranged that a light beam from said light source element is redirected by the reflecting element into the light channel; wherein the light source element and the reflecting elements are arranged in the centre of the heating zone, while a plurality of light channels extend radially; wherein the illumination device comprises at least one further reflecting, diffusing and/or refracting layer arranged beneath the insulating layer. - the heating zone comprises an illumination device, - the illumination device comprises at least one light source element, - the illumination device comprises at least one reflecting element, and - the illumination device comprises at least one reflecting, diffusing and/or refracting layer, characterised in that - the illumination device comprises at least one insulating layer horizontally arranged within the heating zone, - said insulating layer includes at least one light channel formed as a cut-out, - the reflecting, diffusing and/or refracting layer covers at least the light channel, - the light source element and the reflecting element are arranged that a light beam from said light source element is redirected by the reflecting element into the light channel; wherein the light source element and the reflecting elements are arranged in the centre of the heating zone, while a plurality of light channels extend radially; wherein the illumination device comprises at least one further reflecting, diffusing and/or refracting layer arranged beneath the insulating layer.
Ventilating apparatus for regulating the air throughput in a ventilation system, comprising an air channel with a moving and independently functioning flap, by means of which the air passage opening for the air flow is adjusted automatically, as a function of the pressure difference between an inlet opening and an outlet opening of the air channel, wherein the flap is suspended in the air channel about a horizontal suspension point which simultaneously forms the axis of rotation of the flap, and, with a rise in the pressure difference in the air channel, the flap moves under the influence of an elastic resistance force against the rotational movement, characterized in that the flap twists in the longitudinal direction of the axis of rotation of the suspension point, and the elastic resistance force is produced from an initial rotation angle (8, 14) to a maximum rotation angle by means of a contact between a part of the air channel and the flap.
A computer implemented method for generating a triangulated mesh representation of a complex graphical object formed at least in part by applying constructive solid geometry operations to a plurality of primitive graphical objects, the method comprising: before run-time receiving data representing graphical models of the plurality of 3D primitive graphical objects; performing constructive solid geometry operations based on the plurality of primitive graphical objects represented by procedural surfaces, which procedural surfaces are described by parametric functions; decomposing, before run-time, the primitive graphical object surfaces to generate coarse triangular meshes representing the primitive objects; and generating a coarse triangular mesh representing the complex graphical object before run-time; storing the coarse triangular mesh generated before run-time; and at runtime, sub-dividing at least some of the triangles of the coarse mesh generated before run-time to generate a mesh of refined triangles, determining classifications of the triangles, wherein said classifications are based on shape or size of said triangles and their location relative to curves of intersections of said procedural surfaces, and based at least in part on the classifications of the triangles, selecting triangular instance meshes to be mapped to the triangles, to generate a further refined triangular mesh at run-time for rendering the complex graphical object to a display device. before run-time receiving data representing graphical models of the plurality of 3D primitive graphical objects; performing constructive solid geometry operations based on the plurality of primitive graphical objects represented by procedural surfaces, which procedural surfaces are described by parametric functions; decomposing, before run-time, the primitive graphical object surfaces to generate coarse triangular meshes representing the primitive objects; and generating a coarse triangular mesh representing the complex graphical object before run-time; storing the coarse triangular mesh generated before run-time; and at runtime, sub-dividing at least some of the triangles of the coarse mesh generated before run-time to generate a mesh of refined triangles, determining classifications of the triangles, wherein said classifications are based on shape or size of said triangles and their location relative to curves of intersections of said procedural surfaces, and based at least in part on the classifications of the triangles, selecting triangular instance meshes to be mapped to the triangles, to generate a further refined triangular mesh at run-time for rendering the complex graphical object to a display device.
A method for controlling a wind turbine comprising a nacelle and one or more turbine blades wherein the method comprises the steps of: identifying if said nacelle is unable to yaw to an upwind position; and initiating a corrective action to prevent edgewise vibrations building up on said one or more turbine blades if said nacelle is unable to yaw to an upwind position, wherein said corrective action is based on a determination of whether the nacelle can or cannot be yawed, such that; if it is determined that the nacelle can yaw, the said step of initiating said corrective action further comprises the step of instructing said nacelle to continuously yaw at low speed, and if it is determined that the nacelle cannot yaw, the said step of initiating said corrective action further comprises the step of instructing said one or more turbine blades to continuously change pitch angle at low speed. identifying if said nacelle is unable to yaw to an upwind position; and initiating a corrective action to prevent edgewise vibrations building up on said one or more turbine blades if said nacelle is unable to yaw to an upwind position, wherein said corrective action is based on a determination of whether the nacelle can or cannot be yawed, such that; if it is determined that the nacelle can yaw, the said step of initiating said corrective action further comprises the step of instructing said nacelle to continuously yaw at low speed, and if it is determined that the nacelle cannot yaw, the said step of initiating said corrective action further comprises the step of instructing said one or more turbine blades to continuously change pitch angle at low speed.
A heating zone for a cooking hob, in particular for an induction cooking hob, wherein: - the heating zone comprises an illumination device, - the illumination device comprises at least one light source element, - the illumination device comprises at least one reflecting element, - the illumination device comprises at least one reflecting, diffusing and/or refracting layer, - the illumination device comprises at least one insulating layer horizontally arranged within the heating zone, - said insulating layer includes at least one light channel formed as a cut-out, - the reflecting, diffusing and/or refracting layer covers at least the light channel, and - the light source element and the reflecting element are arranged that a light beam from said light source element is redirected by the reflecting element into the light channel, characterized in that the reflecting, diffusing and/or refracting layer is made of mica. - the heating zone comprises an illumination device, - the illumination device comprises at least one light source element, - the illumination device comprises at least one reflecting element, - the illumination device comprises at least one reflecting, diffusing and/or refracting layer, - the illumination device comprises at least one insulating layer horizontally arranged within the heating zone, - said insulating layer includes at least one light channel formed as a cut-out, - the reflecting, diffusing and/or refracting layer covers at least the light channel, and - the light source element and the reflecting element are arranged that a light beam from said light source element is redirected by the reflecting element into the light channel,
Grid device with elastic fixing system, comprising a grid means for aeration or similar purposes and a pipe with an inlet mouth and an inner surface, the grid means intended to be removably fixed to the inlet mouth of a pipe or of a hole made in a wall, said inlet mouth having a certain diameter or transverse dimension, said grid means having an inner side and an outer side intended to be respectively facing towards the pipe and in the opposite direction, said grid device furthermore comprising a connection means constrained to said inner side and intended to become reversibly engaged with the inlet mouth so as to create a condition in which the grid means and the inlet mouth are mutually fixed to each other, wherein the connection means comprises at least one resilient element, wherein said grid device is characterized in that said at least one resilient element is in the shape of an arc of a circle, of an ellipse or of an oval, defining a chord whose maximum length when at rest, meaning in a condition in which it is detached from said inlet mouth, exceeds the diameter or transverse dimension of said inlet mouth of the pipe, and which, in the fixed position in which it is coupled with the inner surface of the inlet mouth, has an angular development exceeding 180°, and wherein said at least one resilient element is arranged with respect to the grid means so that, when it is in the fixed position in the inlet mouth, it is coupled with a portion of the inner surface of the inlet mouth corresponding to an angular section of the latter greater than 180°.
A bypass vane system for a gas turbine engine, comprising: a plurality of vanes, each vane being defined by the same dimensions, wherein each vane includes a first portion and a second portion; a first circumferential vane platform having a plurality of openings corresponding in number to the plurality of vanes, wherein each opening is configured to receive the first portion of one of the vanes, the first circumferential vane platform including a vane platform segment defining at least one of said plurality of openings; and a second circumferential vane platform spaced radially apart from the first circumferential vane platform, wherein the second circumferential vane platform is configured to support the second portion of each of the vanes, wherein, some of the plurality of openings vary in position relative to others of the plurality of openings; the first portion of each vane includes a lip extending therefrom; and a ledge disposed in each opening; wherein when each vane is received in a corresponding one of the openings, a bottom surface of the lip of such vane rests on the ledge disposed in the corresponding one of the openings, and a top surface of the lip opposite the bottom surface of the lip does not extend outwardly beyond a top surface of the vane platform segment. a plurality of vanes, each vane being defined by the same dimensions, wherein each vane includes a first portion and a second portion; a first circumferential vane platform having a plurality of openings corresponding in number to the plurality of vanes, wherein each opening is configured to receive the first portion of one of the vanes, the first circumferential vane platform including a vane platform segment defining at least one of said plurality of openings; and a second circumferential vane platform spaced radially apart from the first circumferential vane platform, wherein the second circumferential vane platform is configured to support the second portion of each of the vanes, wherein, some of the plurality of openings vary in position relative to others of the plurality of openings; the first portion of each vane includes a lip extending therefrom; and a ledge disposed in each opening; wherein when each vane is received in a corresponding one of the openings, a bottom surface of the lip of such vane rests on the ledge disposed in the corresponding one of the openings, and a top surface of the lip opposite the bottom surface of the lip does not extend outwardly beyond a top surface of the vane platform segment.
A method of manufacturing a pattern structure, the method comprising: forming a fine pattern on a wafer; cutting the wafer by irradiating the wafer with a laser, thereby forming a unit pattern structure having the fine pattern; and bonding cutting surfaces of at least two unit pattern structures, wherein the cutting the wafer comprises repeatedly irradiating the wafer with the laser and repeatedly moving a focal position of the laser in a horizontal direction and changing a focal depth of the laser, thereby forming a cutting surface profile in the unit pattern structure such that a first surface of the unit pattern structure on which the fine pattern is formed protrudes in the horizontal direction with respect to a second surface of the unit pattern structure that is opposite the first surface. forming a fine pattern on a wafer; cutting the wafer by irradiating the wafer with a laser, thereby forming a unit pattern structure having the fine pattern; and bonding cutting surfaces of at least two unit pattern structures, wherein the cutting the wafer comprises repeatedly irradiating the wafer with the laser and repeatedly moving a focal position of the laser in a horizontal direction and changing a focal depth of the laser, thereby forming a cutting surface profile in the unit pattern structure such that a first surface of the unit pattern structure on which the fine pattern is formed protrudes in the horizontal direction with respect to a second surface of the unit pattern structure that is opposite the first surface.
A process of recovering oil, comprising (a) converting a starch-containing material into dextrins with an alpha-amylase (b) saccharifying the dextrins using a carbohydrate source generating enzyme to form a sugar; (c) fermenting the sugar in a fermentation medium into a fermentation product using a fermenting organism; (d) recovering the fermentation product to form a whole stillage; (e) separating the whole stillage into thin stillage and wet cake; (e') optionally concentrating the thin stillage into syrup; (f) recovering oil from the thin stillage and/or the syrup, wherein a protease having at least 80% identity to SEQ ID NO: 4 and has a thermostability value of more than 50% determined as Relative Activity at 80°C/70°C is present and/or added during steps (d)-(e'). (a) converting a starch-containing material into dextrins with an alpha-amylase (b) saccharifying the dextrins using a carbohydrate source generating enzyme to form a sugar; (c) fermenting the sugar in a fermentation medium into a fermentation product using a fermenting organism; (d) recovering the fermentation product to form a whole stillage; (e) separating the whole stillage into thin stillage and wet cake; (e') optionally concentrating the thin stillage into syrup; (f) recovering oil from the thin stillage and/or the syrup, wherein a protease having at least 80% identity to SEQ ID NO: 4 and has a thermostability value of more than 50% determined as Relative Activity at 80°C/70°C is present and/or added during steps (d)-(e').
Electrical contact terminal adapted to be mounted on an electrical cable comprising at least one connection portion adapted for mounting the electrical cable and at least one contact portion, characterized in that the connection portion is provided with at least one reactive film comprising at least two materials in a reactive form, the film being adapted to react after reception of a suited activation energy, in particular by applying pressure, heat, electrical current, optical means or a combination thereof, thereby producing heat and thus causing a bonding between the connection portion and a cable.
Lifting gear, particularly lever hoist, comprising a housing in which a load sprocket and a driveshaft driving the load sprocket via a gear are rotationally mounted, as well as a drive, a load pressure brake and a catch brake (30, 31), wherein a load chain is movable by way of the load sprocket, characterised in that the catch brake (30, 31) has a locking disc having locking teeth and a control disc having control cams as well as an arrester hook, wherein the locking disc and the control disc are twisted or against one another, wherein the twisting is delimited by a twist path limitation and wherein the arrester hook is arranged so as to be pivotably movable and has a ratchet contour at a front end and a probe contour at a rear end, wherein the probe contour rests on the control disc under the influence of a spring element and the ratchet contour is able to be brought into locking engagement with a locking tooth of the locking disc.
A machine for producing thermoformed articles comprising a stacking system having a mould forming section, a stacking unit and a turret system operable inbetween the said mould forming section and stacking unit arranged at a distance to each other in horizontal direction (x), characterized in that the stacking system further comprises: a body having a cam guide channel extending through the distance along the horizontal direction (x), wherein one end of said cam guide channel is arranged in an upper position compared to the other end with respect to the vertical direction (y), and a turret system comprising a movable body moving substantially linearly through the horizontal axis (x), and further components (8, 19) moving biaxially (x, y) and rotating independently from the said movable body for picking the thermoformed articles from the mould forming section and expelling the same to the stacking unit, whereby the turret system further comprises means (14, 15, 16, 17) for moving the components (8, 19) carrying the thermoformed articles biaxially (x, y) such that the said components (8, 19) are adapted to rotate when the means (14, 15, 16, 17) encounter a difference in vertical direction (y) through the said cam guide channel. a body having a cam guide channel extending through the distance along the horizontal direction (x), wherein one end of said cam guide channel is arranged in an upper position compared to the other end with respect to the vertical direction (y), and a turret system comprising a movable body moving substantially linearly through the horizontal axis (x), and further components (8, 19) moving biaxially (x, y) and rotating independently from the said movable body for picking the thermoformed articles from the mould forming section and expelling the same to the stacking unit, whereby the turret system further comprises means (14, 15, 16, 17) for moving the components (8, 19) carrying the thermoformed articles biaxially (x, y) such that the said components (8, 19) are adapted to rotate when the means (14, 15, 16, 17) encounter a difference in vertical direction (y) through the said cam guide channel.