mhurhangee/ep-ind-claims huggingface dataset:
A cellular phone which detects a user's touch position so as to modify an image displayed on a touch panel, characterized by: an invalid area specifying part which specifies an invalid area not accepting a user's input operation on the touch panel; an input part which detects a user's touch area on the touch panel and which executes a function pre-assigned to the touch area not encompassed by the invalid area, a grip detection part which detects presence or absence of a user's grip, wherein the input part determines whether or not the user's touch area is encompassed by the invalid area on the touch panel when the grip detection part detects the user's grip, a user identification part which identifies a user having the user's grip detected by the grip detection part, and a recording part which stores the user identification information in connection with the invalid area, which is specified by the invalid area specifying part, in a storage unit, wherein the input part reads the invalid area, related to the user identification information, from the storage unit so as to determine whether or not the user's contact area is encompassed by the invalid area. an invalid area specifying part which specifies an invalid area not accepting a user's input operation on the touch panel; an input part which detects a user's touch area on the touch panel and which executes a function pre-assigned to the touch area not encompassed by the invalid area, a grip detection part which detects presence or absence of a user's grip, wherein the input part determines whether or not the user's touch area is encompassed by the invalid area on the touch panel when the grip detection part detects the user's grip, a user identification part which identifies a user having the user's grip detected by the grip detection part, and a recording part which stores the user identification information in connection with the invalid area, which is specified by the invalid area specifying part, in a storage unit, wherein the input part reads the invalid area, related to the user identification information, from the storage unit so as to determine whether or not the user's contact area is encompassed by the invalid area.
Luminescence diode chip with a radiation-transmissive covering body and with a semiconductor body having an epitaxially grown semiconductor layer sequence with an active zone and a radiation coupling-out area, the active zone emitting an electromagnetic radiation during operation of the luminescence diode chip, a large part of said electromagnetic radiation being coupled out via the radiation coupling-out area, - wherein the radiation-transmissive covering body is arranged downstream of the radiation coupling-out area in an emission direction of the luminescence diode chip and has a first main area facing the radiation coupling-out area, a second main area remote from the radiation coupling-out area as well as side areas connecting the first and second main areas; - wherein a connecting layer is arranged between the radiation coupling-out area and the covering body, which connecting layer directly connects the covering body to the semiconductor layer sequence and fixes it thereto; and - wherein the connecting layer comprises at least one conversion layer with a luminescence conversion material and an adhesive layer, which is arranged between the conversion layer and the radiation coupling-out area and which is made of a silicone-based adhesive, characterized in that the thickness of the connecting layer is at most 200 μm. - wherein the radiation-transmissive covering body is arranged downstream of the radiation coupling-out area in an emission direction of the luminescence diode chip and has a first main area facing the radiation coupling-out area, a second main area remote from the radiation coupling-out area as well as side areas connecting the first and second main areas; - wherein a connecting layer is arranged between the radiation coupling-out area and the covering body, which connecting layer directly connects the covering body to the semiconductor layer sequence and fixes it thereto; and - wherein the connecting layer comprises at least one conversion layer with a luminescence conversion material and an adhesive layer, which is arranged between the conversion layer and the radiation coupling-out area and which is made of a silicone-based adhesive,
A multilayer film comprising a layer obtained by applying a halogenated vinyl polymer water dispersion onto a base film formed of a polymer differing from the halogenated vinyl polymer, wherein the halogenated vinyl polymer water dispersion comprises: a vinylidene chloride polymer; and 0.3 mass% or more and 1.5 mass% or less, relative to 100 mass% of resin solid content contained in the water dispersion, of an anionic amphiphilic compound, wherein the anionic amphiphilic compound is sodium dodecylbenzene sulfonate, and wherein the base film is made of polyvinyl chloride, polyester, polyamide, or polypropylene. wherein the halogenated vinyl polymer water dispersion comprises: a vinylidene chloride polymer; and 0.3 mass% or more and 1.5 mass% or less, relative to 100 mass% of resin solid content contained in the water dispersion, of an anionic amphiphilic compound, wherein the anionic amphiphilic compound is sodium dodecylbenzene sulfonate, and a vinylidene chloride polymer; and 0.3 mass% or more and 1.5 mass% or less, relative to 100 mass% of resin solid content contained in the water dispersion, of an anionic amphiphilic compound, wherein the anionic amphiphilic compound is sodium dodecylbenzene sulfonate, and wherein the base film is made of polyvinyl chloride, polyester, polyamide, or polypropylene.
A sponge for cleaning a surface, the sponge having a longitudinal direction and including an active face obtained, simultaneously with an active face of another sponge, by slitting a same block of material, and wiping protrusions (24, 44) distributed on the active face, the wiping protrusions (24, 44) forming between them, on the active face, hollows (26, 46) for collecting particles, the wiping protrusions (24, 44) being arranged to define, in the absence of outside stress from the sponge, a flat outer enclosure, the wiping protrusions (24, 44) being arranged so that the projections of the parts of the wiping protrusions (24, 44) comprised in the plane of the enclosure, in the longitudinal direction and in the direction of the plane of the enclosure perpendicular to the longitudinal direction, over planes respectively perpendicular to these directions, form a continuous straight line.
A splittable fluid sample collector (16, 16', 16") comprising at least first and second fluid collector portions (16a,16b, 16c) disposed parallel to one another, each of the fluid collector portions (16a, 16b, 16c) including a handle (20a, 20b, 20c) and an absorbent sample pad (18a, 18b, 18c) affixed to and extending from an end of the handle (20a, 20b, 20c), the handles (20a, 20b, 20c) of the at least first and second fluid collector portions (16a, 16b, 16c) detachably connected to one another, wherein the first and second handles (20a, 20b, 20c) each include a finger gripping element (24a, 24b, 24c, 24a', 24b') and characterized in that the absorbent sample pad (18a, 18b, 18c) of each of the first and second fluid collector portions (16a, 16b, 16c) includes a first planar face surface, a second planar face surface, and a peripheral edge surface extending between the first and second planar face surfaces, wherein the first and second planar face surfaces of each sample pad (18a, 18b, 18c) have a width that is greater than a width of the peripheral edge surface of the sample pad (18a, 18b, 18c), wherein the absorbent sample pads (18a, 18b, 18c) are arranged opposite one another so that one of the first and second planar face surfaces of the absorbent sample pad (18a, 18b, 18c) of the first fluid collector portion (16a, 16b, 16c) faces and is at least immediately adjacent to one of the first and second planar face surfaces of the absorbent sample pad (18a, 18b, 18c) of the second fluid collector portion (16a,16b, 16c) and the peripheral edge surfaces of the absorbent sample pads (18a, 18b, 18c) of the first and second fluid collector portions (16a, 16b, 16c) face a same direction.
A brush seal, in particular, for the sealing of gaps occurring in turbomachines, the brush seal comprising a plurality of bundles of individual fibers or wires, wherein, in each case, at least two individual fibers or wires, and/or at least two fiber bundles or wire bundles are braided or twisted into a fiber or wire package, characterized in that the fiber or wire bundles are composed of at least two individual fibers or individual wires that have been braided or twisted together.
Process for the synthesis of 2,5-furandicarboxylic acid (FDCA) comprising the steps of: 1) oxidising an aqueous solution of 5-hydroxymethylfurfural in the presence of molecular oxygen, of a heterogeneous catalyst comprising ruthenium and of a strong base at a temperature above 100°C, obtaining a reaction product in aqueous solution comprising a salt of FDCA acid; 2) separating said heterogeneous catalyst from said reaction product in aqueous solution, 3) re-using said heterogeneous catalyst in the oxidation reaction in step 1) wherein said heterogeneous catalyst comprising ruthenium is selected from the group consisting of supported ruthenium, supported ruthenium oxides, supported ruthenium hydroxides, unsupported ruthenium hydroxides and mixtures thereof, wherein, for the supported catalysts, the support is selected from the group consisting of carbon, non-metal oxides, functionalised graphite and combinations thereof. 1) oxidising an aqueous solution of 5-hydroxymethylfurfural in the presence of molecular oxygen, of a heterogeneous catalyst comprising ruthenium and of a strong base at a temperature above 100°C, obtaining a reaction product in aqueous solution comprising a salt of FDCA acid; 2) separating said heterogeneous catalyst from said reaction product in aqueous solution, 3) re-using said heterogeneous catalyst in the oxidation reaction in step 1) wherein said heterogeneous catalyst comprising ruthenium is selected from the group consisting of supported ruthenium, supported ruthenium oxides, supported ruthenium hydroxides, unsupported ruthenium hydroxides and mixtures thereof, wherein, for the supported catalysts, the support is selected from the group consisting of carbon, non-metal oxides, functionalised graphite and combinations thereof.
Method for detecting defects on tyres in a tyre production process, the method comprising: a) receiving a reference image (I ref) of a surface portion of a reference tyre substantially defects-free; b) providing a sample tyre to be analysed; c) illuminating a surface portion of the sample tyre with a raking light source; d) acquiring a sample image (I cmp) of the illuminated surface portion of the sample tyre; e) extracting the edges from the reference image and from the sample image and generating an edge reference image (I ref_edg) comprising the edges included in the reference image and an edge sample image (I cmp_edg) comprising the edges included in the sample image, respectively; f) carrying out a dilation of the edges of the edge reference image (I ref_edg) and generating therefrom a dilated edge reference image (I ref_edg_dl); g) comparing the edge sample image (I cmp_edg) with respect to the dilated edge reference image (I ref_edg_dl) and generating an edge image of possible defects (I edg_pd) comprising the edges that are included in the edge sample image and are not included in the dilated edge reference image; h) identifying as possible defects the edges included in the edge image of possible defects. a) receiving a reference image (I ref) of a surface portion of a reference tyre substantially defects-free; b) providing a sample tyre to be analysed; c) illuminating a surface portion of the sample tyre with a raking light source; d) acquiring a sample image (I cmp) of the illuminated surface portion of the sample tyre; e) extracting the edges from the reference image and from the sample image and generating an edge reference image (I ref_edg) comprising the edges included in the reference image and an edge sample image (I cmp_edg) comprising the edges included in the sample image, respectively; f) carrying out a dilation of the edges of the edge reference image (I ref_edg) and generating therefrom a dilated edge reference image (I ref_edg_dl); g) comparing the edge sample image (I cmp_edg) with respect to the dilated edge reference image (I ref_edg_dl) and generating an edge image of possible defects (I edg_pd) comprising the edges that are included in the edge sample image and are not included in the dilated edge reference image; h) identifying as possible defects the edges included in the edge image of possible defects.
Method for producing a preform with an optimised base geometry, whereby the finished preform made from at least one injection-moulded thermoplastic material has a substantially thinner wall thickness in the domed base region than in the preform shaft, and the wall thickness of the preform gradually evens out along the path from the gate to the preform shaft, the preform being provided with a view to re-shaping to obtain blow-moulded containers, and when an outer skin of the preform has solidified following a first intensive cooling process a mould is opened, the preforms are taken out of the open mould by means of a removal arm and cooling sleeves of the removal arm, the cooling sleeves cool the preform shaft, but not the preform dome, by contact cooling prior to an embossing operation, the thus still plastically deformable preform dome is correspondingly mechanically deformed by means of an embossing body in a reproducible manner depending on the cooling sleeve geometry, and the contours of the cooling sleeve and embossing body are designed so that these contours are as far as possible reproducibly replicated on the demoulded preform after the demoulding operation, and the preform domes are cooled after the embossing operation due to the wall contact with the cooling sleeves, characterised in that a geometrically defined embossing mandrel with a venting bore in combination with a geometrically defined base contour deforms the plastic material of the base dome in the plastic state by pulling, pressing and pushing the plastic compound until the volume between the two contours is almost or completely filled with plastic material, thereby limiting the embossing stroke.
A polarizer assembly, comprising: a first component including a first channel portion extending along a first component axis (A-A) and having a plurality of first locking projections and/or first openings (100a, 100b) on opposite sides of the first channel portion; and a second component including a second channel portion extending along a second component axis (B-B) and having a plurality of second locking projections and/or second openings (102a, 102b) on opposite sides of the second channel portion; wherein the second component is rotatable relative to the first component about a common rotation axis (C-C) between a pre-assembled position in which the second component axis (B-B) is angularly offset from the first component axis (A-A), and an assembled position in which the second locking projections and/or second openings (102a, 102b) mate with the first locking projections and/or first openings (100a, 100b) and the first and second channel portions (30, 32) form a channel configured to polarize waveforms. a first component including a first channel portion extending along a first component axis (A-A) and having a plurality of first locking projections and/or first openings (100a, 100b) on opposite sides of the first channel portion; and a second component including a second channel portion extending along a second component axis (B-B) and having a plurality of second locking projections and/or second openings (102a, 102b) on opposite sides of the second channel portion; wherein the second component is rotatable relative to the first component about a common rotation axis (C-C) between a pre-assembled position in which the second component axis (B-B) is angularly offset from the first component axis (A-A), and an assembled position in which the second locking projections and/or second openings (102a, 102b) mate with the first locking projections and/or first openings (100a, 100b) and the first and second channel portions (30, 32) form a channel configured to polarize waveforms.
Measuring probe for measuring the thickness of thin layers with a housing, having at least one sensor element, which is received in the housing at least slightly moveably along a longitudinal axis and which comprises at least one winding device, which is allocated to the longitudinal axis, having a spherical positioning cap facing the outer front face of the housing, said cap being arranged in the longitudinal axis, wherein the spherical positioning cap has a basic body that has a cylindrical core section and a pol cap arranged on a front face of the core section, characterised in that the winding device is allocated to the spherical positioning cap, said winding device being formed from a discoidal or annular carrier with at least one Archimedean coil arranged thereon and with the basic body consisting of a ferritic material and the pol cap consisting of a hard metal.
A mobile computing device comprising: a physical connector configured to receive a charging cable; a plurality of temperature sensors (114A; 114B); and a controller configured to: detect, based on a difference between a temperature measured by a first temperature sensor of the plurality of temperature sensors and a temperature measured by a second temperature sensor of the plurality of temperature sensors, an occurrence of an overheat event in the physical connector, wherein a distance between the first temperature sensor and the physical connector is less than a distance between the second temperature sensor and the physical connector; and responsive to detecting the occurrence of the overheat event, reduce an amount of electrical current flowing through the physical connector. a physical connector configured to receive a charging cable; a plurality of temperature sensors (114A; 114B); and a controller configured to: detect, based on a difference between a temperature measured by a first temperature sensor of the plurality of temperature sensors and a temperature measured by a second temperature sensor of the plurality of temperature sensors, an occurrence of an overheat event in the physical connector, wherein a distance between the first temperature sensor and the physical connector is less than a distance between the second temperature sensor and the physical connector; and responsive to detecting the occurrence of the overheat event, reduce an amount of electrical current flowing through the physical connector. detect, based on a difference between a temperature measured by a first temperature sensor of the plurality of temperature sensors and a temperature measured by a second temperature sensor of the plurality of temperature sensors, an occurrence of an overheat event in the physical connector, wherein a distance between the first temperature sensor and the physical connector is less than a distance between the second temperature sensor and the physical connector; and responsive to detecting the occurrence of the overheat event, reduce an amount of electrical current flowing through the physical connector.
A bladed wheel for masking a moving wheel of a turbojet engine, including vanes, each vane including a lower surface wall (Pi) and an upper surface wall (Pe) joined at a leading edge and at a trailing edge and extending along a span axis from a root (Pd) to a tip (Sm), and wherein: - the lower surface wall (Pi) includes an upstream portion extending from the leading edge to a convex zone (CVi) of this lower surface wall (Pi), a central portion extending from the convex zone (CVi) to a concave zone (CCi) of this lower surface wall (Pi), and a downstream portion extending from the concave zone (CCi) to the trailing edge; - the upper surface wall (Pe) includes an upstream portion extending from the leading edge to a concave zone (CCe) of this upper surface wall (Pe), a central portion extending from the concave zone (CCe) to a convex zone (CVe) of this upper surface wall (Pe), and a downstream portion extending from the convex zone (CVe) to the trailing edge; - these concave zones (CCi, CCe) and these convex zones (CVe, CVi) each extend over most of the height of the vane along its span axis; - the concave zone (CCi) of the lower surface wall (Pi) faces the convex zone (CVe) of the upper surface wall (Pe), and the concave zone (CCe) of the upper surface wall (Pe) faces the convex zone (CVi) of the lower surface wall (Pi). characterized in that each vane is mounted to the bladed wheel so as to be able to pivot about a radial axis coinciding with its leading edge, in order to change its setting angle, and in that the bladed wheel is equipped with control means which control setting of the vanes. - the lower surface wall (Pi) includes an upstream portion extending from the leading edge to a convex zone (CVi) of this lower surface wall (Pi), a central portion extending from the convex zone (CVi) to a concave zone (CCi) of this lower surface wall (Pi), and a downstream portion extending from the concave zone (CCi) to the trailing edge; - the upper surface wall (Pe) includes an upstream portion extending from the leading edge to a concave zone (CCe) of this upper surface wall (Pe), a central portion extending from the concave zone (CCe) to a convex zone (CVe) of this upper surface wall (Pe), and a downstream portion extending from the convex zone (CVe) to the trailing edge; - these concave zones (CCi, CCe) and these convex zones (CVe, CVi) each extend over most of the height of the vane along its span axis; - the concave zone (CCi) of the lower surface wall (Pi) faces the convex zone (CVe) of the upper surface wall (Pe), and the concave zone (CCe) of the upper surface wall (Pe) faces the convex zone (CVi) of the lower surface wall (Pi).
An enteral syringe (200, 300) comprising: a hollow syringe barrel (220, 320) adapted to receive a plunger for retraction and advancement within the syringe barrel to transfer a delivered fluid to and from a contained volume of the syringe barrel; and a dosing control coupling (240, 340) extending along an elongate axis from a first end to a second end, the first end comprising a cylindrical outer collar defining an internal chamber and a lumen extension tip (246, 346) projecting axially into the internal chamber of the collar, the second end comprising an end coupling for engagement with the syringe barrel; characterised in that the lumen extension (246, 346) is a separate piece and configured for removable coupling engagement with the dosing control coupling (240, 340). a hollow syringe barrel (220, 320) adapted to receive a plunger for retraction and advancement within the syringe barrel to transfer a delivered fluid to and from a contained volume of the syringe barrel; and a dosing control coupling (240, 340) extending along an elongate axis from a first end to a second end, the first end comprising a cylindrical outer collar defining an internal chamber and a lumen extension tip (246, 346) projecting axially into the internal chamber of the collar, the second end comprising an end coupling for engagement with the syringe barrel; characterised in that the lumen extension (246, 346) is a separate piece and configured for removable coupling engagement with the dosing control coupling (240, 340).