mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing an ophthalmic lens, comprising a marking step for producing permanent technical marks on said ophthalmic lens, which exhibits a body, a first face and a second face opposite said first face, which first face and second face respectively define a first optical surface and a second optical surface; said method comprising the following steps: - additively manufacturing said body and said first and second faces (20, 28) by the deposition of a plurality of first predetermined volume elements of a first material having a first complex refractive index, so as to obtain said first and second optical surfaces; - additively manufacturing said permanent technical marks by the deposition, during said deposition of a plurality of said first volume elements of said first material, of at least one second predetermined volume element of a second material having a second complex refractive index (30, 31) different from said first complex refractive index of said first material; with said method being configured such that the permanent technical marks are characteristic of an optical reference system to be applied to said ophthalmic lens and located in said ophthalmic lens in a determined position depending on said first and second optical surfaces. - additively manufacturing said body and said first and second faces (20, 28) by the deposition of a plurality of first predetermined volume elements of a first material having a first complex refractive index, so as to obtain said first and second optical surfaces; - additively manufacturing said permanent technical marks by the deposition, during said deposition of a plurality of said first volume elements of said first material, of at least one second predetermined volume element of a second material having a second complex refractive index (30, 31) different from said first complex refractive index of said first material;
A spinal cage comprising: first and second spinal attachment members (82, 84) attachable to vertebrae (83, 85), said first and second spinal attachment members (82, 84) articulating with one another by means of an articulation joint (86, 88); characterised by a wedge element arranged for wedging between said first and second spinal attachment members (82, 84), and an actuator comprising a spring which is linked to said wedge element for moving said wedge element in a direction that wedges said wedge element further in between said first and second spinal attachment members (82, 84) or further away from said first and second spinal attachment members (82, 84). first and second spinal attachment members (82, 84) attachable to vertebrae (83, 85), said first and second spinal attachment members (82, 84) articulating with one another by means of an articulation joint (86, 88); characterised by a wedge element arranged for wedging between said first and second spinal attachment members (82, 84), and an actuator comprising a spring which is linked to said wedge element for moving said wedge element in a direction that wedges said wedge element further in between said first and second spinal attachment members (82, 84) or further away from said first and second spinal attachment members (82, 84).
A method for a real-time burner efficiency control and monitoring system, the method including: analyzing a flare exhaust gas composition at an exhaust gas sampling point downstream of a flare system (130, 230); identifying specific components in the burner flare exhaust gas utilizing one or more of chromatographic, spectrometric, or optical systems; and using an analytical control unit (150, 250) to calculate, based on the analysis of the flare exhaust gas (16, 28) composition, the amount of oxidant gas needed for complete oxidation of flare gas (12, 22) by the flare system, provide feedback to adjust oxidant gas (20, 30) supply flowrate and, if the oxidant gas supply is insufficient, also provide feedback to adjust parameters of a flow separator (110, 210) upstream of the flare system. analyzing a flare exhaust gas composition at an exhaust gas sampling point downstream of a flare system (130, 230); identifying specific components in the burner flare exhaust gas utilizing one or more of chromatographic, spectrometric, or optical systems; and using an analytical control unit (150, 250) to calculate, based on the analysis of the flare exhaust gas (16, 28) composition, the amount of oxidant gas needed for complete oxidation of flare gas (12, 22) by the flare system, provide feedback to adjust oxidant gas (20, 30) supply flowrate and, if the oxidant gas supply is insufficient, also provide feedback to adjust parameters of a flow separator (110, 210) upstream of the flare system.
A composition comprising a) 10 to 60 % by weight of one or more urea components having a number average molecular weight Mn above 350 g/mol, determined by gel permeation chromatography (eluent: solution of lithium bromide (content 5g/l) in dimethylacetamide, standard: polymethylmethacrylate, column temperature: 80°C) according to DIN 55672 part 2 (year: 2008) and b) 40 to 90 % by weight of one or more carboxylic acid components according to formula HO-R 1 -COOH, wherein R 1 represents an organic group having 3 to 75 carbon atoms, wherein the % by weight are calculated on the sum of components a) and b). a) 10 to 60 % by weight of one or more urea components having a number average molecular weight Mn above 350 g/mol, determined by gel permeation chromatography (eluent: solution of lithium bromide (content 5g/l) in dimethylacetamide, standard: polymethylmethacrylate, column temperature: 80°C) according to DIN 55672 part 2 (year: 2008) and b) 40 to 90 % by weight of one or more carboxylic acid components according to formula HO-R 1 -COOH,
A method, comprising: directing a laser beam to a target along a scan path at a variable scan velocity; and characterized in that adjusting a digital modulation of continuous-wave laser beam power between a first digital modulation power level and a second digital modulation power level, including at least one of a change in duty cycle or modulation period, during movement of the laser beam along the scan path and in relation to the variable scan velocity so as to provide a fluence at the target within a predetermined fluence range along the scan path. directing a laser beam to a target along a scan path at a variable scan velocity; and characterized in that adjusting a digital modulation of continuous-wave laser beam power between a first digital modulation power level and a second digital modulation power level, including at least one of a change in duty cycle or modulation period, during movement of the laser beam along the scan path and in relation to the variable scan velocity so as to provide a fluence at the target within a predetermined fluence range along the scan path.
A method for controlling a laundry treatment apparatus including an outer tub; an inner tub disposed inside the outer tub; an air circulation path of which the start end is connected to the side surface of the outer tub, and which includes a section which upwardly extends from the upper side to the lower side; a water drain path which is connected to the lower surface of the outer tub so as to guide water inside the outer tub to be drained to the outside; a filter part having a filter net (161, 261, 361) which is disposed to traverse the upwardly extending section of the air circulation path an edge frame configured to support the filter net around the circumference of the filter net; and a nozzle (175, 275, 375) for spraying cleaning water to the filter net, the method for controlling the laundry treatment apparatus comprising: a water supplying step of supplying wash water into the outer tube; a laundry washing step for washing or rinsing laundry in the inner tub by using the wash water; and a water draining step of controlling the wash water to be drained through the water drain path, controlling the cleaning water to be sprayed through the nozzle to remove foreign substances collected in the filter net while allowing the edge frame to perform a rotational motion by rotating said edge frame in its circumferential direction and wherein the cleaning water is drained through the water drain path. a water supplying step of supplying wash water into the outer tube; a laundry washing step for washing or rinsing laundry in the inner tub by using the wash water; and a water draining step of controlling the wash water to be drained through the water drain path, controlling the cleaning water to be sprayed through the nozzle to remove foreign substances collected in the filter net while allowing the edge frame to perform a rotational motion by rotating said edge frame in its circumferential direction and wherein the cleaning water is drained through the water drain path.
Insulating panel having a top face and a bottom face opposite the top face, consisting of a body made of stone wool of substantially uniform density, the body consists of a single layer of stone wool, at least one profiled groove being formed in said insulating panel starting from the top face, the top face being made of stone wool, the groove being formed in the stone wool, the number of grooves being less than or equal to three for 60 cm of a dimension of said panel perpendicular to the direction of the grooves, the depth of at least one groove is from 0.5 to 6 cm, and the stone wool density is from 100 to 300 kg per cubic metre.
Installation for processing stacked, sheet-like material, having a cutting machine for cutting the material and having at least one peripheral device (13, 15, 16, 18, 24) along the processing line of the cutting machine, wherein the cutting machine, on an operator side, has a display and an operating panel, characterized in that the at least one peripheral device (13, 15, 16, 18, 24) has a function region monitored by means of a camera, wherein the function region can be presented on the display of the cutting machine by means of a real-time image, and the at least one peripheral device (13, 15, 16, 18, 24) can be activated via the operating panel.
A composition comprising resveratrol for use in reducing scar formation during wound healing, comprising applying said composition only into a wound which was formed at most one day before the applying, and in which no part of the skin surface of the wound is more than 3 cm from uninjured skin.
A vehicle radar system comprising a control unit arrangement and at least one radar sensor arrangement that is arranged to transmit signals and receive reflected signals, where the vehicle radar system is arranged to acquire a plurality of measured radar detections (10, 11, 12, 13) at different times; where the control unit arrangement is arranged to engage a tracking algorithm using the present measured radar detections (10, 11, 12, 13) as input such that at least one track is initialized, characterized in that for each track, the control unit arrangement is arranged to: - by means of the tracking algorithm, calculate a calculated previous radar detection that precedes the present measured radar detections (10, 11, 12, 13) at a corresponding previous time that precedes said different times; and to - re-initialize the tracking algorithm using the present measured radar detections (10, 11, 12, 13) in combination with the calculated previous radar detection. - by means of the tracking algorithm, calculate a calculated previous radar detection that precedes the present measured radar detections (10, 11, 12, 13) at a corresponding previous time that precedes said different times; and to - re-initialize the tracking algorithm using the present measured radar detections (10, 11, 12, 13) in combination with the calculated previous radar detection.
A container for consumer goods comprising: a. an outer housing comprising a box portion having a top opening closable by a lid portion, the box portion comprising a front wall and a back wall connected to each other by a bottom wall opposite the top opening and two side walls (14, 18); and b. a bundle of elongated consumer goods wrapped with an inner liner and being arranged within the outer housing, and c. an inner frame arranged between outer housing and inner liner, wherein the inner frame comprises a front panel and two side panels (34, 36) and further comprises a first vertical crease or perforated line across at least part of the front panel for defining at least one foldable portion which can be folded to the inside of the container for selectively limiting the space within the container; characterized in that d. the inner liner is formed out of an inner liner sheet which comprises an L-shaped perforation for separating a removable portion from the remainder of the inner liner; and e. the removable portion defining an access opening through which consumer goods can be taken out, and wherein the perforation of the inner liner extends along the front wall, a first side wall and the back wall of the container. a. an outer housing comprising a box portion having a top opening closable by a lid portion, the box portion comprising a front wall and a back wall connected to each other by a bottom wall opposite the top opening and two side walls (14, 18); and b. a bundle of elongated consumer goods wrapped with an inner liner and being arranged within the outer housing, and c. an inner frame arranged between outer housing and inner liner, wherein the inner frame comprises a front panel and two side panels (34, 36) and further comprises a first vertical crease or perforated line across at least part of the front panel for defining at least one foldable portion which can be folded to the inside of the container for selectively limiting the space within the container; characterized in that d. the inner liner is formed out of an inner liner sheet which comprises an L-shaped perforation for separating a removable portion from the remainder of the inner liner; and e. the removable portion defining an access opening through which consumer goods can be taken out, and wherein the perforation of the inner liner extends along the front wall, a first side wall and the back wall of the container.
Sensor element for detecting at least one analyte in a body fluid or in a body tissue, particularly for determining at least one metabolite concentration in a body fluid, wherein the sensor element comprises an implantable, one-piece shaped body, wherein the shaped body comprises a sensor end and a coupling end, wherein the shaped body comprises, in the area of the sensor end, at least one sensor area, wherein the sensor area comprises at least one sensor material which changes at least one optically measurable property in the presence of the analyte, wherein the shaped body also has at least one optically transparent coupling part, wherein the coupling part is designed to transmit electromagnetic radiation in at least one spectral range between the sensor area and the coupling end, wherein the shaped body has, in the sensor area, at least one optically transparent matrix material, wherein the analyte can at least partially diffuse through the matrix material to the sensor material, wherein the sensor material is embedded in the matrix material, wherein the coupling part is formed at least partially by the matrix material, wherein the matrix material comprises at least one curable plastic, in particular a cross-linkable plastic, in particular a biocompatible cross-linkable plastic, in cured form, characterized in that the sensor material is at least partially embedded in the matrix material in microcapsules, that the coupling part is substantially free of sensor material, and that at least one reference material, particularly in the form of reference particles, is also embedded in the sensor area, wherein the reference material has at least one optically measurable reference property that does not substantially change in the presence of the analyte.
Method for reinforcing a reinforced concrete beam-column node comprising the steps of: a) identifying a beam-column node to be reinforced and detecting dimensional parameters characteristic of said node; b) arranging two steel reinforcement plates for an intervention surface of the node, said reinforcement plates being selected from a set of modular reinforcement plates made of steel according to the characteristic dimension parameters detected, and connecting said two reinforcement plates to each other so as to make a reinforcement assembly shaped to be arranged at the intervention surface, wherein each reinforcement plate has a main portion mainly developing along a longitudinal direction and at least two parallel arms branching off from the main portion in the same direction mainly developing along respective transverse directions perpendicular to the longitudinal direction, each arm having a plurality of connecting holes that are used for said connection between the reinforcement plates; c) arranging the reinforcement assembly on the intervention surface and drilling a plurality of holes in the node through selected openings, not overlapping in use the reinforcement bars of the node, of a plurality of openings made in the main portion of the respective reinforcement plates, each hole extending perpendicularly within the node with respect to the intervention surface; d) fitting a plurality of dry connectors within said plurality of holes through said selected openings. a) identifying a beam-column node to be reinforced and detecting dimensional parameters characteristic of said node; b) arranging two steel reinforcement plates for an intervention surface of the node, said reinforcement plates being selected from a set of modular reinforcement plates made of steel according to the characteristic dimension parameters detected, and connecting said two reinforcement plates to each other so as to make a reinforcement assembly shaped to be arranged at the intervention surface, wherein each reinforcement plate has a main portion mainly developing along a longitudinal direction and at least two parallel arms branching off from the main portion in the same direction mainly developing along respective transverse directions perpendicular to the longitudinal direction, each arm having a plurality of connecting holes that are used for said connection between the reinforcement plates; c) arranging the reinforcement assembly on the intervention surface and drilling a plurality of holes in the node through selected openings, not overlapping in use the reinforcement bars of the node, of a plurality of openings made in the main portion of the respective reinforcement plates, each hole extending perpendicularly within the node with respect to the intervention surface; d) fitting a plurality of dry connectors within said plurality of holes through said selected openings.
A flooring system, comprising: a top floor layer comprising a plurality of luxury vinyl tiles, wherein the top floor layer comprises a tile joint between adjacent tiles of the plurality of luxury vinyl tiles; and a sub-floor; characterized by an underlayment material comprising a cross-linked, polyolefin foam disposed between the sub-floor and the top floor layer, wherein the underlayment material is configured with a density in a range of about 20 kilograms per cubic meter (kg/m 3) to about 200 kg/m 3 and a thickness in a range of about 0.5 millimeter (mm) to about 6 mm, and wherein the configuration of the underlayment material being disposed between the luxury vinyl tile and the subfloor prevents a portion of the at least one of the plurality of luxury vinyl tiles at the tile joint from bending by more than about 45 degrees over a twelve hour period when a pressure of 21,37 kPa (3.1 pounds per square inch (psi)) is applied to the at least one of the tile joint or the portion of the at least one of the plurality of luxury vinyl tiles at the tile joint. a top floor layer comprising a plurality of luxury vinyl tiles, wherein the top floor layer comprises a tile joint between adjacent tiles of the plurality of luxury vinyl tiles; and a sub-floor; characterized by an underlayment material comprising a cross-linked, polyolefin foam disposed between the sub-floor and the top floor layer, wherein the underlayment material is configured with a density in a range of about 20 kilograms per cubic meter (kg/m 3) to about 200 kg/m 3 and a thickness in a range of about 0.5 millimeter (mm) to about 6 mm, and wherein the configuration of the underlayment material being disposed between the luxury vinyl tile and the subfloor prevents a portion of the at least one of the plurality of luxury vinyl tiles at the tile joint from bending by more than about 45 degrees over a twelve hour period when a pressure of 21,37 kPa (3.1 pounds per square inch (psi)) is applied to the at least one of the tile joint or the portion of the at least one of the plurality of luxury vinyl tiles at the tile joint.
A foamable composition comprising: at least one polymer and a foaming agent; wherein said at least one polymer is selected from the group consisting of polyphenylenesulfide, polyetherimide, polysulfone, polypheylsulfone (PPSU), polyethersulfone (PES/PESU), polyetheretherketone (PEEK), polyaryletherketone (PAEK), polyetherketoneketone (PEKK), polyetherketone, or polyolefins such as polyethylene, polyproplylene, cyclic olefin copolymer, polycarbonate, polyphenylene ether, liquid crystal polymer, and/or combinations thereof; wherein said foaming agent comprises a talc or a talc derivative; wherein said talc or talc derivative constitutes the only foaming agent present in said foamable composition and wherein said talc or talc derivative comprises 3 to 20% by weight of said foamable composition. at least one polymer and a foaming agent; wherein said at least one polymer is selected from the group consisting of polyphenylenesulfide, polyetherimide, polysulfone, polypheylsulfone (PPSU), polyethersulfone (PES/PESU), polyetheretherketone (PEEK), polyaryletherketone (PAEK), polyetherketoneketone (PEKK), polyetherketone, or polyolefins such as polyethylene, polyproplylene, cyclic olefin copolymer, polycarbonate, polyphenylene ether, liquid crystal polymer, and/or combinations thereof; wherein said foaming agent comprises a talc or a talc derivative; wherein said talc or talc derivative constitutes the only foaming agent present in said foamable composition and wherein said talc or talc derivative comprises 3 to 20% by weight of said foamable composition.