mhurhangee/ep-ind-claims huggingface dataset:
Solid, essentially anhydrous oil bath salt preparation, characterised in that it consists of more than 10 wt % to 35 wt % of a liquid oil basis as well as 65 to less than 90 wt % of a solid carrier, each relating to the total preparation, wherein the oil base comprises one or more liquid lipids, selected from olive oil, sunflower oil, soya oil, peach kernel oil, apricot kernel oil, grapeseed oil, castor oil, peanut oil, almond oil, wheat germ oil, sesame oil, safflower oil, avocado oil, Shea butter or Illipé butter; jojoba oil, coconut oil, borage oil, maize germ oil, walnut oil, palm oil, macadamia nut oil, palm kernel oil, hazelnut oil, rosebush oil, cotton seed oil, papaya oil or mixtures thereof, or mixtures thereof with one or more liquid C 8-22 fatty alcohols, also one or more oil-soluble surfactants as well as optional additives/active substances, and wherein the solid carrier is based on a salt basis and also comprises one or more water-soluble surfactants and optionally additives and/or active substances, with the proviso that in the total (oil bath salt) preparation at most 80 wt % salt and at least 10 wt % liquid lipid are comprised, and the total amount of liquid lipid(s) + surfactants is more than 15 wt %, and wherein the preparation without application on top of one another, mixing of the phases, exists as a 2-phase bulk product of a liquid oil phase in addition to the solid carrier phase that has not been blended with it.
Device for processing a digitally printed paper web (2, 2') that is conveyed continuously through the device, comprising a perforating tool for perforating the paper web (2, 2') transversely with respect to the running direction, and comprising a cutting tool for cutting off printed sheets (8', 8", 78', 78") from a downstream end of the paper web (2, 2'), which are each arranged on a first side of the paper web (2, 2') and transversely or approximately transversely with respect to the running direction of the paper web (2, 2'), and comprising at least one mating tool arranged on a second side of the paper web (2, 2') that is opposite the first side, characterized in that • the device has a common tool carrier for holding the perforating tool and the cutting tool, • the device has a rotating cutting drum for holding the at least one mating tool and having an axis of rotation oriented transversely or approximately transversely with respect to the running direction of the paper web (2, 2'), • the perforating tool and the cutting tool are fixed to the tool carrier at a distance from each other, • the tool carrier can optionally be moved into two working positions (30, 33), in which in each case the perforating tool or the cutting tool can be brought into engagement with the at least one mating tool to process the paper web (2, 2'). • the device has a common tool carrier for holding the perforating tool and the cutting tool, • the device has a rotating cutting drum for holding the at least one mating tool and having an axis of rotation oriented transversely or approximately transversely with respect to the running direction of the paper web (2, 2'), • the perforating tool and the cutting tool are fixed to the tool carrier at a distance from each other, • the tool carrier can optionally be moved into two working positions (30, 33), in which in each case the perforating tool or the cutting tool can be brought into engagement with the at least one mating tool to process the paper web (2, 2').
A light emitting device, comprising: a light emitting structure comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a dielectric layer on a part of an upper surface of the light emitting structure and on a lateral side of the light emitting structure; a pad electrode over the dielectric layer; a bottom electrode layer under the light emitting structure; and a top electrode over the light emitting structure, wherein the bottom electrode layer is in direct contact with the dielectric layer,wherein the dielectric layer comprises a first dielectric layer on the part of an upper surface of the light emitting structure and a second dielectric layer on the lateral side of the light emitting structure, wherein the first dielectric layer and the second dielectric layer are connected to each other, wherein the pad electrode is in direct contact with the first dielectric layer, wherein the bottom electrode layer is in direct contact with the second dielectric layer, and wherein the pad electrode, the first dielectric layer, and the light emitting structure function as a Metal Insulator Semiconductor MIS capacitor, wherein the top electrode is directly disposed on the first conductivity type semiconductor layer of the light emitting structure, wherein the pad electrode is not directly disposed on the first conductivity type semiconductor layer of the light emitting structure. a light emitting structure comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a dielectric layer on a part of an upper surface of the light emitting structure and on a lateral side of the light emitting structure; a pad electrode over the dielectric layer; a bottom electrode layer under the light emitting structure; and a top electrode over the light emitting structure, wherein the bottom electrode layer is in direct contact with the dielectric layer,wherein the dielectric layer comprises a first dielectric layer on the part of an upper surface of the light emitting structure and a second dielectric layer on the lateral side of the light emitting structure, wherein the first dielectric layer and the second dielectric layer are connected to each other, wherein the pad electrode is in direct contact with the first dielectric layer, wherein the bottom electrode layer is in direct contact with the second dielectric layer, and wherein the pad electrode, the first dielectric layer, and the light emitting structure function as a Metal Insulator Semiconductor MIS capacitor, wherein the top electrode is directly disposed on the first conductivity type semiconductor layer of the light emitting structure, wherein the pad electrode is not directly disposed on the first conductivity type semiconductor layer of the light emitting structure.
A compound selected from the group consisting of: or a pharmaceutically acceptable salt or a stereoisomer thereof, wherein: Ar is X 1 is selected from the group consisting of halogen, -CN, or -OMe; X 2 is selected from the group consisting of H, halogen, -OH, -CN, C 1-6 alkoxy, and CF 3; and m is 1 or 2. or a pharmaceutically acceptable salt or a stereoisomer thereof, wherein: Ar is X 1 is selected from the group consisting of halogen, -CN, or -OMe; X 2 is selected from the group consisting of H, halogen, -OH, -CN, C 1-6 alkoxy, and CF 3; and m is 1 or 2.
Eye examination apparatus comprising: - at least an illuminator (11, 12) adapted to project a light beam along an optical illumination path having a first optical axis to illuminate the retina of an eye, said illuminator comprising at least a light source (111, 121, 125) and at least a projection diaphragm (114, 124) adapted to shape the light beam projected by said illuminator, said projection diaphragm being optically conjugated with the retina during the operation of said examination apparatus; - acquisition means adapted to receive light reflected by the retina along an optical imaging path having a second optical axis and to acquire images of the retina; - scanning means adapted to move the light beam projected by said illuminator on the retina along a scanning direction; - separation means of the light beams adapted to separate the light projected by said illuminator from the light reflected by the retina and directed toward said acquisition means; characterized in that said projection diaphragm comprises at least a projection opening (1140, 1240) having an elongated shape and variable width, said projection opening comprising at least a portion (1142, 1242) having a width larger than the width of said projection opening at said first optical axis. - at least an illuminator (11, 12) adapted to project a light beam along an optical illumination path having a first optical axis to illuminate the retina of an eye, said illuminator comprising at least a light source (111, 121, 125) and at least a projection diaphragm (114, 124) adapted to shape the light beam projected by said illuminator, said projection diaphragm being optically conjugated with the retina during the operation of said examination apparatus; - acquisition means adapted to receive light reflected by the retina along an optical imaging path having a second optical axis and to acquire images of the retina; - scanning means adapted to move the light beam projected by said illuminator on the retina along a scanning direction; - separation means of the light beams adapted to separate the light projected by said illuminator from the light reflected by the retina and directed toward said acquisition means;
An apparatus for curing a thin film on a moving substrate, said apparatus comprising: a conveyance system for moving a layer of thin film mounted on a substrate; a data processing system for allowing a user to input a desired processing level and a stack property of a stack of said thin film and substrate to design a specific thermal profile for curing said thin film, the thermal profile being a desired temperature of the stack in time and in space; a flashlamp for providing pulse width modulated electromagnetic pulses to said thin film while said thin film is being moved in relation to said flashlamp; and a flashlamp controller for modulating pulse widths of the electromagnetic pulses to control the shape of the pulses according to said specific thermal profile, by forming each of said pulse width modulated electromagnetic pulses from at least two micropulses; wherein the flashlamp controller includes: an encoder for providing trigger signals to a control computer, wherein the control computer sends control signals to an arbitrary waveform generator configured to generate the complex waveforms of various shapes and timing at appropriate times for curing said thin film located on said conveyance system. a conveyance system for moving a layer of thin film mounted on a substrate; a data processing system for allowing a user to input a desired processing level and a stack property of a stack of said thin film and substrate to design a specific thermal profile for curing said thin film, the thermal profile being a desired temperature of the stack in time and in space; a flashlamp for providing pulse width modulated electromagnetic pulses to said thin film while said thin film is being moved in relation to said flashlamp; and a flashlamp controller for modulating pulse widths of the electromagnetic pulses to control the shape of the pulses according to said specific thermal profile, by forming each of said pulse width modulated electromagnetic pulses from at least two micropulses; an encoder for providing trigger signals to a control computer, wherein the control computer sends control signals to an arbitrary waveform generator configured to generate the complex waveforms of various shapes and timing at appropriate times for curing said thin film located on said conveyance system.
A rapid assay for use in the prediction of bleeding in a human subject, wherein said rapid assay determines in 60 minutes or less the level of human cellular fibronectin (c-Fn) in a sample of said human subject, and wherein said sample of said subject is selected from a group consisting of whole blood, serum, or plasma, and wherein the following competitive rapid assay format is employed: antigen (c-Fn) in said sample competes with reference antigen bound to magnetic particles for binding sites on labeled antibodies to cellular fibronectin, wherein the assay response is inversely related to the amount of antigen in the said sample, wherein said rapid assay is a fluidic rapid immunoassay system, and wherein said antibodies are unlabeled P4F6 antibodies with Goat Anti-Mouse IgG ALP as detection enzyme, and wherein said antibodies binds to the EDA region of the c-Fn molecule, amino acid sequence 1631-1721, and wherein the reference antigen is consisting of a synthetic polypeptide having a sequence selected from a group consisting of: i. DGEEDTAELQGLRPGSEC, ii. ESPQGQVSRYRVTYSSPEDC, and iii. HDDMESQPLIGTQSC, and wherein the antibodies immunoreact with said synthetic polypeptide and denatured human cellular fibronectin, but do not substantially immunoreact with human plasma fibronectin in either the denatured or native states, and bind to their respective target with an affinity at least 100fold greater than they do to plasma fibronectin. antigen (c-Fn) in said sample competes with reference antigen bound to magnetic particles for binding sites on labeled antibodies to cellular fibronectin, wherein the assay response is inversely related to the amount of antigen in the said sample, i. DGEEDTAELQGLRPGSEC, ii. ESPQGQVSRYRVTYSSPEDC, and iii. HDDMESQPLIGTQSC, and
A vaccine composition comprising antigenic thermally-inactivated rotavirus characterized by an intact rotavirus particle structure wherein the rotavirus in the composition is obtainable by the method comprising: exposing the starting preparation of rotavirus particles to a temperature in the range of about 50°C - 80°C, inclusive, for an incubation time sufficient to render the rotavirus incapable of replication or infection, thereby producing a heat-inactivated rotavirus preparation that is antigenic and retains the intact rotavirus particle structure of the starting preparation, and wherein the intact rotavirus particle structure is selected from the group consisting of: triple-layer rotavirus particles, double-layer rotavirus particles, and a combination of triple-layer rotavirus particles and double-layer rotavirus particles. exposing the starting preparation of rotavirus particles to a temperature in the range of about 50°C - 80°C, inclusive, for an incubation time sufficient to render the rotavirus incapable of replication or infection, thereby producing a heat-inactivated rotavirus preparation that is antigenic and retains the intact rotavirus particle structure of the starting preparation, and wherein the intact rotavirus particle structure is selected from the group consisting of: triple-layer rotavirus particles, double-layer rotavirus particles, and a combination of triple-layer rotavirus particles and double-layer rotavirus particles.
A stripper assembly for a can bodymaker and being configured to remove a can body from a punch mounted on a ram of the can bodymaker, the stripper assembly comprising: a stripper housing (13;113;213) defining an internal bore through which the punch passes; characterised by a radial offset monitor (10;20;30) comprising one or more eddy current sensors, the one or more eddy current sensors being located within the stripper housing or attached thereto, wherein the radial offset monitor is configured to detect misalignment of the ram and/or the punch, or of a can body held on the punch, within said bore. a stripper housing (13;113;213) defining an internal bore through which the punch passes; characterised by a radial offset monitor (10;20;30) comprising one or more eddy current sensors, the one or more eddy current sensors being located within the stripper housing or attached thereto, wherein the radial offset monitor is configured to detect misalignment of the ram and/or the punch, or of a can body held on the punch, within said bore.
A composition for pre-treatment of an aluminum surface, characterized by being an aqueous solution comprising the following components: a) from 2% to 10% by weight of a fluorinated inorganic acid; b) from 2% to 10% by weight of molybdate, titanate or zirconate of an alkali metal or alkaline earth metal or ammonia, optionally in the form of a fluoro acid derivative; and c) from 0.02% to 0.2% by weight of hydrogen peroxide or organic peroxide oxidizing agent; where the total weight percentage of said components in aqueous solution ranges from 4.02% to 20.2%. a) from 2% to 10% by weight of a fluorinated inorganic acid; b) from 2% to 10% by weight of molybdate, titanate or zirconate of an alkali metal or alkaline earth metal or ammonia, optionally in the form of a fluoro acid derivative; and c) from 0.02% to 0.2% by weight of hydrogen peroxide or organic peroxide oxidizing agent;
An adjuvant associated with one or more populations of polymersomes for use in a method of eliciting an immune response in a subject by sole administration of said adjuvant, wherein said sole administration is an administration characterized in that no antigen is administered to said subject in combination with said adjuvant.
An oven suitable for cleaning molds, die nozzles and components for apparatuses for processing plastic materials in general, which comprises a basket adapted to contain the molds to be cleaned, and a heating bell adapted to heat the molds contained in said basket, said bell can be moved upward and away with respect to said mold-carrying basket in order to facilitate access to said die-carrying basket, characterized in that said bell can be moved along a pair of rails (5, 6) arranged on a base frame of said oven, said base frame supporting said basket.
Apparatus for capturing a wire curvature, having a wire guide, wherein the apparatus furthermore comprises: a) a camera system comprising at least one camera, wherein the camera system is positioned and dimensioned such that it can capture a wire, guided in the wire guide, and the boundary (22a, 22b) thereof perpendicular to a wire longitudinal axis in the form of image data, and b) a data evaluation unit, which is set up to receive the image data of the camera system and to determine therefrom the wire curvature, c) characterized in that the data evaluation unit is configured such that contours are ascertained by determining all image points that themselves have a value above a threshold value and have at least one neighbour having a value below or equal to the threshold value, and/or that themselves have a value below or equal to the threshold value and have at least one neighbour having a value above the threshold value. a) a camera system comprising at least one camera, wherein the camera system is positioned and dimensioned such that it can capture a wire, guided in the wire guide, and the boundary (22a, 22b) thereof perpendicular to a wire longitudinal axis in the form of image data, and b) a data evaluation unit, which is set up to receive the image data of the camera system and to determine therefrom the wire curvature, c) characterized in that the data evaluation unit is configured such that contours are ascertained by determining all image points that themselves have a value above a threshold value and have at least one neighbour having a value below or equal to the threshold value, and/or that themselves have a value below or equal to the threshold value and have at least one neighbour having a value above the threshold value.
A genetically modified cell comprising deletions and/or insertions in an endogenous BCL11a enhancer sequence made by a nuclease comprising a cleavage domain and a DNA-binding domain that binds to a target site comprising at least 9 base pairs of SEQ ID NO:71 to 74.
Process for the removal of contaminating thiophenic sulfur compounds, from hydrocarbon feedstocks, said process comprising deactivating the surface of a nickel adsorbent with S or an S-compound to form a sulfided nickel adsorbent; contacting the hydrocarbon feedstock in the presence of hydrogen with the sulfided nickel adsorbent, of which the sulfided nickel adsorbent has a rate constant for tetralin hydrogenation activity at 150°C is less than 0.01 1/s.g cat, wherein in said sulfided nickel adsorbent part of the nickel is present in the metallic form in an amount of at least 10 %, on atomic basis, and wherein a surface of the sulfided nickel adsorbent has an atomic S to Ni ratio of at least 0.5.
A non-aqueous electrolyte containing an aprotic solvent and a disulfonic acid ester compound as expressed by chemical formula 1 shown below: wherein A and B respectively and independently represent alkylene groups having 1 to 5 carbon atoms and at least either A or B has an alkenyl group as substituent, wherein the alkenyl group substituent is selected from the group consisting of a vinyl group, allyl group, isopropenyl group, 3-butenyl group, 1,3-butadienyl group, and 4-pentenyl group.
Motor-pump assembly, for providing pressure for a brake actuating device of a motor vehicle brake system having a pneumatic brake booster, comprising a pump and an electric motor which drives the pump, wherein the pump is provided as a double diaphragm pump with two working diaphragms which are located opposite one another and are each clamped in between a pump housing and a working space cover and as a result bound a working space, and which can be moved by means of a crank drive having an eccentric and connecting rods, wherein the working space is respectively assigned an inlet duct with an inlet valve and an outlet duct with an outlet valve, wherein the outlet ducts are provided arranged in the working space covers and in the pump housing in such a way that air which is expelled from the working spaces is conducted into an interior space, surrounding the crank drive, of the pump housing, and that an air outlet unit (23, 53) is provided which permits low-noise expulsion of the air from the interior space by deflecting the air, and wherein the air outlet unit (23, 53) comprises: - a filter housing (32, 54), which is attached to the pump housing, - an outlet cover (34, 56) which is connected to the filter housing (32, 54) and has openings (41, 63) for letting out the air from the air outlet unit (23, 53) into the surroundings, - a filter (33, 59) which is arranged between the filter housing (32, 54) and the air outlet cover (34, 56), - a valve holding element (38, 70) and - a valve body, characterized in that an intermediate floor (37, 55) with openings (40, 61), which deflects the air emerging from the interior space at the openings (40, 61) by at least 90°, is provided in the air outlet unit (23, 53) between the filter housing (32, 54) and the air outlet cover (34, 56), and in that the valve holding element (38, 70) is integrally molded on the intermediate floor (37, 55). - a filter housing (32, 54), which is attached to the pump housing, - an outlet cover (34, 56) which is connected to the filter housing (32, 54) and has openings (41, 63) for letting out the air from the air outlet unit (23, 53) into the surroundings, - a filter (33, 59) which is arranged between the filter housing (32, 54) and the air outlet cover (34, 56), - a valve holding element (38, 70) and - a valve body, characterized in that an intermediate floor (37, 55) with openings (40, 61), which deflects the air emerging from the interior space at the openings (40, 61) by at least 90°, is provided in the air outlet unit (23, 53) between the filter housing (32, 54) and the air outlet cover (34, 56), and in that the valve holding element (38, 70) is integrally molded on the intermediate floor (37, 55).