mhurhangee/ep-ind-claims huggingface dataset:
A topical composition comprising an oil in water nanoemulsion wherein said nanoemulsion comprises a quaternary ammonium salt surfactant having at least one linear alkyl chain of at least 20 carbon atoms, an oil phase including at least one emollient; and a water phase, wherein the emollient is selected from petrolatum, isopropyl palmitate, non-hydrogenated vegetable oils, hydrogenated vegetable oils, silicone oils, any liquid polymerized siloxane such as dimethicone, cyclomethicone, cyclopentasiloxane, dimethiconol and amodimethicone, mineral oil, waxes such as paraffin and paraffinum liquidum, aloe vera, fatty alcohols such as arachidyl alcohol, batyl alcohol, behenyl alcohol, Cl2-13 alcohols, cetearyl alcohol, cetyl alcohol, coconut alcohol, isocetyl alcohol, octyldodecanol and palm alcohol, fatty acids and esters of fatty acids such as batyl stearate, cetearyl behenate, cetearyl isononanoate, cetyl esters, coconut acid, ethyl linoleate, ethyl linolenate, ethyl olivate, ethylhexyl cocoate, ethylhexyl myristate, glyceryl caprylate, glyceryl laurate/oleate, glyceryl ricinoleate, isocetyl salicylate, isostearyl alcohol, linoleic acid, linolenic acid, oleic acid, palm kernel acid, palmitic acid and wheat germ acid, shea butter (Butyrospermum parkii butter), cocoa butter (Theobroma cacao butter), derivatives of glycerides such as capric/caprylic triglyceride, cocoglycerides, and palm glycerides, cholesterol, lanolin and derivatives, derivatives of PEGs, squalane, squalene, sucrose and derivatives, glycerol derivatives such as glycerol trioctanoate (also known as tricaprylin), glycerol tristearate (also known as tristearin) or mixtures thereof.
Eccentric bearing for converting a rotary motion into a reciprocating motion, having a shaft, which can be driven rotationally, a bearing ring, which surrounds the shaft, and rolling elements, which are arranged around the shaft in a gap between the shaft and the bearing ring, wherein the bearing ring is eccentric with respect to the shaft and the rolling elements have different diameters according to a differing gap width between the shaft and the bearing ring, characterized in that the rolling elements rest against the shaft and the bearing ring under a preload.
Method for producing a motor vehicle comprising the steps: - producing a substructure and at least one superstructure module of the motor vehicle, wherein the substructure and the superstructure module in each case have at least one edge region, - painting at least the edge region of the substructure and/or the superstructure module, - connecting the edge regions of the substructure and the superstructure module by means of adhesive, wherein the substructure and the superstructure module are positioned relative to one another by means of a tolerance-compensating screw connection, so that the edge regions of the substructure and the superstructure module are fixed in the relative position thereof during the curing of the adhesive by means of the tolerance-compensating screw connection. - producing a substructure and at least one superstructure module of the motor vehicle, wherein the substructure and the superstructure module in each case have at least one edge region, - painting at least the edge region of the substructure and/or the superstructure module, - connecting the edge regions of the substructure and the superstructure module by means of adhesive, wherein the substructure and the superstructure module are positioned relative to one another by means of a tolerance-compensating screw connection, so that the edge regions of the substructure and the superstructure module are fixed in the relative position thereof during the curing of the adhesive by means of the tolerance-compensating screw connection.
An alcohol detection device configured as a digit testing apparatus for monitoring alcohol consumption by a human subject comprising: a hand conforming mold to simultaneously seat a first digit of the human subject in a first digit guide and a second digit of the human subject in a second digit guide, a gas headspace below the first digit guide and selectively closed by contact with the first digit of the human subject; an alcohol sensor exposed to the gas headspace to detect the presence of a target analyte within perspiration from the human subject's skin into the gas headspace, the target analyte used to detect alcohol consumption by the human subject; a biometric identification scanner below the second digit guide to identify the human subject using one or both of internal and external surface points on the second digit of the human subject; and a processor to detect alcohol consumption by the human subject and pair the detected alcohol consumption with the identification of the human subject. a hand conforming mold to simultaneously seat a first digit of the human subject in a first digit guide and a second digit of the human subject in a second digit guide, a gas headspace below the first digit guide and selectively closed by contact with the first digit of the human subject; an alcohol sensor exposed to the gas headspace to detect the presence of a target analyte within perspiration from the human subject's skin into the gas headspace, the target analyte used to detect alcohol consumption by the human subject; a biometric identification scanner below the second digit guide to identify the human subject using one or both of internal and external surface points on the second digit of the human subject; and a processor to detect alcohol consumption by the human subject and pair the detected alcohol consumption with the identification of the human subject.
A method for producing a sintered compact by powder metallurgy, comprising compacting a mixed powder containing an alloy steel powder and a graphite powder at a pressure of 700 MPa or more and sintering the compact at a temperature of 1,150°C to 1,300°C, wherein the alloy steel powder used contains 0.3% to 0.7% by mass of chromium, 0.1% to 0.5% by mass of manganese, 0.1% to 0.5% by mass of molybdenum, and 0.25% to 0.5% by mass of oxygen, the balance being iron and incidental impurities.
Method for identifying a substance which inhibit the IgE production, the method comprising the following: (i) contacting: (a) at least one candidate substance with (b) SWAP-70 and (c) BCL-6 and/or STAT-6 (ii) detection of the interaction of the binding partners in vitro, in situ or in vivo,, whereat measuring the interaction in vertebrates excludes humans, (iii) selecting a candidate substance which specifically inhibits the SWAP-70 mediated activation of STAT-6 and/or reinforces the BCL6 mediated inhibition of the SWAP-70 mediated activation of STAT-6. (i) contacting: (a) at least one candidate substance with (b) SWAP-70 and (c) BCL-6 and/or STAT-6 (a) at least one candidate substance with (b) SWAP-70 and (c) BCL-6 and/or STAT-6 (ii) detection of the interaction of the binding partners in vitro, in situ or in vivo,, whereat measuring the interaction in vertebrates excludes humans, (iii) selecting a candidate substance which specifically inhibits the SWAP-70 mediated activation of STAT-6 and/or reinforces the BCL6 mediated inhibition of the SWAP-70 mediated activation of STAT-6.
A supplement composition comprising: (a) from about 5 billion to about 15 billion cfu of a mixture of Lactobacillus acidophilus, Lactobacillus plantarum, Lactobacillus casei, Lactobacillus rhamnosus, Bifidobacterium longum, Bifidobacterium lactis, and Bifidobacterium bifidum, (b) a fat-soluble antioxidant, (c) a phenolic compound, (d) a water soluble antioxidant, (e) an iridoid, (f) a ginger component, (g) an anthocyanin, (h) at least one agent selected from the group consisting of a coumarin, a curcuminoid, and a green tea extract; (i) a grape seed extract, (j) an enzyme selected from the group consisting of a fungal protease, an acid stable protease, and bromelain, and (k) a mineral-amino acid compound/polysaccharide complex. (a) from about 5 billion to about 15 billion cfu of a mixture of Lactobacillus acidophilus, Lactobacillus plantarum, Lactobacillus casei, Lactobacillus rhamnosus, Bifidobacterium longum, Bifidobacterium lactis, and Bifidobacterium bifidum, (b) a fat-soluble antioxidant, (c) a phenolic compound, (d) a water soluble antioxidant, (e) an iridoid, (f) a ginger component, (g) an anthocyanin, (h) at least one agent selected from the group consisting of a coumarin, a curcuminoid, and a green tea extract; (i) a grape seed extract, (j) an enzyme selected from the group consisting of a fungal protease, an acid stable protease, and bromelain, and (k) a mineral-amino acid compound/polysaccharide complex.
Apparatus for Raman spectroscopy with an arrangement of optical elements, comprising: a plurality of n>2 excitation light sources (A 1 to A n and B 1 to B n) for emitting n excitation radiations with respectively different emissions equally spaced from each other in wavenumbers which are guided along one of a plurality of n different light paths, respectively; wherein a deflection device (F_A 1 to F_A n and F_B 1 to F_B n) is associated with every light path, which deflection device is formed on the associated light path for a respective first wavelength of the excitation radiation in order to deflect the respective light path onto a common light path, wherein the common light path comprises an optical system (O 1) which is adapted to focus the excitation radiations, wherein at least n-1 of the deflection devices (F_A 1 to F_A n and F_B 1 to F_B n) comprise, respectively, a first transmission for wavelengths of one respective wavelength range around the respective first wavelength, and a second transmission for respective other wavelengths, wherein the first transmission is smaller than the second transmission, respectively, and wherein the wavelength ranges do not overlap. a plurality of n>2 excitation light sources (A 1 to A n and B 1 to B n) for emitting n excitation radiations with respectively different emissions equally spaced from each other in wavenumbers which are guided along one of a plurality of n different light paths, respectively; wherein a deflection device (F_A 1 to F_A n and F_B 1 to F_B n) is associated with every light path, which deflection device is formed on the associated light path for a respective first wavelength of the excitation radiation in order to deflect the respective light path onto a common light path, wherein the common light path comprises an optical system (O 1) which is adapted to focus the excitation radiations, wherein at least n-1 of the deflection devices (F_A 1 to F_A n and F_B 1 to F_B n) comprise, respectively, a first transmission for wavelengths of one respective wavelength range around the respective first wavelength, and a second transmission for respective other wavelengths, wherein the first transmission is smaller than the second transmission, respectively, and wherein the wavelength ranges do not overlap.
A transport apparatus, comprising: a load port with an atmosphere replacing function placing a hermetically-sealed container for housing a semiconductor wafer and replacing an inside of the container with an inert gas atmosphere; a transport robot with an atmosphere replacing function, the transport robot having a finger for holding the semiconductor wafer and replacing an atmosphere on a surface to be processed of the semiconductor wafer; and an aligner with an atmosphere replacing function holding the semiconductor wafer and replacing the atmosphere on the surface to be processed of the semiconductor wafer, wherein the finger includes a holding part for holding the semiconductor wafer and a purge part for ejecting an inert gas toward the surface to be processed of the semiconductor wafer held by the holding part, and the transport robot transports the semiconductor wafer to another clean inert gas atmosphere while replacing the atmosphere on the surface to be processed of the semiconductor wafer. a load port with an atmosphere replacing function placing a hermetically-sealed container for housing a semiconductor wafer and replacing an inside of the container with an inert gas atmosphere; a transport robot with an atmosphere replacing function, the transport robot having a finger for holding the semiconductor wafer and replacing an atmosphere on a surface to be processed of the semiconductor wafer; and an aligner with an atmosphere replacing function holding the semiconductor wafer and replacing the atmosphere on the surface to be processed of the semiconductor wafer, wherein the finger includes a holding part for holding the semiconductor wafer and a purge part for ejecting an inert gas toward the surface to be processed of the semiconductor wafer held by the holding part, and the transport robot transports the semiconductor wafer to another clean inert gas atmosphere while replacing the atmosphere on the surface to be processed of the semiconductor wafer.
A particle composition comprising: one or more particles comprising a pigment material and a polymeric coating layer at least partially surrounding the pigment particle, wherein the pigment is selected from the group consisting of titanium dioxide, carbon black, mica, silica, calcium carbonate, barium sulfate, zinc oxide, lead oxide, zinc sulfate, iron oxide, talc, clays, kaolinite, montmorillonite, smectite, illite, and chlorite; and stanchions for particle to particle bridging extending from the coating layer, wherein the stanchions are made of a polymeric material, wherein the polymeric material making up the polymeric coating layer of the particles is the same as the polymeric material that makes up the stanchions, wherein the polymeric material is an addition polymerizable polymer selected from alkyl (meth)acrylate or is selected from the group consisting of emulsion polymers consisting of melamine formaldehyde, urea formaldehyde, alkyl (meth)acrylate, styrene, isocyanate and a polyol, wherein the stanchions for particle to particle bridging measure a width of less than 2X the radius of a coated particle from which each stanchion extends, wherein an average number of stanchions is from less than 0.1 to 6 stanchions per coated particle of the particle composition, and wherein the stanchions for particle to particle bridging on average have a measured length between 10 nm (nanometers) and 500 nm, wherein the number of stanchions and the stanchion dimensions are determined using the method identified in the description. one or more particles comprising a pigment material and a polymeric coating layer at least partially surrounding the pigment particle, wherein the pigment is selected from the group consisting of titanium dioxide, carbon black, mica, silica, calcium carbonate, barium sulfate, zinc oxide, lead oxide, zinc sulfate, iron oxide, talc, clays, kaolinite, montmorillonite, smectite, illite, and chlorite; and stanchions for particle to particle bridging extending from the coating layer, wherein the stanchions are made of a polymeric material, wherein the polymeric material making up the polymeric coating layer of the particles is the same as the polymeric material that makes up the stanchions, wherein the polymeric material is an addition polymerizable polymer selected from alkyl (meth)acrylate or is selected from the group consisting of emulsion polymers consisting of melamine formaldehyde, urea formaldehyde, alkyl (meth)acrylate, styrene, isocyanate and a polyol, wherein the stanchions for particle to particle bridging measure a width of less than 2X the radius of a coated particle from which each stanchion extends, wherein an average number of stanchions is from less than 0.1 to 6 stanchions per coated particle of the particle composition, and wherein the stanchions for particle to particle bridging on average have a measured length between 10 nm (nanometers) and 500 nm, wherein the number of stanchions and the stanchion dimensions are determined using the method identified in the description.
A method of planting or seeding multiple types of seed in a single planting pass during row-crop planting or seeding of an agricultural field with a planter, the planter including a bulk storage system with multiple compartments respectively storing the seed of the multiple types, multiple row units, an on-row storage system with multiple on-row compartments (31, 31a-d) at each row unit, and a metering system including a seed meter at each row unit, the method comprising: storing seeds of multiple types including at least a first type and a second type in the multiple compartments of the bulk storage system; directing seeds of the first type and the second type at different times through a common seed feeding line and selectively delivering the seeds of the first type and the second type to respective first and second ones of the on-row compartments (31, 31a-d); storing the seeds of the first type and the second type in the respective first and second ones of the on-row compartments (31, 31a-d); delivering seeds of the first type from the first one of the on-row compartments (31,3 1a-d) of a first one of the multiple row units to the seed-meter of the first one of the multiple row units; releasing the seeds of the first type from the seed-meter of the first one of the multiple row units to a first type zone of multiple type zones of the agricultural field; delivering seeds of the second type from the second one of the on-row compartments (31,31a-d) of a second one of the multiple row units to the seed-meter of the second one of the multiple row units; and releasing the seeds of the second type from the seed-meter of the second one of the multiple row units to a second type zone of the multiple type zones of the agricultural field. storing seeds of multiple types including at least a first type and a second type in the multiple compartments of the bulk storage system; directing seeds of the first type and the second type at different times through a common seed feeding line and selectively delivering the seeds of the first type and the second type to respective first and second ones of the on-row compartments (31, 31a-d); storing the seeds of the first type and the second type in the respective first and second ones of the on-row compartments (31, 31a-d); delivering seeds of the first type from the first one of the on-row compartments (31,3 1a-d) of a first one of the multiple row units to the seed-meter of the first one of the multiple row units; releasing the seeds of the first type from the seed-meter of the first one of the multiple row units to a first type zone of multiple type zones of the agricultural field; delivering seeds of the second type from the second one of the on-row compartments (31,31a-d) of a second one of the multiple row units to the seed-meter of the second one of the multiple row units; and releasing the seeds of the second type from the seed-meter of the second one of the multiple row units to a second type zone of the multiple type zones of the agricultural field.
A humidifier that provides humidification to breathing gases for ventilating a patient, comprising: a first sensor that monitors an inspiratory flow of breathing gases upstream of an atomizer of the humidifier; a second sensor that monitors humidity information of the breathing gases upstream of the atomizer; a processor that calculates, based on the inspiratory flow and the humidity information, an amount of water to add to the breathing gases to reach a desired humidity; and a controller that commands: the atomizer to deliver the amount of water in bursts of atomized water directly into a flow path of the breathing gases; and a heating element to heat a thermally-conductive material in the flow path downstream of the atomizer, wherein the atomized water is vaporized upon contact of the water with the thermally-conductive material to form humidified breathing gases for delivery to a patient being ventilated by the ventilator, wherein the atomizer comprises a hollow-cone atomizer. a first sensor that monitors an inspiratory flow of breathing gases upstream of an atomizer of the humidifier; a second sensor that monitors humidity information of the breathing gases upstream of the atomizer; a processor that calculates, based on the inspiratory flow and the humidity information, an amount of water to add to the breathing gases to reach a desired humidity; and a controller that commands: the atomizer to deliver the amount of water in bursts of atomized water directly into a flow path of the breathing gases; and a heating element to heat a thermally-conductive material in the flow path downstream of the atomizer, wherein the atomized water is vaporized upon contact of the water with the thermally-conductive material to form humidified breathing gases for delivery to a patient being ventilated by the ventilator, wherein the atomizer comprises a hollow-cone atomizer. the atomizer to deliver the amount of water in bursts of atomized water directly into a flow path of the breathing gases; and a heating element to heat a thermally-conductive material in the flow path downstream of the atomizer, wherein the atomized water is vaporized upon contact of the water with the thermally-conductive material to form humidified breathing gases for delivery to a patient being ventilated by the ventilator, wherein the atomizer comprises a hollow-cone atomizer.
A therapeutic composition comprising: a) a whole yeast; and b) a fusion protein expressed by the yeast, the fusion protein comprising: i) at least one protein antigen or immunogenic domain thereof selected from the group consisting of: a cancer antigen, a viral antigen, and a bacterial antigen; and ii) a peptide linked to the N-terminus of the protein antigen or immunogenic domain thereof, the peptide consisting of an amino acid sequence of M-A-D-E-A-P (SEQ ID NO:1). a) a whole yeast; and b) a fusion protein expressed by the yeast, the fusion protein comprising: i) at least one protein antigen or immunogenic domain thereof selected from the group consisting of: a cancer antigen, a viral antigen, and a bacterial antigen; and ii) a peptide linked to the N-terminus of the protein antigen or immunogenic domain thereof, the peptide consisting of an amino acid sequence of M-A-D-E-A-P (SEQ ID NO:1). i) at least one protein antigen or immunogenic domain thereof selected from the group consisting of: a cancer antigen, a viral antigen, and a bacterial antigen; and ii) a peptide linked to the N-terminus of the protein antigen or immunogenic domain thereof, the peptide consisting of an amino acid sequence of M-A-D-E-A-P (SEQ ID NO:1).
Communication system comprising at least two communication units (3a, 3b), without voice or text communication capability, that can be worn on the body, each having electronics comprising transmission and reception units for communication of messages between the communication units and in each case at least one input and output unit for tactile or thermal input and tactile or thermal output of messages, wherein the communication units (3a, 3b) are each in the form of a ring or band for wearing on body extremities, particularly on the finger or wrist or around the neck and the transmission and reception units are unchangeably paired with one another, characterized in that the ring-shaped or band-shaped communication units are divided in the circumferential direction into at least two connected sections (4a, 4b, 4c), wherein the sections are connected by means of elastomeric connecting elements and at least one of the connecting elements comprises an input and/or output unit between the sections (4a, 4b, 4c), wherein an input unit comprises a mechanical sensor that can be used to measure a displacement of sections (4a, 4b, 4b) towards one another and an output unit comprises a mechanical actuator that can be used to cause a displacement of sections (4a, 4b, 4c) towards one another.