mhurhangee/ep-ind-claims huggingface dataset:
Single-chamber combustion installation, comprising a device for the treatment of exhaust gases, in the case of which at least one structural element which is composed entirely or partially of a catalytically active material is arranged in the exhaust-gas flow, and in the case of which, furthermore, at least one structural element which is composed of a material with a higher volumetric heat capacity than the component composed of a catalytically active material is arranged in the exhaust-gas flow downstream, in the flow direction, of the structural element composed of a catalytically active material, characterized in that that side of the structural element with a higher volumetric specific heat capacity which is averted from the structural element composed of a catalytically active material has a heat-insulating layer, and wherein the at least one structural element with the catalytically active material and the at least one structural element with the higher volumetric heat capacity are arranged in the exhaust-gas conduit downstream of a filter structural element, and wherein the absolute heat capacities resulting from the volume of the structural elements and the specific volumetric heat capacity thereof have a ratio of structural element composed of catalytically active material: structural element with higher volumetric heat capacity = 1:5 to 1:20.
A method comprising: sending a plurality of frequency tones across a cable to a remote system; measuring a plurality of return loss values associated with sending the plurality of frequency tones; storing the plurality of return loss values; computing a crosstalk value across the cable; and determining a quality value for the cable based on at least the plurality of return loss values and the crosstalk value; and performing auto-negotiation at 1 Gigabit-Ethernet, GE, across the cable, wherein the auto-negotiation comprises sending extended Organizationally Unique Identifiers to the remote system. sending a plurality of frequency tones across a cable to a remote system; measuring a plurality of return loss values associated with sending the plurality of frequency tones; storing the plurality of return loss values; computing a crosstalk value across the cable; and determining a quality value for the cable based on at least the plurality of return loss values and the crosstalk value; and performing auto-negotiation at 1 Gigabit-Ethernet, GE, across the cable, wherein the auto-negotiation comprises sending extended Organizationally Unique Identifiers to the remote system.
A transfer film (30; 130; 230) comprising: a carrier film; a sacrificial template layer comprising antireflective nanostructure template features (14; 114), the sacrificial template layer being disposed on a release surface of the carrier film or on a release layer separating the carrier film from the sacrificial template layer; a thermally stable backfill layer having a first surface conforming to the antireflective nanostructure template features (14; 114) and an opposing planar second surface. a carrier film; a sacrificial template layer comprising antireflective nanostructure template features (14; 114), the sacrificial template layer being disposed on a release surface of the carrier film or on a release layer separating the carrier film from the sacrificial template layer; a thermally stable backfill layer having a first surface conforming to the antireflective nanostructure template features (14; 114) and an opposing planar second surface.
Pressure exchanger with a valve system comprising a cylinder barrel, two valve plates and two port plates (3, 4), wherein the cylinder barrel comprises at least one cylinder which accommodates a piston, characterized in that the pressure exchanger comprises a piston braking system and that the piston comprises a pressure relief arrangement, wherein the pressure relief arrangement is configured to allow a reduction of a peak pressure or excess pressure from a first side of the piston to a second side of the piston or the other way around.
A compound of formula or an N-oxide thereof, or a pharmaceutically acceptable salt or solvate thereof, or a co-crystal thereof: wherein E represents -CH 2 -; Q represents -CH 2 -; Z represents hydrogen or methyl; V represents C-R 22 or N; R 12 represents hydrogen, fluoro, chloro, trifluoromethyl, methyl or ethoxycarbonylethyl; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy(C 1-6)alkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy. E represents -CH 2 -; Q represents -CH 2 -; Z represents hydrogen or methyl; V represents C-R 22 or N; R 12 represents hydrogen, fluoro, chloro, trifluoromethyl, methyl or ethoxycarbonylethyl; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy(C 1-6)alkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy.
A low-misting two component laminating adhesive comprising Component A and Component B, wherein: Component A comprises an isocyanate-functionalized compound; Component B comprises at least one high functionality polyol containing at least four hydroxyl groups per molecule and at least one lower functionality polymeric polyol compatible with the at least one high functionality polyol and selected from the group consisting of difunctional polymeric polyols and trifunctional polymeric polyols; and, wherein Component B contains at least 15% by weight but no greater than 75% by weight of said at least one high functionality polyol. Component A comprises an isocyanate-functionalized compound; Component B comprises at least one high functionality polyol containing at least four hydroxyl groups per molecule and at least one lower functionality polymeric polyol compatible with the at least one high functionality polyol and selected from the group consisting of difunctional polymeric polyols and trifunctional polymeric polyols; and, wherein Component B contains at least 15% by weight but no greater than 75% by weight of said at least one high functionality polyol.
A method for manufacturing and packaging a transdermal delivery device comprising a ring; wherein the method comprises the following steps: (i) providing a microprojection member having a plurality of microprojections; (ii) providing a biocompatible coating formulation comprising a biologically active agent comprising hPTH and analogs thereof; (iii) coating the microprojection member with the biocompatible coating formulation to form said transdermal delivery device; and (iv) packaging said transdermal delivery device by heat sealing said transdermal delivery device in a foil pouch purged with nitrogen gas, wherein said method further comprises pre-drying the ring to effectively remove desorbed oxygen and/or moisture from the ring prior to pouching. (i) providing a microprojection member having a plurality of microprojections; (ii) providing a biocompatible coating formulation comprising a biologically active agent comprising hPTH and analogs thereof; (iii) coating the microprojection member with the biocompatible coating formulation to form said transdermal delivery device; and (iv) packaging said transdermal delivery device by heat sealing said transdermal delivery device in a foil pouch purged with nitrogen gas, wherein
A method for providing substantially continuous biometric identification of a user wearing a headgear (500; 600) comprising a display viewable by the user when the headgear is worn, and a detector oriented towards an eye of the user, comprising: analyzing one or more images from the detector to identify features of an iris of the eye; identifying the user based at least in part on the features of the iris; and authorizing the user to perform one or more actions upon confirming the user's identity; and characterised in that the method further comprises modifying an opacity of the display while secure information is presented on the display to the user. analyzing one or more images from the detector to identify features of an iris of the eye; identifying the user based at least in part on the features of the iris; and authorizing the user to perform one or more actions upon confirming the user's identity; and characterised in that the method further comprises modifying an opacity of the display while secure information is presented on the display to the user.
A gyratory crusher topshell assembly comprising: a topshell having an annular wall extending around a longitudinal axis, the wall terminated at an axially upper end by an annular rim and having a radially inward facing surface with an axially upper region positioned radially closer to the axis than an axially lower region; a plurality of first abutment regions (112, 114) provided at or projecting from the rim and spaced apart in a circumferential direction around the axis; an annular spacer ring formed as a unitary body and positioned radially inside the wall; a plurality of second abutment regions (112, 118) spaced apart in the circumferential direction around the axis and provided at or projecting from the spacer ring, wherein at least a part of one of the first and/or second abutment regions (112, 114, 118) extends in a radial direction relative to the axis to bridge the topshell and the ring such that the first and second abutment regions (112, 114, 118) are capable of being brought into touching contact with one another to provide a rotation lock of the spacer ring about the axis relative to the topshell; characterised in that: the spacer ring has a radially outward facing surface positioned in contact with the lower region such that the spacer ring is prevented from movement axially upward by the radial position of the upper region to axially lock the spacer ring to the topshell. a topshell having an annular wall extending around a longitudinal axis, the wall terminated at an axially upper end by an annular rim and having a radially inward facing surface with an axially upper region positioned radially closer to the axis than an axially lower region; a plurality of first abutment regions (112, 114) provided at or projecting from the rim and spaced apart in a circumferential direction around the axis; an annular spacer ring formed as a unitary body and positioned radially inside the wall; a plurality of second abutment regions (112, 118) spaced apart in the circumferential direction around the axis and provided at or projecting from the spacer ring, wherein at least a part of one of the first and/or second abutment regions (112, 114, 118) extends in a radial direction relative to the axis to bridge the topshell and the ring such that the first and second abutment regions (112, 114, 118) are capable of being brought into touching contact with one another to provide a rotation lock of the spacer ring about the axis relative to the topshell; characterised in that: the spacer ring has a radially outward facing surface positioned in contact with the lower region such that the spacer ring is prevented from movement axially upward by the radial position of the upper region to axially lock the spacer ring to the topshell. the spacer ring has a radially outward facing surface positioned in contact with the lower region such that the spacer ring is prevented from movement axially upward by the radial position of the upper region to axially lock the spacer ring to the topshell.
A method of determining a particle concentration, wherein - measured value pairs are determined at specific times over a time period, with the measured value pairs each comprising a measured extinction value in accordance with the principle of transmitted light measurement and a corresponding measured scattered light value in accordance with the principle of scattered light measurement; - the measured values are stored; - a correction value is determined from a regression characteristic for the extinction as a function prepared from the stored measured value pairs of the scattered light using the stored measured value pairs in a measured value preparation phase subsequent to the time period; - the measured extinction value then currently determined is corrected using the correction value which is determined from a zero point deviation of the regression characteristic; - and the current particle concentration is determined from the thus corrected measured extinction value. - measured value pairs are determined at specific times over a time period, with the measured value pairs each comprising a measured extinction value in accordance with the principle of transmitted light measurement and a corresponding measured scattered light value in accordance with the principle of scattered light measurement; - the measured values are stored; - a correction value is determined from a regression characteristic for the extinction as a function prepared from the stored measured value pairs of the scattered light using the stored measured value pairs in a measured value preparation phase subsequent to the time period; - the measured extinction value then currently determined is corrected using the correction value which is determined from a zero point deviation of the regression characteristic; - and the current particle concentration is determined from the thus corrected measured extinction value.
Entry rail for escalators or moving walks, which is formed to support a step chain comprising internally arranged protective rollers and externally arranged running rollers during entry into a sprocket wheel, comprising a first support surface for supporting the protective rollers and a second support surface arranged adjacent to the first support surface for supporting the running rollers, characterized in that the first support surface has a first height profile which varies over the longitudinal extension direction of the entry rail, wherein the first height profile is determined as a function of the chain pitch of the step chain. the first support surface has a first height profile which varies over the longitudinal extension direction of the entry rail, wherein the first height profile is determined as a function of the chain pitch of the step chain.
A method for producing nutrient-rich and water-storing soils or soil substrates comprising the following steps: (f) production of a mixture of comminuted pyrogenic carbon and readily decomposable organic biomass (g) admixing of micro-organisms to effect fermentation of the biomass, characterized by the following steps: (h) activation of micro-organisms before they are admixed through the addition of a fermentation activator in an aqueous solution, (i) admixing of a ceramic powder to the aqueous solution with activated micro-organisms, (j) carrying out fermentation, wherein a temperature of more than 60 °C is reached for a period of more than one day through fermentation with no supply of external energy. (f) production of a mixture of comminuted pyrogenic carbon and readily decomposable organic biomass (g) admixing of micro-organisms to effect fermentation of the biomass, characterized by the following steps: (h) activation of micro-organisms before they are admixed through the addition of a fermentation activator in an aqueous solution, (i) admixing of a ceramic powder to the aqueous solution with activated micro-organisms, (j) carrying out fermentation, wherein a temperature of more than 60 °C is reached for a period of more than one day through fermentation with no supply of external energy.
A system for ablating a region of a tissue, the system comprising: a laser emitting a beam of laser pulses, at least one optical fiber comprising an input facet and an output facet; wherein the at least one optical fiber is configured to be coupled to the laser through coupling optics; such that a flux of energy is emitted from said at least one optical fiber; a beam splitter positioned between said laser and said at least one fiber; and a linear polarizer disposed in the optical path of the beam, such that the beam has a predetermined linear polarization before impinging on the beam splitter; a quarter wave plate disposed between the beam splitter and the input facet of the at least one fiber, such that the beam splitter directs the predetermined fraction towards the detector; and a detector positioned behind said beam splitter in a position normal to the direction of the beam emitted by the laser; wherein said detector receives a predetermined fraction of said beam, wherein said fraction is back-transmitted from said input facet and/or said output facet, such that the flux of energy delivered by said at least one optical fiber can be determined. a laser emitting a beam of laser pulses, at least one optical fiber comprising an input facet and an output facet; wherein the at least one optical fiber is configured to be coupled to the laser through coupling optics; such that a flux of energy is emitted from said at least one optical fiber; a beam splitter positioned between said laser and said at least one fiber; and a linear polarizer disposed in the optical path of the beam, such that the beam has a predetermined linear polarization before impinging on the beam splitter; a quarter wave plate disposed between the beam splitter and the input facet of the at least one fiber, such that the beam splitter directs the predetermined fraction towards the detector; and a detector positioned behind said beam splitter in a position normal to the direction of the beam emitted by the laser; wherein said detector receives a predetermined fraction of said beam, wherein said fraction is back-transmitted from said input facet and/or said output facet, such that the flux of energy delivered by said at least one optical fiber can be determined.
A portable variable hyperoxia treatment apparatus, comprising: a housing containing a first, a second, and a third sealable chamber, said first sealable chamber for housing an energy source, said second sealable chamber for receiving a cartridge containing water or a medicament, said third chamber for receiving a gas containing cartridge, a programmable control circuit powered by said energy source, a humidifier electronically connected to said programmable control circuit and suitable to be in contact with said water or medicament, a flow control regulator connected to said control circuit for dispensing gas from said gas containing cartridge, a storage port for humidified vapor or medicament, a main valve controlled by said control circuit and connected to said storage port and said flow control regulator, and an exit port connected to said main valve for dispensing said humidified vapor or medicament and/or gas and a sealable cap (30, 32, 34) for each of said three sealable chambers (12, 14, 16). a housing containing a first, a second, and a third sealable chamber, said first sealable chamber for housing an energy source, said second sealable chamber for receiving a cartridge containing water or a medicament, said third chamber for receiving a gas containing cartridge, a programmable control circuit powered by said energy source, a humidifier electronically connected to said programmable control circuit and suitable to be in contact with said water or medicament, a flow control regulator connected to said control circuit for dispensing gas from said gas containing cartridge, a storage port for humidified vapor or medicament, a main valve controlled by said control circuit and connected to said storage port and said flow control regulator, and an exit port connected to said main valve for dispensing said humidified vapor or medicament and/or gas and a sealable cap (30, 32, 34) for each of said three sealable chambers (12, 14, 16).
A multi-spot metal-capped nanostructure array nucleic acid chip for diagnosing corneal dystrophy, the nucleic acid chip comprising: (a) a substrate (first layer); (b) a metal thin film layer (second layer) formed on the substrate; (c) a nanostructure layer (third layer) formed from nanostructures arrayed at constant Intervals on the respective surfaces of multi-spots formed on the metal thin film layer (second layer); (d) a metal thin film layer (fourth layer) formed on the surface of the nanostructure layer; and (e) probe nucleic acids for detecting a BIGH3 gene mutation, immobilized on the metal thin film layer (fourth layer), wherein the nanostructures have a diameter of 100 nm, and wherein the metal thin film layer (second layer) is formed to a thickness of 30 nm to 50 nm and the metal thin film layer (fourth layer) is formed to a thickness of 20 nm to 40 nm, and wherein the multi-spots of the nanostructure layer (third layer) are formed by a porous mask immobilized on the metal thin film layer (second layer). (a) a substrate (first layer); (b) a metal thin film layer (second layer) formed on the substrate; (c) a nanostructure layer (third layer) formed from nanostructures arrayed at constant Intervals on the respective surfaces of multi-spots formed on the metal thin film layer (second layer); (d) a metal thin film layer (fourth layer) formed on the surface of the nanostructure layer; and (e) probe nucleic acids for detecting a BIGH3 gene mutation, immobilized on the metal thin film layer (fourth layer), wherein the nanostructures have a diameter of 100 nm, and wherein the metal thin film layer (second layer) is formed to a thickness of 30 nm to 50 nm and the metal thin film layer (fourth layer) is formed to a thickness of 20 nm to 40 nm, and wherein the multi-spots of the nanostructure layer (third layer) are formed by a porous mask immobilized on the metal thin film layer (second layer). wherein the nanostructures have a diameter of 100 nm, and wherein the metal thin film layer (second layer) is formed to a thickness of 30 nm to 50 nm and the metal thin film layer (fourth layer) is formed to a thickness of 20 nm to 40 nm, and wherein the multi-spots of the nanostructure layer (third layer) are formed by a porous mask immobilized on the metal thin film layer (second layer).