mhurhangee/ep-ind-claims huggingface dataset:
A multispectral camera for use with image-forming optics within a housing and configured to form an image of a sample, the camera comprising: an imaging detector (17, 87); relay optics comprising multiple optical elements comprising a first adjustable lens group (13, 80a) and a second adjustable lens group (14, 80j-k), the relay optics positioned to relay the image formed by the image-forming optics to the imaging detector; a first actuator coupled to the first adjustable lens group (13, 80a) and a second actuator coupled to the second adjustable lens group (14, 80j-k), wherein the first and the second actuators are configured to adjust positions of the first (13, 80a) and second (14,80j-k) adjustable lens groups; and control electronics configured to cause the first and second actuators to adjust the positions of the first (13,80a) and second (14,80j-k) adjustable lens groups in response to a wavelength band selection by a wavelength selection element positioned to select one wavelength band for the image from among two or more wavelength bands within an overall wavelength range to provide for optimized focus and to maintain a magnification of the image at the imaging detector, wherein the adjustment to the position of the first (13,80a) and second (14,80j-k) adjustable lens groups vary depending on which of the different wavelength bands is selected by the wavelength selection element; and wherein the imaging detector, relay optics, actuators, and control electronics are positioned in a modular housing that is configured to be releasably coupled to the housing of the image-forming optics. an imaging detector (17, 87); relay optics comprising multiple optical elements comprising a first adjustable lens group (13, 80a) and a second adjustable lens group (14, 80j-k), the relay optics positioned to relay the image formed by the image-forming optics to the imaging detector; a first actuator coupled to the first adjustable lens group (13, 80a) and a second actuator coupled to the second adjustable lens group (14, 80j-k), wherein the first and the second actuators are configured to adjust positions of the first (13, 80a) and second (14,80j-k) adjustable lens groups; and control electronics configured to cause the first and second actuators to adjust the positions of the first (13,80a) and second (14,80j-k) adjustable lens groups in response to a wavelength band selection by a wavelength selection element positioned to select one wavelength band for the image from among two or more wavelength bands within an overall wavelength range to provide for optimized focus and to maintain a magnification of the image at the imaging detector, wherein the adjustment to the position of the first (13,80a) and second (14,80j-k) adjustable lens groups vary depending on which of the different wavelength bands is selected by the wavelength selection element; and wherein the imaging detector, relay optics, actuators, and control electronics are positioned in a modular housing that is configured to be releasably coupled to the housing of the image-forming optics.
An optical fiber connector assembly, comprising a ferrule and an optical fiber, wherein the ferrule is sleeved on the optical fiber; wherein the optical fiber connector assembly comprises an inner jacket element, an elastic element, and an outer jacket element; wherein the elastic element is a spring, and the elastic element is sleeved on the inner jacket element; wherein the inner jacket element is sleeved on one end of the ferrule; one end of the elastic element leans against one end of the inner jacket element adjacent to the ferrule; the outer jacket element is sleeved on the inner jacket element and the ferrule; one end of the outer jacket element is slideably connected to the inner jacket element and leans against other end of the elastic element; wherein the elastic element is configured to provide an elastic force to the outer jacket element in a direction away from the ferrule; an inner wall of an other end of the outer jacket element is provided with a bump, wherein the bump is a cylindrical bump; wherein the ferrule comprises a buckling elastic piece, wherein the buckling elastic piece is fixed to one end of the ferrule away from the inner jacket element and the buckling elastic piece extends towards the inner jacket element; and wherein an inner wall of said other end of the outer jacket element is further provided with a wedge block disposed along the circumferential direction of the outer jacket element, wherein the wedge block is configured to press the buckling elastic piece when the outer jacket element is in a first position and not to press the buckling elastic piece when the outer jacket element is in a second position.
An apparatus comprising: a receiver configured to establish an association with a first node which is in physical proximity of the apparatus when the association with the first node is established, and at least one processing core configured to obtain a first credential set based on the association, to determine, after the association with the first node has been broken, that the apparatus has become associated with a computer, to receive an encrypted first key from the first node, to decrypt the encrypted first key, the decryption of the first key being at least in part based on the first credential set, and to provide the decrypted first key to the computer. a receiver configured to establish an association with a first node which is in physical proximity of the apparatus when the association with the first node is established, and at least one processing core configured to obtain a first credential set based on the association, to determine, after the association with the first node has been broken, that the apparatus has become associated with a computer, to receive an encrypted first key from the first node, to decrypt the encrypted first key, the decryption of the first key being at least in part based on the first credential set, and to provide the decrypted first key to the computer.
A fence accessory comprising: at least two ornament bodies (1, 3), each of the at least two ornament bodies (1, 3) comprising a first connecting part and a second connecting part at two opposing ends thereof, wherein the first connecting part of one of the at least two ornament bodies (1, 3) and the second connecting part of another one of the at least two ornament bodies (1, 3) are configured to be connected to a fence bar and clamped together as one unit, characterised in that the first connecting part and the second connecting part of each of the at least two ornament bodies (1, 3) are mirror image of each other. at least two ornament bodies (1, 3), each of the at least two ornament bodies (1, 3) comprising a first connecting part and a second connecting part at two opposing ends thereof, wherein the first connecting part of one of the at least two ornament bodies (1, 3) and the second connecting part of another one of the at least two ornament bodies (1, 3) are configured to be connected to a fence bar and clamped together as one unit, characterised in that the first connecting part and the second connecting part of each of the at least two ornament bodies (1, 3) are mirror image of each other.
A process of preparing a composition comprising a plurality of micro-particles and a dispersion liquid in which said micro-particles are dispersed comprising the steps of: providing a high energy micro-particle producing machine comprising a micro-particle producing assembly (22; 33; 14), providing a combination of a dispersion liquid, an active and a wax material at such a temperature that the active and the wax components of the combination are melted; passing said combination into said micro-particle producing assembly of said high energy micro-particle producing machine whilst said micro-particle producing assembly is operating at such a temperature that said active and said wax components of the combination are kept melted then while said micro-particle producing assembly is kept operating producing a composition comprising a plurality of solid micro-particles dispersed in said dispersion liquid by cooling said combination to a temperature below the solidification temperature of each of said micro-particles before each said micro-particle leaves said micro-particle producing assembly, each said micro-particle comprising a wax dispersion matrix with said active dispersed therein characterised in that said micro-particle producing assembly (22; 33; 14) is within a cooling system (26; 2A; 10) and said combination is cooled in said cooling system to below the solidification temperature of the micro-particles. providing a high energy micro-particle producing machine comprising a micro-particle producing assembly (22; 33; 14), providing a combination of a dispersion liquid, an active and a wax material at such a temperature that the active and the wax components of the combination are melted; passing said combination into said micro-particle producing assembly of said high energy micro-particle producing machine whilst said micro-particle producing assembly is operating at such a temperature that said active and said wax components of the combination are kept melted then while said micro-particle producing assembly is kept operating producing a composition comprising a plurality of solid micro-particles dispersed in said dispersion liquid by cooling said combination to a temperature below the solidification temperature of each of said micro-particles before each said micro-particle leaves said micro-particle producing assembly, each said micro-particle comprising a wax dispersion matrix with said active dispersed therein characterised in that said micro-particle producing assembly (22; 33; 14) is within a cooling system (26; 2A; 10) and said combination is cooled in said cooling system to below the solidification temperature of the micro-particles.
A solid particle counting system adapted to measure solid particle number concentrations from engine or vehicle exhausts in real-time, the system comprising: an evaporation unit adapted to receive flowing gases containing volatile particles and solid particles, and to heat the flowing gases to vaporize volatile particles while allowing solid particles to flow through the evaporation unit without particle losses; a diluter arrangement (84, 42, 56, 58, FS3, 150) adapted to receive the gases from the evaporation unit, the diluter arrangement being further adapted to receive dilution gas, to mix the dilution gas with the gases from the evaporation unit, and to provide an output flow; a particle counter adapted to receive a portion of the output flow of the diluter arrangement (84, 42, 56, 58, FS3, 150) and to measure solid particle number concentrations in the received portion of the output flow; wherein the diluter arrangement (84, 42, 56, 58, FS3, 150) is further adapted to mix the dilution gas with the gases from the evaporation unit at a dilution ratio, characterized in that the diluter arrangement (84, 42, 56, 58, FS3, 150) includes a flow meter located upstream of the evaporation unit, the flow meter being adapted to measure the total flow of the flowing gases containing volatile particles and solid particles into the evaporation unit which, in turn, flow into the diluter arrangement (84, 42, 56, 58, FS3, 150). an evaporation unit adapted to receive flowing gases containing volatile particles and solid particles, and to heat the flowing gases to vaporize volatile particles while allowing solid particles to flow through the evaporation unit without particle losses; a diluter arrangement (84, 42, 56, 58, FS3, 150) adapted to receive the gases from the evaporation unit, the diluter arrangement being further adapted to receive dilution gas, to mix the dilution gas with the gases from the evaporation unit, and to provide an output flow; a particle counter adapted to receive a portion of the output flow of the diluter arrangement (84, 42, 56, 58, FS3, 150) and to measure solid particle number concentrations in the received portion of the output flow; wherein the diluter arrangement (84, 42, 56, 58, FS3, 150) is further adapted to mix the dilution gas with the gases from the evaporation unit at a dilution ratio, characterized in that the diluter arrangement (84, 42, 56, 58, FS3, 150) includes a flow meter located upstream of the evaporation unit, the flow meter being adapted to measure the total flow of the flowing gases containing volatile particles and solid particles into the evaporation unit which, in turn, flow into the diluter arrangement (84, 42, 56, 58, FS3, 150).
Photovoltaic cell comprising: - a crystalline semiconductor substrate having a front face and a back face; - a front passivation layer positioned on the front face of the substrate; - a back passivation layer positioned on the back face of the substrate; - a first metallization zone positioned on the back passivation layer and suitable for collecting electrons; - a second metallization zone suitable for collecting holes, comprising: • a surface portion positioned on the back passivation layer; and • an inner portion passing through the back passivation layer and forming, in the substrate, a region in which the concentration of electron acceptors is greater than the rest of the substrate, the crystalline semiconductor substrate being a n-type or p-type doped crystalline silicon substrate, the photovoltaic cell being characterized in that the front passivation layer comprises: - a layer of intrinsic hydrogenated amorphous silicon in contact with the substrate; and - a layer of doped hydrogenated amorphous silicon positioned on the latter, having p-type doping if the substrate is of p type, or n-type doping if the substrate is of n-type; and/or the back passivation layer comprises: - a layer of intrinsic hydrogenated amorphous silicon in contact with the substrate; and - a layer of doped hydrogenated amorphous silicon positioned on the latter, having n-type doping. - a crystalline semiconductor substrate having a front face and a back face; - a front passivation layer positioned on the front face of the substrate; - a back passivation layer positioned on the back face of the substrate; - a first metallization zone positioned on the back passivation layer and suitable for collecting electrons; - a second metallization zone suitable for collecting holes, comprising: • a surface portion positioned on the back passivation layer; and • an inner portion passing through the back passivation layer and forming, in the substrate, a region in which the concentration of electron acceptors is greater than the rest of the substrate, • a surface portion positioned on the back passivation layer; and • an inner portion passing through the back passivation layer and forming, in the substrate, a region in which the concentration of electron acceptors is greater than the rest of the substrate, - a layer of intrinsic hydrogenated amorphous silicon in contact with the substrate; and - a layer of doped hydrogenated amorphous silicon positioned on the latter, having p-type doping if the substrate is of p type, or n-type doping if the substrate is of n-type; and/or the back passivation layer comprises: - a layer of intrinsic hydrogenated amorphous silicon in contact with the substrate; and - a layer of doped hydrogenated amorphous silicon positioned on the latter, having n-type doping.
A peracetic acid type sterilizing composition solution containing peracetic acid, acetic acid, hydrogen peroxide and catalase enzyme, wherein said sterilizing solution has a pH in a range of 2.6 to 5.0, said catalase enzyme is contained in an amount of 0.1 to 10 μ g/ml, the concentration of said peracetic acid is 500 to 10,000 ppm, and the concentration of said hydrogen peroxide is less than 500 ppm.
A process to prepare a biodegradable pulp container of a planting aid product, wherein the biodegradable pulp container comprises an annular compartment for water with a downwardly tapering outer wall and an upwardly tapering inner wall defining a central open channel, where in use a plant is positioned, wherein the annular compartment is closed at its lower end and open at its upper end,, comprising the following steps: (a) forming an intermediate container product in a pulping process and drying the intermediate container product, the process being characterized in: (b) pressing the intermediate container product as obtained in step (a) in a mould such that the pressure applied in the mould on the upwardly tapering inner wall is less or locally less than the pressure applied in the mould on the downwardly tapering outer wall resulting in that the upwardly tapering inner wall or parts of the inner wall have a lower solid density as compared to the solid density of the downwardly tapering outer wall in the container obtained in step (c), and (c) releasing the container from the mould. (a) forming an intermediate container product in a pulping process and drying the intermediate container product, the process being characterized in: (b) pressing the intermediate container product as obtained in step (a) in a mould such that the pressure applied in the mould on the upwardly tapering inner wall is less or locally less than the pressure applied in the mould on the downwardly tapering outer wall resulting in that the upwardly tapering inner wall or parts of the inner wall have a lower solid density as compared to the solid density of the downwardly tapering outer wall in the container obtained in step (c), and (c) releasing the container from the mould.
A method for the quantification of the flow from the soil of a fugitive gas from a dispersed source of said gas, comprising the following steps: - providing an aircraft equipped with a remote detection optical instrument; - defining a downwind sampling plane perpendicular to the wind direction, having a width sufficient to contain the projection of the site to be monitored and placed at such a distance from the site as to contain, at the aircraft sampling height, the whole gaseous effluent released by the site; - flying over said sampling plane for the whole width at a height with said aircraft so that said whole fugitive gas remains below said height, - carrying out discrete vertical measurements of fugitive gas concentration averaged over said height along the whole width of said plane to yield corresponding mean vertical concentration values, - detecting mean wind speed values at said discrete vertical measurements of concentration; - integrating the product of said mean vertical concentration values and said corresponding mean wind speed values with respect to the surface of the sampling plane to obtain a value of the fugitive gas flow; said method being characterized in that it further comprises the step of. correcting the obtained value of the fugitive gas flow by a corrective factor (α) dependent from the vertical gradient of speed and concentration and obtainable by comparing concentration values obtained by direct measurements and values calculated by dispersion models in order to take into account the speed variation with the height. - providing an aircraft equipped with a remote detection optical instrument; - defining a downwind sampling plane perpendicular to the wind direction, having a width sufficient to contain the projection of the site to be monitored and placed at such a distance from the site as to contain, at the aircraft sampling height, the whole gaseous effluent released by the site; - flying over said sampling plane for the whole width at a height with said aircraft so that said whole fugitive gas remains below said height, - carrying out discrete vertical measurements of fugitive gas concentration averaged over said height along the whole width of said plane to yield corresponding mean vertical concentration values, - detecting mean wind speed values at said discrete vertical measurements of concentration; - integrating the product of said mean vertical concentration values and said corresponding mean wind speed values with respect to the surface of the sampling plane to obtain a value of the fugitive gas flow; said method being characterized in that it further comprises the step of.
A process for preparing -(+)-10,11-dihydro-10-hydroxy-5H-dibenz/b,f/azepine-5-carboxamide or -(-)-10,11-dihydro-10-hydroxy-5H-dibenz/b,f/azepine-5-carboxamide, by reduction of oxcarbazepine in the presence of a catalyst, a solvent comprising at least one polar aprotic solvent, and a hydride source, wherein the catalyst is prepared from a combination of [RuX 2] 2 wherein X is chlorine, bromine or iodine, and L is an aryl or aryl-aliphatic ligand, with a ligand of formula or formula: wherein R 1 is chosen from C 1-6 alkoxy and C 1-6 alkyl, n is a number from 0 to 5, and when n is from 2 to 5, R 1 can be the same or different, and R 2 is alkyl, substituted alkyl, aryl, substituted aryl, alkaryl or substituted alkaryl; wherein the hydride source is chosen from NR 3 R 4 R 5 and formic acid, or [R 3 R 4 R 5 NH][OOCH] and optionally formic acid, or [OOCH] x and formic acid, wherein R 3, R 4 and R 5 are C 1-6 alkyl, M is an alkali metal or alkaline earth metal and x is 1 or 2, and wherein during the process a pH from 6.5 to 8 is maintained.
A method for transformer health monitoring comprising the steps of: subjecting a primary winding of the transformer to a known primary current or voltage; subjecting the secondary winding of the transformer to a known load; measuring a secondary current or voltage associated with the secondary winding of the transformer; characterised by determining a graph of a ratio of the known primary current to the secondary current versus a reciprocal of the secondary current or a graph of a ratio of the known primary voltage to the secondary voltage versus a reciprocal of the secondary voltage computing an effective turns ratio representing the number of turns of the primary winding to the number of turns of the secondary winding based on a y-intercept of the graph; computing an operational magnetizing current of the transformer by computing at preset intervals a magnetizing current of the transformer based on the effective turns ratio and primary and secondary currents of the transformer or primary and secondary voltages of the transformer or based on the slope of the graph; and determining an inter-turn winding fault in the transformer based on the operational magnetizing current. subjecting a primary winding of the transformer to a known primary current or voltage; subjecting the secondary winding of the transformer to a known load; measuring a secondary current or voltage associated with the secondary winding of the transformer;
Valve closing element, comprising a bearing point for connecting the valve closing element to a drive, a valve closing element shaft, and a valve closing element head having an upper surface and a lower surface, said upper surface facing the valve closing element shaft and forming a sealing circle (D dicht) of the valve closing element, the valve closing element head being formed by two segments (4, 5; 13, 14) of a geometric body, the geometric body being a sphere, characterized in that the center of said sphere is located offset from a center longitudinal axis of the valve closing element shaft, and said sphere thus forms a first sphere segment and a second sphere segment in relation to a sectional axis through the center longitudinal axis of the valve closing element shaft, the first sphere segment and the second sphere segment not being equal in size, the first sphere segment being larger than a hemisphere, and the second sphere segment being smaller than a hemisphere, the second sphere segment being mirrored in relation to the center longitudinal axis of the valve closing element shaft, the valve closing element head being formed by part of the second sphere segment and part of the mirrored second sphere segment, part of the resultant geometric body being processed or shaped such that below the valve closing element shaft, a body is formed having a periphery that is circular in every plane of the center longitudinal axis.