mhurhangee/ep-ind-claims huggingface dataset:
An exposure table for a hologram exposure machine, with a holding device in which a master is accommodated, and with a film transport device which is designed to transport a hologram film relative to the holding device and position a film section to be exposed relative to the master for hologram exposure, whereby a compressed air device is assigned to the holding device which is designed to fix the film section at least temporarily to the master accommodated in the holding device by means of a negative pressure, characterized in that in that the film transport device comprises a first film lifting device which is arranged on the upstream side of the master and which is adjustable between a raised position corresponding to a transport configuration and a lowered position corresponding to an exposure configuration, and in that the film transport device comprises a second film lifting device which is arranged on the side of the master downstream of the film and which is adjustable between a raised position corresponding to a transport configuration and a lowered position corresponding to an exposure configuration. with a holding device in which a master is accommodated, and with a film transport device which is designed to transport a hologram film relative to the holding device and position a film section to be exposed relative to the master for hologram exposure, whereby a compressed air device is assigned to the holding device which is designed to fix the film section at least temporarily to the master accommodated in the holding device by means of a negative pressure, characterized in that in that the film transport device comprises a first film lifting device which is arranged on the upstream side of the master and which is adjustable between a raised position corresponding to a transport configuration and a lowered position corresponding to an exposure configuration, and in that the film transport device comprises a second film lifting device which is arranged on the side of the master downstream of the film and which is adjustable between a raised position corresponding to a transport configuration and a lowered position corresponding to an exposure configuration.
An installation structure for an acoustic transducer configured to vibrate a vibrated body of a musical instrument in a first direction so as to permit the vibrated body to generate sounds, comprising: the acoustic transducer having a main body and a vibrating portion configured to vibrate in the first direction with respect to the main body; a support portion to be fixed to a housing of the musical instrument so as to support the main body of the acoustic transducer; and a cover member fixed to the support portion so as to cover the acoustic transducer, wherein the support portion includes a base plate portion to be held in surface contact with the housing so as to be fixed thereto, a first fixing portion to which the main body of the acoustic transducer is fixed and which is configured to support the main body, and a second fixing portion to which the cover member is fixed, and characterized in that the cover member has a box shape and the first fixing portion and the second fixing portion are connected to the base plate portion independently of each other so as to form a space therebetween. the acoustic transducer having a main body and a vibrating portion configured to vibrate in the first direction with respect to the main body; a support portion to be fixed to a housing of the musical instrument so as to support the main body of the acoustic transducer; and a cover member fixed to the support portion so as to cover the acoustic transducer, wherein the support portion includes a base plate portion to be held in surface contact with the housing so as to be fixed thereto, a first fixing portion to which the main body of the acoustic transducer is fixed and which is configured to support the main body, and a second fixing portion to which the cover member is fixed, and characterized in that the cover member has a box shape and the first fixing portion and the second fixing portion are connected to the base plate portion independently of each other so as to form a space therebetween.
A light emitting module (100, 500, 600) comprising, a flexible and/or foldable LED-carrier or strip (102, 402, 502, 602, 702, 802, 902) comprising at least one light emitting diode (104, 904, 905) having a light emitting surface, the LED-carrier (102, 402, 502, 602, 702, 802, 902) forms a light cavity (110, 510, 810, 910) and is arranged in between a top plate (112, 512, 612) and a bottom plate (114, 514, 614), and a light exit opening (106, 506, 806) with an axis normal thereto and allowing light to exit the light cavity (110, 510, 810, 910) during operation of the light emitting module, wherein the light emitting surface of the at least one light emitting diode (104, 904, 905), faces the light cavity (110, 510, 810, 910), wherein a shape of the light exit opening (106, 506, 806) is dependent on a flexing and/or folding of the LED-carrier (102, 402, 502, 602, 702, 802, 902), characterized in that the top plate comprises a first electrically conductive layer and the bottom plate comprises a second electrically conductive layer, wherein the first electrically conductive layer and the second electrically conductive layer are, respectively, arranged to be in electrical contact with a first and a second electrically conductive portions of the LED-strip.
A chamber suitable for use with a humidifier unit in a medical circuit comprising: a reservoir portion configured to hold a liquid, the reservoir portion comprising a base and sides; an evaporator portion adjacent the reservoir portion configured to facilitate evaporation of the liquid; a microstructured surface around the sides of the reservoir portion, the microstructured surface configured to transport liquid up the sides of the reservoir portion, away from the base of the reservoir portion to the evaporator portion, such that air flowing through the chamber and across the microstructured surface, causes at least some of the liquid to evaporate in the evaporator portion. a reservoir portion configured to hold a liquid, the reservoir portion comprising a base and sides; an evaporator portion adjacent the reservoir portion configured to facilitate evaporation of the liquid;
Orally disintegrating tablet containing a) 1-30% pre-compacted Acarbose having an average particle size of 100 to 800 μm and having a moisture content of between 0 and 5%, b) 40-90% water-soluble carrier, wherein the water-soluble carrier is selected from a group consisting of mannitol, isomalt, sorbitol, lactose and maltodextrin, c) 1-50% microcrystalline cellulose as water-insoluble carrier. a) 1-30% pre-compacted Acarbose having an average particle size of 100 to 800 μm and having a moisture content of between 0 and 5%, b) 40-90% water-soluble carrier, wherein the water-soluble carrier is selected from a group consisting of mannitol, isomalt, sorbitol, lactose and maltodextrin, c) 1-50% microcrystalline cellulose as water-insoluble carrier.
Assembly for turbomachine, comprising a disc and a blade each having an assembly of bulbs (11, 21) and of pockets (12, 22), with the bulbs of the disc able to cooperate with the pockets of the blade, with the pockets of the disc being able to cooperate with the bulbs of the blade, with at least one of said bulbs of the blade being arranged in relation to one of said pockets of the disc in such a way as to arrange between the latter, when said bulb cooperates with said pocket, a main passage for the passage of a main cooling air flow, assembly further comprising a foil able to be arranged at least partially between said disc and said blade, assembly wherein furthermore - said foil is able to cover mainly one of the bulbs of the disc and be held, radially with respect to the disc, by said bulb of the disc and the pocket of the blade able to cooperate with the latter, when these two are effectively cooperating; and - said bulb of the disc has at least one longitudinal cavity (11.4, 11.5) able to form with said foil, when the latter covers said bulb of the disc, a secondary passage (41, 42) for the passage of a secondary cooling air flow (52, 53). - said foil is able to cover mainly one of the bulbs of the disc and be held, radially with respect to the disc, by said bulb of the disc and the pocket of the blade able to cooperate with the latter, when these two are effectively cooperating; and - said bulb of the disc has at least one longitudinal cavity (11.4, 11.5) able to form with said foil, when the latter covers said bulb of the disc, a secondary passage (41, 42) for the passage of a secondary cooling air flow (52, 53).
An infrared sensor comprising: a filter member; a connection member; and a sensor member, wherein the filter member includes a first lead terminal, an optical filter (33, 34), and a first mold member configured to mold the first lead terminal and the optical filter (33, 34), a light incidence surface (33a, 34a) and a light emission surface (33b, 34b) of the optical filter (33, 34) are exposed from the first mold member, the sensor member includes an infrared sensor element (43, 44), a second lead terminal electrically connected to the infrared sensor element (43, 44), and a second mold member configured to mold the infrared sensor element (43, 44) and the second lead terminal, a light-receiving surface (43b, 44b) of the infrared sensor element (43, 44) is exposed from the second mold member, the filter member is disposed on the sensor member, wherein the light emission surface (33b, 34b) of the optical filter (33, 34) faces the light-receiving surface (43b, 44b) of the infrared sensor element (43, 44) in the sensor member, and the filter member and the sensor member are adhered together using the connection member so that hollow portions through which air can escape to the outside are present between the filter member and the sensor member. a filter member; a connection member; and a sensor member, wherein the filter member includes a first lead terminal, an optical filter (33, 34), and a first mold member configured to mold the first lead terminal and the optical filter (33, 34), a light incidence surface (33a, 34a) and a light emission surface (33b, 34b) of the optical filter (33, 34) are exposed from the first mold member, the sensor member includes an infrared sensor element (43, 44), a second lead terminal electrically connected to the infrared sensor element (43, 44), and a second mold member configured to mold the infrared sensor element (43, 44) and the second lead terminal, a light-receiving surface (43b, 44b) of the infrared sensor element (43, 44) is exposed from the second mold member, the filter member is disposed on the sensor member, wherein the light emission surface (33b, 34b) of the optical filter (33, 34) faces the light-receiving surface (43b, 44b) of the infrared sensor element (43, 44) in the sensor member, and the filter member and the sensor member are adhered together using the connection member so that hollow portions through which air can escape to the outside are present between the filter member and the sensor member.
A process for producing pigment-containing modified polymer particles, comprising the step of: reacting pigment-containing polymer particles comprising a functional group and a compound comprising one reactive group capable of reacting with the functional group of the polymer particles in a medium under such a condition that a ratio [ /] of total moles of the reactive group of the compound to total moles of the functional group of the polymer particles is not less than 0.10 and not more than 0.62, wherein the reactive group of the compound is an epoxy group, and the compound has an epoxy equivalent of not less than 150. reacting pigment-containing polymer particles comprising a functional group and a compound comprising one reactive group capable of reacting with the functional group of the polymer particles in a medium under such a condition that a ratio [ /] of total moles of the reactive group of the compound to total moles of the functional group of the polymer particles is not less than 0.10 and not more than 0.62, wherein the reactive group of the compound is an epoxy group, and the compound has an epoxy equivalent of not less than 150.
A method for obtaining a liquid fertiliser from vegetable biomass, wherein the method comprises the following steps: i. drying the biomass until obtaining a dry biomass with a moisture content of less than 5% and grinding it once dry until obtaining an average particle size of less than 50 microns; ii. preparing a mixture of a wetting agent based on biogenic polyamines, histamine, putrescine, spermidine and cadaverine, a dispersant based on humic substances, an anti-foaming agent and a temperature stabiliser based on a low-molecular-weight glycol; iii. in a reactor, adding the mixture prepared in ii) and the ground dry biomass together with water and subjecting the mixture obtained to liquid-phase milling until obtaining an average particle size between 2 μm and 10 μm; and iv. subjecting the milled product of step iii) to sonication with ultrasound to ensure a homogeneous size of less than 10 μm. i. drying the biomass until obtaining a dry biomass with a moisture content of less than 5% and grinding it once dry until obtaining an average particle size of less than 50 microns; ii. preparing a mixture of a wetting agent based on biogenic polyamines, histamine, putrescine, spermidine and cadaverine, a dispersant based on humic substances, an anti-foaming agent and a temperature stabiliser based on a low-molecular-weight glycol; iii. in a reactor, adding the mixture prepared in ii) and the ground dry biomass together with water and subjecting the mixture obtained to liquid-phase milling until obtaining an average particle size between 2 μm and 10 μm; and iv. subjecting the milled product of step iii) to sonication with ultrasound to ensure a homogeneous size of less than 10 μm.
A method of assessing a subject for kidney disease, wherein said subject is a prediabetic subject, or said subject has diabetes, wherein said subject has albuminuria, comprising measuring at least one biomarker in a sample from the subject, wherein said at least one biomarker is CD5 antigen like. wherein said subject has albuminuria, comprising measuring at least one biomarker in a sample from the subject, wherein said at least one biomarker is CD5 antigen like.
A composition for coating edible fruit in the form of a dispersion with water as the dispersant and comprising a plurality of dispersed substances, comprising A) a polymer or a mixture of polymers, comprising A1) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, wherein said polymer of vinyl alcohol constitutes at least 50% by weight of the total weight of the dispersed polymeric substances; or A2) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, and a polymer produced from the monomers vinyl acetate and ethylene and optionally a vinyl ester of a highly branched carboxylic acid; and B) a spacing agent, wherein said spacing agent is present in an amount between 0,001 and 0,9 % by weight based on the weight of the polymers within the composition, and wherein the spacing agent is a polyol. A) a polymer or a mixture of polymers, comprising A1) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, wherein said polymer of vinyl alcohol constitutes at least 50% by weight of the total weight of the dispersed polymeric substances; or A2) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, and a polymer produced from the monomers vinyl acetate and ethylene and optionally a vinyl ester of a highly branched carboxylic acid; and A1) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, wherein said polymer of vinyl alcohol constitutes at least 50% by weight of the total weight of the dispersed polymeric substances; or A2) a linear homopolymer or copolymer of vinyl alcohol having a hydrolysis degree between 75 and 100% or a combination thereof, and a polymer produced from the monomers vinyl acetate and ethylene and optionally a vinyl ester of a highly branched carboxylic acid; and B) a spacing agent, wherein said spacing agent is present in an amount between 0,001 and 0,9 % by weight based on the weight of the polymers within the composition, and wherein the spacing agent is a polyol.
A method for low-contamination generation of energy comprising: (a) forming a gas mixture by mixing a treated gaseous effluent stream and air; (b) introducing said gas mixture and fuel at a given gas to fuel ratio into at least one diesel engine (3, 5, 7); (c) burning said fuel in said diesel engine (3, 5, 7) to generate energy and a flue gas stream comprising particulate matter, and nitrogen oxides (NOx); (d) treating at least a portion of said flue gas stream with an aqueous stream in a cyclone unit comprising a housing defined by a cylindrical peripheral wall and provided with at least one inlet opening for receiving flue gas and at least one inlet opening for receiving fluids thereinto and with at least one swirling means, and wherein the velocity of said flue gas stream inside said cyclone unit is between 20 m/sec and 120 m/sec, whereby a treated gaseous effluent stream and an aqueous effluent stream are formed; (e) emitting a portion of said treated gaseous effluent stream to form an emitted portion; (f) using a portion of said treated gaseous effluent stream to form said gas mixture, and (g) repeating steps (a) through (f) multiple times; whereby said emitted portion has reduced PM, and reduced NOx content when compared with a reference gaseous effluent stream formed by standard burning of the same fuel in an identical engine to which air and fuel are provided in the same given gas to fuel ratio as above characterized in that said swirling means comprises a plurality of vanes, said vanes being arranged regularly along a circular path, tangentially with respect thereto and passages are formed by open spaces between adjacent vanes. (a) forming a gas mixture by mixing a treated gaseous effluent stream and air; (b) introducing said gas mixture and fuel at a given gas to fuel ratio into at least one diesel engine (3, 5, 7); (c) burning said fuel in said diesel engine (3, 5, 7) to generate energy and a flue gas stream comprising particulate matter, and nitrogen oxides (NOx); (d) treating at least a portion of said flue gas stream with an aqueous stream in a cyclone unit comprising a housing defined by a cylindrical peripheral wall and provided with at least one inlet opening for receiving flue gas and at least one inlet opening for receiving fluids thereinto and with at least one swirling means, and wherein the velocity of said flue gas stream inside said cyclone unit is between 20 m/sec and 120 m/sec, whereby a treated gaseous effluent stream and an aqueous effluent stream are formed; (e) emitting a portion of said treated gaseous effluent stream to form an emitted portion; (f) using a portion of said treated gaseous effluent stream to form said gas mixture, and (g) repeating steps (a) through (f) multiple times;
A method for managing power consumption of a radio access network, said method comprising: a) defining a cluster comprising at least two radio resource units (BSk) of said radio access network; b) defining a parameter as a combination of a performance indicator PI and a power consumption indicator PCI of said cluster, said parameter being a function of traffic throughputs (Tk) carried by said at least two radio resource units (BSk); c) calculating optimum traffic throughputs (Tk*) as values of said traffic throughputs (Tk) which optimise said parameter by finding an optimum trade-off between a maximization of the performance indicator PI and a minimization of the power consumption indicator PCI; and d) distributing traffic amongst said at least two radio resource units (BSk) such that said at least two radio resource units (BSk) carry said optimum traffic throughputs (Tk*) by operating a function executed by at least one node of said radio access network, said function being responsible for implementing traffic steering amongst said at least two radio resource units (BSk). a) defining a cluster comprising at least two radio resource units (BSk) of said radio access network; b) defining a parameter as a combination of a performance indicator PI and a power consumption indicator PCI of said cluster, said parameter being a function of traffic throughputs (Tk) carried by said at least two radio resource units (BSk); c) calculating optimum traffic throughputs (Tk*) as values of said traffic throughputs (Tk) which optimise said parameter by finding an optimum trade-off between a maximization of the performance indicator PI and a minimization of the power consumption indicator PCI; and d) distributing traffic amongst said at least two radio resource units (BSk) such that said at least two radio resource units (BSk) carry said optimum traffic throughputs (Tk*) by operating a function executed by at least one node of said radio access network, said function being responsible for implementing traffic steering amongst said at least two radio resource units (BSk).
Apparatus for reaction stress, particularly corrosion stress, of at least one sample with a housing having a stress chamber, with a sample holder for the sample provided in the stress chamber, with a sprayer having an ultrasound source for forming an aerosol stressing the sample, wherein the sprayer creates the aerosol particularly from a saline liquid, and with a temperature control device for adjusting the temperature stress of the sample, characterised in that the temperature control device has a liquid bath whose temperature is adjustable and which acts particularly as an evaporator, which is at least partially arranged in the stress chamber and which is configured to adjust the temperature stress of the sample.
A method to form a deactivated virus comprising the steps of: a) providing a live swine flu virus having an infectious component and a plurality of surface antigens; and b) contacting the live swine flu virus with a non-crosslinking chemical fixative selected from diazolidinyl urea, imidazolidinyl urea or mixtures thereof in a concentration of from 0.0625% to 0.5% for a period of time of 12 hours to 240 hours sufficient for deactivating the infectious component with the non-crosslinking chemical fixative, and for preserving at least a portion of the surface antigens; wherein the method is free of any step of contacting the virus with binary ethylene-imine, formaldehyde, formalin, phenol, 2-phenoxyethanol, thimerosal, bromo-ethylene-imine, ethyl methane sulfonate, nitrosoguanidine, fluorouracil, 5-azacytadine, or any combination thereof. a) providing a live swine flu virus having an infectious component and a plurality of surface antigens; and b) contacting the live swine flu virus with a non-crosslinking chemical fixative selected from diazolidinyl urea, imidazolidinyl urea or mixtures thereof in a concentration of from 0.0625% to 0.5% for a period of time of 12 hours to 240 hours sufficient for deactivating the infectious component with the non-crosslinking chemical fixative, and for preserving at least a portion of the surface antigens;