mhurhangee/ep-ind-claims huggingface dataset:
A method of making a fixed diameter apodized optical aperture comprising the steps of: a. Providing an optical substrate for the apodized aperture; b. Depositing a mask on the substrate; c. Depositing a material containing an optical dye onto the substrate; d. Diffusing the optical dye into the optical substrate, wherein the dye will diffuse into the substrate at least partially under the mask when viewed from above the mask and the substrate, forming an apodized aperture; and optionally e. Planarizing. a. Providing an optical substrate for the apodized aperture; b. Depositing a mask on the substrate; c. Depositing a material containing an optical dye onto the substrate; d. Diffusing the optical dye into the optical substrate, wherein the dye will diffuse into the substrate at least partially under the mask when viewed from above the mask and the substrate, forming an apodized aperture; and optionally e. Planarizing.
Earth working machine with a slow running speed with a drive unit that includes a liquid-cooled internal combustion engine, wherein the liquid cooled internal combustion engine is arranged in an engine compartment with a bonnet, and is provided with a main cooler for cooling the cooling liquid of the internal combustion engine and at least one auxiliary cooler, which is e.g. an intercooler of air for supercharging, an oil cooler, a cooler for air conditioning, etc., wherein the main cooler is provided with a first fan and is arranged separately from the engine compartment, characterized by a common air suction space arranged between the engine compartment and the main cooler, said common air suction space being designed for drawing a cooling air from the outside of the engine compartment through holes being arranged in sides and in a top side of the bonnet to ensure the lowest temperature of the cooling air sucked into the common air suction space, said common air suction space comprises a first partition separating the common air suction space from the engine compartment, and a second partition, at which the main cooler is arranged, the first fan is driven by an independent drive to draw the cooling air from the common air suction space, running said cooling air through the main cooler and pushing it out to the outside of the machine, wherein the auxiliary cooler is provided with a second fan arranged for drawing the cooling air from the common air suction space, running said cooling air through the auxiliary cooler and through the engine compartment to the outside of the machine.
A two-side adherable high-frequency induction heating container sealing member, comprising: an upper layer, the upper layer forming a first thermal-adhesion sealing layer (10-a); a first aluminum foil layer (10-c); an intermediate base layer (10-d); a synthetic resin layer having tensile strength and hardness; and a first thermal-adhesion resin layer (10-f) from the top to the bottom successively, and the upper layer having a preformed opening guide cut line -provided opening tab, a preformed opening guide cut strip, and a preformed thermal-adhesion sealing strip; and a lower layer, the lower layer forming a second aluminum foil layer (20-a) and a second thermal-adhesion sealing layer (20-b) from the top to the bottom successively, wherein the first thermal-adhesion resin layer (10-f) formed on the lower portion of the upper layer and the second aluminum foil layer (20-a) formed on the upper portion of the lower layer are integrated by the thermal adhesion. an upper layer, the upper layer forming a first thermal-adhesion sealing layer (10-a); a first aluminum foil layer (10-c); an intermediate base layer (10-d); a synthetic resin layer having tensile strength and hardness; and a first thermal-adhesion resin layer (10-f) from the top to the bottom successively, and the upper layer having a preformed opening guide cut line -provided opening tab, a preformed opening guide cut strip, and a preformed thermal-adhesion sealing strip; and a lower layer, the lower layer forming a second aluminum foil layer (20-a) and a second thermal-adhesion sealing layer (20-b) from the top to the bottom successively, wherein the first thermal-adhesion resin layer (10-f) formed on the lower portion of the upper layer and the second aluminum foil layer (20-a) formed on the upper portion of the lower layer are integrated by the thermal adhesion.
Isovaleryl spiramycin I or III for use in treating and/or preventing tumors, wherein the tumor is breast cancer, liver cancer, lung cancer, renal cancer, brain tumor, cervical cancer, prostate cancer, lymphoma, pancreatic cancer, esophageal cancer, gastric cancer, colon cancer, thyroid cancer, bladder cancer, malignant skin tumor, or lymphoma or leukemia.
Cooking appliance with a cooking chamber for receiving food to be cooked, which is delimited at least partially by a cooking chamber wall, a fan for generating a cooling air flow for cooling an outer side of the cooking chamber wall with the result that an intake region (p-), in which there is a negative pressure in relation to the surrounding area, and a blow-out region (p+), in which there is an excess pressure in relation to the surrounding area, are produced, characterised by a short-circuit device for generating a short-circuit air flow between the blow-out and intake region (p+, p-) and in this way generating a pressure-neutral region (pn) and a vapour outlet in the cooking chamber wall for discharging vapour from the cooking chamber into the pressure-neutral region (pn).
A heart mitral or tricuspid valve therapeutic device comprising: a support, a coaptation assist valve comprising: a conduit comprising a side wall, the conduit being mounted to the support to reside across a heart valve, in use; and a prosthetic valve mounted within the conduit, wherein: the conduit has a radial dimension, and has an axial dimension between a proximal end and a distal end; the conduit is configured to allow blood flow through a channel within the conduit; the conduit side wall has an external surface for coaptation with native leaflets, and the support extends through the coaptation assist valve, characterized in that, the conduit side wall is unsupported between the proximal end and the distal end. a support, a coaptation assist valve comprising: a conduit comprising a side wall, the conduit being mounted to the support to reside across a heart valve, in use; and a prosthetic valve mounted within the conduit, a conduit comprising a side wall, the conduit being mounted to the support to reside across a heart valve, in use; and a prosthetic valve mounted within the conduit, wherein: the conduit has a radial dimension, and has an axial dimension between a proximal end and a distal end; the conduit is configured to allow blood flow through a channel within the conduit; the conduit side wall has an external surface for coaptation with native leaflets, and the support extends through the coaptation assist valve, characterized in that, the conduit side wall is unsupported between the proximal end and the distal end. the conduit has a radial dimension, and has an axial dimension between a proximal end and a distal end; the conduit is configured to allow blood flow through a channel within the conduit; the conduit side wall has an external surface for coaptation with native leaflets, and the support extends through the coaptation assist valve, characterized in that, the conduit side wall is unsupported between the proximal end and the distal end.
A method of diagnosing prostate cancer, comprising: a) detecting the level of sarcosine and one or more cancer specific metabolites selected from the group consisting of cysteine, glutamate, glycine, in a urine sample from a subject; and b) diagnosing cancer based on the level of said cancer specific metabolite, wherein the level of said cancer specific metabolite is increased in cancerous samples relative to non-cancerous samples. a) detecting the level of sarcosine and one or more cancer specific metabolites selected from the group consisting of cysteine, glutamate, glycine, in a urine sample from a subject; and b) diagnosing cancer based on the level of said cancer specific metabolite,
An isolated polypeptide having protease activity, selected from the group consisting of: (a) a polypeptide having at least 84% sequence identity to the polypeptide of SEQ ID NO: 5; (b) a polypeptide encoded by a polynucleotide having at least 84% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1; (c) a variant of the polypeptide of SEQ ID NO: 5 comprising a substitution, deletion, and/or insertion at one or more positions, wherein the total number of amino acid substitutions, deletions and/or insertions is not more than 20; and (d) a fragment of a polypeptide of (a), (b) or (c) having protease activity, wherein the polypeptide has improved protease activity between pH 3 and 4, at 25°C compared to the protease with the sequence shown in SEQ.ID.NO.8 of the strain NRRL 18262. (a) a polypeptide having at least 84% sequence identity to the polypeptide of SEQ ID NO: 5; (b) a polypeptide encoded by a polynucleotide having at least 84% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1; (c) a variant of the polypeptide of SEQ ID NO: 5 comprising a substitution, deletion, and/or insertion at one or more positions, wherein the total number of amino acid substitutions, deletions and/or insertions is not more than 20; and (d) a fragment of a polypeptide of (a), (b) or (c) having protease activity,
A method for producing a mineral coated scaffold comprising: (i) contacting a primer coating composition and a scaffold or incubating the primer coating composition and the scaffold for a period of time under conditions sufficient to form a primer coated scaffold; (ii) contacting the primer coated scaffold with a modified simulated body fluid; and (iii) incubating the primer coated scaffold and the modified simulated body fluid for a period of time under conditions sufficient to form a mineral coated scaffold, wherein the scaffold comprises a matrix material, and the matrix material comprises polyetheretherketone (PEEK); the primer coating composition comprises a polymer or a polymer and a solvent, and the polymer is polycaprolactone; the primer coating of the scaffold comprises a continuous or discontinuous coating; and the primer coating promotes mineral coating of the scaffold. (i) contacting a primer coating composition and a scaffold or incubating the primer coating composition and the scaffold for a period of time under conditions sufficient to form a primer coated scaffold; (ii) contacting the primer coated scaffold with a modified simulated body fluid; and (iii) incubating the primer coated scaffold and the modified simulated body fluid for a period of time under conditions sufficient to form a mineral coated scaffold, the scaffold comprises a matrix material, and the matrix material comprises polyetheretherketone (PEEK); the primer coating composition comprises a polymer or a polymer and a solvent, and the polymer is polycaprolactone; the primer coating of the scaffold comprises a continuous or discontinuous coating; and the primer coating promotes mineral coating of the scaffold.
A method of manufacturing a cellulose electrode having a platinum nano-catalyst, consisting of nanoparticles having a size of 1∼2nm, supported thereon, comprising: - the production of a pretreated cellulose electrode including: splitting cellulose fibers, thus producing a cellulose sheet; and pretreating the cellulose sheet thus producing a pretreated cellulose electrode; - the growth of carbon nanotubes including: doping the pretreated cellulose electrode obtained in step with a catalyst metal for growing carbon nanotubes; and growing carbon nanotubes on the surface of the pretreated cellulose electrode; and - supporting a platinum nano-catalyst on the cellulose sheet having the carbon nanotubes grown thereon wherein step consists in: - heating the cellulose sheet to 500∼1500°C at a heating rate of 5∼20°C/min in an atmosphere of hydrogen and nitrogen at 1:1, and then maintaining the cellulose sheet at 500∼1500°C for a period of 30 min to 2 hours, thus manufacturing a carbonized cellulose electrode; and - immersing the carbonized cellulose electrode in a 0.1-0.5 mol aqueous sulfuric acid solution and treating the cellulose electrode for 10-60 cycles at a sweep rate of 50 mV/s at -0.15∼1.3 V, thus producing a pretreated cellulose electrode. - the production of a pretreated cellulose electrode including: splitting cellulose fibers, thus producing a cellulose sheet; and pretreating the cellulose sheet thus producing a pretreated cellulose electrode; splitting cellulose fibers, thus producing a cellulose sheet; and pretreating the cellulose sheet thus producing a pretreated cellulose electrode; - the growth of carbon nanotubes including: doping the pretreated cellulose electrode obtained in step with a catalyst metal for growing carbon nanotubes; and growing carbon nanotubes on the surface of the pretreated cellulose electrode; and - supporting a platinum nano-catalyst on the cellulose sheet having the carbon nanotubes grown thereon doping the pretreated cellulose electrode obtained in step with a catalyst metal for growing carbon nanotubes; and growing carbon nanotubes on the surface of the pretreated cellulose electrode; and - supporting a platinum nano-catalyst on the cellulose sheet having the carbon nanotubes grown thereon - supporting a platinum nano-catalyst on the cellulose sheet having the carbon nanotubes grown thereon - heating the cellulose sheet to 500∼1500°C at a heating rate of 5∼20°C/min in an atmosphere of hydrogen and nitrogen at 1:1, and then maintaining the cellulose sheet at 500∼1500°C for a period of 30 min to 2 hours, thus manufacturing a carbonized cellulose electrode; and - immersing the carbonized cellulose electrode in a 0.1-0.5 mol aqueous sulfuric acid solution and treating the cellulose electrode for 10-60 cycles at a sweep rate of 50 mV/s at -0.15∼1.3 V, thus producing a pretreated cellulose electrode.
A packaging and a system for transporting the packaging, comprising two load carriers with handles, which load carriers each comprises four side faces and a base part with a top face and a bottom face that comprise holding parts for retaining the packaging such that two load carriers are stacked with the packaging arranged between the two load carriers, which side faces comprise an upper edge and a lower edge that are mutually adapted with engagement means to the effect that the two side faces can be stacked without the packaging arranged between the two load carriers, which load carriers each individually comprises a handle arranged above an opening in the bottom of the load carriers and such that the point of gravity of the load carriers is below the handle; and wherein the handle is configured with a hollow and has a length which is adapted to the packaging to the effect that the handle from the underlying load carrier is received in the handle of the superposed load carrier, characterised in that the holding parts comprise guide pins arranged in the base part and around areas for packaging, said guide pins serving to retain and guide the packaging, said guide pins being configured with a part on the top face of the base part and a part on the bottom face of the base part.
An in-vehicle device assembly having an in-vehicle device such as a camera, a lamp, or a collision prevention sensor and a foreign material removal device for removing foreign material from the in-vehicle device, the foreign material removal device comprising: a cylinder into which air is caused to flow; a piston which is movably supported in the cylinder and feeds the air introduced into the cylinder in a feeding direction as high-pressure air; a nozzle which injects the high-pressure air fed by the piston, wherein a moving mechanism includes a worm which is rotated by a driving force of a drive motor and a worm wheel which is engaged with the worm and rotated by the rotation of the worm, and the driving force of the drive motor is transmitted to the piston via the worm and the worm wheel, a rack connected to the piston is provided, a pinion engaged by the rack is provided in the worm wheel, a gear tooth is provided in a portion of an outer periphery of the pinion, a portion of the outer periphery of the pinion where the gear tooth is not provided is formed as a toothless portion, and the portion of the outer periphery of the pinion where the gear tooth is provided is provided as a gear portion, and a plurality of the gear portions is formed so that the gear portions are spaced with each other in a circumferential direction. a cylinder into which air is caused to flow; a piston which is movably supported in the cylinder and feeds the air introduced into the cylinder in a feeding direction as high-pressure air; a nozzle which injects the high-pressure air fed by the piston, wherein a moving mechanism includes a worm which is rotated by a driving force of a drive motor and a worm wheel which is engaged with the worm and rotated by the rotation of the worm, and the driving force of the drive motor is transmitted to the piston via the worm and the worm wheel, a rack connected to the piston is provided, a pinion engaged by the rack is provided in the worm wheel, a gear tooth is provided in a portion of an outer periphery of the pinion, a portion of the outer periphery of the pinion where the gear tooth is not provided is formed as a toothless portion, and the portion of the outer periphery of the pinion where the gear tooth is provided is provided as a gear portion, and a plurality of the gear portions is formed so that the gear portions are spaced with each other in a circumferential direction.
A method for removing corrosion product deposits and particulates from recirculating primary coolant in a nuclear plant comprising: operating the nuclear plant to generate power with a particulate removal apparatus including a filtration medium, the particulate removal apparatus being provided in a core of the nuclear plant during power generation, and being installed in place of at least one standard fuel assembly, characterized in that the filtration medium is adapted to filter corrosion product particles with filtration pores sized to remove particles in the range from 0.1 to 8 microns. operating the nuclear plant to generate power with a particulate removal apparatus including a filtration medium, the particulate removal apparatus being provided in a core of the nuclear plant during power generation, and being installed in place of at least one standard fuel assembly, characterized in that the filtration medium is adapted to filter corrosion product particles with filtration pores sized to remove particles in the range from 0.1 to 8 microns.
A process for obtaining a material comprising a substrate coated on at least one portion of at least one of its faces with a coating comprising at least one discontinuous metallic thin layer based on silver, on gold, or on any alloy thereof, the or each discontinuous metallic thin layer being encapsulated between at least two dielectric thin layers, and the or each discontinuous metallic thin layer being in the form of periodic geometric patterns, said process comprising the following steps: - deposited on at least one portion of at least one face of said substrate is a coating comprising at least one continuous metallic thin layer based on silver, on gold, or on any alloy thereof, the or each continuous metallic thin layer being encapsulated between at least two dielectric thin layers, then - the substrate thus coated is made to run opposite at least one laser device emitting a laser radiation focused on said coating in the form of at least one line, the power of said radiation being adapted in order to render the or each metallic thin layer discontinuous by dewetting. - deposited on at least one portion of at least one face of said substrate is a coating comprising at least one continuous metallic thin layer based on silver, on gold, or on any alloy thereof, the or each continuous metallic thin layer being encapsulated between at least two dielectric thin layers, then - the substrate thus coated is made to run opposite at least one laser device emitting a laser radiation focused on said coating in the form of at least one line, the power of said radiation being adapted in order to render the or each metallic thin layer discontinuous by dewetting.
Process for manufacturing free-flowing pellets based on cellulosic spun fibers, comprising the following steps: a) wetting at least one cellulosic spun-fiber strand with a dispersion of a polymer and/or an oligomer for the purpose of applying sizing, whereby the polymer is selected from the group comprising starch and its derivatives, cellulose derivatives, polyvinyl acetate, polyvinyl alcohol, polyacrylate, or a blend of the cited polymers, and whereby the oligomer is a dextrin or a derivative thereof, b) drying the at least one spun-fiber strand, and c) comminuting the at least one spun-fiber strand into pellets. a) wetting at least one cellulosic spun-fiber strand with a dispersion of a polymer and/or an oligomer for the purpose of applying sizing, whereby the polymer is selected from the group comprising starch and its derivatives, cellulose derivatives, polyvinyl acetate, polyvinyl alcohol, polyacrylate, or a blend of the cited polymers, and whereby the oligomer is a dextrin or a derivative thereof, b) drying the at least one spun-fiber strand, and c) comminuting the at least one spun-fiber strand into pellets.