mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a chocolate composition comprising at least 10% cocoa butter, said method comprising the steps of: (a) Preparing a chocolate mixture comprising at least 10% cocoa butter by admixing a chocolate mass with a blend of an oil and/or fat having a Solid Fat Content higher than 2% when measured at 30°C with IUPAC method 2.150 a, and having a Trans Fatty Acid Content below 4%, preferably below 2%, (b) Feeding this mixture in molten state to a scraped surface heat exchanger, wherein the temperature of the scraped surface is below 0°C, (c) Crystallization and stabilization of said melt with the aid of said scraped surface heat exchanger, (d) Optionally, extrusion of the thus chilled mixture in block shape; wherein the chocolate composition that is prepared has a Trans Fatty Acid content below 2%. (a) Preparing a chocolate mixture comprising at least 10% cocoa butter by admixing a chocolate mass with a blend of an oil and/or fat having a Solid Fat Content higher than 2% when measured at 30°C with IUPAC method 2.150 a, and having a Trans Fatty Acid Content below 4%, preferably below 2%, (b) Feeding this mixture in molten state to a scraped surface heat exchanger, wherein the temperature of the scraped surface is below 0°C, (c) Crystallization and stabilization of said melt with the aid of said scraped surface heat exchanger, (d) Optionally, extrusion of the thus chilled mixture in block shape; wherein the chocolate composition that is prepared has a Trans Fatty Acid content below 2%.
A drug delivery pen comprising: a pen housing that extends from a first end to a second end along a longitudinal axis, the housing being coupled to a drug cartridge disposed proximate one of the first and second ends (112, 113), the drug cartridge including a volume of one or more drugs disposed therein; a plunger rod having a portion disposed in the housing and at least a portion of the plunger rod coupled to the drug cartridge; a dosage selector mounted to the housing and coupled to the plunger rod; a microprocessor disposed in the housing and operatively connected to a power source and memory; and a momentary switch coupled to the plunger rod and electrically connected to the microprocessor so that upon full depression of the dosage selector the switch is actuated, wherein the microprocessor is configured to detect actuation of the plunger rod using the momentary switch and thereby determine the duration of full depression of the dosage selector and of dosage delivery by tracking an injection start point and an injection end point. a pen housing that extends from a first end to a second end along a longitudinal axis, the housing being coupled to a drug cartridge disposed proximate one of the first and second ends (112, 113), the drug cartridge including a volume of one or more drugs disposed therein; a plunger rod having a portion disposed in the housing and at least a portion of the plunger rod coupled to the drug cartridge; a dosage selector mounted to the housing and coupled to the plunger rod; a microprocessor disposed in the housing and operatively connected to a power source and memory; and a momentary switch coupled to the plunger rod and electrically connected to the microprocessor so that upon full depression of the dosage selector the switch is actuated, wherein the microprocessor is configured to detect actuation of the plunger rod using the momentary switch and thereby determine the duration of full depression of the dosage selector and of dosage delivery by tracking an injection start point and an injection end point.
Method for managing, in a communication network, network traffic related to a mechanism for reporting the presence of a terminal in a plurality of presence reporting areas, comprising the following steps implemented by a mobility management entity: - receiving, for each presence reporting area of said plurality, an area identifier and a priority level for said area; - storing, in a subscriber context related to a subscriber of said terminal, said identifiers and priority levels received in association with an identifier of said terminal; and, when the load on said mobility management entity is higher than a predefined critical load threshold: - suspending (E11a-b) said presence reporting mechanism for the presence reporting areas, referred to as non-monitored areas, of said plurality whose priority level is lower than a transitional priority level. - receiving, for each presence reporting area of said plurality, an area identifier and a priority level for said area; - storing, in a subscriber context related to a subscriber of said terminal, said identifiers and priority levels received in association with an identifier of said terminal; - suspending (E11a-b) said presence reporting mechanism for the presence reporting areas, referred to as non-monitored areas, of said plurality whose priority level is lower than a transitional priority level.
A shader processing unit for a graphics processing unit, the shader processing unit configured to execute one or more shaders, the one or more shaders comprising one or more ray tracing shaders that generate ray data associated with one or more rays, the ray data for a ray comprising a plurality of ray data elements, the shader processing unit comprising: storage; and store logic configured to: receive a ray store instruction that comprises: (i) information identifying a store group of a plurality of store groups, each store group of the plurality of store groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information (904, 906, 910) identifying one or more ray data elements of the identified store group to be stored in an external unit; in response to receiving the ray store instruction, retrieve the identified ray data elements for one or more rays from the storage; and send one or more store requests to the external unit which cause the external unit to store the identified ray data elements for the one or more rays. storage; and store logic configured to: receive a ray store instruction that comprises: (i) information identifying a store group of a plurality of store groups, each store group of the plurality of store groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information (904, 906, 910) identifying one or more ray data elements of the identified store group to be stored in an external unit; in response to receiving the ray store instruction, retrieve the identified ray data elements for one or more rays from the storage; and send one or more store requests to the external unit which cause the external unit to store the identified ray data elements for the one or more rays. receive a ray store instruction that comprises: (i) information identifying a store group of a plurality of store groups, each store group of the plurality of store groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information (904, 906, 910) identifying one or more ray data elements of the identified store group to be stored in an external unit; in response to receiving the ray store instruction, retrieve the identified ray data elements for one or more rays from the storage; and send one or more store requests to the external unit which cause the external unit to store the identified ray data elements for the one or more rays.
A semiconductor device comprising: a semiconductor element comprising a substrate, a semiconductor element structure provided on the substrate, and a p-electrode and an n-electrode provided on the semiconductor element structure; a base body on which the semiconductor element is disposed; a conductive adhesive member having a marginal portion, the conductive adhesive member being electrically connecting the p-electrode and the n-electrode to the base body; and a sealing member provided to cover the semiconductor element on an upper surface of the base body, wherein the conductive adhesive member contains particles selected from a group of (i) surface-treated particles having a particle diameter of 1 nm or more and 50 nm or less and (ii) particles that coexist with a dispersing agent, and wherein a shape of the particles is a spherical shape, characterized in that the particles are unevenly distributed in the conductive adhesive member in such a manner that at least a part of the marginal portion is a region where the particles exist in higher density, compared to a region except for the at least a part of the marginal portion, the particles existing at an outer periphery of the marginal portion. a semiconductor element comprising a substrate, a semiconductor element structure provided on the substrate, and a p-electrode and an n-electrode provided on the semiconductor element structure; a base body on which the semiconductor element is disposed; a conductive adhesive member having a marginal portion, the conductive adhesive member being electrically connecting the p-electrode and the n-electrode to the base body; and a sealing member provided to cover the semiconductor element on an upper surface of the base body, wherein the conductive adhesive member contains particles selected from a group of (i) surface-treated particles having a particle diameter of 1 nm or more and 50 nm or less and (ii) particles that coexist with a dispersing agent, and wherein a shape of the particles is a spherical shape, characterized in that the particles are unevenly distributed in the conductive adhesive member in such a manner that at least a part of the marginal portion is a region where the particles exist in higher density, compared to a region except for the at least a part of the marginal portion, the particles existing at an outer periphery of the marginal portion.
A bio-electrode for electro-biocatalysis, prepared according to the process as claimed in claim 3, wherein said bio-electrode comprises: electro-active bacteria layered and immobilized on a modified surface of an electrode with an immobilizing agent and conductive material, wherein the surface modification of the electrode is done using acid, base, heat, microwave, ultrasonic or combination thereof; wherein the electro-active bacteria is selected from the group consisting of Cupriavidus nector Ralstonia eutropha DSMZ 428, Geobacter hydrogenophilus H-2 DSM 13691, Methanobacterium palustre DSMZ 3108, Geobacter metallireducens GS-15 DSMZ 7210, Geobacter lovleyi DSMZ 17278, Geobacter sulfurrenducens DSMZ 12127, Shewanella putrefaciens DSMZ 9471, Shewanella putrefaciens DSMZ 6067, Shewanella putrefaciens DSMZ 1818, Acetobacterium woodii DSM 1030, Morella thermocetica DSM 21394, Clostridium aceticum DSMZ 1496, Clostridium ljungdahlii DSM 13528, Sporomusa sphaeroides DSM 2875, Sporomusa silvacetica DSM 10669, Cupriavidus nectar DSM 529, Sporomosa ovate DSM 2662,; Enterobacter aeronenes MTCC 25016, Serratia sp. MTCC 25017, Citrobacteer intermedius MTCC 25018, Pseudomonas aeruginosa MTCC 25019, Shewanella sp. MTCC 25020, Seudomonas stutzeri MTCC 25027 or combinations thereof; wherein the immobilizing agent is selected from the group consisting of pectin, carboxymethylcellulose, propylene glycol; sodium carboxymethylcellulose, polyethylene glycol, hydroxyethylcellulose, alphacyclodextrin, locust bean gum or combinations thereof; wherein the conducting material is selected from the group consisting of polymer poly(pyrrole)s, polycarbazoles, polyindoles, polyazepines, polyanilines (PANI) or combinations thereof. wherein the electro-active bacteria is selected from the group consisting of Cupriavidus nector Ralstonia eutropha DSMZ 428, Geobacter hydrogenophilus H-2 DSM 13691, Methanobacterium palustre DSMZ 3108, Geobacter metallireducens GS-15 DSMZ 7210, Geobacter lovleyi DSMZ 17278, Geobacter sulfurrenducens DSMZ 12127, Shewanella putrefaciens DSMZ 9471, Shewanella putrefaciens DSMZ 6067, Shewanella putrefaciens DSMZ 1818, Acetobacterium woodii DSM 1030, Morella thermocetica DSM 21394, Clostridium aceticum DSMZ 1496, Clostridium ljungdahlii DSM 13528, Sporomusa sphaeroides DSM 2875, Sporomusa silvacetica DSM 10669, Cupriavidus nectar DSM 529, Sporomosa ovate DSM 2662,; Enterobacter aeronenes MTCC 25016, Serratia sp. MTCC 25017, Citrobacteer intermedius MTCC 25018, Pseudomonas aeruginosa MTCC 25019, Shewanella sp. MTCC 25020, Seudomonas stutzeri MTCC 25027 or combinations thereof; wherein the immobilizing agent is selected from the group consisting of pectin, carboxymethylcellulose, propylene glycol; sodium carboxymethylcellulose, polyethylene glycol, hydroxyethylcellulose, alphacyclodextrin, locust bean gum or combinations thereof; wherein the conducting material is selected from the group consisting of polymer poly(pyrrole)s, polycarbazoles, polyindoles, polyazepines, polyanilines (PANI) or combinations thereof.
Combinations comprising the sGC stimulator vericiguat (methyl {4,6-diamino-2-[5-fluoro-1-(2-fluorobenzyl)-1H-pyrazolo[3,4-b]pyridin-3-yl]pyrimidin-5-yl}carbamate) of the formula and -4-(4-cyano-2-methoxyphenyl)-5-ethoxy-2,8-dimethyl-1,4-dihydro-1,6-naphthyridine-3-carboxamide of the formula
A method for producing non-woven elements, comprising: - depositing on a movable surface loose unbound fibers and graphene and/or graphene oxide, and - binding together said loose unbound fibers so as to form a structure of bound fibers in which at least graphene and/or graphene oxide is incorporated, wherein the loose unbound fibers are deposited onto said movable surface so as to form an array of blanks of discrete elements. - depositing on a movable surface loose unbound fibers and graphene and/or graphene oxide, and - binding together said loose unbound fibers so as to form a structure of bound fibers in which at least graphene and/or graphene oxide is incorporated,
A printing apparatus comprising: an ink discharge head that discharges ink; a wiping member that wipes the ink discharge head; an ink storage section that stores the ink to be supplied to the ink discharge head; an ink circulation flow path including a forward circulation path through which the ink supplied from the ink storage section to the ink discharge head flows, and a backward circulation path through which the ink returning from the ink discharge head to the ink storage section flows; a circulation section that causes the ink to circulate in the ink circulation flow path; characterized in that the printing apparatus further comprises a first pressurizing section that pressurizes the inside of the ink storage section in wiping operation in which the ink discharge head is wiped with the wiping member to a first pressure that is higher than a pressure in the ink storage section in print operation for discharging the ink toward a print medium with the ink discharge head, wherein the circulation section is configured to stop the operation in the wiping operation. an ink discharge head that discharges ink; a wiping member that wipes the ink discharge head; an ink storage section that stores the ink to be supplied to the ink discharge head; an ink circulation flow path including a forward circulation path through which the ink supplied from the ink storage section to the ink discharge head flows, and a backward circulation path through which the ink returning from the ink discharge head to the ink storage section flows; a circulation section that causes the ink to circulate in the ink circulation flow path; characterized in that the printing apparatus further comprises a first pressurizing section that pressurizes the inside of the ink storage section in wiping operation in which the ink discharge head is wiped with the wiping member to a first pressure that is higher than a pressure in the ink storage section in print operation for discharging the ink toward a print medium with the ink discharge head, wherein the circulation section is configured to stop the operation in the wiping operation.
A method for analyzing one or more analytes in a source sample, comprising the steps of: (a) extracting the one or more analytes from the source sample with an extraction solvent to obtain an extraction sample; (b) applying the extraction sample and a solvent system to a first liquid chromatography column with an LC pump system, wherein the first LC column is directly connected to a second LC column through a tube with a diverting valve; (c) setting the diverting valve to a first position at a first predetermined time such that the solvent effluent from the first LC column is directed to waste; (d) setting the diverting valve to a second position at a second predetermined time such that the solvent effluent from the first LC column enters the second LC column for further separation; (e) repeating steps (c) and (d) as needed; and (f) analyzing the chromatographically separated sample obtained from the second LC column, wherein the method utilizes only one LC pump system for both LC columns. (a) extracting the one or more analytes from the source sample with an extraction solvent to obtain an extraction sample; (b) applying the extraction sample and a solvent system to a first liquid chromatography column with an LC pump system, wherein the first LC column is directly connected to a second LC column through a tube with a diverting valve; (c) setting the diverting valve to a first position at a first predetermined time such that the solvent effluent from the first LC column is directed to waste; (d) setting the diverting valve to a second position at a second predetermined time such that the solvent effluent from the first LC column enters the second LC column for further separation; (e) repeating steps (c) and (d) as needed; and (f) analyzing the chromatographically separated sample obtained from the second LC column,
Refrigeration appliance, in particular a household refrigeration appliance, having an inner container with an open front side and a main cavity deep-drawn in the depth direction of the inner container, and also with an upwardly deep-drawn protrusion on a ceiling of the main cavity, the refrigeration appliance furthermore having a built-in part (19; 22), at least one contact area, which is deep-drawn in the depth direction, for the built-in part (19; 22), and an adapter, wherein the distance between the contact area, which is deep-drawn in the depth direction, for the built-in part (19; 22) and a lowest point of the ceiling is less than the height of the protrusion, wherein the built-in part (19; 22) is held at a support point of the inner container via the adapter and the adapter is in contact with the contact area and extends along a side wall of the inner container in relation thereto.
A solder alloy consisting of tin, silver, copper, bismuth, antimony, and cobalt, optionally at least one element selected from the group consisting of nickel and indium, and no or small amount of inevitable impurities, wherein relative to a total amount of the solder alloy, the silver content is 3 mass% or more and 3.5 mass% or less, the copper content is 0.5 mass% or more and less than 0.6 mass%, the bismuth content is 3.5 mass% or more and 4.8 mass% or less, the antimony content is 3 mass% or more and 5.5 mass% or less, the cobalt content is 0.001 mass% or more and 0.1 mass% or less, the nickel content is 0 mass% or more and 0.2 mass% or less, the indium content is 0 mass% or more and 0.2 mass% or less, and the balance is the tin content; and a total of the bismuth content and the antimony content is 7.3 mass% or more and 10.3 mass% or less. relative to a total amount of the solder alloy, the silver content is 3 mass% or more and 3.5 mass% or less, the copper content is 0.5 mass% or more and less than 0.6 mass%, the bismuth content is 3.5 mass% or more and 4.8 mass% or less, the antimony content is 3 mass% or more and 5.5 mass% or less, the cobalt content is 0.001 mass% or more and 0.1 mass% or less, the nickel content is 0 mass% or more and 0.2 mass% or less, the indium content is 0 mass% or more and 0.2 mass% or less, and the balance is the tin content; and a total of the bismuth content and the antimony content is 7.3 mass% or more and 10.3 mass% or less.
A method for manufacturing a steel component (6, 11), wherein the steel component (6, 11) is a bearing component (11, 15, 20, 22, 26, 27, 31), comprising a first steel part and a second steel part, the first and second steel part having a carbon content up to 1.5 weight percent, the method comprising: - heating, at least partly, the first steel part, and at least partly, the second steel part, to above the alpha/gamma transformation temperature, and - joining the first steel part and the second steel part by welding, resulting in a weld seam, the welding taking place at a temperature above the alpha/gamma transformation temperature, and characterized in that - cooling such that phase transformation to martensite or bainite is avoided and such that a fully or partly pearlitic structure is formed in the weld seam as well as in an adjacent heat affected zone, and remaining parts of the welded components being heated above the alpha/gamma transformation temperature. - heating, at least partly, the first steel part, and at least partly, the second steel part, to above the alpha/gamma transformation temperature, and - joining the first steel part and the second steel part by welding, resulting in a weld seam, the welding taking place at a temperature above the alpha/gamma transformation temperature, and characterized in that - cooling such that phase transformation to martensite or bainite is avoided and such that a fully or partly pearlitic structure is formed in the weld seam as well as in an adjacent heat affected zone, and remaining parts of the welded components being heated above the alpha/gamma transformation temperature.
A single-exposure ptychography system comprising an optical unit defining a light input plane, a light output plane, and an object plane between the light input and output planes, wherein the optical unit comprises: an 4f optical setup, a front focal plane of the 4f optical setup defining a location of the light input plane and Fourier plane of the 4f setup defining the object plane; and an output microlens array for transferring different Fourier images of illuminated spots onto different blocks of a pixel matrix in a real image plane; a light source unit comprising an array of apertures forming a diffraction arrangement at the light input plane, said light source unit being configured and operable for producing either coherent light or partially coherent light with a coherence length much larger than a dimension of the aperture and much smaller than a distance between the apertures, thereby forming an array of illuminating beams of said light defining a predetermined illumination pattern in the object plane, such that each of the illuminating beams creates an intensity pattern in a different known region at the light output plane. the optical unit comprises: an 4f optical setup, a front focal plane of the 4f optical setup defining a location of the light input plane and Fourier plane of the 4f setup defining the object plane; and an output microlens array for transferring different Fourier images of illuminated spots onto different blocks of a pixel matrix in a real image plane; a light source unit comprising an array of apertures forming a diffraction arrangement at the light input plane, said light source unit being configured and operable for producing either coherent light or partially coherent light with a coherence length much larger than a dimension of the aperture and much smaller than a distance between the apertures, thereby forming an array of illuminating beams of said light defining a predetermined illumination pattern in the object plane, such that each of the illuminating beams creates an intensity pattern in a different known region at the light output plane.