mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving a user query from an user device; ascertaining information regarding a web browser from which the query was received; determining a first number of advertisement slots available on a search engine results page based on the information regarding a visibility of a web browser user interface (202a,202b) displayed on the user device; and adjusting the first number of advertisement slots up or down depending on user preference or history of interaction with advertisements or on the user query; and returning, to the user device, a listing of web results corresponding to the user query and a number of advertisements to be displayed on the search engine results page in the adjusted number of advertisement slots available. receiving a user query from an user device; ascertaining information regarding a web browser from which the query was received; determining a first number of advertisement slots available on a search engine results page based on the information regarding a visibility of a web browser user interface (202a,202b) displayed on the user device; and adjusting the first number of advertisement slots up or down depending on user preference or history of interaction with advertisements or on the user query; and returning, to the user device, a listing of web results corresponding to the user query and a number of advertisements to be displayed on the search engine results page in the adjusted number of advertisement slots available.
A method for producing an electroporation solution comprising 10-100 nM Melatonin, 1-10 mg/mL F68 and 5-50 mg/mL NaB, which comprises following steps; - the electroporation solution is comprising 10-100 nM Melatonin, 1-10 mg/mL F68 and 5-50 mg/mL NaB by diluting stock solutions - preparing sodium pentaborate pentahydrate stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving sodium pentaborate pentahydrate (NaB) solution in a culture medium, - preparing Pluronic F68 stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving Pluronic F68 solution in cold PBS, - preparing melatonin stock solution with a concentration of 5-15 mM produced by dissolving melatonin solution in ethanol, - diluting said prepared stock solutions and - mixing in the culture medium. - the electroporation solution is comprising 10-100 nM Melatonin, 1-10 mg/mL F68 and 5-50 mg/mL NaB by diluting stock solutions - preparing sodium pentaborate pentahydrate stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving sodium pentaborate pentahydrate (NaB) solution in a culture medium, - preparing Pluronic F68 stock solution with a concentration of 0.05-0.5 g/ml produced by dissolving Pluronic F68 solution in cold PBS, - preparing melatonin stock solution with a concentration of 5-15 mM produced by dissolving melatonin solution in ethanol, - diluting said prepared stock solutions and - mixing in the culture medium.
A baked composition of an edible starch and an isolated Bacillus coagulans bacterium, wherein said isolated Bacillus coagulans bacterium comprises between 0.01% and 10% by weight of said baked good, wherein said isolated Bacillus coagulans bacterium is GBI-30 strain (ATCC Designation Number PTA-6086), wherein said isolated Bacillus coagulans bacterium is in the form of a spore, a vegetative cell, or a mixture of vegetative cells and spores and wherein the baked composition was heated to 149-246°C (300-475°F) for 5 minutes to one hour.
Use of Lactobacillus rhamnosus GG in combination with at least one long-chain polyunsaturated fatty acid for the manufacture of an infant formula for preventing or reducing systemic inflammation in a formula-fed infant, by administering to the infant an effective amount of Lactobacillus rhamnosus GG in combination with at least one long-chain polyunsaturated fatty acid.
A medical image processing apparatus (3, 3a, 3b) comprising: an acquisition unit configured to acquire medical image data to be analyzed; an identification unit configured to identify direction of gravity for the medical image data; a first setting unit (355, 355a) configured to set a first weight to pixels constituting the medical image data on the basis of the direction of gravity and a distance from an edge of a structure extracted from the medical image data; and an analysis unit (356, 356b) configured to analyze the medical image data on the basis of the first weight. an acquisition unit configured to acquire medical image data to be analyzed; an identification unit configured to identify direction of gravity for the medical image data; a first setting unit (355, 355a) configured to set a first weight to pixels constituting the medical image data on the basis of the direction of gravity and a distance from an edge of a structure extracted from the medical image data; and an analysis unit (356, 356b) configured to analyze the medical image data on the basis of the first weight.
A terahertz wave measuring device comprising: a terahertz wave generation element configured to generate a terahertz wave by difference frequency generation based on excitation light that is incident on the terahertz wave generation element, the excitation light including a plurality of different wavelength components and being condensed so as to have a beam diameter of a predetermined size; a structural body through which the terahertz wave is transmitted; and a detector configured to detect an intensity of the terahertz wave that has been transmitted through the structural body, wherein the structural body includes a sample holder of a predetermined width configured to hold a liquid solution sample, and the structural body is in contact with or is joined to the terahertz wave generation element; and wherein the predetermined size of the beam diameter of the excitation light is smaller than the width of the sample holder and is smaller than the wavelength of the terahertz wave to be generated. a terahertz wave generation element configured to generate a terahertz wave by difference frequency generation based on excitation light that is incident on the terahertz wave generation element, the excitation light including a plurality of different wavelength components and being condensed so as to have a beam diameter of a predetermined size; a structural body through which the terahertz wave is transmitted; and a detector configured to detect an intensity of the terahertz wave that has been transmitted through the structural body, wherein the structural body includes a sample holder of a predetermined width configured to hold a liquid solution sample, and the structural body is in contact with or is joined to the terahertz wave generation element; and wherein the predetermined size of the beam diameter of the excitation light is smaller than the width of the sample holder and is smaller than the wavelength of the terahertz wave to be generated.
A method for sterilizing a sleeve in an aseptic filling system that molds the sleeve into a paper container having a bottomed tubular shape by closing surfaces of an open end part of the sleeve and performs sterilization, filling and sealing of the paper container, the sleeve being a tubular body having walls formed by laminating at least paper, wherein, in a state where the sleeve stands in a columnar shape, a mandrel having small openings is inserted into the part of the sleeve that is to form a bottom part of the paper container molded from the sleeve and heated air containing a sterilizer which contains at least hydrogen peroxide and being capable of melting a thermoplastic resin on four inner surfaces of the sleeve is blasted from the small openings in four surfaces of the mandrel to four inner surfaces of the sleeve that are to form the bottom part of the paper container to perform sterilization and heating of the inner surface of the bottom of the sleeve at the same time, and after the heated air containing the sterilizer is blasted to the sleeve, folded triangular parts are bonded together under pressure on which the bottom part of the sleeve is formed, characterized in that the heated air containing the sterilizer is produced by supplying the sterilizer in the form of liquid drops from a sterilizer supply path and compressed air from a compressed air supply path, introducing said sterilizer and compressed air into a sterilizer supplying portion, spraying the sterilizer into an evaporating portion to gasify the sterilizer by heating, hence producing a sterilized gas, generating heated air from a heating apparatus, and mixing said sterilizer gas with said heated air in a mixing apparatus. wherein, in a state where the sleeve stands in a columnar shape, a mandrel having small openings is inserted into the part of the sleeve that is to form a bottom part of the paper container molded from the sleeve and heated air containing a sterilizer which contains at least hydrogen peroxide and being capable of melting a thermoplastic resin on four inner surfaces of the sleeve is blasted from the small openings in four surfaces of the mandrel to four inner surfaces of the sleeve that are to form the bottom part of the paper container to perform sterilization and heating of the inner surface of the bottom of the sleeve at the same time, and after the heated air containing the sterilizer is blasted to the sleeve, folded triangular parts are bonded together under pressure on which the bottom part of the sleeve is formed, characterized in that the heated air containing the sterilizer is produced by supplying the sterilizer in the form of liquid drops from a sterilizer supply path and compressed air from a compressed air supply path, introducing said sterilizer and compressed air into a sterilizer supplying portion, spraying the sterilizer into an evaporating portion to gasify the sterilizer by heating, hence producing a sterilized gas, generating heated air from a heating apparatus, and mixing said sterilizer gas with said heated air in a mixing apparatus.
A sun protection, closure or black out installation (INST) comprising at least one actuator powered by a main electric energy source (ALIM) and a mobile element maneuvered by the actuator between two end-of-travel positions, high and low, this installation comprising a back-up electric power supply unit provided with means for reversible electric connection to the actuator and adapted so as to provide it with electric power for its operation in the absence of availability of the main electric energy source, this back-up electric power supply unit comprising a first electric power storage unit, the maximum stored energy of which is sufficient for several partial maneuvers of the mobile element, characterized in that the maximum electric power (P max) delivered by the first electric power storage unit is sufficient only for partial maneuvering of the mobile element by the actuator, between the end-of-travel positions.
A grinding apparatus comprising: a receptacle having an receptacle inner wall defining a receptacle cavity, said receptacle inner wall being in the general form of a surface of revolution extending about a central vertically extending receptacle axis, said receptacle being rotatable about said receptacle axis; a grinding element having an grinding element outer wall in the general form of a surface of revolution extending about a central vertically extending grinding element axis, said grinding element axis being generally parallel to said receptacle axis, and offset from said receptacle axis by an offset distance, said receptacle inner wall and said grinding element outer wall together defining a grinding chamber within said receptacle cavity, said grinding chamber having a generally annular cross-section; a drive means adapted to rotationally drive said grinding element about said grinding element axis and/or to rotationally drive said receptacle about said receptacle axis; wherein said offset distance is selectively adjustable; characterised in that said grinding element comprises a grinding element head defining said grinding element outer wall and a grinding element shaft rotatably mounted within an eccentric arrangement configured to selectively displace said grinding element axis to adjust said offset distance; and in that a fluid feed passage extends through said grinding element and communicates with said grinding chamber. a receptacle having an receptacle inner wall defining a receptacle cavity, said receptacle inner wall being in the general form of a surface of revolution extending about a central vertically extending receptacle axis, said receptacle being rotatable about said receptacle axis; a grinding element having an grinding element outer wall in the general form of a surface of revolution extending about a central vertically extending grinding element axis, said grinding element axis being generally parallel to said receptacle axis, and offset from said receptacle axis by an offset distance, said receptacle inner wall and said grinding element outer wall together defining a grinding chamber within said receptacle cavity, said grinding chamber having a generally annular cross-section; a drive means adapted to rotationally drive said grinding element about said grinding element axis and/or to rotationally drive said receptacle about said receptacle axis; wherein said offset distance is selectively adjustable; characterised in that said grinding element comprises a grinding element head defining said grinding element outer wall and a grinding element shaft rotatably mounted within an eccentric arrangement configured to selectively displace said grinding element axis to adjust said offset distance; and in that a fluid feed passage extends through said grinding element and communicates with said grinding chamber.
A method of making one or more composite structures using flakes of graphene, graphene oxide and/or reduced graphene oxide; comprising: obtaining flat graphene, graphene oxide and/or reduced graphene oxide flakes, wherein 95% of the flat graphene, graphene oxide and/or reduced graphene oxide flakes have surface area to thickness ratios of more than 200 Angstroms; thermally functionalizing the flat graphene, graphene oxide and/or reduced graphene oxide flakes; and entraining the flat graphene, graphene oxide and/or reduced graphene oxide flakes in the host material obtaining flat graphene, graphene oxide and/or reduced graphene oxide flakes, wherein 95% of the flat graphene, graphene oxide and/or reduced graphene oxide flakes have surface area to thickness ratios of more than 200 Angstroms; thermally functionalizing the flat graphene, graphene oxide and/or reduced graphene oxide flakes; and entraining the flat graphene, graphene oxide and/or reduced graphene oxide flakes in the host material
A method for preparing a rare earth oxide-containing sprayed plate, comprising thermally spraying a rare earth-based oxide of Y or Er on a carbon support to form a coating, and peeling the sprayed coating from the support by spontaneous peeling, wherein spray coating is conducted so that the sprayed casting reaches a thickness of 1 mm or more to allow spontaneous peeling to occur, treating the inner surface of the sprayed coating which is exposed as a result of spontaneous peeling by heat treatment or by applying additional coating, and thermally spraying additional layers of a rare earth-based oxide on the inner and/or outer surface of the sprayed coating, to form a coating having a thickness of more than 1 to 5 mm.
A device including a substrate, a set of electrical conductors (30A, 30B) carried by a face of the substrate, a set of junctions carried by said face of the substrate and a set of control elements, each electrical conductor (30A, 30B) being made of a superconducting material, each electrical conductor (30A, 30B) comprising a single first portion extending in a first direction tangential to the substrate and a set of second portions, the first portions of the electrical conductors (30A, 30B) being successively offset relative to each other according to a second direction perpendicular to the first direction, at least three junctions being interposed according to the second direction between each pair of successive first portions, each junction being connected to the first portion of each of the conductors (30A, 30B) between which the junction is interposed by a second portion of said conductor (30A, 30B), characterized in that each control element is associated with a single junction of the set of junctions, and is configured to switch the associated junction between a first configuration in which the junction forms a Josephson junction between the conductors (30A, 30B) to which the junction is connected and a second configuration in which the junction prevents the passage of Cooper pairs between said conductors (30A, 30B). each electrical conductor (30A, 30B) being made of a superconducting material, each electrical conductor (30A, 30B) comprising a single first portion extending in a first direction tangential to the substrate and a set of second portions, the first portions of the electrical conductors (30A, 30B) being successively offset relative to each other according to a second direction perpendicular to the first direction, at least three junctions being interposed according to the second direction between each pair of successive first portions, each junction being connected to the first portion of each of the conductors (30A, 30B) between which the junction is interposed by a second portion of said conductor (30A, 30B), characterized in that each control element is associated with a single junction of the set of junctions, and is configured to switch the associated junction between a first configuration in which the junction forms a Josephson junction between the conductors (30A, 30B) to which the junction is connected and a second configuration in which the junction prevents the passage of Cooper pairs between said conductors (30A, 30B).
A microwave container comprising: a container main body having an opening in an upper portion thereof; a flange part formed to extend outwardly from the opening of the container main body; and a heat-seal part configured to be heat-sealed to a film-shaped lid member, the heat-seal part sealing the opening of the container, wherein the heat-seal part has a vapor-discharging part configured to break the heat seal of the lid member to discharge the vapor when the vapor generated in the container main body reaches a predetermined pressure, the vapor-discharging part has a V-shaped portion widely opened to the outside in plan view, characterized in that in side view a tip located inside the V-shaped portion is inclined to be lowered toward the opening. a container main body having an opening in an upper portion thereof; a flange part formed to extend outwardly from the opening of the container main body; and a heat-seal part configured to be heat-sealed to a film-shaped lid member, the heat-seal part sealing the opening of the container, wherein the heat-seal part has a vapor-discharging part configured to break the heat seal of the lid member to discharge the vapor when the vapor generated in the container main body reaches a predetermined pressure, the vapor-discharging part has a V-shaped portion widely opened to the outside in plan view, characterized in that in side view a tip located inside the V-shaped portion is inclined to be lowered toward the opening.
A synthetic chord device comprising: (a) a flexible cord (140,460,540,660) having a first end and a second end; (b) a first attachment element at said first end of said cord configured to attach said cord to a first location at a first tissue; (c) a second attachment element at a second end of said cord configured to attach said cord to a second location at said first tissue; wherein said first and second attachment elements each comprise a tissue piercing member configured to pierce through tissue and a securing member (130,135,490,495,530,535,690) and at least a portion of said cord between said first end and said second end is configured to be secured to a second tissue. (a) a flexible cord (140,460,540,660) having a first end and a second end; (b) a first attachment element at said first end of said cord configured to attach said cord to a first location at a first tissue; (c) a second attachment element at a second end of said cord configured to attach said cord to a second location at said first tissue;
A washing machine comprising: a body; a rotating tub rotatably disposed inside the body; a pulsator rotatably disposed inside the rotating tub; a driving part provided on a lower portion of the rotating tub to selectively rotate the rotating tub and the pulsator; and a base plate to which the driving part is fixed, characterized in that a waterproofing member is provided between the base plate and a bottom plate of the body to seal the driving part and to prevent water from reaching the driving part, wherein both ends of the waterproofing member are respectively coupled with the base plate and the bottom plate of the body. a body; a rotating tub rotatably disposed inside the body; a pulsator rotatably disposed inside the rotating tub; a driving part provided on a lower portion of the rotating tub to selectively rotate the rotating tub and the pulsator; and a base plate to which the driving part is fixed, characterized in that a waterproofing member is provided between the base plate and a bottom plate of the body to seal the driving part and to prevent water from reaching the driving part, wherein both ends of the waterproofing member are respectively coupled with the base plate and the bottom plate of the body.
A composition for use in production of packaging for foods or food products wherein the composition comprises a laminated structure having a least one lamella of paper and at least one lamella having a thickness of about 20μm to about 40μm of polymer comprising polyethylene wherein the polymer comprising polyethylene comprises an oxo-biodegradable additive and the polymer comprising polyethylene comprises up to 3% of the oxo-biodegradable additive.
A valve body and nozzle assembly for a fire extinguisher comprising: a valve body including a nozzle connection having a valve body threaded portion; and a non-metallic nozzle including a proximal end having a valve body connection with a nozzle threaded portion in engagement with the valve body threaded portion; wherein the nozzle threaded portion includes a root portion having at least one radius of curvature extending between adjacent rows of a thread of the nozzle threaded portion, a valve body sleeve portion separates the valve body threaded portion from an outlet of the nozzle connection and the outlet of the nozzle connection is at least partially defined by a lip, the valve body connection includes a nozzle sleeve portion located adjacent a distal end of the nozzle threaded portion and located adjacent a step in the nozzle, and the valve body sleeve portion directly contacts the nozzle sleeve portion to form an interference fit. a valve body including a nozzle connection having a valve body threaded portion; and a non-metallic nozzle including a proximal end having a valve body connection with a nozzle threaded portion in engagement with the valve body threaded portion; wherein the nozzle threaded portion includes a root portion having at least one radius of curvature extending between adjacent rows of a thread of the nozzle threaded portion, a valve body sleeve portion separates the valve body threaded portion from an outlet of the nozzle connection and the outlet of the nozzle connection is at least partially defined by a lip, the valve body connection includes a nozzle sleeve portion located adjacent a distal end of the nozzle threaded portion and located adjacent a step in the nozzle, and the valve body sleeve portion directly contacts the nozzle sleeve portion to form an interference fit.