mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus comprising: a target noise amount specifying unit configured to acquire a target noise amount which is a target amount of noise to be present in an image; and an acquisition unit arranged to acquire brightness information of a subject in images captured by an image capturing apparatus, a storage unit arranged to store a reference table for each brightness in which noise amounts and capturing conditions for capturing an image with each noise amount are associated, an image capturing parameter determination unit arranged to determine a capturing condition by referring to the reference table corresponding to the brightness information , a calculation unit arranged to calculate a noise amount from image data obtained from an image captured by the image capturing apparatus with the capturing condition determined by the determination unit, wherein the image capturing parameter determination unit determines if the difference between the noise amount and the target noise amount is equal to or less than a fixed value and if there are other suitable image capturing conditions, wherein the image capturing parameter determination unit changes, in a case where the difference is more than the fixed value and there are at least one suitable image capturing condition, the capturing condition, wherein the image capturing condition is specified by one or more image capturing parameters. a target noise amount specifying unit configured to acquire a target noise amount which is a target amount of noise to be present in an image; and an acquisition unit arranged to acquire brightness information of a subject in images captured by an image capturing apparatus, a storage unit arranged to store a reference table for each brightness in which noise amounts and capturing conditions for capturing an image with each noise amount are associated, an image capturing parameter determination unit arranged to determine a capturing condition by referring to the reference table corresponding to the brightness information , a calculation unit arranged to calculate a noise amount from image data obtained from an image captured by the image capturing apparatus with the capturing condition determined by the determination unit, wherein the image capturing parameter determination unit determines if the difference between the noise amount and the target noise amount is equal to or less than a fixed value and if there are other suitable image capturing conditions, wherein the image capturing parameter determination unit changes, in a case where the difference is more than the fixed value and there are at least one suitable image capturing condition, the capturing condition, wherein the image capturing condition is specified by one or more image capturing parameters.
Toothbrush with orbital motion including a body incorporating a cylindrical sleeve and a casing extending said sleeve , said casing being made integral with said sleeve , said casing comprising a lever with a distal end outside the casing to which a removable brush is fastened, and a proximal end inside the casing and linked to drive means , which are in turn linked to motor means, wherein said drive means are designed capable of driving said proximal end of the lever in a motion comprising a circular movement and a radial oscillation, said lever being furthermore held in said body of said toothbrush through a ball-joint connection arranged at the level of an intermediate portion of said lever , between said distal end and said proximal end , so as to transmit said motion to the brush , said ball-joint being in the form of a sphere accommodated in a cavity, which has in turn a spherical shape, arranged at the level of the casing .
A method for producing a positive electrode active material for a lithium ion secondary battery, the positive electrode active material consisting of a lithium metal composite oxide, the method comprising the following steps and : mixing a dispersant (a component A) being a copolymer comprising a constitutional unit a1 derived from (meth)acrylic acid and a constitutional unit a2 derived from unsaturated dibasic acid or an anhydride thereof, a salt (a component B) of at least one metallic element selected from nickel, cobalt, manganese, and aluminium, an alkali (a component C), and an aqueous medium to precipitate, as a coprecipitate, a metal hydroxide comprising the at least one metallic element selected from nickel, cobalt, manganese, and aluminium; and baking a mixture comprising the metal hydroxide obtained in the step and a lithium compound to obtain the lithium metal composite oxide. mixing a dispersant (a component A) being a copolymer comprising a constitutional unit a1 derived from (meth)acrylic acid and a constitutional unit a2 derived from unsaturated dibasic acid or an anhydride thereof, a salt (a component B) of at least one metallic element selected from nickel, cobalt, manganese, and aluminium, an alkali (a component C), and an aqueous medium to precipitate, as a coprecipitate, a metal hydroxide comprising the at least one metallic element selected from nickel, cobalt, manganese, and aluminium; and baking a mixture comprising the metal hydroxide obtained in the step and a lithium compound to obtain the lithium metal composite oxide.
An aerosol generating article comprising: an aerosol permeation element comprising an aerosol permeable core within an extruded polymeric sleeve formed integrally therearound, wherein the aerosol permeable core is shorter than the extruded polymeric sleeve ; the aerosol permeation element comprises one end that is hollow and the other end of the aerosol permeation element comprises the aerosol permeable core ; and a rod of aerosol generating material, wherein a portion thereof is received within the hollow end of the aerosol permeation element . an aerosol permeation element comprising an aerosol permeable core within an extruded polymeric sleeve formed integrally therearound, wherein the aerosol permeable core is shorter than the extruded polymeric sleeve ; the aerosol permeation element comprises one end that is hollow and the other end of the aerosol permeation element comprises the aerosol permeable core ; and a rod of aerosol generating material, wherein a portion thereof is received within the hollow end of the aerosol permeation element .
A boiler plant for heating a medium, in particular a natural circulation or forced circulation boiler or waste heat boiler, particularly preferably a corner tube boiler, comprising downcomers, collectors, distributors and risers, which form at least part of a circuit for a medium to be heated, at least two drums being connected to the circuit for separation of the water-steam mixture into steam and water, characterized in that the ratio of diameter D to wall thickness s of the drums is: D/s ≥ 15, wherein the drums are arranged in the high pressure part of the boiler plant, i.e. in a part of the plant which is configured to operate at over 40 bar, and in that the diameter D of the drums in relation to the length L of the drums amounts to: D/L = 0.03 to 0.5, in particular 0.05 to 0.3.
A process for the manufacture of hydrogen peroxide by the AO-process comprising the two alternate essential steps of (a) hydrogenation of a working solution in a hydrogenation unit in the presence of a catalyst, wherein said working solution contains at least one alkylanthraquinone dissolved in at least one organic solvent, to obtain at least one corresponding alkylanthrahydroquinone compound; and (b) oxidation of said at least one alkylanthrahydroquinone compound to obtain hydrogen peroxide in an oxidation unit; and further comprising the step of (c) extracting the hydrogen peroxide formed in the oxidation step in an extraction unit, wherein the units of step (a) to (c), optionally together with further ancillary units as appropriate, constitute a hydrogen peroxide production site, characterized in that one or more of said units are equipped with one or more sensors for monitoring one or more AO-process parameters, optionally involving at least one chemical AO-process parameter, at the hydrogen peroxide production site, said sensors being interconnected with one or more first computers at the hydrogen peroxide production site, said first computers being linked via a communication network to one or more second computers in a control room being remote from the hydrogen peroxide production site, and wherein said control room is remotely controlling, particularly remotely operating and controlling, said hydrogen peroxide production site, and wherein the AO-process parameters are selected from the group consisting of pressure, temperature, quantity, flow rate, density, viscosity, catalyst activity, acidity, purity, concentration, hydrogen peroxide productivity or a combination thereof and which are relevant for the production of hydrogen peroxide according to the AO-process, and wherein the AO-process is run without permanently controlling the working solution, and wherein the controlling of the working solution is conducted by pre-defining and/or pre-setting one or more process conditions in terms of the AO-process parameters or range thereof as process standard and remotely controlling the monitored parameters to stay within that process standard, or wherein the controlling of the working solution is intermittently and/or periodically conducted by remotely controlling one or more of the parameters, which are indicative for the productivity and/or quality of the working solution. (a) hydrogenation of a working solution in a hydrogenation unit in the presence of a catalyst, wherein said working solution contains at least one alkylanthraquinone dissolved in at least one organic solvent, to obtain at least one corresponding alkylanthrahydroquinone compound; and (b) oxidation of said at least one alkylanthrahydroquinone compound to obtain hydrogen peroxide in an oxidation unit;
A nucleic acid for use in DNA assembly, wherein the nucleic acid comprises at least one methylation-protectable restriction element, the methylation-protectable restriction element comprising: - a type IIS restriction enzyme recognition sequence; and - a DNA methylase recognition sequence, wherein the type IIS restriction enzyme recognition sequence and the DNA methylase recognition sequence overlap such that the base methylatable by the DNA methylase lies within the type IIS restriction enzyme recognition sequence, wherein the DNA methylase recognition sequence is not identical to or enclosed by the type IIS restriction enzyme recognition sequence, and wherein the DNA methylase recognition sequence does not overlap with the sequence that would form the overhang end sequence generated by the type IIS restriction enzyme. wherein the nucleic acid further comprises an opposing non-protectable type IIS restriction enzyme recognition sequence provided on the opposing side of the cut site of the methylation-protectable restriction element thereby forming a truncating composite element, wherein the opposing type IIS restriction enzyme recognition sequence of the truncating composite element is arranged to direct the type IIS restriction enzyme to cut the nucleic acid at a site that is within the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element, and/or within the nucleotides between the cut site and the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element. - a type IIS restriction enzyme recognition sequence; and - a DNA methylase recognition sequence, wherein the type IIS restriction enzyme recognition sequence and the DNA methylase recognition sequence overlap such that the base methylatable by the DNA methylase lies within the type IIS restriction enzyme recognition sequence, wherein the DNA methylase recognition sequence is not identical to or enclosed by the type IIS restriction enzyme recognition sequence, and wherein the DNA methylase recognition sequence does not overlap with the sequence that would form the overhang end sequence generated by the type IIS restriction enzyme. wherein the nucleic acid further comprises an opposing non-protectable type IIS restriction enzyme recognition sequence provided on the opposing side of the cut site of the methylation-protectable restriction element thereby forming a truncating composite element, wherein the opposing type IIS restriction enzyme recognition sequence of the truncating composite element is arranged to direct the type IIS restriction enzyme to cut the nucleic acid at a site that is within the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element, and/or within the nucleotides between the cut site and the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element.
Tetrapyrrole conjugated compounds with the formula and their salts, solvates and solvates of these salts; wherein n = 1 to 20 and wherein R 1 is consisting of OH, SH, NH 2 , HisGlyOMe, polyurethanes, polyacrylates, polystyrenes, polyvinyllactams, PGLA, polyacrylic acid, PVP, hyaloronic acid, arginine, lysine, histidine, PEG, polyether amines, polylysine, polyarginine, polyhistidine. wherein n = 1 to 20 and wherein R 1 is consisting of OH, SH, NH 2 , HisGlyOMe, polyurethanes, polyacrylates, polystyrenes, polyvinyllactams, PGLA, polyacrylic acid, PVP, hyaloronic acid, arginine, lysine, histidine, PEG, polyether amines, polylysine, polyarginine, polyhistidine.
Plug connector part for connection to a mating plug connector part , comprising - a contact element for making electrical contact with an associated mating contact element of the mating plug connector part , wherein the contact element has a contact section for making contact with the mating contact element of the mating plug connector part and has a shaft section for connection of a load line for transmitting an electric current, and - a duct , which extends in the contact element and to which at least one coolant line (23-26) can be connected in terms of flow, for carrying a coolant through the contact element , wherein the duct has a first end, to which a first coolant line can be connected in terms of flow, and a second end, to which a second coolant line can be connected in terms of flow, wherein the duct is designed to carry a coolant between the first end and the second end, wherein the coolant is supplied via the first coolant line , which is laid coaxially within the load line , and flows into the duct in a flow direction (F1), and wherein the coolant flows out of the duct via a connecting element and is discharged via the second coolant line in a flow direction (F2), so that a coolant flow is produced through the contact element , characterized in that the connecting element , which is connected in terms of flow to the duct and to which the second coolant line can be connected, is fitted on the contact element , wherein the connecting element is in the form of an L-shaped piece with a flow duct integrally formed therein, which flow duct is connected in terms of flow to the duct of the contact element and allows the coolant to be discharged from the duct . - a contact element for making electrical contact with an associated mating contact element of the mating plug connector part , wherein the contact element has a contact section for making contact with the mating contact element of the mating plug connector part and has a shaft section for connection of a load line for transmitting an electric current, and - a duct , which extends in the contact element and to which at least one coolant line (23-26) can be connected in terms of flow, for carrying a coolant through the contact element ,
A fan blade having an airfoil component and an airfoil root , the airfoil root , comprising: a core ; and a wear covering disposed onto the core ; characterised in that said wear covering is a composite laminate layer , wherein the composite laminate layer is an integrally bonded woven laminate containing a mixture of polytetrafluoroethylene and poly-meta-phenylene isophthalamide fibers arranged in an inverse fashion to produce a right angle grid, wherein the airfoil root further includes a compressive residual stress layer treated into the core , the compressive residual stress layer being produced by a burnishing of the core. a core ; and a wear covering disposed onto the core ; characterised in that said wear covering is a composite laminate layer , wherein the composite laminate layer is an integrally bonded woven laminate containing a mixture of polytetrafluoroethylene and poly-meta-phenylene isophthalamide fibers arranged in an inverse fashion to produce a right angle grid, wherein the airfoil root further includes a compressive residual stress layer treated into the core , the compressive residual stress layer being produced by a burnishing of the core.
A gas hob comprising a grate and a holding assembly for a pan support with a holding element having an intermediate channel , adapted to fit at least one support arm of the grate elevated at a vicinity of a burner provided at a top plate of the gas hob in a surrounding manner wherein the support arm is extending towards the burner and a support element at least partly surrounding the burner from above to hold a curved outer section of a pan , whereby a channel width (w1) of the intermediate channel is adjusted wider from the support arm for a single arm use position of the holding element , characterized in that the width of the corresponding outer periphery of the holding element is adjusted narrower than an arm distance (w2) between two adjacent inner walls of a fork part of the support arm having two L-like support arms parallel to each other for a double arm use position.
Method for transmitting and for damping an average torque (Mm) with a superimposed alternating torque (Mw), in a torque-transmission arrangement for a drive train of a motor vehicle, comprising an input region which can rotate about a rotational axis (A) and an output region which can rotate about a rotational axis (B), wherein the average torque (Mm) is transmitted with the superimposed alternating torque (Mw) along a torque path (M) from the input region to the output region , wherein the input region of the torque-transmission arrangement rotates with an input rotational speed (ne) about the rotational axis (A), and the output region of the torque-transmission arrangement rotates with an output rotational speed (na) about the rotational axis (B), wherein at least the input rotational speed (ne) is composed of an average rotational speed (nem) and a superimposed alternating component (newp), wherein the alternating component (new) can be described approximately by superimposition of periodic rotational oscillations (newp_i) whose frequencies (f) have essentially an integral relationship (i) with the ignition frequency (Zf), wherein each of these periodic oscillations (newp_i) has a minimum value (newp_i_Min) and a maximum value (newp_i_Max), wherein a slip arrangement is provided in the torque path (M) between the input region and the output region for transmitting the average torque (Mm) with the superimposed alternating torque (Mw) and for generating a rotational speed slip (ns) between the rotational speed ne and the rotational speed na in the torque path (M), characterized in that the slip arrangement provides a maximum value of external activation of the rotational speed slip (ns) in the region of the maximum values (newp_i_Max) of at least one periodic oscillation component (newp_i) of the alternating component (newp), and a minimum value of external activation of the rotational speed slip (ns) in the region of the minimum values (newp_i_Min) of at least one periodic oscillation component (newp_i) of the alternating component (newp).
A method for manufacturing a fiber-reinforced plastic composite containing a fiber-reinforced plastic part having a plate-like portion and a rib protruding from one surface of the plate-like portion, and a metal part laminated on part of or all of the plate-like portion of the fiber-reinforced plastic part, comprising: a lamination step for stacking a plurality of sheets of base material to form a base laminate, a base material heating step for heating the base laminate, and a molding step for integrating the base laminate and the metal part by pressing them between a rib molding member having a recessed portion for forming a rib and a skin molding member free of such a recessed portion in a pressing device, the width of the recessed portion, measured in the direction perpendicular to the length direction, being 0.1 to 1.5 mm, the metal part having an average thickness of 0.5 to 3 mm, the base laminate including, as sheets of base material, a plurality of incised prepreg layers, each prepreg layer containing unidirectionally oriented fibers and resin, and a plurality of incisions crossing the fibers, and in the molding step, the absolute value of the acute angle between the orientation direction of the unidirectionally oriented fibers included in the incised prepreg layer that is the closest to the rib molding member and the length direction of the recessed portion of the rib molding member, which is represented as θs, being less than 60°. a lamination step for stacking a plurality of sheets of base material to form a base laminate, a base material heating step for heating the base laminate, and a molding step for integrating the base laminate and the metal part by pressing them between a rib molding member having a recessed portion for forming a rib and a skin molding member free of such a recessed portion in a pressing device, the width of the recessed portion, measured in the direction perpendicular to the length direction, being 0.1 to 1.5 mm, the metal part having an average thickness of 0.5 to 3 mm, the base laminate including, as sheets of base material, a plurality of incised prepreg layers, each prepreg layer containing unidirectionally oriented fibers and resin, and a plurality of incisions crossing the fibers, and in the molding step, the absolute value of the acute angle between the orientation direction of the unidirectionally oriented fibers included in the incised prepreg layer that is the closest to the rib molding member and the length direction of the recessed portion of the rib molding member, which is represented as θs, being less than 60°.