mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preparing a positive electrode for a lithium-sulfur battery, comprising the following steps: a) a step of preparing a first mixture by placing a carbon additive which is carbon black and/or activated carbon; a carbon additive chosen from carbon nanotubes, carbon fibres and mixtures thereof; a carbon organic binder, and a solvent in contact; b) a step of carbonising said mixture, by means of which the result is a powder comprising agglomerates of carbon black and/or activated carbon and of carbon nanotubes and/or carbon fibres; c) a step of placing the powder obtained in b) in contact with sulfur thus forming a second mixture; d) a step of dispersing said second mixture in an organic binder; e) a step of depositing the dispersion thus obtained on a substrate; and f) a step of drying said dispersion thus deposited. a) a step of preparing a first mixture by placing a carbon additive which is carbon black and/or activated carbon; a carbon additive chosen from carbon nanotubes, carbon fibres and mixtures thereof; a carbon organic binder, and a solvent in contact; b) a step of carbonising said mixture, by means of which the result is a powder comprising agglomerates of carbon black and/or activated carbon and of carbon nanotubes and/or carbon fibres; c) a step of placing the powder obtained in b) in contact with sulfur thus forming a second mixture; d) a step of dispersing said second mixture in an organic binder; e) a step of depositing the dispersion thus obtained on a substrate; and f) a step of drying said dispersion thus deposited.
Apparatus for the generation, the distribution and/or the usage of electrical energy, said apparatus comprising a housing enclosing an insulating space and an electrically conductive part arranged in the insulating space, said insulating space containing a dielectric insulation medium, at least a portion of which being in the form of an insulation gas comprising an organofluorine compound, wherein at least some of the components of the apparatus that are directly exposed to the insulation gas are made of a material which remains unaltered during exposure to the insulation gas for a period of more than 5 years at operational conditions and have a surface, at least a portion of which is devoid of any nucleophilic group reactive towards the organofluorine compound and/or reactive towards any degradation product of the organofluorine compound at operational conditions, wherein any compound contained on the surface of the component and forming an integral part of the material and/or any compound bound to the surface is or are devoid of any nucleophilic group, and the nucleophilic group relates to any chemical group that is able to donate in a chemical reaction an electron pair to an electrophile, with the electrophile being the organofluorine compound or its degradation product(s) and the organofluorine compound being selected from the group consisting of: fluoroethers, fluoroketones, fluoroolefins, fluoronitriles, and mixtures thereof, wherein at least some of the components are made of or comprise a polymeric material, wherein the total amount of volatile organic compounds having a boiling of less than 400°C in the polymeric material is less than 1 wt.-% based on the total weight of the polymeric material.
An apparatus for alternating electric fields therapy using an optimization algorithm to treat tumors in a patient by applying electric fields to the tumors and normal tissues using one or more pairs of electrode pads containing most of the electrodes, the apparatus consisting of: an image classifier configured to classify at least one organ on patient imaging; and an electric field optimizer configured to create a treatment plan by setting the number and position of the applied individual electrodes based on the classifications of the tumors and normal tissues, arranging the electrodes on the electrode pads of preset size, and determining the magnitudes of voltage to apply to the electrodes, wherein the electric field optimizer is configured to determine an individual electric field intensity based on the following equation below E i = ∑ i = 1 n w j e ij and configured to calculate the electric field based on following equation f = ∑ i = 1 N E i − E 0 2 wherein E i is the electric field intensity value at the i th position, w j is the weighting of the j th electrode, e ij is the electric field intensity transmitted to the i th position by the j th electrode, and E 0 is the prescribed electric field intensity. an image classifier configured to classify at least one organ on patient imaging; and an electric field optimizer configured to create a treatment plan by setting the number and position of the applied individual electrodes based on the classifications of the tumors and normal tissues, arranging the electrodes on the electrode pads of preset size, and determining the magnitudes of voltage to apply to the electrodes, wherein the electric field optimizer is configured to determine an individual electric field intensity based on the following equation below E i = ∑ i = 1 n w j e ij and configured to calculate the electric field based on following equation f = ∑ i = 1 N E i − E 0 2 wherein E i is the electric field intensity value at the i th position, w j is the weighting of the j th electrode, e ij is the electric field intensity transmitted to the i th position by the j th electrode, and E 0 is the prescribed electric field intensity.
A method comprising: generating, by a computer system, a user interface for deploying a virtual IP address, VIP, on a load balancer in a network environment, wherein the network environment includes a plurality of load balancers, and wherein the user interface presents a plurality of criteria for selecting one of the plurality of load balancers; receiving, by the computer system from a user, a selection of one or more of the plurality of criteria; collecting, by the computer system from each load balancer in the plurality of load balancers, statistics that are relevant to the one or more criteria; and selecting, by the computer system, a load balancer from among the plurality of load balancers based on the one or more criteria and the collected statistics. generating, by a computer system, a user interface for deploying a virtual IP address, VIP, on a load balancer in a network environment, wherein the network environment includes a plurality of load balancers, and wherein the user interface presents a plurality of criteria for selecting one of the plurality of load balancers; receiving, by the computer system from a user, a selection of one or more of the plurality of criteria; collecting, by the computer system from each load balancer in the plurality of load balancers, statistics that are relevant to the one or more criteria; and selecting, by the computer system, a load balancer from among the plurality of load balancers based on the one or more criteria and the collected statistics.
A switch for a vehicle, the switch comprising a pressing rocking bar , a first push rod , a second push rod , a first elastic member , a second elastic member , and a housing, wherein the pressing rocking bar is pivotally connected to the housing, and a position point at which the pressing rocking bar is pivotally connected to the housing is disposed between the first push rod and the second push rod ; the switch further comprises a first limiting body and a second limiting body , the first limiting body and the second limiting body are fixedly arranged, the first push rod runs through the first limiting body and abuts against the bottom of a first end of the pressing rocking bar , the second push rod runs through the second limiting body and abuts against the bottom of a second end of the pressing rocking bar , and the second push rod abuts against the second limiting body ; and the first elastic member is fixedly arranged and connected to the bottom of the first push rod , the second elastic member is fixedly arranged and connected to the bottom of the second push rod , characterized in that prepressures on the second elastic member and the first elastic member enable torque of the second push rod acting on the second end of the pressing rocking bar to be greater than torque of the first push rod acting on the first end of the pressing rocking bar , and a moving gap is reserved between the first limiting body and the first push rod in a pressing direction of the first push rod . the switch further comprises a first limiting body and a second limiting body , the first limiting body and the second limiting body are fixedly arranged, the first push rod runs through the first limiting body and abuts against the bottom of a first end of the pressing rocking bar , the second push rod runs through the second limiting body and abuts against the bottom of a second end of the pressing rocking bar , and the second push rod abuts against the second limiting body ; and the first elastic member is fixedly arranged and connected to the bottom of the first push rod , the second elastic member is fixedly arranged and connected to the bottom of the second push rod , characterized in that prepressures on the second elastic member and the first elastic member enable torque of the second push rod acting on the second end of the pressing rocking bar to be greater than torque of the first push rod acting on the first end of the pressing rocking bar , and a moving gap is reserved between the first limiting body and the first push rod in a pressing direction of the first push rod .
A rolling apparatus for rolling a tipping paper around a collation of rod-shaped articles, the rolling apparatus comprising a rolling drum and a roll hand configured to roll the collation of rod-shaped articles between a peripheral surface of the rolling drum and the roll hand such that the tipping paper is wrapped around the rod-shaped articles to form tobacco industry products, wherein the peripheral surface of the rolling drum is configured to carry the collation of rod-shaped articles, the rolling drum comprising a plurality of ridges on the peripheral surface , each ridge comprising a trailing face and a leading face , the rolling drum comprising a plurality of suction holes for retaining the collation of rod-shaped articles, wherein the plurality of suction holes are disposed at the trailing face and the leading face of each of the ridges , wherein the rolling drum comprises a friction-enhancing surface on the peripheral surface between each of the ridges , and characterised in that the friction-enhancing surface comprises a hard particulate matter on the peripheral surface.
A method of controlling a base station system , the method comprising: generating and transmitting a control signal arranged to cause a radio equipment controller (REC-D 26) to control a first radio equipment (RE-D 25) from a plurality of radio equipment (RE-D 25) at a first time, wherein each of the plurality of radio equipment (RE-D 25) is coupled to a respective antenna having a respective coverage area; and characterised by generating and transmitting a control signal arranged to cause the radio equipment controller (REC-D 26) to control a second radio equipment (RE-D 25) from the plurality of radio equipment (RE-D 25) instead of the first radio equipment (RE-D 25) at a later time; wherein the radio equipment controller (REC-D 26) did not control the second radio equipment (RE-D 25) at the first time; and wherein generating and transmitting a control signal arranged to cause the radio equipment controller (REC-D 26) to control a second radio equipment (RE-D 25) from the plurality of radio equipment (RE-D 25) instead of the first radio equipment (RE-D 25) at a later time further comprises generating and transmitting a control signal arranged to cause the first radio equipment (RE-D 25) to switch to an inactive state. generating and transmitting a control signal arranged to cause a radio equipment controller (REC-D 26) to control a first radio equipment (RE-D 25) from a plurality of radio equipment (RE-D 25) at a first time, wherein each of the plurality of radio equipment (RE-D 25) is coupled to a respective antenna having a respective coverage area; and characterised by generating and transmitting a control signal arranged to cause the radio equipment controller (REC-D 26) to control a second radio equipment (RE-D 25) from the plurality of radio equipment (RE-D 25) instead of the first radio equipment (RE-D 25) at a later time; wherein the radio equipment controller (REC-D 26) did not control the second radio equipment (RE-D 25) at the first time; and wherein generating and transmitting a control signal arranged to cause the radio equipment controller (REC-D 26) to control a second radio equipment (RE-D 25) from the plurality of radio equipment (RE-D 25) instead of the first radio equipment (RE-D 25) at a later time further comprises generating and transmitting a control signal arranged to cause the first radio equipment (RE-D 25) to switch to an inactive state.
A slatted support structure for a bed or a chair, the slatted support structure comprising a frame , at least one hinge , and at least one slat , the frame comprising a first and a second support in a length direction of the slatted support structure, wherein the length direction is orthogonal to the slat direction, each hinge comprising a first beam and a second beam , wherein each beam comprises a frame mounting position a hinge mounting position , and a slat mounting position , wherein the first beam and the second beam are rotatably connected at the hinge mounting positions by means of a connecting element , and wherein the first beam is supported at the frame mounting position by the first support and the second beam is supported at frame mounting position by the second support , and wherein the at least one slat is at a first end supported by the first beam at the slat mounting position thereof and at a second end by the second beam at the slat mounting position thereof, characterized in that the connecting element comprises a positioning element which comprises a first element and a second element wherein the second element or the first element is connected with the at least one, slat or frame and wherein the positioning element is configured such that the position of the first element with respect to the second element can be changed such that an angle between the first beam and the second beam can be chosen and such that the first and second beams can be secured to a fixed position at the chosen angle or to a resilient position wherein the angle can change resiliently around the chosen angle. the frame comprising a first and a second support in a length direction of the slatted support structure, wherein the length direction is orthogonal to the slat direction, each hinge comprising a first beam and a second beam , wherein each beam comprises a frame mounting position a hinge mounting position , and a slat mounting position , wherein the first beam and the second beam are rotatably connected at the hinge mounting positions by means of a connecting element , and wherein the first beam is supported at the frame mounting position by the first support and the second beam is supported at frame mounting position by the second support , and wherein the at least one slat is at a first end supported by the first beam at the slat mounting position thereof and at a second end by the second beam at the slat mounting position thereof, characterized in that the connecting element comprises a positioning element which comprises a first element and a second element wherein the second element or the first element is connected with the at least one, slat or frame and wherein the positioning element is configured such that the position of the first element with respect to the second element can be changed such that an angle between the first beam and the second beam can be chosen and such that the first and second beams can be secured to a fixed position at the chosen angle or to a resilient position wherein the angle can change resiliently around the chosen angle.
The use of a breadmaking improver in a method for making baked bread by final baking of precooked bread stored without freezing at room temperature for a period of up to 7 days, said breadmaking improver comprising: a. an enzyme composition comprising a maltogenic exoamylase, said maltogenic exoamylase being an enzyme classified under reference EC 3.2.1.1, that is able to degrade maltotriose to maltose and glucose, amyloglucosidase, alpha amylase and xylanase, b. ascorbic acid, c. pregelatinized wheat flour, and d. malted wheat flour, - maltogenic exoamylase being used at a content between 50 and 200 ppm, - amyloglucosidase being used at a content between 50 and 500 ppm, - alpha amylase being used at a content between 1 and 20 ppm, - xylanase being used at a content between 10 and 80 ppm, - ascorbic acid being used at a content between 50 and 300 ppm, - pregelatinized wheat flour being used at a content between 0.1 and 4%, and - malted wheat flour being used at a content between 0.05 and 0.5%, said contents being expressed in baker's percentage, i.e. relative to 100% of the flour in the kneading machine. a. an enzyme composition comprising a maltogenic exoamylase, said maltogenic exoamylase being an enzyme classified under reference EC 3.2.1.1, that is able to degrade maltotriose to maltose and glucose, amyloglucosidase, alpha amylase and xylanase, b. ascorbic acid, c. pregelatinized wheat flour, and d. malted wheat flour, - maltogenic exoamylase being used at a content between 50 and 200 ppm, - amyloglucosidase being used at a content between 50 and 500 ppm, - alpha amylase being used at a content between 1 and 20 ppm, - xylanase being used at a content between 10 and 80 ppm, - ascorbic acid being used at a content between 50 and 300 ppm, - pregelatinized wheat flour being used at a content between 0.1 and 4%, and - malted wheat flour being used at a content between 0.05 and 0.5%, - maltogenic exoamylase being used at a content between 50 and 200 ppm, - amyloglucosidase being used at a content between 50 and 500 ppm, - alpha amylase being used at a content between 1 and 20 ppm, - xylanase being used at a content between 10 and 80 ppm, - ascorbic acid being used at a content between 50 and 300 ppm, - pregelatinized wheat flour being used at a content between 0.1 and 4%, and - malted wheat flour being used at a content between 0.05 and 0.5%,
An optical lens, comprising: a first lens part , including a first lens barrel for sustaining at least one first lens; a second lens part , including a second lens barrel for sustaining at least one second lens, wherein the at least one second lens together with the at least one first lens constitute an imageable optical system; and a first adhesive material , located in a first gap between the first lens part and the second lens part , and adapted for supporting and fixing the first lens part and the second lens part after being cured; wherein, the first lens barrel has a first bottom surface, and the second lens barrel has a second top surface, and an adhesive applying area for arranging the first adhesive material is provided on the first bottom surface and/or the second top surface; and wherein a first adhesive blocking portion is provided on the first bottom surface, and a third adhesive blocking portion is provided on the second top surface; wherein the at least one first lens is mounted in the first lens barrel , and an adhesive applying region arranged with a second adhesive material is between the at least one first lens and the first lens barrel ; characterized by wherein a location of the adhesive applying region with the second adhesive material overlaps the third adhesive blocking portion radially, perpendicular to an optical axis direction, avoiding the contact between the first adhesive material and the second adhesive material. a first lens part , including a first lens barrel for sustaining at least one first lens; a second lens part , including a second lens barrel for sustaining at least one second lens, wherein the at least one second lens together with the at least one first lens constitute an imageable optical system; and a first adhesive material , located in a first gap between the first lens part and the second lens part , and adapted for supporting and fixing the first lens part and the second lens part after being cured; wherein, the first lens barrel has a first bottom surface, and the second lens barrel has a second top surface, and an adhesive applying area for arranging the first adhesive material is provided on the first bottom surface and/or the second top surface; and wherein a first adhesive blocking portion is provided on the first bottom surface, and a third adhesive blocking portion is provided on the second top surface; wherein the at least one first lens is mounted in the first lens barrel , and an adhesive applying region arranged with a second adhesive material is between the at least one first lens and the first lens barrel ; characterized by wherein a location of the adhesive applying region with the second adhesive material overlaps the third adhesive blocking portion radially, perpendicular to an optical axis direction, avoiding the contact between the first adhesive material and the second adhesive material.
A method of detecting a battery current in an uninterruptible power supply, the method comprising acts of: using a charger, outputting a first total current including a battery current provided to a battery along a charging path and a power circuitry current provided to the power circuitry; opening the charging path to stop the battery current to the battery; determining a second total current supplied by the charger while the charging path is opened, the second total current including the power circuitry current; enabling the battery current to be provided to the battery; determining a third total current supplied by the charger while the battery current is being supplied to the battery, the third total current including the battery current and the power circuitry current; and determining a value representative of the battery current. using a charger, outputting a first total current including a battery current provided to a battery along a charging path and a power circuitry current provided to the power circuitry; opening the charging path to stop the battery current to the battery; determining a second total current supplied by the charger while the charging path is opened, the second total current including the power circuitry current; enabling the battery current to be provided to the battery; determining a third total current supplied by the charger while the battery current is being supplied to the battery, the third total current including the battery current and the power circuitry current; and determining a value representative of the battery current.
A lubricating oil or petroleum composition comprising an intramolecular crosslinked polymer, wherein said intramolecular crosslinked polymer comprises a single chain of a polymer or copolymer and a cross-linker, wherein the cross linker links between two different monomers of said single chain polymer or copolymer, and wherein said intramolecular crosslinked polymer comprises between 0.1 mol% and 30 mol% of crosslinkers.
A method for generating stem-cell derived β (SC-β) cells, the method comprising contacting a cell population comprising endocrine progenitor cells under conditions suitable to direct differentiation of said endocrine progenitor cells into said SC-β cells with an effective amount of an agent that decreases activity of c-Jun N-terminal kinase (JNK) in said endocrine progenitor cells, thereby generating said SC-β cells, wherein the endocrine progenitor cells comprise PDX1+/NKX6.1+/NEUROD1+/insulin+/glucagon-/somatostatin-cells, wherein the effective amount comprises a concentration between about 0.1 μM and about 110 μM, wherein the agent is SP600125.