mhurhangee/patent-ind-claim-en huggingface dataset:
A foam dispensing container comprising a container body that reserves a liquid agent; a head part that has an outlet , and dispenses the liquid agent delivered from the container body through the outlet into foam; and a dispensing operation part that allows dispensing of a predetermined amount of the foamy liquid agent through the outlet each time it accepts a user's operation, the outlet being an opening with a contiguous geometry narrowed from an intended shape, and being designed to build up the foamy liquid agent, dispensed through the outlet as a result of a single or multiple operations made on the dispensing operation part , into the intended shape in a plan view seen in the dispensing direction, characterised in that the outlet has a linear opened part, and the head part has an extension part that extends beyond the front end position of the outlet with respect to the dispensing direction, and the foamy liquid agent dispensed through the outlet is built up into a foam object (FB) with the intended shape.
An adjustable biocide generator system for the generation of performic acid forming composition on-site, comprising: - a length of pipe ; - a first inlet (1; 1') constructed to supply a first reagent to the length of pipe ; - a second inlet constructed to supply a second reagent to the length of pipe ; - a heating device in form of a heating cartridge , which penetrates through one end of the length of pipe and which is disposed through at least a portion of the inner diameter of the pipe ; - an additional heating device in form of an insulating heater located in at least a portion of the length of the pipe ; and - an outlet for dosing a performic acid forming composition from said length of pipe ; wherein said inlets are constructed to be in fluid connection with said length of pipe and to supply reagents to produce said performic acid forming composition in said length of pipe ; wherein said first reagent comprises a formic acid source and said second reagent comprises an oxidizing agent; and wherein said length of pipe is constructed to be in fluid connection with said outlet to dispense said performic acid forming composition. - a length of pipe ; - a first inlet (1; 1') constructed to supply a first reagent to the length of pipe ; - a second inlet constructed to supply a second reagent to the length of pipe ; - a heating device in form of a heating cartridge , which penetrates through one end of the length of pipe and which is disposed through at least a portion of the inner diameter of the pipe ; - an additional heating device in form of an insulating heater located in at least a portion of the length of the pipe ; and - an outlet for dosing a performic acid forming composition from said length of pipe ;
A gas purification filter comprising a filter body formed by a fiber cloth and a gas purification catalyst supported by the filter body, wherein the gas purification filter has a porosity of not less than 6% and not greater than 20%, the porosity representing a volume of voids occupying a space per unit volume.
A method for networking, performed by a terminal, comprising: in response to the terminal entering an effective communication range of a first Near Field Communication, NFC, sensing device (NFC1) in a first router (R1), interacting (S11) with the first NFC sensing device (NFC1), so that the first router (R1) or the terminal obtains key information, wherein the key information is configured for networking the first router and a second router (R2); and in response to the terminal entering an effective communication range of a second NFC sensing device (NFC2) in the second router (R2), writing (S12, S23, S33) the key information into the second NFC sensing device (NFC2); characterized in that the key information is configured for the first router to encrypt networking information, broadcast the encrypted networking information to the second router, receive a networking request sent by the second router, determine the key information included in a networking request passes verification, and perform networking connection to the second router; and the key information is also configured for the second router to decrypt the received networking information and send the networking request to the first router in response to successful decryption of the networking information. in response to the terminal entering an effective communication range of a first Near Field Communication, NFC, sensing device (NFC1) in a first router (R1), interacting (S11) with the first NFC sensing device (NFC1), so that the first router (R1) or the terminal obtains key information, wherein the key information is configured for networking the first router and a second router (R2); and in response to the terminal entering an effective communication range of a second NFC sensing device (NFC2) in the second router (R2), writing (S12, S23, S33) the key information into the second NFC sensing device (NFC2); characterized in that the key information is configured for the first router to encrypt networking information, broadcast the encrypted networking information to the second router, receive a networking request sent by the second router, determine the key information included in a networking request passes verification, and perform networking connection to the second router; and the key information is also configured for the second router to decrypt the received networking information and send the networking request to the first router in response to successful decryption of the networking information.
Fixed-bed gasifier for generating a product gas from carbon-containing feed materials, in particular from pourable biomass particles, comprising a gasifier container , a feed for the carbon-containing feed materials in the upper region of the gasifier container , a rotatable grate which is arranged in the lower region of the gasifier container and intended for supporting the carbon-containing feed materials, an air feed for feeding combustion air into the gasifier container , a product gas flue leading out of the gasifier container and intended for discharging the product gas from the gasifier container , wherein the rotatable grate has a main part with an upper side and a lower side , and a central drive shaft which has a first end and a second end and extends away from the lower side of the main part , wherein the first end is connected to the centre of the main part in a rotationally locked manner, characterized in that the main part is disc-shaped and has slot-shaped openings for the passage of gas and ash particles, the cross section of said openings increasing conically in the passage direction from the upper side to the lower side , in that the product gas flue leads out from the region below the grate , and in that a dome-shaped covering is arranged above the central drive shaft centrally on the upper side of the main part .
An end effector for a surgical instrument, comprising: first and second jaws movably coupled to one another and configured to engage tissue therebetween and to fire a plurality of surgical staples into the tissue; a frame having at least one retaining feature and configured to releasably engage the first jaw ; and an adjunct material releasably secured to a tissue-facing surface of the frame, wherein the frame includes a hinge that is configured to extend into a knife slot formed in the first jaw, wherein the hinge extends along a longitudinal axis of the frame, characterised in that the hinge is configured to apply tension to the adjunct. first and second jaws movably coupled to one another and configured to engage tissue therebetween and to fire a plurality of surgical staples into the tissue; a frame having at least one retaining feature and configured to releasably engage the first jaw ; and an adjunct material releasably secured to a tissue-facing surface of the frame, wherein the frame includes a hinge that is configured to extend into a knife slot formed in the first jaw, wherein the hinge extends along a longitudinal axis of the frame, characterised in that the hinge is configured to apply tension to the adjunct.
A PSA comprising: an acrylic-hydrocarbon graft copolymer wherein the acrylic-hydrocarbon graft copolymer comprises an acrylic monomer copolymerized with a hydrocarbon macromonomer; a hydrocarbon oligomer; and a hydrocarbon polymer, wherein the hydrocarbon macromonomer is selected from ethylene-butylene macromers, ethylene-propylene macromers, ethylene-butylene-propylene macromers, and isobutylene macromers, and wherein the hydrocarbon macromonomer contains a reactive acrylic or methacrylic end group, wherein the hydrocarbon oligomer and the hydrocarbon polymer are selected from oligomers and polymers of ethylene, propylene, butadiene, isoprene, isobutylene, hexene, octene, and mixtures thereof, and wherein either one or both of the hydrocarbon oligomer and the hydrocarbon polymer contain reactive sites selected from anhydride, aldehyde, ketone, acetate, amine, amide, aziridine, epoxide, mercapto, and mixtures thereof. an acrylic-hydrocarbon graft copolymer wherein the acrylic-hydrocarbon graft copolymer comprises an acrylic monomer copolymerized with a hydrocarbon macromonomer; a hydrocarbon oligomer; and a hydrocarbon polymer, wherein the hydrocarbon macromonomer is selected from ethylene-butylene macromers, ethylene-propylene macromers, ethylene-butylene-propylene macromers, and isobutylene macromers, and wherein the hydrocarbon macromonomer contains a reactive acrylic or methacrylic end group, wherein the hydrocarbon oligomer and the hydrocarbon polymer are selected from oligomers and polymers of ethylene, propylene, butadiene, isoprene, isobutylene, hexene, octene, and mixtures thereof, and wherein either one or both of the hydrocarbon oligomer and the hydrocarbon polymer contain reactive sites selected from anhydride, aldehyde, ketone, acetate, amine, amide, aziridine, epoxide, mercapto, and mixtures thereof.
An information processing apparatus comprising: an estimation unit configured to estimate, on a basis of relation information, a fourth power spectrum corresponding to a first sampling frequency from a third power spectrum obtained through a third blood flow measurement at a second sampling frequency lower than the first sampling frequency, wherein the relation information is information indicating a relation between a first power spectrum obtained through a first blood flow measurement at the first sampling frequency and a second power spectrum obtained through a second blood flow measurement at the second sampling frequency; a broadband spectrum signal generation unit configured to generate the first power spectrum from a first blood flow signal obtained through the first blood flow measurement; a narrowband spectrum signal generation unit configured to generate the third power spectrum from a third blood flow signal obtained through the third blood flow measurement and the second power spectrum from a second blood flow signal obtained through the second blood flow measurement; a learning unit configured to perform machine learning using the first power spectrum and the second power spectrum to learn the relation information; a storage unit configured to store the relation information; and a blood flow information calculation unit configured to calculate a blood flow velocity or relative densities of particles in blood vessels within a predetermined velocity range using the fourth power spectrum estimated by the estimation unit . an estimation unit configured to estimate, on a basis of relation information, a fourth power spectrum corresponding to a first sampling frequency from a third power spectrum obtained through a third blood flow measurement at a second sampling frequency lower than the first sampling frequency, wherein the relation information is information indicating a relation between a first power spectrum obtained through a first blood flow measurement at the first sampling frequency and a second power spectrum obtained through a second blood flow measurement at the second sampling frequency; a broadband spectrum signal generation unit configured to generate the first power spectrum from a first blood flow signal obtained through the first blood flow measurement; a narrowband spectrum signal generation unit configured to generate the third power spectrum from a third blood flow signal obtained through the third blood flow measurement and the second power spectrum from a second blood flow signal obtained through the second blood flow measurement; a learning unit configured to perform machine learning using the first power spectrum and the second power spectrum to learn the relation information; a storage unit configured to store the relation information; and a blood flow information calculation unit configured to calculate a blood flow velocity or relative densities of particles in blood vessels within a predetermined velocity range using the fourth power spectrum estimated by the estimation unit .
A hollow rod made from a homogenized tobacco material, said material is self-extinguishing, said hollow rod being made from at least one foil of a homogenized tobacco material, characterized in that the inner space of said hollow rod does not contain anyone of tobacco, a tobacco substitute, an aerosol generating substance, or a combination thereof.
Ceiling element , in particular a cooling or heating ceiling, having: a supporting structure for fixing the ceiling element to a ceiling; a pipe arrangement fixed to the supporting structure which can be flowed through by a heat transporting medium; an air box fixed to the supporting structure , which can be flowed through by supply air having an inlet and an outlet area ; and a ceiling panel mountable to the support structure having a top, a bottom and a plurality of openings in the region of the outlet area of the air box ; characterised in that the top of the ceiling panel being releasably connected to the air box by a first planar mounting means surrounding the air box . a supporting structure for fixing the ceiling element to a ceiling; a pipe arrangement fixed to the supporting structure which can be flowed through by a heat transporting medium; an air box fixed to the supporting structure , which can be flowed through by supply air having an inlet and an outlet area ; and a ceiling panel mountable to the support structure having a top, a bottom and a plurality of openings in the region of the outlet area of the air box ; characterised in that the top of the ceiling panel being releasably connected to the air box by a first planar mounting means surrounding the air box .
An analytical method of measuring the molecular weight of a polyethylene glycol derivative using a matrix-assisted laser desorption mass spectrometry in which a mixture comprising a branched polyethylene glycol derivative having two or more polyethylene glycol chains and a molecular weight of 40,000 or more and a matrix is irradiated with laser beam to vaporize the polyethylene glycol derivative together with the matrix, thereby measuring the molecular weight of the polyethylene glycol derivative, wherein trans-2-[3-(4-tert-butylphenyl)-2-methyl-2-propenylidene]malononitrile (DCTB) is used as the matrix, and wherein the polyethylene glycol derivative is represented by formula in the formulae, Z is a residue obtained by eliminating all hydroxyl groups from a compound having from 3 to 8 hydroxyl groups; OA 1 , OA 2 and OA 3 are each an oxyethylene group, and a, b and c are each from 0 to 5,000; L 1 , L 2 and L 3 are each independently an alkylene group which may have an ester bond, a urethane bond, an amide bond, a urea bond, an ether bond or a thioether bond in the alkylene chain or at a terminal; L 1 , L 2 and L 3 may be the same or different from each other in one molecule; p, q and r are each independently 0 or 1; s and t are each independently from 0 to 8; X 1 , X 2 and X 3 each independently represent a hydroxyl group, an alkoxy group, a tert-butyl group or a benzyloxy group, or an active group; X 1 , X 2 and X 3 may be the same or different from each other in one molecule; the active group is selected from an aldehyde group, an acetal group, a nitrophenyl carbonate group, a succinimidyl carbonate group, a succinimidyl ester group, a mercapto group, a maleimide group, an alkenyl group, an alkynyl group, an azido group, an amino group and a carboxyl group. in the formulae, Z is a residue obtained by eliminating all hydroxyl groups from a compound having from 3 to 8 hydroxyl groups; OA 1 , OA 2 and OA 3 are each an oxyethylene group, and a, b and c are each from 0 to 5,000; L 1 , L 2 and L 3 are each independently an alkylene group which may have an ester bond, a urethane bond, an amide bond, a urea bond, an ether bond or a thioether bond in the alkylene chain or at a terminal; L 1 , L 2 and L 3 may be the same or different from each other in one molecule; p, q and r are each independently 0 or 1; s and t are each independently from 0 to 8; X 1 , X 2 and X 3 each independently represent a hydroxyl group, an alkoxy group, a tert-butyl group or a benzyloxy group, or an active group; X 1 , X 2 and X 3 may be the same or different from each other in one molecule; the active group is selected from an aldehyde group, an acetal group, a nitrophenyl carbonate group, a succinimidyl carbonate group, a succinimidyl ester group, a mercapto group, a maleimide group, an alkenyl group, an alkynyl group, an azido group, an amino group and a carboxyl group.
Method for manufacturing a timepiece oscillator comprising the steps of: i. assembling flat layers (10; 56; 58; 60; 64) together to form a substantially flat multilayer structure ; ii. deploying the multilayer structure in a direction (Z) substantially normal to the flat layers (10; 56; 58; 60; 64); method wherein at least a first layer of said layers (10; 56; 58; 60; 64) forms at least one flexible blade in the timepiece oscillator , the blade or blades being fixed, in the timepiece oscillator , to at least one mass , preferably to two masses , the or each mass being more rigid than the blade or blades , the blade or blades being fixed to the or to each mass in a step subsequent to step ii). i. assembling flat layers (10; 56; 58; 60; 64) together to form a substantially flat multilayer structure ; ii. deploying the multilayer structure in a direction (Z) substantially normal to the flat layers (10; 56; 58; 60; 64);
A system for producing controlled vibrations within a borehole comprising: a vibration creation mechanism configured to create vibrations, wherein the vibration creation mechanism is positioned within a housing in the borehole and includes an encoder plate (606; 806; 908) and an anvil plate (600; 800; 906) positioned so that an impact between the encoder plate and the anvil plate creates the vibrations; a vibration tuning mechanism in the housing configured to alter an operation of the vibration creation mechanism to selectively create vibrations of different frequencies; characterised by : a vibration control mechanism in the housing configured to adjust an amplitude of the vibrations caused by the vibration creation mechanism. a vibration creation mechanism configured to create vibrations, wherein the vibration creation mechanism is positioned within a housing in the borehole and includes an encoder plate (606; 806; 908) and an anvil plate (600; 800; 906) positioned so that an impact between the encoder plate and the anvil plate creates the vibrations; a vibration tuning mechanism in the housing configured to alter an operation of the vibration creation mechanism to selectively create vibrations of different frequencies; characterised by : a vibration control mechanism in the housing configured to adjust an amplitude of the vibrations caused by the vibration creation mechanism.
A communication system, comprising: a plurality of communication nodes which are operatively coupled to each other, wherein each of said communication nodes comprises a first radio frequency, RF, communication unit configured to perform ranging sessions with an external communication device; a controller configured to create a logical subset of said communication nodes based on an indication of a channel quality between the communication nodes and the external communication device, wherein said indication of the channel quality has been obtained using a second RF communication unit comprised in each of said communication nodes; the controller further being configured to cause that only the communication nodes included in said logical subset perform said ranging sessions with the external communication device. a plurality of communication nodes which are operatively coupled to each other, wherein each of said communication nodes comprises a first radio frequency, RF, communication unit configured to perform ranging sessions with an external communication device; a controller configured to create a logical subset of said communication nodes based on an indication of a channel quality between the communication nodes and the external communication device, wherein said indication of the channel quality has been obtained using a second RF communication unit comprised in each of said communication nodes; the controller further being configured to cause that only the communication nodes included in said logical subset perform said ranging sessions with the external communication device.
Production method for producing an electromechanical actuator , comprising the steps of: a) providing an electrical component formed as a stack , formed by a plurality of material layers that react to application of an electrical field and a plurality of electrode layers , each electrode layer being arranged between two material layers ; b) applying an insulating layer to at least one peripheral region of the stack in such a way that at the peripheral region the electrode layers and the material layers are covered by the insulating layer ; c) exposing at least one of the electrode layers at the peripheral region of the stack by locally removing an insulating layer region adjacent to the electrode layer and material layer regions adjacent to the electrode layer along a longitudinal axis of the stack , characterized in that an insulating layer material , a material layer material and an electrode layer material are so selected, and wherein removal parameters of a removing device for removing the insulating layer region and the material layer regions are so set that a first removal rate (R I ) of the insulating layer material is much greater than a second removal rate (R W ) of the material layer material , and that the second removal rate (R W ) of the material layer material is much greater than a third removal rate (R E ) of the electrode layer material . a) providing an electrical component formed as a stack , formed by a plurality of material layers that react to application of an electrical field and a plurality of electrode layers , each electrode layer being arranged between two material layers ; b) applying an insulating layer to at least one peripheral region of the stack in such a way that at the peripheral region the electrode layers and the material layers are covered by the insulating layer ; c) exposing at least one of the electrode layers at the peripheral region of the stack by locally removing an insulating layer region adjacent to the electrode layer and material layer regions adjacent to the electrode layer along a longitudinal axis of the stack ,