mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a spreadable edible emulsion comprising 15-80% fat slurry and 20-85% of an aqueous phase, both weight % on the total emulsion, the fat slurry comprising 3-25% of a micronised fat powder and 75-97% of a fat not in powdered form, both weight % on the total fat phase, the process comprising the steps of: a. providing a micronised fat powder, b. providing a fat not in powdered form, c. mixing the micronised fat powder with the fat not in powdered form to form a fat slurry, such that the slurry contains 3-25 wt % micronised fat powder based on the total amount of fat slurry, d. adding an aqueous phase to the fat slurry to produce a mixture, in such an amount that the slurry contains up to half of the desired amount of aqueous phase of the final spreadable emulsion, e. storing the so-obtained fat-water mixture for a period of from 8 hours to 7 days, f. adding the remainder of the aqueous phase to the stored mixture, g. processing such into a spreadable edible emulsion. a. providing a micronised fat powder, b. providing a fat not in powdered form, c. mixing the micronised fat powder with the fat not in powdered form to form a fat slurry, such that the slurry contains 3-25 wt % micronised fat powder based on the total amount of fat slurry, d. adding an aqueous phase to the fat slurry to produce a mixture, in such an amount that the slurry contains up to half of the desired amount of aqueous phase of the final spreadable emulsion, e. storing the so-obtained fat-water mixture for a period of from 8 hours to 7 days, f. adding the remainder of the aqueous phase to the stored mixture, g. processing such into a spreadable edible emulsion.
A method of generating a proximal differentiated airway organoid (PD-organoid) comprising culturing an airway organoid (AO-organoid) derived from adult stem cells in a proximal differentiation medium for a period of time sufficient to generate a PD-organoid comprising a cell population consisting of at least 25%, at least 30%, at least 35% or at least 40% ciliated cells, wherein the ciliated cells are characterised by FOXJ1 and SNTN expression; wherein the method further comprises one or more of the following steps prior to culturing the AO-organoid in a proximal differentiation medium: a. providing a lung tissue sample obtained from a subject; b. obtaining dissociated cells from a lung tissue sample; and c. culturing lung cells in an AO-organoid formation phase for a period of time sufficient to generate an AO-organoid; and wherein the proximal differentiation medium is supplemented with DAPT at a concentration of between 10 and 20 μM. wherein the method further comprises one or more of the following steps prior to culturing the AO-organoid in a proximal differentiation medium: a. providing a lung tissue sample obtained from a subject; b. obtaining dissociated cells from a lung tissue sample; and c. culturing lung cells in an AO-organoid formation phase for a period of time sufficient to generate an AO-organoid; and a. providing a lung tissue sample obtained from a subject; b. obtaining dissociated cells from a lung tissue sample; and c. culturing lung cells in an AO-organoid formation phase for a period of time sufficient to generate an AO-organoid; and wherein the proximal differentiation medium is supplemented with DAPT at a concentration of between 10 and 20 μM.
A water treatment device comprising: a raw water supply tube; one or more gas introducing tubes (6, 36), each being at one end portion thereof opened to a gas supply source; a filter container containing a filter layer having an upper surface and a filtered water outlet provided in the filter container for taking out water which has been filtered through the filter layer, characterized in that one or more jet nozzles are each at one end portion thereof in communication with the raw water supply tube and have at the other end portion thereof a raw water jetting outlet for blowing out the raw water in a jet stream; the one or more gas introducing tubes (6, 36) are provided in correspondence to said jet nozzle or jet nozzles, one or more gas introducing tubes are at the other end portion thereof opened to the inside of a corresponding one of the jet nozzles upstream of the raw water jetting outlet; the upper surface of the filter layer is provided below the jet nozzles with an interval from the raw water jetting outlets of the jet nozzles, a water supply pump is provided, which supplies raw water through the raw water supply tube to the jet nozzles, and the one or more jet nozzles are oriented toward the upper surface of the filter layer. a raw water supply tube; one or more gas introducing tubes (6, 36), each being at one end portion thereof opened to a gas supply source; a filter container containing a filter layer having an upper surface and a filtered water outlet provided in the filter container for taking out water which has been filtered through the filter layer, characterized in that one or more jet nozzles are each at one end portion thereof in communication with the raw water supply tube and have at the other end portion thereof a raw water jetting outlet for blowing out the raw water in a jet stream; the one or more gas introducing tubes (6, 36) are provided in correspondence to said jet nozzle or jet nozzles, one or more gas introducing tubes are at the other end portion thereof opened to the inside of a corresponding one of the jet nozzles upstream of the raw water jetting outlet; the upper surface of the filter layer is provided below the jet nozzles with an interval from the raw water jetting outlets of the jet nozzles, a water supply pump is provided, which supplies raw water through the raw water supply tube to the jet nozzles, and the one or more jet nozzles are oriented toward the upper surface of the filter layer.
A method of depositing a SiN film onto a flexible substrate comprising the steps of: providing the flexible substrate; and depositing the SiN film onto the flexible substrate in a plasma enhanced chemical vapour deposition (PECVD) process using SiH 4, N 2 and H 2, in which the temperature of the substrate is 200°C or less and SiH 4 is introduced into the PECVD process at a flow rate of greater than 100 seem; wherein the PECVD process is performed in a mixture of gases which consists essentially of SiH 4, N 2, H 2 and optionally at least one diluent gas. providing the flexible substrate; and depositing the SiN film onto the flexible substrate in a plasma enhanced chemical vapour deposition (PECVD) process using SiH 4, N 2 and H 2, in which the temperature of the substrate is 200°C or less and SiH 4 is introduced into the PECVD process at a flow rate of greater than 100 seem; wherein the PECVD process is performed in a mixture of gases which consists essentially of SiH 4, N 2, H 2 and optionally at least one diluent gas.
Locking and unlocking kinematic system for a mop base, composed of at least two half-frames (3, 4), basically flat and hinged together along a common longitudinal axis and capable of retaining a free edge of a mop inside a clasping mouth composed a pair of longitudinal edges, belonging to the same side of each half-frame, (3, 4) where said kinematic system is capable of assuming and maintaining a stable position between that of opening and that of closing of said mop base, characterised by the fact that it comprises a kinematic motion that is composed of a lever and elastic thrust devices of said lever, where said lever is hinged with an axis parallel to the common longitudinal axis of the reciprocal hinging of the two half-frames (3, 4) that make up the mop base, said kinematic motion is hinged on a first half-frame and, when the mop base is closed, said lever is held by the second half-frame, whereas when the mop base is open it is, when forced to rotate by the elastic thrust devices, exposed beyond the external profile of said second half-frame, and said lever interferes with its profile when said second half-frame returns to a closed state.
A system for dampening combustor dynamics, comprising: a micromixer including a plurality of mixing tubes disposed about a central fuel nozzle, an end cap assembly disposed about the plurality of mixing tubes and the central fuel nozzle and having a cap face plate and an impingement plate; and at least one annular resonator disposed within the micromixer between the cap face plate and the impingement plate and encircling the central fuel nozzle, the at least one annular resonator comprising: a first side comprising a plurality of holes forming a cold side hole pattern; a second side comprising a plurality of holes forming a hot side hole pattern; and a cavity substantially defined by the first side and the second side. a micromixer including a plurality of mixing tubes disposed about a central fuel nozzle, an end cap assembly disposed about the plurality of mixing tubes and the central fuel nozzle and having a cap face plate and an impingement plate; and at least one annular resonator disposed within the micromixer between the cap face plate and the impingement plate and encircling the central fuel nozzle, the at least one annular resonator comprising: a first side comprising a plurality of holes forming a cold side hole pattern; a second side comprising a plurality of holes forming a hot side hole pattern; and a cavity substantially defined by the first side and the second side. a first side comprising a plurality of holes forming a cold side hole pattern; a second side comprising a plurality of holes forming a hot side hole pattern; and a cavity substantially defined by the first side and the second side.
A method of wireless communication, comprising: determining, by a user equipment, UE, that the UE is capable of combining a signal from a base station with a narrowband reference signal, NRS, to determine a combined signal quality parameter, wherein the signal is not a narrowband reference signal; reporting, by the UE and to the base station, that the UE is capable of combining the signal with the narrowband reference signal, NRS; receiving, by the UE, the signal and an indication of how to combine the signal with the narrowband reference signal, NRS, wherein the indication indicates a weight to be applied to the signal and/or the narrowband reference signal, NRS, when determining a combined signal quality parameter; receiving, by the UE, the narrowband reference signal, NRS; determining the combined signal quality parameter based on the signal, the narrowband reference signal, NRS, and the indication; reporting, by the UE, the combined signal quality parameter to the base station based at least in part on reporting that the UE is capable of combining the signal with the narrowband reference signal, NRS; and reporting, by the UE, an indication of an accuracy of the combined signal quality parameter. determining, by a user equipment, UE, that the UE is capable of combining a signal from a base station with a narrowband reference signal, NRS, to determine a combined signal quality parameter, wherein the signal is not a narrowband reference signal; reporting, by the UE and to the base station, that the UE is capable of combining the signal with the narrowband reference signal, NRS; receiving, by the UE, the signal and an indication of how to combine the signal with the narrowband reference signal, NRS, wherein the indication indicates a weight to be applied to the signal and/or the narrowband reference signal, NRS, when determining a combined signal quality parameter; receiving, by the UE, the narrowband reference signal, NRS; determining the combined signal quality parameter based on the signal, the narrowband reference signal, NRS, and the indication; reporting, by the UE, the combined signal quality parameter to the base station based at least in part on reporting that the UE is capable of combining the signal with the narrowband reference signal, NRS; and reporting, by the UE, an indication of an accuracy of the combined signal quality parameter.
A process for producing a gas generating agent, which comprises - a first step of feeding at least two starting components including a fuel and an oxidizing agent and stirring and mixing them in the presence of moisture, wherein the fuel is a nitrogen-containing compound, wherein the oxidizing agent is a basic metal nitrate, wherein the moisture is ion-exchanged water and/or distilled water, and wherein an amount of moisture in the mixture of the starting components is adjusted to 5 to 60% by weight, - a second step of extrusion-molding the mixture and cutting it, - a third step of drying it, wherein the mixture is dried so that an amount of moisture in the gas generating agent is reduced to 0.7% by weight or less, and wherein the process further includes an aging step of keeping the mixture at 30 to 50°C for 8 hours or more between the first and second step. - a first step of feeding at least two starting components including a fuel and an oxidizing agent and stirring and mixing them in the presence of moisture, wherein the fuel is a nitrogen-containing compound, wherein the oxidizing agent is a basic metal nitrate, wherein the moisture is ion-exchanged water and/or distilled water, and wherein an amount of moisture in the mixture of the starting components is adjusted to 5 to 60% by weight, - a second step of extrusion-molding the mixture and cutting it, - a third step of drying it, wherein the mixture is dried so that an amount of moisture in the gas generating agent is reduced to 0.7% by weight or less, and
An N-aralkylcarbonyldiamine compound having structure I noted below: wherein n = 2, R 1 is hydroxyl, R 2 is selected from cyclohexyl or cyclopentyl, R 3 is selected from the group consisting of C 1 -C 3 alkyl, and R 4 and R 5 are selected from the group consisting of C 1 -C 3 alkyl, wherein said alkyl group is linear, cyclic or branched; and amine salts thereof. wherein n = 2, R 1 is hydroxyl, R 2 is selected from cyclohexyl or cyclopentyl, R 3 is selected from the group consisting of C 1 -C 3 alkyl, and R 4 and R 5 are selected from the group consisting of C 1 -C 3 alkyl, wherein said alkyl group is linear, cyclic or branched; and amine salts thereof.
A component comprising a housing (501, 601) and a screen (502, 602), wherein the screen (502, 602) comprises cover glass at a top of the screen (502, 602), a touch panel, and a display module at a bottom of the screen (502, 602), and the display module, the touch panel, and the cover glass are connected in sequence from the bottom to the top; the screen (502, 602) further comprises a protective frame (503, 603), and the protective frame (503, 603) wraps the bottom of the display module at the bottom of the screen (502, 602) and a side face of the display module; and glue (504, 604) is disposed on a side face of the screen (502, 602) at the wrapped side face of the display module, wherein a first joint face is formed between the housing (501, 601) and the display module provided with the protective frame (503, 603), a second joint face is formed between the housing (501, 601) and the cover glass, and the housing (501, 601) is connected to the screen (502, 602) by using the glue (504, 604) at the first joint face and the second joint face.
A method for vehicle anti-collision control, comprising: receiving information about a rear vehicle status and a relative distance between a vehicle behind and a present vehicle; when the information about the status indicates that there is a vehicle coming from behind and the relative distance between the vehicle behind and the present vehicle is less than a pre-determined distance, calculating an estimated time T for which the present vehicle is to be rear-ended by the vehicle behind; and performing an anti-collision operation for the present vehicle if T < T threshold, where T threshold is a pre-determined first anti-collision time threshold, characterized in that the anti-collision operation is determined based on a status of a brake of the present vehicle and a forward safe distance d: when the brake is not stepped on and d > 0, moving the present vehicle forward by a distance d', otherwise sending a first rear-end collision warning to a driver, wherein the forward safe distance d is a distance within which the present vehicle is able to move forward safely, and d' ≤ d. receiving information about a rear vehicle status and a relative distance between a vehicle behind and a present vehicle; when the information about the status indicates that there is a vehicle coming from behind and the relative distance between the vehicle behind and the present vehicle is less than a pre-determined distance, calculating an estimated time T for which the present vehicle is to be rear-ended by the vehicle behind; and performing an anti-collision operation for the present vehicle if T < T threshold, where T threshold is a pre-determined first anti-collision time threshold, characterized in that the anti-collision operation is determined based on a status of a brake of the present vehicle and a forward safe distance d: when the brake is not stepped on and d > 0, moving the present vehicle forward by a distance d', otherwise sending a first rear-end collision warning to a driver, wherein the forward safe distance d is a distance within which the present vehicle is able to move forward safely, and d' ≤ d. when the brake is not stepped on and d > 0, moving the present vehicle forward by a distance d', otherwise sending a first rear-end collision warning to a driver, wherein the forward safe distance d is a distance within which the present vehicle is able to move forward safely, and d' ≤ d.
Dental material containing a polymerizable dental resin with the index of refraction n 1, nanoscale inorganic solid particles with the index of refraction n 2, dental glass particles with the index of refraction n 3, and also adjuvants for the autopolymerization or light-curing of the dental resin, characterized in that A) the dental material has an overall index of refraction n 4, which is in the range of 1.56 - 1.70; B) the index of refraction n 5 of the cured dental material is in the range of 1.56 - 1.70; and C) the nanoscale inorganic solid particles have a diameter less than 100 nm. A) the dental material has an overall index of refraction n 4, which is in the range of 1.56 - 1.70; B) the index of refraction n 5 of the cured dental material is in the range of 1.56 - 1.70; and C) the nanoscale inorganic solid particles have a diameter less than 100 nm.
An air filter element comprising: - a filter medium pack comprising a filter medium, said filter medium pack having an optionally substantially planar first side and an optionally substantially planar second side, said first side and second side optionally being parallel; and - a guiding rim comprising a sealing surface having at least a radially oriented component, arranged on at least one of said first side and said second side, said sealing surface being configured to provide radial sealing when installed in a suitably shaped cavity; wherein said filter medium pack has a substantially tubular shape, comprising shapes obtained by rolling a length of filter medium (with or without a core or a hollow space at the center), shapes obtained by arranging pleated filter media as a tube, and shapes obtained by combining multiple units that are substantially tubular in the aforementioned sense; and wherein a circumference of the or each guiding rim comprises at least one convex portion and at least one concave portion; and wherein a contour of said filter medium pack corresponds to said convex portion of said guiding rim and at least part of said concave portion. - a filter medium pack comprising a filter medium, said filter medium pack having an optionally substantially planar first side and an optionally substantially planar second side, said first side and second side optionally being parallel; and - a guiding rim comprising a sealing surface having at least a radially oriented component, arranged on at least one of said first side and said second side, said sealing surface being configured to provide radial sealing when installed in a suitably shaped cavity;
A peptide or collection of peptides that is the reaction product of matrix-metalloproteinase MT1-MMP or MT5-MMPacting on amyloid precursor protein, followed by the action of both α-secretase (ADAM10) and β-secretase (β-site APP cleaving enzyme 1; BACE1).
Module element for use in a hand orthosis with at least one bayonet link formed on a first end face, characterized by at least one bayonet hook corresponding to the bayonet link, which is formed on a second end face, for forming a bayonet connection between adjacent module elements.
A gas-insulated switching device comprising, inside a pressure tank: a vacuum valve having, in a vacuum, a movable contact provided on one side of a movable conductor, and a fixed contact provided to a fixed conductor; an insulation rod connected to another side of the movable conductor led out through a bellows from the vacuum valve; and an airtight container in which the insulation rod and the other side of the movable conductor are stored, wherein an internal space of the bellows and an internal space of the airtight container communicate with each other, characterised in that one side of the vacuum valve is fixed to a tank wall of the pressure tank via an insulation support body, another side of the vacuum valve is connected to the tank wall via the airtight container, the airtight container insulates the vacuum valve and the tank wall from each other and includes a first airtight container member and a second airtight container member, and the first airtight container member and the second airtight container member are slidable with each other in a movable direction of the movable conductor. a vacuum valve having, in a vacuum, a movable contact provided on one side of a movable conductor, and a fixed contact provided to a fixed conductor; an insulation rod connected to another side of the movable conductor led out through a bellows from the vacuum valve; and an airtight container in which the insulation rod and the other side of the movable conductor are stored, wherein an internal space of the bellows and an internal space of the airtight container communicate with each other, characterised in that one side of the vacuum valve is fixed to a tank wall of the pressure tank via an insulation support body, another side of the vacuum valve is connected to the tank wall via the airtight container, the airtight container insulates the vacuum valve and the tank wall from each other and includes a first airtight container member and a second airtight container member, and the first airtight container member and the second airtight container member are slidable with each other in a movable direction of the movable conductor.
A foot compression system, comprising: a retractable, non-bendable pressure pad; a spring coupled to the pressure pad, the spring configured to move the pressure pad into contact with a foot; a mechanism coupled to the spring, the mechanism operable to move the pressure pad out of contact with the foot by storing energy in the spring; a latch configured to hold the spring in a compressed position and to release the spring to move the pressure pad; and a shaft, wherein the spring is disposed about the shaft, and wherein the shaft is configured to guide the spring during extension and compression of the spring, wherein the foot compression system is completely contained within an item of footwear. a retractable, non-bendable pressure pad; a spring coupled to the pressure pad, the spring configured to move the pressure pad into contact with a foot; a mechanism coupled to the spring, the mechanism operable to move the pressure pad out of contact with the foot by storing energy in the spring; a latch configured to hold the spring in a compressed position and to release the spring to move the pressure pad; and a shaft, wherein the spring is disposed about the shaft, and wherein the shaft is configured to guide the spring during extension and compression of the spring, wherein the foot compression system is completely contained within an item of footwear.