mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing an inorganic aerogel comprising the following successive steps: a) formation or pouring of an inorganic sol into a reactor, optionally in the presence of a reinforcing material and/or an additive, b) complete gelation of the sol into a lyogel, the step b) of complete gelation comprising dielectric heating by microwave electromagnetic irradiation having a frequency between 400 and 18000MHz, or having a frequency between 1 and 400MHz leading to a rise in temperature in order to reach a setting temperature for complete gelation T b in a range from 100°C to 200°C, preferably from 100°C to 150°C, T b being greater than the boiling point of the solvent and the absolute pressure in the reactor in step b) being between 1.5 and 12 bar, the temperature T b being maintained in this range for a time t 1 sufficient for reaching the end of the complete gelation, and more particularly the end of the syneresis of the lyogel; c) optionally, hydrophobisation of the lyogel leading to a hydrophobic lyogel, the hydrophobisation being mandatory when the drying of step d) is carried out in subcritical conditions; d) drying of the optionally hydrophobic lyogel in order to obtain an inorganic aerogel. a) formation or pouring of an inorganic sol into a reactor, optionally in the presence of a reinforcing material and/or an additive, b) complete gelation of the sol into a lyogel, the step b) of complete gelation comprising dielectric heating by microwave electromagnetic irradiation having a frequency between 400 and 18000MHz, or having a frequency between 1 and 400MHz leading to a rise in temperature in order to reach a setting temperature for complete gelation T b in a range from 100°C to 200°C, preferably from 100°C to 150°C, T b being greater than the boiling point of the solvent and the absolute pressure in the reactor in step b) being between 1.5 and 12 bar, the temperature T b being maintained in this range for a time t 1 sufficient for reaching the end of the complete gelation, and more particularly the end of the syneresis of the lyogel; c) optionally, hydrophobisation of the lyogel leading to a hydrophobic lyogel, the hydrophobisation being mandatory when the drying of step d) is carried out in subcritical conditions; d) drying of the optionally hydrophobic lyogel in order to obtain an inorganic aerogel.
A rubber tyre compound comprising at least a polymer base; a filler; and a curing system; said compound being characterized by comprising treated silica with an adsorbed curing activator; and said curing activator being in the group comprising sulphenamides, benzothiazoles, guanidines and thiurams.
An aqueous dispersion comprising - a first ethylene-vinyl alcohol copolymer in the form of capsules with an ethylene content comprised between 24 and 38 mol% and, - a second ethylene-vinyl alcohol copolymer with an ethylene content lower than 15 mol%, characterized in that the weight ratio between said first ethylene-vinyl alcohol copolymer and said second ethylene-vinyl alcohol copolymer is comprised between 0.40 and 0.70. - a first ethylene-vinyl alcohol copolymer in the form of capsules with an ethylene content comprised between 24 and 38 mol% and, - a second ethylene-vinyl alcohol copolymer with an ethylene content lower than 15 mol%,
Synthetic single crystal diamond containing nitrogen atoms, characterised in that a ratio of the number of isolated substitutional nitrogen atoms in the synthetic single crystal diamond, measured with electron spin resonance analysis, to a total number of nitrogen atoms in the synthetic single crystal diamond, measured with secondary ion mass spectrometry, is not lower than 0.02% and lower than 40%.
An integrated circuit comprising: a fault detector configured to detect a fault condition of the integrated circuit; a controller configured to generate a controller output data signal; and an output generator configured to generate an output signal of the integrated circuit and to: generate the output signal at a first set of output levels based upon the controller output data signal when the fault detector does not detect the fault condition; and generate the output signal at a second set of output levels based upon the controller output data signal when the fault detector detects the fault condition, characterized in that the second set of output levels is different than the first set of output levels and comprises a level of the output signal caused by an open circuit or a short circuit of the output signal. a fault detector configured to detect a fault condition of the integrated circuit; a controller configured to generate a controller output data signal; and an output generator configured to generate an output signal of the integrated circuit and to: generate the output signal at a first set of output levels based upon the controller output data signal when the fault detector does not detect the fault condition; and generate the output signal at a second set of output levels based upon the controller output data signal when the fault detector detects the fault condition, characterized in that the second set of output levels is different than the first set of output levels and comprises a level of the output signal caused by an open circuit or a short circuit of the output signal. generate the output signal at a first set of output levels based upon the controller output data signal when the fault detector does not detect the fault condition; and generate the output signal at a second set of output levels based upon the controller output data signal when the fault detector detects the fault condition, characterized in that the second set of output levels is different than the first set of output levels and comprises a level of the output signal caused by an open circuit or a short circuit of the output signal.
A resource unit indication method, comprising: sending, by an access point, AP, a physical protocol data unit, PPDU to a plurality of stations, STAs, wherein a transmission bandwidth of the PPDU is divided into M subblocks, each of which includes four channels and two content channels, CCs, M is an integer greater than 1, the transmission bandwidth is greater than or equal to 160 MHz, the transmission bandwidth of each subblock is greater than or equal to 80 MHz, the PPDU comprises M first fields, the M first fields are in a one-to-one correspondence with the M subblocks, the first field is transmitted on one corresponding subblock, and the first field is used to indicate a resource unit, RU allocated by the AP to at least one of the plurality of stations STAs, wherein, when the PPDU comprises four subblocks, the PPDU comprises first 242-tone RU to sixteenth 242-tone RU; in the first subblock of the four subblocks, a CC11 carries, per STA, information of a STA allocated within ranges of the first 242-tone RU and the third 242-tone; a CC12 carries, per STA, information of a STA allocated within ranges of the second 242-tone RU and the fourth 242-tone RU. sending, by an access point, AP, a physical protocol data unit, PPDU to a plurality of stations, STAs, wherein a transmission bandwidth of the PPDU is divided into M subblocks, each of which includes four channels and two content channels, CCs, M is an integer greater than 1, the transmission bandwidth is greater than or equal to 160 MHz, the transmission bandwidth of each subblock is greater than or equal to 80 MHz, the PPDU comprises M first fields, the M first fields are in a one-to-one correspondence with the M subblocks, the first field is transmitted on one corresponding subblock, and the first field is used to indicate a resource unit, RU allocated by the AP to at least one of the plurality of stations STAs, wherein, when the PPDU comprises four subblocks, the PPDU comprises first 242-tone RU to sixteenth 242-tone RU; in the first subblock of the four subblocks, a CC11 carries, per STA, information of a STA allocated within ranges of the first 242-tone RU and the third 242-tone; a CC12 carries, per STA, information of a STA allocated within ranges of the second 242-tone RU and the fourth 242-tone RU.
Cutting tool comprising a main body which extends along a longitudinal central axis or axis of rotation, at least on cutting insert carrier arranged radially adjustably on the main body, and an adjusting device for adjusting the position of the cutting insert carrier with respect to the main body, wherein the adjusting device comprises a threaded sleeve arranged non-rotatably but adjustably along the longitudinal central axis or axis of rotation in the main body and a screw drive driving the threaded sleeve, the screw drive comprises a threaded spindle screwed with the threaded sleeve, the threaded spindle is formed from a differential threaded spindle, the screw drive further comprises a bearing bushing held non-rotatably in the main body, the differential threaded spindle is screwed with a first threaded portion to the threaded sleeve and with a second threaded portion to the bearing bushing, and the threaded sleeve cooperates with the cutting insert carrier via a wedge gear, characterized in that a compression spring is arranged between the threaded sleeve and the bearing bushing the adjusting device comprises a threaded sleeve arranged non-rotatably but adjustably along the longitudinal central axis or axis of rotation in the main body and a screw drive driving the threaded sleeve, the screw drive comprises a threaded spindle screwed with the threaded sleeve, the threaded spindle is formed from a differential threaded spindle, the screw drive further comprises a bearing bushing held non-rotatably in the main body, the differential threaded spindle is screwed with a first threaded portion to the threaded sleeve and with a second threaded portion to the bearing bushing, and the threaded sleeve cooperates with the cutting insert carrier via a wedge gear, characterized in that a compression spring is arranged between the threaded sleeve and the bearing bushing
Subframe construction of a vehicle for mounting superstructures on what are known as ladder frames, wherein the subframe construction has subframe components, and two hinged supports, characterized in that the subframe construction has a plurality of rockers, which are arranged in a vehicle longitudinal direction, with a top-hat-shaped profile with a thrust rod, and wherein the hinged supports are capable of adopting an angle change and have, for this purpose, easily screwed plastic bearings which connect a lower region of the hinged supports to the subframe and permit rotational movements.
An apparatus for exercising deep abdominal and back muscles in a standing position, which apparatus has two at least partially flexible frames (2, 3), each having an upper and lower end, said lower ends are anchored onto a base, in an upright position so that the frames (2, 3) are at a distance from each other for a person to fit through, and said upper ends are not attached to one another, and an adjustable middle support configured to support an abdomen or back portion of a user, when said user is standing on the base, wherein said adjustable middle support is attached to each of said frames (2, 3) such that it is stretched between said frames (2, 3) and is adjustable up and down thereon, the upper ends of the frames (2, 3) are configured to provide support for the users front- or back portion of the shoulders, and said middle support and upper ends of the frames (2, 3) are positionable so as to contact the user on opposite sides of the body.
- A method of forming a flange on a ventilation canal edge using a machine according to any of claims 7-14, the method comprising the following process steps: - positioning of a square elbow bracket and / or a square canal on the carrier grid, the elbow bracket and/or the square canal comprising bend tears at its corners, - moving the elbow bracket which positioned on the carrier grid and/or the sheet metal at the mouth of the square canal, to the starting position by compressing it with the help of pressure group, thrust group and miter group, - moving the sheet metal brought into the starting position into the first position by pressing between the form (6.5) and the thread form (4.1) - moving the sheet metal brought into the first position into the second position by turning it 90 degrees together with the bending piston (9.4) and the press plate (1.1) - moving the sheet metal brought into the second position into the third position by being pressed between the steep pressure plate (5.5) and the aiding stand (6.4) - moving the sheet metal that brought into the third position into the fourth position by the inner mold (8.1) and the standing and tilting press (3.4) - forming a one piece flange at the mouth of the square canal and / or the elbow bracket by pressing the sheet metal brought into the fourth position by the tilt piston (3.1) and the joint (3.3). - positioning of a square elbow bracket and / or a square canal on the carrier grid, the elbow bracket and/or the square canal comprising bend tears at its corners, - moving the elbow bracket which positioned on the carrier grid and/or the sheet metal at the mouth of the square canal, to the starting position by compressing it with the help of pressure group, thrust group and miter group, - moving the sheet metal brought into the starting position into the first position by pressing between the form (6.5) and the thread form (4.1) - moving the sheet metal brought into the first position into the second position by turning it 90 degrees together with the bending piston (9.4) and the press plate (1.1) - moving the sheet metal brought into the second position into the third position by being pressed between the steep pressure plate (5.5) and the aiding stand (6.4) - moving the sheet metal that brought into the third position into the fourth position by the inner mold (8.1) and the standing and tilting press (3.4) - forming a one piece flange at the mouth of the square canal and / or the elbow bracket by pressing the sheet metal brought into the fourth position by the tilt piston (3.1) and the joint (3.3).
A controller for an internal combustion engine including an injector that is configured to radially inject a fuel through a plurality of injection holes into a cavity formed above a top surface of a piston at a center thereof and a swirl control valve that is configured to control a swirl velocity (Vsw) at a wall surface of the cavity, the controller comprising: fuel spray interval calculating means that is configured to calculate, as a fuel spray interval (θ D), an interval between fuel sprays adjacent to each other in a direction of a swirl flow that are injected from adjacent injection holes of the injection holes; index calculating means that is configured to calculate a value, as an index (α) of cooling loss, multiplying an inverse of an area of a collision face of the fuel spray injected from any of the injection holes that is formed when the fuel spray collides with the wall surface by a value correlated with heat transfer coefficient between the wall surface and the collided fuel spray with the wall surface; and opening setting means that is configured to set an opening of the swirl control valve so that the swirl velocity (Vsw) at the wall surface is equivalent to a velocity at which the fuel spray interval (θ D) falls within a predetermined range and also the index (α) becomes the minimum. fuel spray interval calculating means that is configured to calculate, as a fuel spray interval (θ D), an interval between fuel sprays adjacent to each other in a direction of a swirl flow that are injected from adjacent injection holes of the injection holes; index calculating means that is configured to calculate a value, as an index (α) of cooling loss, multiplying an inverse of an area of a collision face of the fuel spray injected from any of the injection holes that is formed when the fuel spray collides with the wall surface by a value correlated with heat transfer coefficient between the wall surface and the collided fuel spray with the wall surface; and opening setting means that is configured to set an opening of the swirl control valve so that the swirl velocity (Vsw) at the wall surface is equivalent to a velocity at which the fuel spray interval (θ D) falls within a predetermined range and also the index (α) becomes the minimum.
Loading system for lifting and emptying a container into a collector, the loading system comprising: - a mounting frame which can be mounted on the collector with coupling means; - a lifting mechanism arranged on the mounting frame for the purpose of picking up and lifting the container, the lifting mechanism comprising: - a drive frame connected rotatably to the mounting frame; - a tilting frame connected rotatably to the drive frame; - a drive connected operatively to the drive frame and configured to rotate the drive frame relative to the mounting frame, such that the tilting frame rotates around the drive frame; - at least one tilting arm connected operatively to the tilting frame and configured to rotate around a tilting rotation point of the at least one tilting arm relative to the tilting frame; and - a lifting seat connected operatively to the at least one tilting arm for the purpose of picking up the container, wherein the tilting rotation point is moved in an upward direction during lifting and emptying of the container, characterised in that the lifting mechanism further comprises a lifting connecting arm connected between the tilting frame and the lifting seat for a controlled movement of the lifting seat relative to the tilting frame. - a mounting frame which can be mounted on the collector with coupling means; - a lifting mechanism arranged on the mounting frame for the purpose of picking up and lifting the container, the lifting mechanism comprising: - a drive frame connected rotatably to the mounting frame; - a tilting frame connected rotatably to the drive frame; - a drive connected operatively to the drive frame and configured to rotate the drive frame relative to the mounting frame, such that the tilting frame rotates around the drive frame; - at least one tilting arm connected operatively to the tilting frame and configured to rotate around a tilting rotation point of the at least one tilting arm relative to the tilting frame; and - a lifting seat connected operatively to the at least one tilting arm for the purpose of picking up the container, - a drive frame connected rotatably to the mounting frame; - a tilting frame connected rotatably to the drive frame; - a drive connected operatively to the drive frame and configured to rotate the drive frame relative to the mounting frame, such that the tilting frame rotates around the drive frame; - at least one tilting arm connected operatively to the tilting frame and configured to rotate around a tilting rotation point of the at least one tilting arm relative to the tilting frame; and - a lifting seat connected operatively to the at least one tilting arm for the purpose of picking up the container, wherein the tilting rotation point is moved in an upward direction during lifting and emptying of the container, characterised in that the lifting mechanism further comprises a lifting connecting arm connected between the tilting frame and the lifting seat for a controlled movement of the lifting seat relative to the tilting frame.
Implant system for fixing artificial teeth containing dental implants which contain an insertable base body and a connecting part fixable to it wherein the connecting parts have an attachment with a tapering and spherically curved outer contour and one or more base parts are provided wherein the base part(s) has/have an inner contour or inner surface which allows the receiving or engagement of the substantially correspondingly designed attachment of the associated connecting part, characterised in that the tapering and spherically curved outer contour of the attachment is curved with a radius of 15 mm to 30 mm, wherein the radius decreases towards the connecting part, in particular from 30 mm to 20 mm, and that the diameter of the attachment at the occlusal end is specified in the range from 2 mm to 4 mm.
A process for heating heavy hydrocarbon feedstock comprising: heating a heavy hydrocarbon, mixing the heavy hydrocarbon with a fluid to form a mixture, flashing the mixture to form a vapor phase and a liquid phase, and feeding the vapor phase to a furnace, wherein the amount of the fluid mixed with the heavy hydrocarbon is varied to maintain a constant temperature of the mixture before the mixture is flashed.
A thermostable freeze dried rotavirus vaccine formulation wherein said vaccine formulation comprises: - at least one rotavirus serotype, and - at least one excipient comprising of a lyoprotectant, a first class of buffering agent, a salt, an ion, a bulking agent, a dispersant, an activating agent; wherein - said lyoprotectant is selected from sucrose, trehalose, sorbitol or lactose; - said first class of buffering agent is selected from HEPES, Tris, Phosphate, citrate or Histidine; - said salt is selected from Sodium chloride, Magnesium chloride, Potassium chloride. - said ion is a divalent cation selected from Zn and Ca; - said bulking agent is Polyvinylpyrrolidone; - said dispersant is selected from Tween 20 and Tween 80; - said activating agent is selected from L-Arginine, Glycine, either alone or in combination; wherein - said lyoprotectant is in the range of 1.2% w/v to 6.0% w/v. - said first class of buffering agent is in the range of 10 mM to 50 mM; - said salt is in the range of 0mM-50mM; - said divalent cation is in the range of 0 mM to 2 mM; - said bulking agent is in the range of 2% to 6 % w/v; - said dispersant is in the range of 0 to 0.02%w/v; - said activating agent is in the range of 10 to 100mM; and wherein said vaccine formulation does not exceed potency losses exceeding Log 10 = [0.5] when stored at 5 ± 3°C up to 2 years and when stored up to 45°C for at least 18 weeks. - at least one rotavirus serotype, and - at least one excipient comprising of a lyoprotectant, a first class of buffering agent, a salt, an ion, a bulking agent, a dispersant, an activating agent; - said lyoprotectant is selected from sucrose, trehalose, sorbitol or lactose; - said first class of buffering agent is selected from HEPES, Tris, Phosphate, citrate or Histidine; - said salt is selected from Sodium chloride, Magnesium chloride, Potassium chloride. - said ion is a divalent cation selected from Zn and Ca; - said bulking agent is Polyvinylpyrrolidone; - said dispersant is selected from Tween 20 and Tween 80; - said activating agent is selected from L-Arginine, Glycine, either alone or in combination; - said lyoprotectant is in the range of 1.2% w/v to 6.0% w/v. - said first class of buffering agent is in the range of 10 mM to 50 mM; - said salt is in the range of 0mM-50mM; - said divalent cation is in the range of 0 mM to 2 mM; - said bulking agent is in the range of 2% to 6 % w/v; - said dispersant is in the range of 0 to 0.02%w/v; - said activating agent is in the range of 10 to 100mM; and