mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing polyether polyols having n E n blocks each comprising at least 75% by weight of oxyethylene units, and m Am blocks different from E n, where n and m are each natural numbers from 1 to 10, at least one starter compound having at least one Zerevitinov-active hydrogen atom being reacted in the process with ethylene oxide and propylene oxide with addition of a basic catalyst, without using any solvents, and the at least one starter compound having a melting point of ≥ 40°C, characterized in that the reaction with ethylene oxide is effected during the metered addition of the E n block(s) under the conditions of the following inequation: T n * x cat * t n x n EO > 2.9 in °C * h where T n, is defined as the mean reaction temperature in °C during the metered addition of the ethylene oxide for the E n block, x(cat) is defined as the amount of catalyst used in mol, t n is defined as the metering time for the ethylene oxide in the E n block in hours, x n is defined as the amount of ethylene oxide metered in for the E n block in mol, n is as defined above, and where all A m blocks comprise not more than 40% by weight of oxyethylene units, and where the total content of oxyethylene units in the polyether polyols, based on the total mass of all the alkylene oxides metered in, is from 5 up to 45% by weight. T n, is defined as the mean reaction temperature in °C during the metered addition of the ethylene oxide for the E n block, x(cat) is defined as the amount of catalyst used in mol, t n is defined as the metering time for the ethylene oxide in the E n block in hours, x n is defined as the amount of ethylene oxide metered in for the E n block in mol, n is as defined above, and
A method of wireless communication, comprising: communicating, by a first wireless communication device with a second wireless communication device in a downlink, DL, frequency band, a reservation signal in a first channel sensing time slot of a frame to reserve a transmission time slot in the frame, wherein the reservation signal indicates first scheduling information; communicating, by the first wireless communication device in an uplink, UL, frequency band, an UL control signal in the first channel sensing time slot, wherein the UL frequency band and the DL frequency band are shared by a plurality of network operating entities for frequency-division duplexing, FDD, communications; communicating, by the first wireless communication device in the DL frequency band during the transmission time slot, updated scheduling information; and communicating, by the first wireless communication device during the transmission time slot, a communication signal based on at least the updated scheduling information. communicating, by a first wireless communication device with a second wireless communication device in a downlink, DL, frequency band, a reservation signal in a first channel sensing time slot of a frame to reserve a transmission time slot in the frame, wherein the reservation signal indicates first scheduling information; communicating, by the first wireless communication device in an uplink, UL, frequency band, an UL control signal in the first channel sensing time slot, wherein the UL frequency band and the DL frequency band are shared by a plurality of network operating entities for frequency-division duplexing, FDD, communications; communicating, by the first wireless communication device in the DL frequency band during the transmission time slot, updated scheduling information; and communicating, by the first wireless communication device during the transmission time slot, a communication signal based on at least the updated scheduling information.
Method for operating a drive train of a hybrid vehicle comprising an on-board electrical system, wherein the drive train has at least one vehicle driven wheel and a first electric machine for driving the at least one vehicle driven wheel, and the first electric machine is connected to the on-board electrical system, characterized in that a battery is provided which can be connected to the on-board electrical system, and in a high voltage normal operating mode is used to stabilize the voltage of the on-board electrical system, and in a backup operating mode, if the battery does not supply the on-board electrical system with a predefined level of energy, in order to stabilize the voltage of the on-board electrical system, the first electric machine is operated disconnected from the at least one vehicle driven wheel of the hybrid vehicle.
A method, at least partly implemented through computer means, for providing a spectacle ophthalmic lens to a wearer, the method comprising the following consecutive steps: a) providing the wearer with an ophthalmic correction device so as to correct the low order (spherical and/or cylindrical) aberrations of an eye (the eyes) of the wearer if said aberrations are greater than 0.25 Diopter; b) measuring the visual acuity value (s), VA, of the eye(s) of the wearer or the binocular visual acuity value VA bino of both eyes of the wearer where the eye(s) of the wearer is (are) substantially free of low order aberrations or is (are) corrected according to step a); c) calculating by a computer means, a design of the spectacle ophthalmic lens or selecting a design in a spectacle ophthalmic lens design data base by adapting the management of residual astigmatism based on the measured visual acuity value(s) of step b), wherein the spectacle ophthalmic lens is a spectacle progressive addition lens, wherein the calculation or the selection of the design for the wearer is performed according to a progressive addition lens hardness parameter, and wherein the calculation or the selection of the design for the wearer is performed so as the lower is the visual acuity, the softer is the design for the wearer and accordingly the higher is the visual acuity, the harder is the design for the wearer. a) providing the wearer with an ophthalmic correction device so as to correct the low order (spherical and/or cylindrical) aberrations of an eye (the eyes) of the wearer if said aberrations are greater than 0.25 Diopter; b) measuring the visual acuity value (s), VA, of the eye(s) of the wearer or the binocular visual acuity value VA bino of both eyes of the wearer where the eye(s) of the wearer is (are) substantially free of low order aberrations or is (are) corrected according to step a); c) calculating by a computer means, a design of the spectacle ophthalmic lens or selecting a design in a spectacle ophthalmic lens design data base by adapting the management of residual astigmatism based on the measured visual acuity value(s) of step b), wherein the spectacle ophthalmic lens is a spectacle progressive addition lens, wherein the calculation or the selection of the design for the wearer is performed according to a progressive addition lens hardness parameter, and wherein the calculation or the selection of the design for the wearer is performed so as the lower is the visual acuity, the softer is the design for the wearer and accordingly the higher is the visual acuity, the harder is the design for the wearer.
A pipe for transporting powder comprising: a transport path which has a portion formed by a curved pipe and through which pneumatically transported powder passes; and a blowing path through which a gas is blown into the transport path from an opening formed on an inner circumferential surface of the curved pipe, wherein the transport path is formed of a 90-degree curved pipe, and the blowing path blows the gas into the transport path from the opening at any portion between a 30-degree curved portion and a 60-degree curved portion of the curved pipe, characterized in that: the blowing path blows the gas in a direction in which the gas blown into the transport path from the opening forms a swirling flow along the inner circumferential surface of the curved pipe, by blowing the gas in a tangential direction of a circle of a cross-section of the curved pipe. a transport path which has a portion formed by a curved pipe and through which pneumatically transported powder passes; and a blowing path through which a gas is blown into the transport path from an opening formed on an inner circumferential surface of the curved pipe, wherein the transport path is formed of a 90-degree curved pipe, and the blowing path blows the gas into the transport path from the opening at any portion between a 30-degree curved portion and a 60-degree curved portion of the curved pipe, characterized in that: the blowing path blows the gas in a direction in which the gas blown into the transport path from the opening forms a swirling flow along the inner circumferential surface of the curved pipe, by blowing the gas in a tangential direction of a circle of a cross-section of the curved pipe.
A system (100, 120, 140, 500) for curing at one leakage site in a pipeline (106, 501), the system (100, 120, 140, 500) comprising: a) at least one gel pig (104, 114, 118); and b) at least one fibers-in-sealant-in carrier fluid (FISIC) composition (102, 116), also called FISIC composition, wherein said fibers in at least one form selected from the group consisting of: wound fibers, yarns and combinations thereof; and wherein said at least one gel pig (104, 114, 118) and said at least one FISIC composition (102, 116) form a pig train, adapted to move along said pipeline (108, 501) to a region of said at least one leakage and to seal and cure said at least one leakage. a) at least one gel pig (104, 114, 118); and b) at least one fibers-in-sealant-in carrier fluid (FISIC) composition (102, 116), also called FISIC composition, wherein said fibers in at least one form selected from the group consisting of: wound fibers, yarns and combinations thereof; and wherein said at least one gel pig (104, 114, 118) and said at least one FISIC composition (102, 116) form a pig train, adapted to move along said pipeline (108, 501) to a region of said at least one leakage and to seal and cure said at least one leakage.
A bracket scaffold element to be mounted on a support rod of a reinforcement, comprising: • a support bracket with a placement spur, • a bearing bracket, • a profile track, a scaffold floor being mountable onto the bearing bracket, the support bracket, the bearing bracket and the profile track enclosing a triangle, the support bracket with the placement spur being placeable on a support rod, the support bracket being fixable to the support rod, the angles (α, β, γ) enclosed by the triangle being modifiable, characterized by a retaining fork with a fork-shaped end and an angled end (10"), the angled end (10") being mountable to the bracket scaffold element and the fork-shaped end being mountable to a reinforcement. • a support bracket with a placement spur, • a bearing bracket, • a profile track,
The use of aqueous heat carrier media which comprise 10 to 70% by weight of water-miscible alcohols, diols, polyols or mixtures thereof and simultaneously have a pH of at least 8, and which are in contact with magnetocaloric materials, as an anticorrosive for prevention of corrosion of the magnetocaloric materials.
An oral dosage form comprising: 1) an amorphous solid dispersion of a compound of formula: or a pharmaceutically acceptable salt thereof, in a hydrophilic polymer; and 2) a pharmaceutically acceptable carrier or excipient; and wherein the dispersion consists of from 15% to 25% by weight of the compound of formula and from 75% to 85% by weight of hydrophilic polymer; and wherein the dosage form comprises from 33% to 67% percent by weight of the dispersion; and wherein the dosage form comprises 24% by weight of microcrystalline cellulose.
A shin guard construction comprising: a shin guard having a bottom end and an opposite top end and having opposite right and left sides extending between the bottom end and the top end, the shin guard having a front surface and a back surface; a strap of flexible material having a top edge and an opposite bottom edge and having opposite left and right ends extending between the top edge and the bottom edge; one of the right end or the left end of the strap having a first fastener fastenable to the strap, the other of the right end or the left end having a second fastener fastenable to the shin guard; and the strap, when affixed to the shin guard by both the first fastener and the second fastener, extends in an upward orientation from at least one of the first fastener or the second fastener, wherein the upward orientation is measured from a horizontal plane passing perpendicularly through the front surface and the rear surface of the shin guard; wherein one of the right end or the left end of the strap is wider than the other of the right end or the left end of the strap, wherein the width is measured between the top edge and the bottom edge of the strap proximate the respective ends.
An indwelling catheter comprising: a hollow catheter base having a tip and a back end, the back end being able to receive and connect a male connector configured to be inserted from a back end side exterior; a tube provided at the tip of the catheter base; a flexible hemostasis valve installed inside the catheter base; a pusher installed at a back of the hemostasis valve; and a pusher guide installed between the pusher and an inner wall of the catheter base, wherein the pusher has a hollow constitution, and the pusher has a taper that reduces in diameter facing a tip of the pusher and that is provided to an outer circumference surface of the pusher, the pusher guide has a constitution which is able to restrict a position of the pusher with the pusher at a first position for which the pusher does not push open the hemostasis valve, and a second position for which the taper of the pusher is positioned inside the hemostasis valve and does push open the hemostasis valve, within the catheter base, no coil spring is provided so as to move the pusher back to the first position, and the hemostatic valve is compressed inward in a radial direction by the catheter base, characterized in that the pusher guide is made of a hard material and is a separate component from the flexible hemostasis valve. a hollow catheter base having a tip and a back end, the back end being able to receive and connect a male connector configured to be inserted from a back end side exterior; a tube provided at the tip of the catheter base; a flexible hemostasis valve installed inside the catheter base; a pusher installed at a back of the hemostasis valve; and a pusher guide installed between the pusher and an inner wall of the catheter base, wherein the pusher has a hollow constitution, and the pusher has a taper that reduces in diameter facing a tip of the pusher and that is provided to an outer circumference surface of the pusher, the pusher guide has a constitution which is able to restrict a position of the pusher with the pusher at a first position for which the pusher does not push open the hemostasis valve, and a second position for which the taper of the pusher is positioned inside the hemostasis valve and does push open the hemostasis valve, within the catheter base, no coil spring is provided so as to move the pusher back to the first position, and the hemostatic valve is compressed inward in a radial direction by the catheter base, characterized in that the pusher guide is made of a hard material and is a separate component from the flexible hemostasis valve.
Device for detecting a cardiac and/or respiratory disease of a subject, comprising: - a sound input configured to obtain a sound signal representing sounds generated by the subject's body; - a motion input configured to obtain a motion signal representing motions generated by the subject's body; and - a processor configured to process the obtained sound signal and motion signal by - identifying inhalation and/or exhalation periods of the subject based on the motion signal, - detecting abnormal lung sounds during inhalation and/or exhalation periods based on the sound signal, - determining abnormal lung sound characteristics of the detected abnormal lung sounds, - determining breathing characteristics of the subject's breathing based on the sound signal, characterised in that the processor is further configured to: determine the phase of the abnormal lung sounds in the inhalation-exhalation cycle,, said inhalation-exhalation cycle being determined from the identified inhalation and exhalation periods, the phase being the location and timing of the abnormal lung sounds in the inhalation-exhalation cycle, and detect a cardiac and/or respiratory disease of the subject based on the determined abnormal lung sound characteristics, the determined breathing characteristics and the determined phase of the abnormal lung sounds in the inhalation-exhalation cycle. - a sound input configured to obtain a sound signal representing sounds generated by the subject's body; - a motion input configured to obtain a motion signal representing motions generated by the subject's body; and - a processor configured to process the obtained sound signal and motion signal by - identifying inhalation and/or exhalation periods of the subject based on the motion signal, - detecting abnormal lung sounds during inhalation and/or exhalation periods based on the sound signal, - determining abnormal lung sound characteristics of the detected abnormal lung sounds, - determining breathing characteristics of the subject's breathing based on the sound signal, - identifying inhalation and/or exhalation periods of the subject based on the motion signal, - detecting abnormal lung sounds during inhalation and/or exhalation periods based on the sound signal, - determining abnormal lung sound characteristics of the detected abnormal lung sounds, - determining breathing characteristics of the subject's breathing based on the sound signal, determine the phase of the abnormal lung sounds in the inhalation-exhalation cycle,, said inhalation-exhalation cycle being determined from the identified inhalation and exhalation periods, the phase being the location and timing of the abnormal lung sounds in the inhalation-exhalation cycle, and detect a cardiac and/or respiratory disease of the subject based on the determined abnormal lung sound characteristics, the determined breathing characteristics and the determined phase of the abnormal lung sounds in the inhalation-exhalation cycle.
Underlayment, comprising a layered structure, wherein one of the layers is a first, flexible foamed PVC layer, and comprising a first outer layer wherein said first outer layer is a layer of adhesive, wherein a textile reinforcing layer is located between the first PVC layer and the layer of adhesive, characterized in that a protective film is provided on the adhesive, and that the textile reinforcing layer comprises a textile product that is embedded wholly or partly in the first PVC layer.
Mouth guard, of the type comprising an outer plate intended to be positioned on the face for covering the user's lips, and prolonged by its rear middle area in a horizontally flattened intermediate extension of arched plan, intended to be positioned between the upper and lower jaw teeth; said intermediate extension extending at its rear zone to an inner thickening destined to be positioned inside the user's mouth, behind the teeth; characterized in that the inner thickening of the mouth guard (1a, 1b) has a curved plate-like configuration of uniform thickness, with a concavity facing the rear or inner side of the mouth, vertically oriented and centred relative to the intermediate extension and with a length shorter than said intermediate extension, said internal thickening having an outline of generally oval configuration and having a rounded recess at its lower end, which is centrally arranged in the area coinciding with the frenulum of the tongue, and in that said intermediate extension laterally extends beyond the ends of the oval outline of the inner thickening defining an arched surface intended to be arranged between the user's teeth, premolars and molars.
A separation system for separating drops from a flue gas flow for installation in a gas scrubber of power plants or incineration plants, having a front coarse separator (6, 8) in the gas flow direction, and having a rear final separator in the gas flow direction, wherein at least one fine separator (1, 1') is arranged between the coarse separator (6, 8) and the final separator in the gas flow direction, wherein the fine separator is a plate separator, which comprises plate packets which are flat, roof-shaped, V-shaped, angled with respect to the gas flow direction and/or vertical, wherein at least one washing device (2, 2', 2", 2"'), with which the coarse and also the fine separator or separators can be cleaned during operation of the gas scrubber, is provided, characterized in that the final separator is designed such that it has a lower separation performance in comparison with the preceding separator (8, 1, 1') in the gas flow direction and is designed as a tube separator, wherein the final separator is the last separator stage.
A computer-implemented method for estimating a shape of a tire vulcanization-molded by a molding surface of a mold, comprising the steps of defining a raw tire model of a raw tire before put in the mold, wherein the raw tire model is made up of a finite number of elements, defining a primary mold model of the mold having the molding surface (46s, 51 s) before tire vulcanization, wherein the primary mold model is made up of a finite number of elements, performing a deformation calculation of the primary mold model based on conditions for tire vulcanization to obtain a shape of the molding surface (46s, 51 s) during tire vulcanization, defining a secondary mold model having the obtained shape of the molding surface (46s, 51s), deforming the raw tire model such that the outer surface of the raw tire model fits to the molding surface (51 s) of the secondary mold model to obtain a tire model during tire vulcanization, calculating the shape of the tire model by shrinking the tire model having the shape during tire vulcanization, based on predetermined shrink conditions. defining a raw tire model of a raw tire before put in the mold, wherein the raw tire model is made up of a finite number of elements, defining a primary mold model of the mold having the molding surface (46s, 51 s) before tire vulcanization, wherein the primary mold model is made up of a finite number of elements, performing a deformation calculation of the primary mold model based on conditions for tire vulcanization to obtain a shape of the molding surface (46s, 51 s) during tire vulcanization, defining a secondary mold model having the obtained shape of the molding surface (46s, 51s), deforming the raw tire model such that the outer surface of the raw tire model fits to the molding surface (51 s) of the secondary mold model to obtain a tire model during tire vulcanization, calculating the shape of the tire model by shrinking the tire model having the shape during tire vulcanization, based on predetermined shrink conditions.
A method of determining at least one of the dimensions, location and form deviation of a surface feature, the method comprising the steps of: (a) creating a digitized image of a surface feature from multiple data points acquired from surface measurement of the feature; (b) fitting the digitized image to a nominal image of the surface feature wherein a different section of the digitized image is fitted to the nominal image in turn; and (c) determining the deviation of the digitized image from the nominal image to thereby determine at least one of the dimensions, location and form deviation of the surface feature. (a) creating a digitized image of a surface feature from multiple data points acquired from surface measurement of the feature; (b) fitting the digitized image to a nominal image of the surface feature wherein a different section of the digitized image is fitted to the nominal image in turn; and (c) determining the deviation of the digitized image from the nominal image to thereby determine at least one of the dimensions, location and form deviation of the surface feature.