mhurhangee/ep-ind-claims huggingface dataset:
A sporting implement comprising a shaft having a first end and a second end, the first end comprising a first 3D woven material (810A, 810B, 810C, 810D), the second end comprising a second 3D woven material (811A, 811B, 811C, 811D); the first 3D woven material comprising a first layer and a second layer, the first layer and the second layer comprising a first plurality of tapes (102, 202, 302,402, 502, 602, 702) extending in the X direction and a second plurality of tapes (104, 204, 304, 404, 504, 604, 704, 804A) extending in the Y direction and a third plurality of tapes (106, 206, 306,406, 506, 606, 706, 806A) extending in the Z direction interconnecting the first layer and the second layer; wherein the plurality of second tapes is greater than the plurality of first tapes in the first 3D woven material; and the second 3D woven material comprising a first layer and a second layer, the first layer and the second layer comprising a first plurality of tapes (102, 202, 302,402, 502, 602, 702) extending in the X direction and a second plurality of tapes (104, 204, 304, 404, 504, 604, 704, 804B) extending in the Y direction and a third plurality of tapes (106, 206, 306,406, 506, 606, 706, 806B) extending in the Z direction interconnecting the first layer and the second layer; wherein the number of third tapes extending in the Z direction in the first 3D woven material is less than the number of third tapes extending in the Z direction in the second 3D woven material.
A panoramic image preparing method comprising a step of setting a measurement area from a laser scanner installed at a known point so as to include an object (72, 73, 74) to be measured, a step of equally dividing said measurement area in a perpendicular direction and in a horizontal direction into multiple sections which are smaller than a photographing range of an image pickup device in case when the measurement area is wider than a field angle that can be photographed at once by an image pick up unit of said laser scanner, characterized in that the method comprises a step of obtaining a horizontal angle and elevation angle of a center position of each of said sections, a step of photographing by contrasts in three stages set for each of said sections, a step of synthesizing partial images photographed for each of said sections based on the horizontal angle and the elevation angle of each partial image and by matching overlapped portions and of preparing three panoramic images of a total region of said measurement area, which have different contrasts, a step of setting a panoramic image photographed with a predetermined contrast out of said three panoramic images as a reference panoramic image, a step of selecting a panoramic image, in which an object to be measured has an optimal contrast for each of said object to be measured, and of cutting a region including said object to be measured out of said panoramic image, and a step of attaching a cut-out region to said reference panoramic image and re-synthesizing said panoramic image. characterized in that the method comprises a step of obtaining a horizontal angle and elevation angle of a center position of each of said sections, a step of photographing by contrasts in three stages set for each of said sections, a step of synthesizing partial images photographed for each of said sections based on the horizontal angle and the elevation angle of each partial image and by matching overlapped portions and of preparing three panoramic images of a total region of said measurement area, which have different contrasts, a step of setting a panoramic image photographed with a predetermined contrast out of said three panoramic images as a reference panoramic image, a step of selecting a panoramic image, in which an object to be measured has an optimal contrast for each of said object to be measured, and of cutting a region including said object to be measured out of said panoramic image, and a step of attaching a cut-out region to said reference panoramic image and re-synthesizing said panoramic image.
Earthwork device, in particular for forming a blind hole in the ground, comprising a pipe intended for the operation of a drilling device and formed by a number of interconnected pipe sections, wherein the pipe sections comprise an outer pipe and an inner pipe, arranged in the outer pipe and securely connected to the outer pipe, and, between the outer pipe and the inner pipe of the pipe sections, at least one duct is provided, extending continuously along the pipe, characterized in that, at at least one end face of the pipe sections, the duct increases in the circumferential direction. wherein the pipe sections comprise an outer pipe and an inner pipe, arranged in the outer pipe and securely connected to the outer pipe, and, between the outer pipe and the inner pipe of the pipe sections, at least one duct is provided, extending continuously along the pipe, characterized in that, at at least one end face of the pipe sections, the duct increases in the circumferential direction.
A processor for computing at least one convolution layer of a spiking convolutional neural network, in response to an input event, the convolutional neural network comprising at least one convolution kernel comprising weight coefficients and represented by a convolution matrix in a coordinate system of given dimensions, each convolution layer comprising at least one output map comprising a set of output neurons that are connected to input neurons of at least one portion of an input map of the neural network, characterized in that it comprises at least one convolution module configured to compute said at least one convolution layer, each convolution module comprising a set of elementary processing units for computing the internal value of the convolution layer neurons that are triggered by said input event, and at least one neuron value memory for storing the computed internal values of the neurons, the input event being defined by an input address in said coordinate system, said input address comprising the coordinates of the input event on the input map, each elementary processing unit being associated with coordinates corresponding to the coordinates of the weight coefficient associated with said convolution matrix in said coordinate system, each convolution module being configured to map the weight coefficients of the kernel with at least some of the elementary processing units of the module in parallel, and in that each convolution module is configured to compute, for each input event and for each elementary processing unit, one or more storage addresses for the internal values of the neurones computed on the basis of the input event and of at least one parameter of the convolution layer to be processed, each elementary processing unit being able to select a storage address from said computed storage addresses for storing the internal values of the neurons computed by said processing unit in a neuron value memory as a function of the coordinates of said processing unit in said coordinate system.
Near-infrared absorbing particles comprising: a cesium tungstate, wherein the cesium tungstate has a pseudo hexagonal crystal structure modulated to one or more crystal structures selected from orthorhombic crystal, rhombohedral crystal, and cubic crystal, and the cesium tungstate is represented by a general formula Cs x W y O z, and has a composition within a region surrounded by four straight lines of x = 0.6y, z = 2.5y, y = 5x, and Cs 2 O: WO 3 = m: n (m and n are integers) in a ternary composition diagram with Cs, W, and O at each vertex. a cesium tungstate, wherein the cesium tungstate has a pseudo hexagonal crystal structure modulated to one or more crystal structures selected from orthorhombic crystal, rhombohedral crystal, and cubic crystal, and the cesium tungstate is represented by a general formula Cs x W y O z, and has a composition within a region surrounded by four straight lines of x = 0.6y, z = 2.5y, y = 5x, and Cs 2 O: WO 3 = m: n (m and n are integers) in a ternary composition diagram with Cs, W, and O at each vertex.
A process for producing a porous carbon material composite comprising the following steps: providing a plant-derived material having a silicon content of 5 wt% or higher; carbonizing the plant-derived material at from 800°C to 1,400°C; treating the carbonized material with an acid or alkali to remove silicon components and to obtain a porous carbon material having a silicon content of 1 wt% or lower, the porous carbon material has (i) a specific surface area of 10 m 2 /g or greater as determined by the nitrogen BET method (ii) mesopores having a pore size in the range of 2 to 50 nm and micropores having a pore size smaller than 2 nm and (iii) a pore volume of 0.1 cm 3 /g or greater as determined by the BJH method and MP method, and then causing a functional material to adhere on the porous carbon material, wherein the plant-derived material is any or or any combination of grain husks, straws of rice, barley, wheat, rye, barnyardgrass, foxtail millet, reeds, seaweed, seaweed stems, vascular plants, ferns, mosses which grow on land, or algae, and the functional material is a magnetic material, a photocatalytic material, a noble metal, a noble metal alloy, an oxide semiconductor, or a compound semiconductor, further comprising applying activation treatment after the treatment with the acid or alkali but before the adhesion of the functional material on the porous carbon material, in order to increase micropores. providing a plant-derived material having a silicon content of 5 wt% or higher; carbonizing the plant-derived material at from 800°C to 1,400°C; treating the carbonized material with an acid or alkali to remove silicon components and to obtain a porous carbon material having a silicon content of 1 wt% or lower, the porous carbon material has (i) a specific surface area of 10 m 2 /g or greater as determined by the nitrogen BET method (ii) mesopores having a pore size in the range of 2 to 50 nm and micropores having a pore size smaller than 2 nm and (iii) a pore volume of 0.1 cm 3 /g or greater as determined by the BJH method and MP method, and then causing a functional material to adhere on the porous carbon material, wherein the plant-derived material is any or or any combination of grain husks, straws of rice, barley, wheat, rye, barnyardgrass, foxtail millet, reeds, seaweed, seaweed stems, vascular plants, ferns, mosses which grow on land, or algae, and the functional material is a magnetic material, a photocatalytic material, a noble metal, a noble metal alloy, an oxide semiconductor, or a compound semiconductor, further comprising applying activation treatment after the treatment with the acid or alkali but before the adhesion of the functional material on the porous carbon material, in order to increase micropores.
Use of an aqueous preparation for the coating of wood surfaces, characterized in that the aqueous preparation comprises: - a hydroxyl-functional polyurethane-polyacrylate dispersion, - a polyurethane dispersion, - an at least partially hydrophilicized polyisocyanate and - ≥ 0 weight-% to ≤ 10 weight-% of a matting agent, wherein the combined hydroxyl content of the hydroxyl-functional polyurethane-polyacrylate dispersion and the polyurethane dispersion is ≥ 1 weight-% to ≤ 12 weight-% relative to the dry polyurethane-polyacrylate and the polyurethane polymers. - a hydroxyl-functional polyurethane-polyacrylate dispersion, - a polyurethane dispersion, - an at least partially hydrophilicized polyisocyanate and - ≥ 0 weight-% to ≤ 10 weight-% of a matting agent,
Process for separating hydrocarbons in a plant for producing hydrocarbons from a hydrocarbonaceous input by means of cracking, • wherein the product gas from the cracking which comprises gaseous hydrocarbons and is formed as cracked gas is compressed and dried (5a, 5b), • and is conducted as a feedstock into a separation stage (hereinafter: front end C3/C4 separation), • in which the cracked gas is separated into a hydrocarbon fraction composed of hydrocarbons having not more than 3 carbon atoms and a hydrocarbon fraction composed of hydrocarbons having at least 4 carbon atoms, • wherein the front end C3/C4 separation, in terms of process technology, has a C4 absorber and a depropanizer, • wherein a hydrocarbon fraction composed of hydrocarbons having not more than 3 carbon atoms is obtained as a gaseous top product from the C4 absorber, • and wherein a liquid hydrocarbon fraction composed of hydrocarbons having at least 4 carbon atoms is obtained as a bottom product of the depropanizer, characterized in that • the front end C3/C4 separation comprises a further process stage of a C2/C4 separation stage, • wherein the C2/C4 separation stage is arranged between C4 absorber and depropanizer. • wherein the product gas from the cracking which comprises gaseous hydrocarbons and is formed as cracked gas is compressed and dried (5a, 5b), • and is conducted as a feedstock into a separation stage (hereinafter: front end C3/C4 separation), • in which the cracked gas is separated into a hydrocarbon fraction composed of hydrocarbons having not more than 3 carbon atoms and a hydrocarbon fraction composed of hydrocarbons having at least 4 carbon atoms, • wherein the front end C3/C4 separation, in terms of process technology, has a C4 absorber and a depropanizer, • wherein a hydrocarbon fraction composed of hydrocarbons having not more than 3 carbon atoms is obtained as a gaseous top product from the C4 absorber, • and wherein a liquid hydrocarbon fraction composed of hydrocarbons having at least 4 carbon atoms is obtained as a bottom product of the depropanizer, characterized in that • the front end C3/C4 separation comprises a further process stage of a C2/C4 separation stage, • wherein the C2/C4 separation stage is arranged between C4 absorber and depropanizer.
A process for the synthesis of a compound of formula comprising the steps of a) Converting a compound of formula into a compound of formula by reacting a compound of formula with a compound of formula in the presence of a coupling reagent and b) Treating the compound of formula with a borane reagent, followed by acid hydrolysis; wherein R and R 1 are independently selected from H, (CH 2) n OCH 3, (CH 2 CH 2 O) n H, (CH 2 CH 2 O) n CH 3, (CH 2) n NH P, (CH 2) n N(CH 3) 2, (CH 2) n NHCONH 2, (CH 2) n NHSO 2 CH 3, (CH 2) n SO 2 NH 2, optionally substituted C 1-8 alkyl, optionally substituted C 3-15 cycloalkyl and optionally substituted C 3-15 heterocycloalkyl; P is a protective group; m is an integer of from 1 to 3; and n is an integer of from 1 to 12. a) Converting a compound of formula into a compound of formula by reacting a compound of formula with a compound of formula in the presence of a coupling reagent and b) Treating the compound of formula with a borane reagent, followed by acid hydrolysis; wherein R and R 1 are independently selected from H, (CH 2) n OCH 3, (CH 2 CH 2 O) n H, (CH 2 CH 2 O) n CH 3, (CH 2) n NH P, (CH 2) n N(CH 3) 2, (CH 2) n NHCONH 2, (CH 2) n NHSO 2 CH 3, (CH 2) n SO 2 NH 2, optionally substituted C 1-8 alkyl, optionally substituted C 3-15 cycloalkyl and optionally substituted C 3-15 heterocycloalkyl; P is a protective group; m is an integer of from 1 to 3; and n is an integer of from 1 to 12. wherein R and R 1 are independently selected from H, (CH 2) n OCH 3, (CH 2 CH 2 O) n H, (CH 2 CH 2 O) n CH 3, (CH 2) n NH P, (CH 2) n N(CH 3) 2, (CH 2) n NHCONH 2, (CH 2) n NHSO 2 CH 3, (CH 2) n SO 2 NH 2, optionally substituted C 1-8 alkyl, optionally substituted C 3-15 cycloalkyl and optionally substituted C 3-15 heterocycloalkyl; P is a protective group; m is an integer of from 1 to 3; and n is an integer of from 1 to 12.
An inverter and protecting apparatus arrangement comprising a grid-connected inverter and an apparatus for protecting the grid-connected inverter from a low grid voltage, the apparatus comprising: an output current sensor configured to sense an output current of the grid-connected inverter; an output current calculator configured to calculate an output current based on a D-axis current and a Q-axis current of the sensed output current; and an output current controller configured to determine whether a difference between the calculated output current and a reference value exceeds a predetermined range, and to decrease the sensed output current to below the reference value when the difference between the calculated output current and the reference value exceeds the predetermined range, wherein the reference value is a value of the sensed output current when a grid voltage is normal and wherein the predetermined range is a range limit from the reference value, in which the sensed output current does not cause breakdown of the grid-connected inverter. an output current sensor configured to sense an output current of the grid-connected inverter; an output current calculator configured to calculate an output current based on a D-axis current and a Q-axis current of the sensed output current; and an output current controller configured to determine whether a difference between the calculated output current and a reference value exceeds a predetermined range, and to decrease the sensed output current to below the reference value when the difference between the calculated output current and the reference value exceeds the predetermined range, wherein the reference value is a value of the sensed output current when a grid voltage is normal and wherein the predetermined range is a range limit from the reference value, in which the sensed output current does not cause breakdown of the grid-connected inverter.
A device for generating electrohydraulic shockwaves, comprising a reflector with a focus zone, a first electrode and a second electrode, wherein the first electrode comprises a first metallic electrode shaft with a first electrode tip at an end of the first electrode shaft, and the second electrode comprises a second metallic electrode shaft with a second electrode tip at an end of the second electrode shaft, wherein the first electrode tip of the first metallic electrode shaft and the second electrode tip of the second metallic electrode shaft are spaced apart in the vicinity of the focus zone, and wherein both, a part of the first electrode shaft facing towards the first electrode tip and a part of the second electrode shaft facing towards the second electrode tip is straight or bent characterized in that the part of the first electrode shaft facing towards the first electrode tip and the part of the second electrode shaft facing towards the second electrode tip are arranged at an angle between 20° and 140°.
A system for delivering a therapeutic agent to a nasopharyngeal mucosa target, said system comprising: a foam generating mechanism; a gas; a therapeutic agent in a liquid form, the therapeutic agent comprising a toxin that inhibits production of mucus, wherein actuation of the foam generating mechanism entraps gaseous bubbles from the gas in the therapeutic agent thereby forming a foam, wherein the therapeutic agent is dispersed in the foam, the foam having an expanded configuration adapted to fill a nasopharyngeal space and deliver the therapeutic agent to the mucosa target; and a delivery device for delivering the foam to the nasopharyngeal space, wherein the delivery device comprises an elongate shaft coupled to the foam generating mechanism, the elongate shaft sized to fit into the nasopharyngeal space and configured to deliver the foam to the mucosa target. a foam generating mechanism; a gas; a therapeutic agent in a liquid form, the therapeutic agent comprising a toxin that inhibits production of mucus, wherein actuation of the foam generating mechanism entraps gaseous bubbles from the gas in the therapeutic agent thereby forming a foam, wherein the therapeutic agent is dispersed in the foam, the foam having an expanded configuration adapted to fill a nasopharyngeal space and deliver the therapeutic agent to the mucosa target; and a delivery device for delivering the foam to the nasopharyngeal space, wherein the delivery device comprises an elongate shaft coupled to the foam generating mechanism, the elongate shaft sized to fit into the nasopharyngeal space and configured to deliver the foam to the mucosa target.
A method for determining an issue in an inkjet nozzle of a print head with impedance measurements by using an impedance sensor located within an ink chamber of an appropriate nozzle and positioned next to a drive bubble formation mechanism positioned over the nozzle, the print head having a number of nozzles, each nozzle being in electrical communication with a processor that instructs the nozzles to fire at specific times by activating the drive bubble formation mechanism within the ink chamber associated with one nozzle, the drive bubble formation mechanism creating a drive bubble within the ink chamber to expel a droplet out of the inkjet nozzle, the method comprising: taking a first impedance measurement to detect a presence of the drive bubble in the ink chamber with the impedance sensor positioned in the ink chamber; and taking a second impedance measurement to detect the drive bubble with the impedance sensor after the first impedance measurement. taking a first impedance measurement to detect a presence of the drive bubble in the ink chamber with the impedance sensor positioned in the ink chamber; and taking a second impedance measurement to detect the drive bubble with the impedance sensor after the first impedance measurement.
A street light fixture that, when in use, illuminates a street or road, said street or road having an axis, said street light fixture comprising a plurality of light sources of at least two types, each type being characterized by a Scotopic/Photopic (S/P) ratio, the light sources being arranged within the light fixture so that the light fixture when in use emits a light bundle that is elongate with respect to the axis of the street or road being illuminated, wherein light in the bundle has a S/P ratio in function of a position within the bundle along the axis of the street or road being illuminated, and wherein, depending on the viewing angle, an edge of the street light fixture partially obscures at least one of the plurality of light sources to create a light bundle with varying S/P ratio in a direction generally parallel to the axis of the street or road being illuminated, wherein the S/P ratio increases going from a central area of the bundle to peripheral areas (3, 4) of the bundle.
A process for the treatment of a composition comprising yeast cell walls comprising β-glucans which are insoluble when extracted with water and <15% of the total β-glucans present in the yeast cell wall is soluble when extracted with DMSO, the process comprising contacting said composition with laminaripentaose-producing-β-1,3-glucanase and inactivating the laminaripentaose-producing-β-1,3-glucanase to result in a composition comprising yeast cell walls wherein the β-glucans have an improved solubility in DMSO and the ratio of β-glucans soluble in DMSO compared to water is greater than or equal to 2.