mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a full-body marble-patterned glass mosaic, wherein it comprises the following: S101: mixing cullet with an additive, ball-milling and sieving to obtain a mixture, the cullet has a particle size of 106 μm - 840 μm (20-150 mesh); S102: subjecting the mixture to spray granulation, and sieving to obtain a base body powder; S103: mixing a high-temperature colorant and a low-temperature flux to obtain a colorant mixture in powder form; an amount of the high-temperature colorant is 0.1 - 20 wt% of an amount of the cullet, an amount of the low-temperature flux is 80 - 100 wt% of the amount of the cullet; the low-temperature flux is a glass powder with an expansion coefficient of ×10 -7 /°C and a particle size of >840 μm (>20 mesh); S104: distributing the base body powder and the colorant mixture into multiple layers of a powder mixture via a distributor; S105: press-molding the powder mixture in a mold to obtain a molded body; S106: firing the molded body to obtain a full-body dry-pressed semi-finished product; and S107: polishing the full-body dry-pressed semi-finished product to obtain the full-body marble-patterned glass mosaic. S101: mixing cullet with an additive, ball-milling and sieving to obtain a mixture, the cullet has a particle size of 106 μm - 840 μm (20-150 mesh); S102: subjecting the mixture to spray granulation, and sieving to obtain a base body powder; S103: mixing a high-temperature colorant and a low-temperature flux to obtain a colorant mixture in powder form; an amount of the high-temperature colorant is 0.1 - 20 wt% of an amount of the cullet, an amount of the low-temperature flux is 80 - 100 wt% of the amount of the cullet; the low-temperature flux is a glass powder with an expansion coefficient of ×10 -7 /°C and a particle size of >840 μm (>20 mesh); S104: distributing the base body powder and the colorant mixture into multiple layers of a powder mixture via a distributor; S105: press-molding the powder mixture in a mold to obtain a molded body; S106: firing the molded body to obtain a full-body dry-pressed semi-finished product; and S107: polishing the full-body dry-pressed semi-finished product to obtain the full-body marble-patterned glass mosaic.
An optical device, comprising a crossover component comprising a first 2x2 splitter, the first 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a non-quadrature component comprises a second 2x2 splitter, the second 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a first optical waveguide having a first optical path length, a first end that is optically coupled to the first output port or first input port of the crossover component, and a second end that is optically coupled to the first input port or first output port of the non-quadrature component; and a second optical waveguide having a second optical path length that is different from the first optical path length, a first end that is optically coupled to the second output port or second input port of the crossover component, and a second end that is optically coupled to the second input port or the second output port of the non-quadrature component; and wherein the optical device is a primary four-port optical mixer capable of distributing optical power presented at either or both of two input ports (101, 102) to a given ratio in two output ports (103, 104), and wherein one of the crossover component and the non-quadrature component comprises a first component (A 1) having a splitting ratio that is less than 1dB through a first continuous range of wavelengths that includes a wavelength λ 0 and the other comprises a second component (A 2) having a splitting ratio of dB-magnitude greater than 16-dB at said wavelength λ 0. a crossover component comprising a first 2x2 splitter, the first 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a non-quadrature component comprises a second 2x2 splitter, the second 2x2 splitter comprising a first input port, a second input port, a first output port, and a second output port; a first optical waveguide having a first optical path length, a first end that is optically coupled to the first output port or first input port of the crossover component, and a second end that is optically coupled to the first input port or first output port of the non-quadrature component; and a second optical waveguide having a second optical path length that is different from the first optical path length, a first end that is optically coupled to the second output port or second input port of the crossover component, and a second end that is optically coupled to the second input port or the second output port of the non-quadrature component; and
A heterodimeric, conditionally active chimeric antigen receptor comprising: a first polypeptide comprising an antigen-binding domain that comprises a single chain antibody variable region that specifically binds to mesothelin, a first member of the dimerization pair, and a first transmembrane domain; and a second polypeptide comprising a second member of a dimerization pair, a second transmembrane domain, and an intracellular signaling domain; wherein a dimerizing agent dimerizes the heterodimeric CAR when the first and second polypeptides are expressed by a cell with the dimerizing agent bound between the dimerization pair members of the first and second polypeptides. a first polypeptide comprising an antigen-binding domain that comprises a single chain antibody variable region that specifically binds to mesothelin, a first member of the dimerization pair, and a first transmembrane domain; and a second polypeptide comprising a second member of a dimerization pair, a second transmembrane domain, and an intracellular signaling domain;
A louvre unit comprising a plurality of louvre cells for beam shaping light from a lighting unit, wherein the plurality of louvre cells comprises a plurality of n subsets each comprising a respective plurality of m louvre cells, wherein the louvre cells of each subset are configured as domain of adjoining louvre cells, wherein a respective plurality of k louvre cells within each domain have mutually differing louvre cell cross-sections, wherein 3≤n≤100000, wherein 5≤m≤21, and wherein 5≤k≤m, wherein the louvre cells are formed as polygons bounded by a number Ne of louvre walls closing in a loop, wherein for each louvre cell the number Ne is in the range of 3≤Ne≤10, characterized in that the plurality of louvre cells within the same domain only have C1 symmetry relative to the central point in said domain and each domain comprises at least three polygons of incongruent shape, and wherein each louvre cell has a respective equivalent cross section, the mutual ratio between equivalent cross-sections of louvre cells is in the range of 1: 2.5.
A system for determining a soiling state of a wind turbine rotor blade, the system comprising a pressure sensor adapted to measure a plurality of pressure values corresponding to a plurality of different heights above a trailing edge region of the wind turbine rotor blade, and a processing unit in communication with the pressure sensor and adapted to determine the soiling state of the wind turbine rotor blade by estimating an air flow velocity distribution above the trailing edge region of the wind turbine rotor blade based on the plurality of pressure values, characterised in that the pressure sensor comprises an air intake unit adapted to be positioned at the trailing edge region of the wind turbine rotor blade and having a plurality of inlet ports, a measurement unit having a plurality of sensor devices, and a guiding unit adapted to provide individual fluid communication channels between each inlet port and a corresponding sensor device, wherein the sensor devices are adapted to generate an electrical signal indicative of the stagnation pressure at the corresponding inlet port, and wherein the measurement unit is adapted to be mounted within a rotor hub of the wind turbine.
A method for applying an edge banding element to an edge portion (105, 205) of a lightweight panel (100, 200) provided with a first outer layer (101, 201), with a second outer layer (102, 202) and with an intermediate layer (103, 203), wherein, after cutting the panel to size, the intermediate layer (103, 203), at the edge portion (105, 205), has a plurality of cavities (106, 206) delimited by lamellar elements (107, 207) that extend between the first layer and the second layer and having a front edge (107', 207'), substantially aligned with the edge (105, 205) of the panel, wherein the method comprises at least the steps consisting of: - depositing in at least one of said cavities (106, 206) an adhesive material in the form of a bead, where said bead is positioned against at least one face of said lamellar element (107, 207) and at least partially fills said cavities (106, 206); - feeding and guiding an edge banding element toward the edge portion (105, 205) of the panel (100, 200), and subsequently; - abutting said edge banding element with the edge portion (105, 205) of the panel so that an inner face (B') of the edge banding element contacts the bead of adhesive material; characterized in that the panel is cut to size by means of a simple cut so that, after cutting, the front edges of the lamellar elements lie on the plane tangent to the front edges (101', 102') respectively of the first and of the second outer layer (101, 102). - depositing in at least one of said cavities (106, 206) an adhesive material in the form of a bead, where said bead is positioned against at least one face of said lamellar element (107, 207) and at least partially fills said cavities (106, 206); - feeding and guiding an edge banding element toward the edge portion (105, 205) of the panel (100, 200), and subsequently; - abutting said edge banding element with the edge portion (105, 205) of the panel so that an inner face (B') of the edge banding element contacts the bead of adhesive material;
A computer implemented method comprising: retrieving resolution matching data that includes a destination resolution as image size scaling data and an aspect ratio associated with a display device and user variables, the user variables including a clip percentage value, and a stretch percentage value; retrieving image source content to be processed, in part, using the resolution matching data; upscaling the image source content using resolution synthesis to create enhanced content, the upscaling to terminate when a threshold matching percentage value of the image size scaling data is met; and right sizing (702; 903, 904) the enhanced content to generate optimized image source content for display on the display device using the image size scaling data and aspect ratio from the resolution matching data, wherein right sizing (702; 903; 904) comprises applying a scaling filter to set the enhanced content to the aspect ratio retrieved from the resolution matching data and to apply the user variables to the enhanced content, and wherein applying the user variables to the enhanced content comprises: applying the clip percentage value to the enhanced content, the enhanced content to be truncated by no more than the clip percentage value and applying the stretch percentage value to the enhanced content, the enhanced content to be stretched by no more than the stretch percentage value. retrieving resolution matching data that includes a destination resolution as image size scaling data and an aspect ratio associated with a display device and user variables, the user variables including a clip percentage value, and a stretch percentage value; retrieving image source content to be processed, in part, using the resolution matching data; upscaling the image source content using resolution synthesis to create enhanced content, the upscaling to terminate when a threshold matching percentage value of the image size scaling data is met; and right sizing (702; 903, 904) the enhanced content to generate optimized image source content for display on the display device using the image size scaling data and aspect ratio from the resolution matching data, applying the clip percentage value to the enhanced content, the enhanced content to be truncated by no more than the clip percentage value and applying the stretch percentage value to the enhanced content, the enhanced content to be stretched by no more than the stretch percentage value.
A method of transmitting a user equipment, UE, specific reference signal, URS, by a first base station, BS, in a wireless communication system, the method comprising: receiving, from a second BS being adjacent to the first BS, information about a second resource on which the second BS transmits a second URS; determining a first resource for a first URS of the first BS based on the received information and a number of antenna ports used by the first BS; and transmitting the first URS on the determined first resource, wherein the determining is such that: if the number of antenna ports is equal to or larger than a preset number, the first resource is identical to the second resource; if the number of antenna ports is smaller than the preset number, the first resource is different from the second resource, and a data transmission by the first BS on the second resource is prevented. receiving, from a second BS being adjacent to the first BS, information about a second resource on which the second BS transmits a second URS; determining a first resource for a first URS of the first BS based on the received information and a number of antenna ports used by the first BS; and transmitting the first URS on the determined first resource, wherein the determining is such that: if the number of antenna ports is equal to or larger than a preset number, the first resource is identical to the second resource; if the number of antenna ports is smaller than the preset number, the first resource is different from the second resource, and a data transmission by the first BS on the second resource is prevented. if the number of antenna ports is equal to or larger than a preset number, the first resource is identical to the second resource; if the number of antenna ports is smaller than the preset number, the first resource is different from the second resource, and a data transmission by the first BS on the second resource is prevented.
A condition monitoring system of a rolling element bearing, the system comprising: - an energy harvester comprising an electromagnetic transducer, where the electromagnetic transducer transduces vibrations subjected to it, over a frequency bandwidth of 100 Hz or more, to an electrical voltage by means of a coil moving relative to a static electromagnetic field due to the vibrations; - a signal processing unit that determines a condition of the rolling element bearing; 15 the electromagnetic transducer being attached directly or indirectly to the rolling element bearing, characterized in that the signal processing unit determines the condition of the rolling element bearing based on the electrical voltage from the electromagnetic transducer. - an energy harvester comprising an electromagnetic transducer, where the electromagnetic transducer transduces vibrations subjected to it, over a frequency bandwidth of 100 Hz or more, to an electrical voltage by means of a coil moving relative to a static electromagnetic field due to the vibrations; - a signal processing unit that determines a condition of the rolling element bearing; 15 the electromagnetic transducer being attached directly or indirectly to the rolling element bearing, characterized in that the signal processing unit determines the condition of the rolling element bearing based on the electrical voltage from the electromagnetic transducer.
A method of applying a makeup composition to keratinous materials selected from the nails or lips, with a view to forming a visible deposit on said keratinous materials, the method comprising: i) immersing an applicator element in a receptacle containing the makeup composition to take the composition; ii) forming a deposit of the makeup composition on the keratinous materials; iii) simultaneously while forming the deposit, subjecting said deposit to a vibratory movement using an applicator; and iv) leaving the deposit on the keratinous materials to dry. i) immersing an applicator element in a receptacle containing the makeup composition to take the composition; ii) forming a deposit of the makeup composition on the keratinous materials; iii) simultaneously while forming the deposit, subjecting said deposit to a vibratory movement using an applicator; and iv) leaving the deposit on the keratinous materials to dry.
A method of manufacturing an antenna, comprising: receiving a design for a traditionally manufactured tubular antenna identifying portions of the antenna design which are less than a minimum printable thickness of a selected additive manufacturing apparatus, modifying the design, including increasing the thickness of the identified portions and inserting a plurality of holes, and additively manufacturing an antenna according to the modified design. receiving a design for a traditionally manufactured tubular antenna identifying portions of the antenna design which are less than a minimum printable thickness of a selected additive manufacturing apparatus, modifying the design, including increasing the thickness of the identified portions and inserting a plurality of holes, and additively manufacturing an antenna according to the modified design.
Gas burner, comprising a burner interior and a distribution device delimiting the latter and through which a gas-air mixture can flow, which distribution device has an inner surface (2.1) facing the burner interior with a hole structure and a burner surface (2.2) facing away from the burner interior with a hole structure for the gas-air mixture burning as a flame, wherein a rod-shaped ionization current sensor, which extends parallel to the burner surface (2.2), is associated with the burner surface (2.2) on the flame side, wherein a first surface region (2.2.1) of the burner surface (2.2) nearest to the ionization current sensor has a hole structure having a relatively small degree of opening and wherein a second surface region (2.2.2) with a hole structure having a larger degree of opening is respectively provided on both sides of the first surface region (2.2.1) and parallel to the ionization current sensor, characterized in that the hole structure of the inner surface (2.1) of the distribution device, which is opposite the ionization current sensor, is formed to be constant when viewed in the axial direction of the ionization current sensor, in that the burner surface (2.2), in addition to the two surface regions (2.2.1, 2.2.2), has a third surface region (2.2.3) with a hole structure, wherein the hole structures of the three surface regions (2.2.1, 2.2.2, 2.2.3) are formed differently.
A heat dissipation assembly for a refrigeration device, the refrigeration device comprising a condenser and a fan, wherein the heat dissipation assembly comprises: a base plate, having the fan arranged on one side thereof, and having the condenser arranged on the base plate; at least one fastener, arranged on the upper surface of the base plate and facing one side of the condenser; characterised by: a plurality of wind shield elements sequentially arranged on the lower surface of the base plate to reduce air flow along an air-flow direction generated by the fan, including: at least one first wind shield element, and a plurality of second wind shield elements having ventilation holes, wherein the cross-sectional area of the ventilation holes is reduced for each of the second wind shield elements in sequence along the air-flow direction. a base plate, having the fan arranged on one side thereof, and having the condenser arranged on the base plate; at least one fastener, arranged on the upper surface of the base plate and facing one side of the condenser; characterised by: a plurality of wind shield elements sequentially arranged on the lower surface of the base plate to reduce air flow along an air-flow direction generated by the fan, including: at least one first wind shield element, and a plurality of second wind shield elements having ventilation holes, wherein the cross-sectional area of the ventilation holes is reduced for each of the second wind shield elements in sequence along the air-flow direction. at least one first wind shield element, and a plurality of second wind shield elements having ventilation holes, wherein the cross-sectional area of the ventilation holes is reduced for each of the second wind shield elements in sequence along the air-flow direction.
A luggage compartment for being mountable in a means of transport, the luggage compartment comprising: a housing for storing luggage; a connecting element (116, 710, 711) for mounting the housing to a first structural element of the means of transport; a sliding element; wherein the housing comprises a top wall, a rear wall, a bottom wall, a side wall, and an opening.; wherein the connecting element is adapted for being pivotably attached to the first structural element of the means of transport at a second section of the connecting element; wherein the sliding element is attached to the rear wall of the housing; wherein the sliding element is adapted for being movably connected to a rail, which rail is attached to a second structural element of the means of transport; wherein the housing performs a rotational movement around a rotation axis (202, 302, 402, 502) when moving the housing from the open position to the closed position of the luggage compartment; and characterised in that the connecting element is pivotably attached to the top wall or the side wall of the housing at a first section of the connecting element, wherein the sliding element is attached to an edge defined by the top wall and rear wall of the housing and wherein the rotation axis (202, 302, 402, 502) of the housing moves from a position close to a center of gravity of the housing 8, towards a position close to the sliding element (118, 712, 713) when moving the housing from the open position to the closed position of the luggage compartment. a housing for storing luggage; a connecting element (116, 710, 711) for mounting the housing to a first structural element of the means of transport; a sliding element; wherein the housing comprises a top wall, a rear wall, a bottom wall, a side wall, and an opening.; wherein the connecting element is adapted for being pivotably attached to the first structural element of the means of transport at a second section of the connecting element; wherein the sliding element is attached to the rear wall of the housing; wherein the sliding element is adapted for being movably connected to a rail, which rail is attached to a second structural element of the means of transport; wherein the housing performs a rotational movement around a rotation axis (202, 302, 402, 502) when moving the housing from the open position to the closed position of the luggage compartment; and characterised in that the connecting element is pivotably attached to the top wall or the side wall of the housing at a first section of the connecting element, wherein the sliding element is attached to an edge defined by the top wall and rear wall of the housing and wherein the rotation axis (202, 302, 402, 502) of the housing moves from a position close to a center of gravity of the housing 8, towards a position close to the sliding element (118, 712, 713) when moving the housing from the open position to the closed position of the luggage compartment.