mhurhangee/ep-ind-claims huggingface dataset:
A display module (20, 21) and an adjacent display module (20, 22), each of the display modules comprising: a substrate; a plurality of micro light-emitting diodes, micro-LEDs, (50, 57, 58) disposed on the substrate, and configured to radiate light; a plurality of electrode pads (57a, 58a) of the micro-LEDs; a plurality of connection pads (77, 78) on the substrate; a plurality of soldering members configured to electrically connect the plurality of micro-LEDs and the substrate to each other and disposed between the plurality of electrode pads (57a, 58a) and the plurality of connection pads (77, 78); the display module (20, 21) and the adjacent display module (20, 22) further comprising: a reflective layer surrounding a lateral surface of each of the plurality of micro-LEDs; and a light blocking layer disposed on the reflective layer, wherein an upper surface of the reflective layer is lower than or planar with upper surfaces of the plurality of micro-LEDs, and wherein the reflective layer comprises a first portion surrounding and contacting lateral surfaces (50c, 51c, 52c) of the plurality of micro-LEDs, a second portion filling spaces between the plurality of electrode pads (57a, 58a), the plurality of connection pads (77, 78) and the plurality of soldering members, and a third portion filling a space between the display module and adjacent display module, wherein the first portion, the second portion and the third portion of the reflective layer are integrally formed, wherein the light blocking layer is formed above the space between the display module (20, 21) and the adjacent display module (20, 22). a substrate; a plurality of micro light-emitting diodes, micro-LEDs, (50, 57, 58) disposed on the substrate, and configured to radiate light; a plurality of electrode pads (57a, 58a) of the micro-LEDs; a plurality of connection pads (77, 78) on the substrate; a plurality of soldering members configured to electrically connect the plurality of micro-LEDs and the substrate to each other and disposed between the plurality of electrode pads (57a, 58a) and the plurality of connection pads (77, 78); the display module (20, 21) and the adjacent display module (20, 22) further comprising: a reflective layer surrounding a lateral surface of each of the plurality of micro-LEDs; and a light blocking layer disposed on the reflective layer, wherein an upper surface of the reflective layer is lower than or planar with upper surfaces of the plurality of micro-LEDs, and wherein the reflective layer comprises a first portion surrounding and contacting lateral surfaces (50c, 51c, 52c) of the plurality of micro-LEDs, a second portion filling spaces between the plurality of electrode pads (57a, 58a), the plurality of connection pads (77, 78) and the plurality of soldering members, and a third portion filling a space between the display module and adjacent display module, wherein the first portion, the second portion and the third portion of the reflective layer are integrally formed, wherein the light blocking layer is formed above the space between the display module (20, 21) and the adjacent display module (20, 22).
An appliance which can be docked onto a drinks preparation machine and is for preparing frothed milk, comprising a connection for steam produced by the drinks preparation machine, and a milk frothing unit with a gear pump which at an inlet side is connected to a milk feed conduit and to an air feed, characterised by an interface for electrical current supplied from the drinks preparation machine, for operating the gear pump, and by a mixing nozzle on a path of milk delivered by the gear pump, wherein the milk, the steam as well as air can be fed to the mixing nozzle.
A wing comprising a wing fold system for folding a wingtip of the wing relative to a fixed portion of the wing about a first joint between a flight position and a folded position, the wing fold system comprising: an actuator; a first link configured to rotate in response to actuating of the actuator about a second joint having a fixed location relative to the fixed portion; and a second link pivotally connected to the first link via a third joint, the second link configured to move, in response to rotating of the first link via the third joint and to push on the wingtip via a fourth joint; such that the wingtip moves in response to moving of the second link and moves with respect to the fixed portion of the wing; wherein in flight, when aerodynamic lift forces act on the wingtip, a tension force on the third joint acts along a line from the third joint to the fourth joint and aligns above a center point of the second joint in order to act as an over center locking feature. an actuator; a first link configured to rotate in response to actuating of the actuator about a second joint having a fixed location relative to the fixed portion; and a second link pivotally connected to the first link via a third joint, the second link configured to move, in response to rotating of the first link via the third joint and to push on the wingtip via a fourth joint; such that the wingtip moves in response to moving of the second link and moves with respect to the fixed portion of the wing; wherein in flight, when aerodynamic lift forces act on the wingtip, a tension force on the third joint acts along a line from the third joint to the fourth joint and aligns above a center point of the second joint in order to act as an over center locking feature.
Composition for topical application for use in infants or toddlers which has a hydrophilic liquid, at least one anti-inflammatory active agent and at least one carrier substance for said agent, wherein the carrier substance forms lamellar structures with the hydrophilic liquid, characterized in a) that the lamellar structures are lamellar double membrane structures having a layer structure in which a first carrier substance layer is aligned in parallel and planarly to a second carrier substance layer and the hydrophilic residues of each carrier substance layer are positioned outwardly and the lipophilic residues of each carrier substance layer are positioned inwardly, b) that between the hydrophilic residues which are arranged in layers, the anti-inflammatory agent is homogeneously distributed in a monodispersed or oligodispersed manner in the range of the lipophilic residues, c) that the composition has a hydrogenated phospholipid having a phase transition temperature above 30°C and below 70°C as carrier substance, and d) that the composition has an anti-inflammatory active agent as active agent selected from the group comprising ursolic acid, soy sterol, 18-beta-glycyrrhetinic acid, gamma-oryzanol, ferulic acid. a) that the lamellar structures are lamellar double membrane structures having a layer structure in which a first carrier substance layer is aligned in parallel and planarly to a second carrier substance layer and the hydrophilic residues of each carrier substance layer are positioned outwardly and the lipophilic residues of each carrier substance layer are positioned inwardly, b) that between the hydrophilic residues which are arranged in layers, the anti-inflammatory agent is homogeneously distributed in a monodispersed or oligodispersed manner in the range of the lipophilic residues, c) that the composition has a hydrogenated phospholipid having a phase transition temperature above 30°C and below 70°C as carrier substance, and d) that the composition has an anti-inflammatory active agent as active agent selected from the group comprising ursolic acid, soy sterol, 18-beta-glycyrrhetinic acid, gamma-oryzanol, ferulic acid.
Pump group for a cooling circuit of the engine of a vehicle, comprising: - an impeller rotatable about an axis (X-X), comprising: i) a paddle portion; and ii) a support portion extends axially along the axis (X-X) and is placed behind the paddle portion having a support surface placed in a distal position from the axis (X-X), preferably having a circular shape; - a rotation body which extends along the axis (X-X) integrally connected to the impeller to move it in rotation, wherein the rotation body is a rotation shaft or central hub; - a mechanical drive and an electric drive comprising an electric engine; wherein the mechanical drive and the electric drive are respectively operatively connected to said rotation body by a first one-way coupling and a second one-way coupling; wherein the pump group comprises a support and centering bearing positioned on the support surface to support and keep the impeller centred on the axis (X-X). - an impeller rotatable about an axis (X-X), comprising: i) a paddle portion; and ii) a support portion extends axially along the axis (X-X) and is placed behind the paddle portion having a support surface placed in a distal position from the axis (X-X), preferably having a circular shape; i) a paddle portion; and ii) a support portion extends axially along the axis (X-X) and is placed behind the paddle portion having a support surface placed in a distal position from the axis (X-X), preferably having a circular shape; - a rotation body which extends along the axis (X-X) integrally connected to the impeller to move it in rotation, wherein the rotation body is a rotation shaft or central hub; - a mechanical drive and an electric drive comprising an electric engine;
A capacitive micromechanical acceleration sensor comprising a substrate, a first sensor for measuring acceleration along a z-axis perpendicular to a plane of the substrate, a second sensor for measuring acceleration along an x-axis, or along an y-axis or along an x-axis and y-axis, wherein the x-axis and the y-axis are parallel to the plane of the substrate, and the y-axis is perpendicular to the x-axis, a third sensor for measuring acceleration along the y-axis, or along the x-axis, or along the x-axis and y-axis, wherein the first sensor comprises a rotor electrode and stator electrode, and wherein the rotor electrode is movably anchored to the substrate at a rotor anchoring point, characterized by a first beam having a first end connected at a first connection point by means of a first spring structure to a rotor electrode support structure that is anchored to the substrate, and a second end that is connected at a second connection point to the rotor electrode of the first sensor, a second beam having a first end connected at a third connection point by means of a second spring structure to the rotor electrode support structure that is anchored to the substrate and a second end that is connected at a fourth connection point to the rotor electrode of the first sensor, wherein the first beam and the second beam being parallel with a central axis of the acceleration sensor, the second sensor being situated in a first space circumscribed by the rotor electrode of the first sensor, the first beam, the first spring structure, the rotor electrode support structure, and the central axis of the acceleration sensor, and the third sensor being situated in a second space circumscribed by the rotor electrode of the first sensor, the second beam, the second spring structure, the rotor electrode support structure, and the central axis of the acceleration sensor.
A method for preparing Sertoli cells, comprising a step a2): increasing the expression level and/or activity of a protein combination in fibroblasts, wherein the protein combination is selected from one of the following groups: B2) NR5A1 and GATA4, B6) NR5A1, GATA4 and WT1, B7) NR5A1, GATA4 and SOX9, B8) NR5A1, GATA4 and DMRT1, B12) NR5A1, GATA4, WT1 and SOX9, B13) NR5A1, GATA4, WT1 and DMRT1, B14) NR5A1, GATA4, SOX9 and DMRT1. B2) NR5A1 and GATA4, B6) NR5A1, GATA4 and WT1, B7) NR5A1, GATA4 and SOX9, B8) NR5A1, GATA4 and DMRT1, B12) NR5A1, GATA4, WT1 and SOX9, B13) NR5A1, GATA4, WT1 and DMRT1, B14) NR5A1, GATA4, SOX9 and DMRT1.
A method for providing a reactive coating having biocidal and chemical decontamination properties to a surface of an article, comprising the steps of: a. applying a hygroscopic polymer to the surface of the article; b. processing the polymer to form a film; and c. exposing the film to at least 400 ppm of vaporized hydrogen peroxide for a time of 30 minutes, wherein the polymer comprises polyvinylpyrrolidone. a. applying a hygroscopic polymer to the surface of the article; b. processing the polymer to form a film; and c. exposing the film to at least 400 ppm of vaporized hydrogen peroxide for a time of 30 minutes,
Work device having a drive unit and an operator control handle, wherein the operator control handle is connected to the drive unit via electrical lines (L1, L2, L3, L4), wherein an electrical line (L1, L2, L3, L4) is attached to a first electrical connection point on the operator control handle and to a second electrical connection point on the drive unit, characterized in that, in addition to the electrical line (L1, L2, L3, L4) connected to the electrical connection points, a securing cable running between the operator control handle and the drive unit is provided, wherein one end section of the securing cable is mechanically fixed to the operator control handle and the other end section of the securing cable is mechanically attached to the drive unit, wherein the electrical line (L1, L2, L3, L4) is guided together with the securing cable in such a way that the securing cable forms a pull-off prevention means of the electrical line (L1, L2, L3, L4).
Process for producing hydrophobic silica granules, wherein i) a mixture containing hydrophilic silica is coated with hydrophobicizing agents at a temperature of not more than 55°C, ii) the mixture from step i is deaerated after a storage time of not more than 24 hours and iii) the mixture from step ii is densified to a target bulk density, iv) with granulation taking place during the densification in step iii. i) a mixture containing hydrophilic silica is coated with hydrophobicizing agents at a temperature of not more than 55°C, ii) the mixture from step i is deaerated after a storage time of not more than 24 hours and iii) the mixture from step ii is densified to a target bulk density, iv) with granulation taking place during the densification in step iii.
Method for surface inspection of pieces of strip, wherein the pieces of strip are separated from a metal strip, characterised in that - the separated pieces of strip have a length smaller than twice the circumference of a work roll by which the metal strip was rolled beforehand; - the upper side and/or lower side of the separated pieces of strip are automatically checked with the help of a camera system and an evaluating device with respect to possibly present periodic forms of fault caused by the work roll; - the process of surface inspection is concluded when periodically occurring forms of fault are detected or - the separated pieces of strip are delivered to a strip inspection unit for checking by checking personnel for non-periodic forms of fault if no periodic forms of fault were detected beforehand. - the separated pieces of strip have a length smaller than twice the circumference of a work roll by which the metal strip was rolled beforehand; - the upper side and/or lower side of the separated pieces of strip are automatically checked with the help of a camera system and an evaluating device with respect to possibly present periodic forms of fault caused by the work roll; - the process of surface inspection is concluded when periodically occurring forms of fault are detected or - the separated pieces of strip are delivered to a strip inspection unit for checking by checking personnel for non-periodic forms of fault if no periodic forms of fault were detected beforehand.
A method for processing seismic data, comprising the acts of: obtaining a set of vectorial measurements of a seismic wavefield at a seismic receiver (103, 403, 503) and a set of scalar measurements of the seismic wavefield at the seismic receiver, each vectorial measurement in the set comprising a plurality of components, and each vectorial and scalar measurement in the respective sets corresponding to a respective instance of time; the method characterized by further comprising the steps of: determining an angle of incidence of the seismic wavefield at the seismic receiver at a first instance of time by calculating an incidence vector of the seismic wavefield at the seismic receiver at the first instance of time, the incidence vector derived from a measure of covariance between different components of at least one vectorial measurement of the set of vectorial measurements (212, 214) or between a plurality of vectorial measurements of the set of vectorial measurements; correcting a component of a vectorial measurement in the set of vectorial measurements with the determined angle of incidence at the first instance of time; and combining the corrected component of the vectorial measurement with a scalar measurement in the set of scalar measurements that corresponds to the first instance of time. determining an angle of incidence of the seismic wavefield at the seismic receiver at a first instance of time by calculating an incidence vector of the seismic wavefield at the seismic receiver at the first instance of time, the incidence vector derived from a measure of covariance between different components of at least one vectorial measurement of the set of vectorial measurements (212, 214) or between a plurality of vectorial measurements of the set of vectorial measurements; correcting a component of a vectorial measurement in the set of vectorial measurements with the determined angle of incidence at the first instance of time; and combining the corrected component of the vectorial measurement with a scalar measurement in the set of scalar measurements that corresponds to the first instance of time.
Method for coating a narrow side of a planar workpiece with a coating material, in particular a strip-shaped or band-shaped coating material, by means of a coating device, wherein the coating material, before being applied to the narrow side of the workpiece, is imbued with a base color at least in an edge region assigned to an adhesive surface of the coating material or the coating material is fully imbued with the base color or the coating material is fully impregnated with the base color, wherein the base color is color-coordinated with a shade and/or pattern and/or decoration of a surface of the workpiece, such that a homogeneous color transition between the imbued coating material and the shade and/or pattern and/or decoration of the surface of the workpiece is formed after the coating material has been applied to the narrow side of the workpiece, characterised in that the coating material, in particular a narrow surface that is opposite the adhesive surface and that extends along the coating material and/or at least one transition region of the coating material that extends along the narrow surface, is printed on by means of a printing apparatus that comprises at least one printing stage after said coating material has been applied to the narrow side of the workpiece. wherein the coating material, before being applied to the narrow side of the workpiece, is imbued with a base color at least in an edge region assigned to an adhesive surface of the coating material or the coating material is fully imbued with the base color or the coating material is fully impregnated with the base color, wherein the base color is color-coordinated with a shade and/or pattern and/or decoration of a surface of the workpiece, such that a homogeneous color transition between the imbued coating material and the shade and/or pattern and/or decoration of the surface of the workpiece is formed after the coating material has been applied to the narrow side of the workpiece, characterised in that the coating material, in particular a narrow surface that is opposite the adhesive surface and that extends along the coating material and/or at least one transition region of the coating material that extends along the narrow surface, is printed on by means of a printing apparatus that comprises at least one printing stage after said coating material has been applied to the narrow side of the workpiece.
An aqueous pigment ink composition for board marker characterised by comprising at least a masking pigment, 1 to 10 % by mass of a styrene-acrylate resin and/or a styrene-maleate resin, 0.1 to 15 % by mass of trehalose, a fluorinated surfactant, and water, each based on a total amount of the ink composition.
A three-dimensional printing on-line monitoring method, characterized by using a printing parameter-controllable three-dimensional printing device and a three-dimensional high-precision nondestructive imaging system, wherein the printing parameter-controllable three-dimensional printing device comprises a personal computer or PC, a central control module, a print platform, printhead(s), an X/Y/Z three-axis mobile module and a printhead mounting arm, and the three-dimensional high-precision nondestructive imaging system comprises a three-dimensional high-precision nondestructive imaging host and a sample detection probe, the sample detection probe comprising a machine vision imaging module and a high-precision nondestructive detection module; wherein the three-dimensional printing on-line monitoring method comprises: Step 1: integrating the three-dimensional high-precision nondestructive imaging system into the printing parameter-controllable three-dimensional printing device to real-time on-line monitor three-dimensional printing, and making the machine vision imaging module and the high-precision nondestructive detection module to collaboratively perform visual imaging, to achieve rapid positioning of transverse range for monitoring in a printing process; Step 2: achieving full-longitudinal-depth imaging monitoring of the whole printing process by longitudinal-depth segmented scanning of a printing solidified layer, based on a longitudinal automatic splicing algorithm, and guiding printing parameter optimization and control of a next depth-increased segment by using in real time a result feedback of the longitudinal-depth segmented scanning, so as to perform synchronous high-precision nondestructive imaging on-line monitoring of the printing; and Step 3: acquiring a three-dimensional high-resolution global image of an internal structure of a printed product, when completing manufacturing of the printed product. Step 1: integrating the three-dimensional high-precision nondestructive imaging system into the printing parameter-controllable three-dimensional printing device to real-time on-line monitor three-dimensional printing, and making the machine vision imaging module and the high-precision nondestructive detection module to collaboratively perform visual imaging, to achieve rapid positioning of transverse range for monitoring in a printing process; Step 2: achieving full-longitudinal-depth imaging monitoring of the whole printing process by longitudinal-depth segmented scanning of a printing solidified layer, based on a longitudinal automatic splicing algorithm, and guiding printing parameter optimization and control of a next depth-increased segment by using in real time a result feedback of the longitudinal-depth segmented scanning, so as to perform synchronous high-precision nondestructive imaging on-line monitoring of the printing; and Step 3: acquiring a three-dimensional high-resolution global image of an internal structure of a printed product, when completing manufacturing of the printed product.