mhurhangee/ep-ind-claims huggingface dataset:
A door handle for a refrigerator, comprising: a handle bar (6, 8) having a seating channel provided in a longitudinal direction in a front face thereof, and a translucent or transparent handle cover for shielding the seating channel; handle holders provided at both ends of the handle bar to fix and support the handle bar at one side of a door, characterized in that a decoration installed in the seating channel so as to be viewed from the outside through the handle cover; wherein the handle bar (6,8) has a cylindrical shape such that a space is formed therein, wherein the handle bar includes: a handle bar body provided with hooking ribs formed to extend in parallel at both ends of a cross section thereof; and a cover base coupled with the hooking ribs of the handle bar body so as to be fastened to the handle bar body, wherein the seating channel is provided in the cover base so that the decoration and the handle cover are mounted thereto. a handle bar (6, 8) having a seating channel provided in a longitudinal direction in a front face thereof, and a translucent or transparent handle cover for shielding the seating channel; handle holders provided at both ends of the handle bar to fix and support the handle bar at one side of a door, characterized in that a decoration installed in the seating channel so as to be viewed from the outside through the handle cover; wherein the handle bar (6,8) has a cylindrical shape such that a space is formed therein, a handle bar body provided with hooking ribs formed to extend in parallel at both ends of a cross section thereof; and a cover base coupled with the hooking ribs of the handle bar body so as to be fastened to the handle bar body, wherein the seating channel is provided in the cover base so that the decoration and the handle cover are mounted thereto.
An optical excitation system for a particle sensor, the system comprising a substrate, wherein the substrate comprises - at least one delivery means for delivering analytes into at least one region of interest, - at least one radiation carrier for carrying radiation and directing at least one radiation beam from the at least one radiation carrier into the at least one region of interest, the optical excitation system being characterized in that it further comprises - a thin lens system comprising at least a first thin film lens integrated in or on the substrate, for collimating radiation from the at least one region of interest to a remote detection system. - at least one delivery means for delivering analytes into at least one region of interest, - at least one radiation carrier for carrying radiation and directing at least one radiation beam from the at least one radiation carrier into the at least one region of interest, - a thin lens system comprising at least a first thin film lens integrated in or on the substrate, for collimating radiation from the at least one region of interest to a remote detection system.
A method executed in a computing device for presenting participants of a meeting according to their relevancy, the method comprising: determining the participants of the meeting; categorizing the participants according to their relevancy for a user at the initialization of the meeting based on a first set of factors; presenting the participants on a meeting user interface gallery by emphasizing the relevancy categories employing a spatial grouping scheme; placing a self-representation of the user next to the participants on the gallery; and updating the relevancy and thereby the gallery during the meeting based on a second set of factors. determining the participants of the meeting; categorizing the participants according to their relevancy for a user at the initialization of the meeting based on a first set of factors; presenting the participants on a meeting user interface gallery by emphasizing the relevancy categories employing a spatial grouping scheme; placing a self-representation of the user next to the participants on the gallery; and updating the relevancy and thereby the gallery during the meeting based on a second set of factors.
An injection molding machine, comprising: an ejector unit configured to eject a molding product from a mold (32, 33), the ejector unit including a support provided on a platen (12, 13) to which the mold (32, 33) is attached; a slidable base configured to slide relative to the support; a transmission mechanism supported by the support and configured to convert an input into an output corresponding to a distance between the support and the slidable base and transmit the output to the slidable base; an ejector motor configured to cause the transmission mechanism to operate; an ejector plate configured to move together with the slidable base; an ejector tie bar connecting the slidable base and the ejector plate at a distance from each other, and an adjustment mechanism configured to adjust a position of the slidable base relative to the ejector plate, wherein the adjustment mechanism changes a connection position of the slidable base and the ejector tie bar, a connection position of the ejector plate and the ejector tie bar, or both of the connection positions. an ejector unit configured to eject a molding product from a mold (32, 33), the ejector unit including a support provided on a platen (12, 13) to which the mold (32, 33) is attached; a slidable base configured to slide relative to the support; a transmission mechanism supported by the support and configured to convert an input into an output corresponding to a distance between the support and the slidable base and transmit the output to the slidable base; an ejector motor configured to cause the transmission mechanism to operate; an ejector plate configured to move together with the slidable base; an ejector tie bar connecting the slidable base and the ejector plate at a distance from each other, and an adjustment mechanism configured to adjust a position of the slidable base relative to the ejector plate, wherein the adjustment mechanism changes a connection position of the slidable base and the ejector tie bar, a connection position of the ejector plate and the ejector tie bar, or both of the connection positions.
A cooking apparatus comprising: a cooking chamber to cook food therein; a driving fan arranged at a wall (4, 5) of the cooking chamber; and one or more driven fans configured to rotate by air streams generated when the driving fan rotates; and a drive motor installed at an outside of the rear wall of the cooking chamber, wherein the driving fan is connected with the drive motor to rotate in accordance with an operation of the drive motor, characterized in that the driving fan is arranged at a center of the rear wall of the cooking chamber, and the driven fans are arranged around the driving fan and rotatably supported by use of bearing members mounted to the rear wall of the cooking chamber, respectively. a cooking chamber to cook food therein; a driving fan arranged at a wall (4, 5) of the cooking chamber; and one or more driven fans configured to rotate by air streams generated when the driving fan rotates; and a drive motor installed at an outside of the rear wall of the cooking chamber, wherein the driving fan is connected with the drive motor to rotate in accordance with an operation of the drive motor, characterized in that the driving fan is arranged at a center of the rear wall of the cooking chamber, and the driven fans are arranged around the driving fan and rotatably supported by use of bearing members mounted to the rear wall of the cooking chamber, respectively.
A thermoplastic resin composition comprising 18 to 44 parts by mass of a copolymer and 56 to 82 parts by mass of a copolymer so that the total thereof is 100 parts by mass, and further comprising 0.1 to 0.3 parts by mass of an alkaline earth metal oxide with respect to 100 parts by mass of the total of the graft copolymer and the copolymer, wherein the graft copolymer is a graft copolymer obtained by graft copolymerization of 35 to 65 parts by mass of a monomer mixture containing 60 to 95 percent by mass of an aromatic vinyl based monomer and 5 to 40 percent by mass of a vinyl cyanide based monomer in the presence of 35 to 65 parts by mass of a composite rubber polymer, the polymer being composed of 5 to 90 percent by mass of a diene rubber (i) and 95 to 10 percent by mass of a cross-linked acrylic acid ester polymer (ii), the rubber (i) being obtained by using a small particulate diene rubber and an acid group-containing copolymer, the polymer having a mass average particle diameter of 180 to 500 nm, and the total of the composite rubber polymer and the monomer mixture being 100 parts by mass; and the copolymer is a copolymer obtained by polymerization of a monomer mixture containing 60 to 95 percent by mass of an aromatic vinyl based monomer and 5 to 40 percent by mass of a vinyl cyanide based monomer.
Machine for dispensing fluid coloring products, each having a different color, to form a finished product having a desired color tone corresponding to a determinate formula, comprising at least a plurality of tanks (S1-S16) each of which is configured to contain one of said fluid coloring products having a determinate color, a determinate,number of delivery circuits (G1-G16), more than two, connected to said tanks (S1-S16), wherein each of said delivery circuits (G1-G16) comprises at least a delivery nozzle (U1-U16) and a motorized pumping member (P1-P16), to deliver determinate quantities of said fluid coloring products in a determinate delivery time (Te) inside a container, and an electronic control circuit, provided with a central process unit associated, or associable, with at least a first electronic memory in which are memorized the formulas which define the color tones that can be obtained, said electronic control circuit being configured to control said delivery circuits (G1-G16) so as to cause the selective delivery of said fluid coloring products from said tanks (S1-S16) to said container, characterized in that said electronic control circuit also comprises two electronic actuation circuits (A1, A2), each configured to be selectively associated to each motorized pumping member (P1-P16) of said delivery circuits (G1-G16), so as to selectively cause the simultaneous drive of two of said motorized pumping members (P1-P16) and in that said central process unit is programmed so as to reduce to a minimum the overall delivery time (Tce), by selectively coupling each of said two electronic actuation circuits (A1, A2) to one of said motorized pumping members (P1-P16), as a function of the formula corresponding to the desired color tone.
A liquid cosmetic comprising at least an inorganic pigment, a dispersant, a film forming agent and water, wherein the dispersant is a material obtained by reacting a basic compound with a copolymer, and the film forming agent is an emulsion of a homopolymer or a copolymer obtained by polymerizing a raw material monomer of at least one compound selected from acrylic acid, methacrylic acid, (C 1 to C 4 and C 8) alkyl esters thereof or styrene, provided that said film forming agent is not a polystyrene homopolymer, characterized in that - the dispersant is a material obtained by reacting a basic compound with a copolymer of a mixture comprising tert-butyl acrylate, ethyl acrylate and methacrylic acid, said copolymer having the following formula - said liquid cosmetic comprises 0.5 mass % or less of a surfactant; - the viscosity of said liquid cosmetic at 25°C measured by means of an EMD type viscometer with a standard cone rotor of 20 rpm is 50 to 200 mPa.s at a shear rate of 76.8 s -1; - a blend amount of the dispersant is 0.5 to 5 mass % based on the total amount of the liquid cosmetic; - a blend amount of the film forming agent is 2 to 15 mass % in terms of solid content based on the total amount of the liquid cosmetic. - the dispersant is a material obtained by reacting a basic compound with a copolymer of a mixture comprising tert-butyl acrylate, ethyl acrylate and methacrylic acid, said copolymer having the following formula - said liquid cosmetic comprises 0.5 mass % or less of a surfactant; - the viscosity of said liquid cosmetic at 25°C measured by means of an EMD type viscometer with a standard cone rotor of 20 rpm is 50 to 200 mPa.s at a shear rate of 76.8 s -1; - a blend amount of the dispersant is 0.5 to 5 mass % based on the total amount of the liquid cosmetic; - a blend amount of the film forming agent is 2 to 15 mass % in terms of solid content based on the total amount of the liquid cosmetic.
A bearing monitoring system (1; 13; 15) comprising: i. a rolling element bearing housing; ii. a force sensor attached to the housing which generates output signals, the force sensor comprising one or more sensor elements arranged to be sensitive to acceleration; iii. an acceleration detection circuit which receives the output signals and generates acceleration signals representative of acceleration forces applied to the housing; and iv. a processing circuit (11; 14; 16); characterised in that: the one or more sensor elements of the force sensor are further arranged to be sensitive to strain; the bearing monitoring system further comprises a strain detection circuit which receives the output signals and generates strain signals representative of housing strain; and the processing unit is adapted to: use the strain signals to synchronise the acceleration signals to rolling element pass events; and generate one or more signals indicative of bearing condition based on the synchronised acceleration signals. i. a rolling element bearing housing; ii. a force sensor attached to the housing which generates output signals, the force sensor comprising one or more sensor elements arranged to be sensitive to acceleration; iii. an acceleration detection circuit which receives the output signals and generates acceleration signals representative of acceleration forces applied to the housing; and iv. a processing circuit (11; 14; 16); the one or more sensor elements of the force sensor are further arranged to be sensitive to strain; the bearing monitoring system further comprises a strain detection circuit which receives the output signals and generates strain signals representative of housing strain; and the processing unit is adapted to: use the strain signals to synchronise the acceleration signals to rolling element pass events; and generate one or more signals indicative of bearing condition based on the synchronised acceleration signals. use the strain signals to synchronise the acceleration signals to rolling element pass events; and generate one or more signals indicative of bearing condition based on the synchronised acceleration signals.
A process for manufacturing a mono-alkylaromatic compound, said process comprising contacting a feedstock comprising an alkylatable aromatic compound and an alkylating agent under alkylation reaction conditions with a catalyst comprising EMM-12 molecular sieve, wherein the EMM-12 molecular sieve has, in its as-synthesized form and in calcined form, an X-ray diffraction pattern including peaks having a d-spacing maximum in the range of 13.5 ± 0.25 Angstroms, a d-spacing maximum in the range of 12.1 to 12.56 Angstroms, and non-discrete scattering between 8.66 to 12.0 Angstroms or exhibit a valley in between the peaks having a d-spacing maximum in the range of 10.14 to 12.0 Angstroms and a d-spacing maximum in the range from 8.66 to 10.13 Angstroms with measured intensity corrected for background at the lowest point being not less than 50% of the point at the same X-ray diffraction d-spacing on the line connecting maxima in the range of 10.14 to 12.0 Angstroms and in the range from 8.66 to 10.13 Angstroms.
A light emitting diode device, comprising: a light emitting layer which emits light; a substrate that transmits the emitted light, the light emitting layer formed over a first side of the substrate; a reflective layer formed over the first side of the substrate to reflect the emitted light, the light emitting layer positioned between the reflective layer and the substrate; and an angle-selective filter formed on a second side of the substrate, the angle-selective filter reflecting a light ray of the emitted light at an incident angle greater than a predefined incident angle and transmitting a light ray of the emitted light at an incident angle less than the predefined incident angle. a light emitting layer which emits light; a substrate that transmits the emitted light, the light emitting layer formed over a first side of the substrate; a reflective layer formed over the first side of the substrate to reflect the emitted light, the light emitting layer positioned between the reflective layer and the substrate; and an angle-selective filter formed on a second side of the substrate, the angle-selective filter reflecting a light ray of the emitted light at an incident angle greater than a predefined incident angle and transmitting a light ray of the emitted light at an incident angle less than the predefined incident angle.
An apparatus for injecting a slurry of at least a ceramic powder and a disperser for slurry, the slurry having a viscosity in a range from 10 to 1000 dPa.s, comprising: a first member having a cavity therein; and a second member (3, 33 etc) having a plurality of convex sections (6, 36 etc), each of said convex sections having an injection hole (5, 35 etc) formed therein communicating with said cavity, wherein the distance between centers of adjacent said convex sections (6, 36) is in a range from 3 to 13 mm, characterized in that the protrusion length of said convex section (6, 36) is in a range from 3 to 5 mm. a first member having a cavity therein; and a second member (3, 33 etc) having a plurality of convex sections (6, 36 etc), each of said convex sections having an injection hole (5, 35 etc) formed therein communicating with said cavity, wherein the distance between centers of adjacent said convex sections (6, 36) is in a range from 3 to 13 mm, characterized in that the protrusion length of said convex section (6, 36) is in a range from 3 to 5 mm.
Connecting device which is arranged on a food processor or an attachment (15, 20) and is provided for coupling an attachment (15, 20) to the food processor, wherein the connecting device has at least one engaging element, which is movably supported in the radial direction in the connecting device, and can be displaced radially by means of at least one reset element, wherein in its reset position the engaging element projects radially at least partially with respect to a contour of the connecting device, characterised in that a surface normal of at least one stop face of the projecting part of the engaging element with the radial plane of the connecting device forms an angle of greater than 0° and less than 90°, so that the engaging element can be displaced radially out of its reset position by means of a tangentially acting force component against the reset force of the reset element.
A plant cultivating substrate which is shape retentive and flexible and formed by reacting and curing at least water-retentive filling material, water, urethane prepolymer, wherein the urethane prepolymer has an isocyanate group at the end, and polyol.
A manufacturing process for a laminated paper product (356, 357, 358) with integrated electronics (352, 452) comprising the steps of: - printing and cutting a first paper (351, 451); - applying hot melt glue on said first paper (351, 451) before or after said printing and cutting; - cutting planar electronics (352, 452); - printing and cutting a second paper (353, 453); - feeding said first paper (351, 451) to first split planes (421, 422) positioned substantially horizontal at a first height in between two conical sidewalls (411, 412) and moving said first paper (351, 451) forward against a vertical finger being sized and positioned to translationally move in between said first split planes (421, 422); - feeding said planar electronics (352, 452) onto second split planes (431, 432) positioned substantially horizontal along said sidewalls (411, 412) at a second height, said vertical finger being sized and positioned to move between said second split planes (431, 432) thereby aligning said first paper (351, 451) and planar electronics (352, 452); - feeding said second paper (353, 453) onto third split planes (441, 442) positioned substantially horizontal along said sidewalls (411, 412) at a third height, said vertical finger being sized and positioned to move between said third split planes (441, 442) thereby aligning said first paper (351, 451), planar electronics (352, 452) and second paper (353, 453); - applying heat and pressure to said first paper (351, 451), planar electronics (352, 452) and second paper (353, 453) to thereby activate said hot melt glue and obtain said laminated paper product (356, 357, 358). - printing and cutting a first paper (351, 451); - applying hot melt glue on said first paper (351, 451) before or after said printing and cutting; - cutting planar electronics (352, 452); - printing and cutting a second paper (353, 453); - feeding said first paper (351, 451) to first split planes (421, 422) positioned substantially horizontal at a first height in between two conical sidewalls (411, 412) and moving said first paper (351, 451) forward against a vertical finger being sized and positioned to translationally move in between said first split planes (421, 422); - feeding said planar electronics (352, 452) onto second split planes (431, 432) positioned substantially horizontal along said sidewalls (411, 412) at a second height, said vertical finger being sized and positioned to move between said second split planes (431, 432) thereby aligning said first paper (351, 451) and planar electronics (352, 452); - feeding said second paper (353, 453) onto third split planes (441, 442) positioned substantially horizontal along said sidewalls (411, 412) at a third height, said vertical finger being sized and positioned to move between said third split planes (441, 442) thereby aligning said first paper (351, 451), planar electronics (352, 452) and second paper (353, 453); - applying heat and pressure to said first paper (351, 451), planar electronics (352, 452) and second paper (353, 453) to thereby activate said hot melt glue and obtain said laminated paper product (356, 357, 358).
A magnetic element for generating a skyrmion, the magnetic element comprising a two-dimensional stacked film, wherein the two-dimensional stacked film is formed of a plurality of multiple layered films stacked with each other, each of the plurality of multiple layered films including a first non-magnetic film (13-1a, 13-2a, 13-Na), a magnetic film having a thickness equal to or less than 100 nm and stacked on the first non-magnetic film (13-1a, 13-2a, 13-Na), and second a non-magnetic film (13-1b, 13-2b, 13-Nb) stacked on the magnetic film, in the two-dimensional stacked film, at least a skyrmion crystal phase in which the skyrmion is generated and a ferromagnetic phase appear in accordance with an applied magnetic field, and in the two-dimensional stacked film, the skyrmion appears by applying a magnetic field substantially perpendicular to a two-dimensional surface having a thin layer shape. the two-dimensional stacked film is formed of a plurality of multiple layered films stacked with each other, each of the plurality of multiple layered films including a first non-magnetic film (13-1a, 13-2a, 13-Na), a magnetic film having a thickness equal to or less than 100 nm and stacked on the first non-magnetic film (13-1a, 13-2a, 13-Na), and second a non-magnetic film (13-1b, 13-2b, 13-Nb) stacked on the magnetic film, in the two-dimensional stacked film, at least a skyrmion crystal phase in which the skyrmion is generated and a ferromagnetic phase appear in accordance with an applied magnetic field, and in the two-dimensional stacked film, the skyrmion appears by applying a magnetic field substantially perpendicular to a two-dimensional surface having a thin layer shape.