mhurhangee/ep-ind-claims huggingface dataset:
A gas chromatography column arranged to guide a gas sample (G_S) from an inlet (G_I) to an outlet (G_O), the column comprising - a first substrate of a gas tight material, the first substrate defining a flow channel in one plane between the inlet (G_I) at one end and the outlet (G_O) at an opposite end of the flow channel, wherein the first substrate is coated with a first layer of a first coating material, and - a second substrate of a gas tight material, the second substrate being coated with a second layer of a second coating material, wherein the second substrate is bonded to the first substrate by cross-linking between the first and second coating materials, so as to seal the flow channel, wherein the first and second coating materials comprise polybutadiene to allow said cross-linking, and wherein at least the first coating material comprises introduction of an additional material to the polybutadiene serving to provide a desired molecule selectivity property of the flow channel for specific molecules of interest to be detected. - a first substrate of a gas tight material, the first substrate defining a flow channel in one plane between the inlet (G_I) at one end and the outlet (G_O) at an opposite end of the flow channel, wherein the first substrate is coated with a first layer of a first coating material, and - a second substrate of a gas tight material, the second substrate being coated with a second layer of a second coating material, wherein the second substrate is bonded to the first substrate by cross-linking between the first and second coating materials, so as to seal the flow channel,
A gear device comprising: a first gear disposed at a shaft to turn the first gear with respect to the shaft in a circumferential direction, a second gear disposed at the shaft to integrally rotate the second gear and the shaft; a protrusion disposed at the first gear, the protrusion facing the second gear; and a stopper rubber disposed at the second gear, the stopper rubber facing the first gear, the stopper rubber being configured to be elastically deformed by pressing the protrusion in the circumferential direction of the second gear during rotation of the first gear, the stopper rubber being configured to be restored to an initial shape by separating the protrusion from the stopper rubber during stop of the first gear, characaterized by the first gear including a recess capable of accumulating lubricating oil and the recess facing the stopper rubber. a first gear disposed at a shaft to turn the first gear with respect to the shaft in a circumferential direction, a second gear disposed at the shaft to integrally rotate the second gear and the shaft; a protrusion disposed at the first gear, the protrusion facing the second gear; and a stopper rubber disposed at the second gear, the stopper rubber facing the first gear, the stopper rubber being configured to be elastically deformed by pressing the protrusion in the circumferential direction of the second gear during rotation of the first gear, the stopper rubber being configured to be restored to an initial shape by separating the protrusion from the stopper rubber during stop of the first gear, characaterized by the first gear including a recess capable of accumulating lubricating oil and the recess facing the stopper rubber.
A metallic paste, comprising: greater than 50% by weight electrically conductive metal particles; an amide-based wax having a melting point greater than 110°C; glass frit; a solvent; and a resin; wherein: the metallic paste has a viscosity of 50 to 250 Pa·s at 10 sec -1 at 25°C and a shear-thinning index of at least 10 or a recovery time less than 10 seconds or both. greater than 50% by weight electrically conductive metal particles; an amide-based wax having a melting point greater than 110°C; glass frit; a solvent; and a resin; wherein: the metallic paste has a viscosity of 50 to 250 Pa·s at 10 sec -1 at 25°C and a shear-thinning index of at least 10 or a recovery time less than 10 seconds or both.
A semiconductor light emitting device comprising: a light emitting structure layer comprising a first semiconductor layer for generating electrons, a second semiconductor layer for generating holes and an active layer for emitting light by combination of the electrons and holes, wherein the first semiconductor layer comprises an N-type semiconductor layer and a first undoped semiconductor layer spaced farther apart from the active layer than the N-type semiconductor layer; characterized in that the first undoped semiconductor layer has a first region with defects and a second region without defects and the second region is thinner than the first region; and wherein a top surface of the first region of the first undoped semiconductor layer protrudes from a top surface of the second region of the first undoped semiconductor layer. a light emitting structure layer comprising a first semiconductor layer for generating electrons, a second semiconductor layer for generating holes and an active layer for emitting light by combination of the electrons and holes, wherein the first semiconductor layer comprises an N-type semiconductor layer and a first undoped semiconductor layer spaced farther apart from the active layer than the N-type semiconductor layer; characterized in that the first undoped semiconductor layer has a first region with defects and a second region without defects and the second region is thinner than the first region; and wherein a top surface of the first region of the first undoped semiconductor layer protrudes from a top surface of the second region of the first undoped semiconductor layer.
A packet (100A, 100B, 100C), comprising: a front panel and a back panel defining an internal volume therebetween, wherein the front panel and the back panel comprise a first edge having a plurality of first recesses formed therein, and wherein a nozzle provides a path of fluid communication from the internal volume, through the first edge, to an exterior of the packet (100A, 100B, 100C), wherein the first edge further includes a second recess formed therein, and wherein an end of the nozzle is positioned within the second recess; a consumer product disposed within the internal volume; and a cap configured to prevent the consumer product from flowing from the internal volume, through the nozzle, and to the exterior of the packet (100A, 100B, 100C), characterized in that the second recess is deeper than the first recesses. a front panel and a back panel defining an internal volume therebetween, wherein the front panel and the back panel comprise a first edge having a plurality of first recesses formed therein, and wherein a nozzle provides a path of fluid communication from the internal volume, through the first edge, to an exterior of the packet (100A, 100B, 100C), wherein the first edge further includes a second recess formed therein, and wherein an end of the nozzle is positioned within the second recess; a consumer product disposed within the internal volume; and a cap configured to prevent the consumer product from flowing from the internal volume, through the nozzle, and to the exterior of the packet (100A, 100B, 100C), characterized in that the second recess is deeper than the first recesses.
An Sn-plated stainless steel sheet, comprising a stainless steel sheet, a Ni-plating layer formed on the stainless steel sheet, and an Sn-plating layer formed on the Ni-plating layer, characterized in that the Ni-plating layer has a thickness of 0.3 to 3 μm, the Sn-plating layer has a thickness of 0.3 to 5 μm and a ratio of the thickness of the Ni-plating layer to the thickness of the Sn-plating layer (thickness of the Ni-plating layer / thickness of the Sn-plating layer) is 0.5/2.7 to 0.5 /0.3 and wherein a Ni crystal of the Ni-plating layer has a lattice distortion of 0.5% or less which lattice distortion is determined in accordance with the following method from a X-ray diffraction pattern obtained by using a wide angle X-ray diffractometer available from Rigaku Corporation under the model number: RINT-TTR III type, X-ray source: CuKα rays, tube voltage: 50 kV, tube current: 300 mA, step width: 0.02°, measurement speed: 1 sec/step, slit: 0.5°-0.15 mm-0.5°, diffraction line curved monochromator: (a) Determining integral widths β1 to β3 and Bragg angles θ1 to θ3 of three diffraction lines of Ni in the Ni-plating layer corresponding to Miller indexes of Ni, Ni and Ni, wherein the β 2 /tan 2 θ and the β/tanθsinθ satisfy the relationship represented by the equation: β 2 / tan 2 θ = λ / ε × β / tan ⁢ θ ⁢ sin ⁢ θ + 4 η 2 wherein β is an integral width, λ is a wavelength of X-ray, ε is a length of a crystal lattice, and η is a lattice strain; (b) when taking the β 2 /tan 2 θ as a Y axis, and the β/tanθsinθ as an X axis, drawing a linear approximate curve by using a minimum square method; and (c) determining the lattice distortion from the Y-axis intercept of a straight line having a correlation coefficient of 0.9 or more. (a) Determining integral widths β1 to β3 and Bragg angles θ1 to θ3 of three diffraction lines of Ni in the Ni-plating layer corresponding to Miller indexes of Ni, Ni and Ni, wherein the β 2 /tan 2 θ and the β/tanθsinθ satisfy the relationship represented by the equation: β 2 / tan 2 θ = λ / ε × β / tan ⁢ θ ⁢ sin ⁢ θ + 4 η 2 wherein β is an integral width, λ is a wavelength of X-ray, ε is a length of a crystal lattice, and η is a lattice strain; (b) when taking the β 2 /tan 2 θ as a Y axis, and the β/tanθsinθ as an X axis, drawing a linear approximate curve by using a minimum square method; and (c) determining the lattice distortion from the Y-axis intercept of a straight line having a correlation coefficient of 0.9 or more.
An electronic device comprising: a plurality of displays (111, 113); a camera module;a memory configured to store at least one image; and a processor operatively connected to the displays (111, 113) and the memory, wherein the processor is configured to: output a first image of images stored in the memory, on a first display among the displays (111, 113); output a preview image obtained from the camera module, on a second display among the displays (111, 113) while the first image is being output on the first display; and when a captured image, which is at least part of the preview image, is obtained from the camera module in response to a capture input, assign a display order of the captured image so as to be adjacent to a display order of the first image and store the captured image in the memory. a plurality of displays (111, 113); a camera module;a memory configured to store at least one image; and a processor operatively connected to the displays (111, 113) and the memory, wherein the processor is configured to: output a first image of images stored in the memory, on a first display among the displays (111, 113); output a preview image obtained from the camera module, on a second display among the displays (111, 113) while the first image is being output on the first display; and when a captured image, which is at least part of the preview image, is obtained from the camera module in response to a capture input, assign a display order of the captured image so as to be adjacent to a display order of the first image and store the captured image in the memory. output a first image of images stored in the memory, on a first display among the displays (111, 113); output a preview image obtained from the camera module, on a second display among the displays (111, 113) while the first image is being output on the first display; and when a captured image, which is at least part of the preview image, is obtained from the camera module in response to a capture input, assign a display order of the captured image so as to be adjacent to a display order of the first image and store the captured image in the memory.
A local server of a local area network, the server comprising a processor configured to execute a communications routine that when executed causes the local server to: signal a cellular server to transmit a beacon signal through a cellular network, the beacon signal indicating data is available to be transferred through a wireless portion of a local area network to the electronic device; the electronic device responding to receipt of the beacon signal from the cellular server by interacting through the wireless portion so that the electronic device becomes accessible to the local server; and transmit the data to the electronic device through the local area network. signal a cellular server to transmit a beacon signal through a cellular network, the beacon signal indicating data is available to be transferred through a wireless portion of a local area network to the electronic device; the electronic device responding to receipt of the beacon signal from the cellular server by interacting through the wireless portion so that the electronic device becomes accessible to the local server; and transmit the data to the electronic device through the local area network.
A topical dosage form composition for use in a method of treating acne, wherein the topical dosage form is to be administered daily or intermittently, the topical dosage form composition comprising a therapeutically effective dose of a pharmaceutical ingredient comprising a 19-nor-containing vitamin D compound chosen from formulae,,, and below, a stereoisomer thereof, a salt thereof or a solute thereof, and, a pharmaceutically suitable topical carrier system: wherein the carrier system comprises 30% to 70% ethanol and 70% to 30% propylene glycol.
A method of manufacturing a case frame, the method comprising: laminating a hard coating layer on a transfer resin film; laminating an ultraviolet curable molded pattern layer on the hard coating layer, and curing the ultraviolet curable molded pattern layer while the transfer resin film passes through a pattern mold for forming an ultraviolet curable molded pattern layer; laminating a deposition layer on the ultraviolet curable molded pattern layer; laminating a printing layer on the deposition layer; performing transfer IMD by applying the transfer resin film, including the printing layer, a primary layer, the deposition layer, the ultraviolet curable molded pattern layer, and the hard coating layer to an IMD mold and injection molding the case frame. laminating a hard coating layer on a transfer resin film; laminating an ultraviolet curable molded pattern layer on the hard coating layer, and curing the ultraviolet curable molded pattern layer while the transfer resin film passes through a pattern mold for forming an ultraviolet curable molded pattern layer; laminating a deposition layer on the ultraviolet curable molded pattern layer; laminating a printing layer on the deposition layer; performing transfer IMD by applying the transfer resin film, including the printing layer, a primary layer, the deposition layer, the ultraviolet curable molded pattern layer, and the hard coating layer to an IMD mold and injection molding the case frame.
A loudspeaker (100, 200) comprising: a plurality of electro-acoustic drivers (104, 204) configured to be positioned so that an axis running through an acoustic center of the electro-acoustic drivers is one of a substantially straight line, J-shape, reverse J-shape, and C-shape; characterised in that it further comprises: at least one sensor (130, 230) to detect a configuration of the plurality of electro-acoustic drivers; and a processing device (150, 250) configured to automatically adjust one or more of an equalization and a gain applied to an audio signal (A in) output through the electro-acoustic drivers based on the detected configuration. a plurality of electro-acoustic drivers (104, 204) configured to be positioned so that an axis running through an acoustic center of the electro-acoustic drivers is one of a substantially straight line, J-shape, reverse J-shape, and C-shape; characterised in that it further comprises: at least one sensor (130, 230) to detect a configuration of the plurality of electro-acoustic drivers; and a processing device (150, 250) configured to automatically adjust one or more of an equalization and a gain applied to an audio signal (A in) output through the electro-acoustic drivers based on the detected configuration. at least one sensor (130, 230) to detect a configuration of the plurality of electro-acoustic drivers; and a processing device (150, 250) configured to automatically adjust one or more of an equalization and a gain applied to an audio signal (A in) output through the electro-acoustic drivers based on the detected configuration.
A hybrid insulation sheet (3, 2100) comprising: a radiating layer (1, 2020) that spreads and radiates heat generated from a heat generating component of an electronic apparatus; and an insulating layer (2, 2010) that suppresses the heat saturated in the radiating layer from being delivered to the outside of the electronic apparatus, wherein the insulating layer (2, 2010) comprises a porous substrate having a large number of fine pores that form air pockets capable of trapping air and the porous substrate is formed of a nano-fiber web having a number of pores that are formed by accumulating nano-fibers, wherein a diameter of the nano-fibers is in the range of 0.3 to 5 μm, a thickness of the insulating layer (2, 2010) is formed in the range of 5 to 30 μm and a porosity of the fine pores formed in the insulating layer (2, 2010) is in the range of 50 to 80%. a radiating layer (1, 2020) that spreads and radiates heat generated from a heat generating component of an electronic apparatus; and an insulating layer (2, 2010) that suppresses the heat saturated in the radiating layer from being delivered to the outside of the electronic apparatus, wherein the insulating layer (2, 2010) comprises a porous substrate having a large number of fine pores that form air pockets capable of trapping air and the porous substrate is formed of a nano-fiber web having a number of pores that are formed by accumulating nano-fibers, wherein a diameter of the nano-fibers is in the range of 0.3 to 5 μm, a thickness of the insulating layer (2, 2010) is formed in the range of 5 to 30 μm and a porosity of the fine pores formed in the insulating layer (2, 2010) is in the range of 50 to 80%.
A method of preparing a meat skinner blade, the method comprising: abrading a first edge of a steel strip to form an angularly-offset two-facet blade edge having two facets (40, 42) symmetrically arranged about a central axis which is angularly offset from a longitudinal axis of the steel strip; and, honing the two-facet blade edge of the steel strip to impart a vertical taper thereto with convexity being imparted along the two facets (40, 42) of the two-facet blade edge. abrading a first edge of a steel strip to form an angularly-offset two-facet blade edge having two facets (40, 42) symmetrically arranged about a central axis which is angularly offset from a longitudinal axis of the steel strip; and, honing the two-facet blade edge of the steel strip to impart a vertical taper thereto with convexity being imparted along the two facets (40, 42) of the two-facet blade edge.
Microfibre floor cloth having two sewn-on tabs on the microfibre floor cloth for the fastening of folding holders, wherein the distance between the tabs is adapted to the size of the folding holder, wherein - the microfibre floor cloth is of rectangular configuration, and has a periphery having two longitudinal peripheries (41, 42), a top side on which the tabs are sewn, and a bottom side which serves as cleaning surface, - the two tabs are attached centrally on the microfibre floor cloth, in order to fasten a folding holder, - the microfibre floor cloth is larger than the area which is covered by a folding holder inserted into the tabs, wherein, above and below the tabs, and also to the side of the tabs, floor cloth material is present between the tabs and the periphery of the microfibre floor cloth, and, - between the one longitudinal edge of a folding holder inserted into the tabs and the one longitudinal periphery, and also between the other longitudinal edge of a folding holder inserted into the tabs and the other longitudinal periphery, the microfibre floor cloth in each case provides a cleaning surface (B1, B2), which cleaning surfaces are provided and suitable for being used as further cleaning surface (B1, B2) when turned over under the folding holder. - the microfibre floor cloth is of rectangular configuration, and has a periphery having two longitudinal peripheries (41, 42), a top side on which the tabs are sewn, and a bottom side which serves as cleaning surface, - the two tabs are attached centrally on the microfibre floor cloth, in order to fasten a folding holder, - the microfibre floor cloth is larger than the area which is covered by a folding holder inserted into the tabs, wherein, above and below the tabs, and also to the side of the tabs, floor cloth material is present between the tabs and the periphery of the microfibre floor cloth, and, - between the one longitudinal edge of a folding holder inserted into the tabs and the one longitudinal periphery, and also between the other longitudinal edge of a folding holder inserted into the tabs and the other longitudinal periphery, the microfibre floor cloth in each case provides a cleaning surface (B1, B2), which cleaning surfaces are provided and suitable for being used as further cleaning surface (B1, B2) when turned over under the folding holder.
A sowing element for agricultural precision sowing machines comprising a seed selection device which includes a casing and a perforated disc which is caused to rotate in the casing, wherein a pressurization device is associated with the casing in order to subject opposite faces (18a, 18b) of the disc to a pressure differential, and wherein an opening is provided in the casing in order to ventilate one of the faces of the disc, wherein the opening is pneumatically connected to a filtration system or to a remote intake system, wherein the box-shaped casing comprises a fixed box-shaped body and a cover which is removably applied to the box-shaped body, the opening being formed in the box-shaped body, wherein in the region of the opening, at least one manifold (33, 40) is formed on the box-shaped body for an intake pipe or a delivery pipe of the pressurization device, characterized in that the box-shaped body comprises a first manifold which is connected to a ventilation system which is capable of subjecting a face of the disc to a negative pressure and a second manifold is connected to the filtration system or to the remote intake system.
A laser system for medical and cosmetic applications comprising: a. at least one laser source operating at one or more laser wavelengths; b. an electronic visual display (104, 204) having an input interface to set laser parameters; c. at least one waveguide; d. means to optically connect said laser source to said at least one waveguide; wherein said waveguide is optically coupled with the laser source to convey laser radiation to a treatment site characterized in that the input interface is a n-dimensional input interface arranged to simultaneously set n laser parameters, wherein n is equal to two or more a. at least one laser source operating at one or more laser wavelengths; b. an electronic visual display (104, 204) having an input interface to set laser parameters; c. at least one waveguide; d. means to optically connect said laser source to said at least one waveguide;