mhurhangee/ep-ind-claims huggingface dataset:
An optical image sensing module (200A; 200B; 300), comprising: a substrate; an image sensing component, disposed on a surface of the substrate; an infrared light source, disposed on the surface of the substrate; a light shielding cylinder, having a first opening and a second opening opposite to each other and disposed on the surface of the substrate, and the image sensing component located in the second opening; a light guiding body, located at a side of the light shielding cylinder, having a light incident surface and a light output surface; and a lens; wherein an infrared light generated by the infrared light source enters the light guiding body from the light incident surface, and then exits the light guiding body through the light output surface, and is reflected on a media surface, and then enters the light shielding cylinder to form an image on the image sensing component characterized in that said lens is adjacent to said first opening; and in that said light enters said cylinder through said lens. a substrate; an image sensing component, disposed on a surface of the substrate; an infrared light source, disposed on the surface of the substrate; a light shielding cylinder, having a first opening and a second opening opposite to each other and disposed on the surface of the substrate, and the image sensing component located in the second opening; a light guiding body, located at a side of the light shielding cylinder, having a light incident surface and a light output surface; and a lens; wherein an infrared light generated by the infrared light source enters the light guiding body from the light incident surface, and then exits the light guiding body through the light output surface, and is reflected on a media surface, and then enters the light shielding cylinder to form an image on the image sensing component characterized in that said lens is adjacent to said first opening; and in that said light enters said cylinder through said lens.
A personal or fabric care composition comprising an active material, said active material encapsulated by a polyurea microcapsule to provide a polymer encapsulated active material, the polymer encapsulated active material is further coated by a terpolymer comprising methacrylamidopropyl trimethyl ammonium chloride, acrylamide and acrylic acid.
A multi-link hinge, especially for refrigerator doors, consisting of articulated levers which are connected to each other in the manner of scissors, wherein the components (1, 2, 3, 4, 5, 6) forming the multi-link hinge, in so far as they assume different positions and different intermediate spaces with respect to each other depending on the opening position of the hinge, are covered by at least one lateral protective plate, characterized in that the protective plate is mounted by means of an articulation point on one of the components of the hinge which are movable relative to each other and is retained and guided by means of a slot which is spaced from the articulation point and a guide pin which is fixed to a different one of the components which are movable relative to each other.
A user equipment (102, 500) arranged for packet-based device-to-device, D2D, discovery operations, the user equipment (102, 500) being enabled for proximity services, the user equipment (102, 500) configured to: receive signaling from an eNB indicating resources allocated for D2D discovery; configure a discovery packet (300, 320) to have at least a discovery payload and a CRC, the discovery payload to include discovery-related content; and transmit the discovery packet (300, 320) on at least some of the indicated resources for receipt by a receiving user equipment (102, 500); characterized in that the user equipment (102, 500) is arranged to configure and transmit the discovery packet (300, 320) without a header, wherein the user equipment (102, 500) is further configured to transmit a demodulation reference signal, DMRS, and wherein the DMRS indicates a payload size and/or modulation and coding scheme, MCS, of the discovery payload. receive signaling from an eNB indicating resources allocated for D2D discovery; configure a discovery packet (300, 320) to have at least a discovery payload and a CRC, the discovery payload to include discovery-related content; and transmit the discovery packet (300, 320) on at least some of the indicated resources for receipt by a receiving user equipment (102, 500); characterized in that the user equipment (102, 500) is arranged to configure and transmit the discovery packet (300, 320) without a header, wherein the user equipment (102, 500) is further configured to transmit a demodulation reference signal, DMRS, and wherein the DMRS indicates a payload size and/or modulation and coding scheme, MCS, of the discovery payload.
A pressure shock absorber comprising: a spring portion used for a vehicle suspension; a hydraulic jack portion which can adjust a preload of the spring portion; and a connecting portion through which a hydraulic pressure source supplying hydraulic pressure to the hydraulic jack portion is connected to the hydraulic jack portion, wherein the connecting portion can be connected to and separated from the hydraulic pressure source, characterized in that a connecting plug is provided as the connecting portion in the hydraulic jack portion and a connecting socket which can be connected to and separated from the connecting plug is provided in the hydraulic pressure source, and the connecting plug and the connecting socket form a bayonet locking mechanism, both having flat-face design, in which air intrusion does not occur at the time of fixing/releasing the coupling and a non-spill coupling in which liquid drip does not occur when separated. a spring portion used for a vehicle suspension; a hydraulic jack portion which can adjust a preload of the spring portion; and a connecting portion through which a hydraulic pressure source supplying hydraulic pressure to the hydraulic jack portion is connected to the hydraulic jack portion, wherein the connecting portion can be connected to and separated from the hydraulic pressure source, characterized in that a connecting plug is provided as the connecting portion in the hydraulic jack portion and a connecting socket which can be connected to and separated from the connecting plug is provided in the hydraulic pressure source, and the connecting plug and the connecting socket form a bayonet locking mechanism, both having flat-face design, in which air intrusion does not occur at the time of fixing/releasing the coupling and a non-spill coupling in which liquid drip does not occur when separated.
An airfoil for a gas turbine engine, comprising: a body comprising a first side wall and a second side wall joined at a leading edge and a trailing edge, the first side wall having a first interior surface and the second side wall having a second interior surface; an internal wall disposed within the body and extending between the first interior surface and the second interior surface to define a supply passage and a leading edge passage, wherein the internal wall defines a plurality of cooling holes to direct cooling air from the supply passage to the leading edge passage such that the cooling air impinges upon the leading edge; a first plurality of grooves formed in the first interior surface, each of the first plurality of grooves extending in a chordwise direction within the leading edge passage; and a second plurality of grooves formed in the second interior surface, each of the second plurality of grooves extending in the chordwise direction within the leading edge chamber, wherein each of the plurality of cooling holes is associated with one of the first plurality of grooves and one of the second plurality of grooves, wherein the first interior surface is generally flat between adjacent grooves of the first plurality of grooves, and wherein each of the first plurality of grooves has a width and a depth, wherein the width is at least three times the depth, and wherein the width and the depth of the grooves decrease along the length towards the leading edge. a body comprising a first side wall and a second side wall joined at a leading edge and a trailing edge, the first side wall having a first interior surface and the second side wall having a second interior surface; an internal wall disposed within the body and extending between the first interior surface and the second interior surface to define a supply passage and a leading edge passage, wherein the internal wall defines a plurality of cooling holes to direct cooling air from the supply passage to the leading edge passage such that the cooling air impinges upon the leading edge; a first plurality of grooves formed in the first interior surface, each of the first plurality of grooves extending in a chordwise direction within the leading edge passage; and a second plurality of grooves formed in the second interior surface, each of the second plurality of grooves extending in the chordwise direction within the leading edge chamber, wherein each of the plurality of cooling holes is associated with one of the first plurality of grooves and one of the second plurality of grooves, wherein the first interior surface is generally flat between adjacent grooves of the first plurality of grooves, and wherein each of the first plurality of grooves has a width and a depth, wherein the width is at least three times the depth, and wherein the width and the depth of the grooves decrease along the length towards the leading edge.
A plant for the automatic loading of a container with ordered stacks of sacks comprising: at least one movable carriage along a first direction; said movable carriage having a plurality of first prongs placed cantilevered; a guide aligned with said container; a beam sliding inside said guide along a second direction perpendicular to said first direction; a seizing apparatus, having second prongs, associated to one end of said beam; said second prongs being insertable with said first prongs; said at least one movable carriage being movable from a first position for receiving said ordered stacks of sacks on said first prongs, to a second position where said first prongs are located above said second prongs; said second prongs being vertically movable; said beam being longitudinally movable to enter inside said container.
An Inductive Power Transfer pad (4, 5) comprising: a coil for generating or receiving magnetic coupling flux; and a leakage flux element (7, 8, 10) separated from the coil by a region of relatively low magnetic permeability and positioned to intercept magnetic leakage flux to provide a controlled path for the magnetic leakage flux independent of the magnetic coupling flux; wherein the leakage flux element (7, 8, 10) comprises a non-conductive lossy material of relatively high magnetic permeability for absorbing energy from a time-varying magnetic field to thereby attenuate leakage flux. a coil for generating or receiving magnetic coupling flux; and a leakage flux element (7, 8, 10) separated from the coil by a region of relatively low magnetic permeability and positioned to intercept magnetic leakage flux to provide a controlled path for the magnetic leakage flux independent of the magnetic coupling flux; wherein the leakage flux element (7, 8, 10) comprises a non-conductive lossy material of relatively high magnetic permeability for absorbing energy from a time-varying magnetic field to thereby attenuate leakage flux.
A battery-powered blower, comprising: a housing assembly having a handle portion, the handle portion having an central longitudinal axis defining a plane; an outlet tube extending from a front portion of the housing assembly; a fan located within the housing assembly, and driven by a motor to blow air out of the outlet tube, the motor being provided within the housing assembly; characterised by a battery removably mounted to a side portion of the housing assembly, the battery being laterally offset from the handle portion, wherein a center of gravity of the blower is located below the handle portion. a housing assembly having a handle portion, the handle portion having an central longitudinal axis defining a plane; an outlet tube extending from a front portion of the housing assembly; a fan located within the housing assembly, and driven by a motor to blow air out of the outlet tube, the motor being provided within the housing assembly; characterised by a battery removably mounted to a side portion of the housing assembly, the battery being laterally offset from the handle portion, wherein a center of gravity of the blower is located below the handle portion.
A method of forming a catalyst material, the method comprising: providing a particle that includes a metal core that is covered with an atomic layer of metal atoms, the metal atoms having a reduction potential lower than platinum; providing a solution that includes a platinum salt, and a compound capable of forming a coordination complex with the platinum salt or adsorbing on platinum atoms; and treating the particle with the solution to thereby displace the metal atoms on the metal core with platinum atoms from the solution and produce a catalyst material that includes the metal core covered with an atomic layer of the platinum atoms, wherein the compound capable of forming a coordination complex with the platinum salt or adsorbing on platinum atoms is selected from the group consisting of citric acid, EDTA, carbon monoxide and mixtures thereof. providing a particle that includes a metal core that is covered with an atomic layer of metal atoms, the metal atoms having a reduction potential lower than platinum; providing a solution that includes a platinum salt, and a compound capable of forming a coordination complex with the platinum salt or adsorbing on platinum atoms; and treating the particle with the solution to thereby displace the metal atoms on the metal core with platinum atoms from the solution and produce a catalyst material that includes the metal core covered with an atomic layer of the platinum atoms, wherein the compound capable of forming a coordination complex with the platinum salt or adsorbing on platinum atoms is selected from the group consisting of citric acid, EDTA, carbon monoxide and mixtures thereof.
Household appliance with an inner container, a door for closing the inner container, a drive facility for assisting the opening of the door, and a pressure sensing facility for detecting a pressure difference (Δp) between an interior pressure (p I) in the interior of the inner container and an ambient pressure (p A) outside the inner container, wherein the drive facility is configured to apply a drive force to the door as a function of the pressure difference (Δp), characterised in that the drive facility is configured to apply the drive force to the door when the pressure difference (Δp) reaches a predetermined threshold value within a predetermined time period or when the pressure difference (Δp) reaches a first predetermined threshold value within a first predetermined time period and then a second predetermined threshold value within a second predetermined time period.
A resin substrate provided with a coating layer, which comprises a substrate made of a resin containing an aromatic ring and a coating layer containing an acrylic polymer comprising at least one member selected from an alkyl acrylate and an alkyl methacrylate as main monomer units, and the ultraviolet light absorber 2-[4-(4,6-bis-{2-hydroxy-4-[1-(6-methyl-heptyloxycarbonyl)-ethoxy]-phenyl}-[1,3,5]triazin-2-yl)-3-hydroxy-phenoxy]-propionic acid 6-methyl-heptyl ester, formed on at least one surface of the substrate, wherein the acrylic polymer has an acid value of at most 1 mg KOH/g, a glass transition point of from 60°C to 150°C, and a mass average molecular weight of from 90,000 to 1,000,000, and the thickness of the coating layer is from 0.5 μm to 10 μm. an acrylic polymer comprising at least one member selected from an alkyl acrylate and an alkyl methacrylate as main monomer units, and the ultraviolet light absorber 2-[4-(4,6-bis-{2-hydroxy-4-[1-(6-methyl-heptyloxycarbonyl)-ethoxy]-phenyl}-[1,3,5]triazin-2-yl)-3-hydroxy-phenoxy]-propionic acid 6-methyl-heptyl ester,
Arrangement for a motor vehicle body comprising a windscreen, a lower window cross member extending along a lower edge of the windscreen and extending transversely to the vehicle, a wing and a wing bracket being arranged on each side of the vehicle so as to frame the lower window cross member with a space (E1, E2) arranged between each wing and an adjacent side edge of the windscreen, the arrangement comprising a side seal closing said space (E1, E2), the side seal having the general shape of an angle bracket, characterized in that a lower arm of the angle bracket engages in contact with the side edge of the windscreen and an upper arm of the angle bracket is fastened to the adjacent wing, the arms (61, 62) being connected by a corner portion forming a hinge capable of deforming in order to absorb the geometrical dispersions and the relative deformations between, on the one hand, the windscreen and the lower windscreen cross member and, on the other hand, the wing and the wing bracket.
A system for testing optical properties of a toric intraocular lens, the system comprising: an objective lens; an IOL receiver for mounting a toric IOL to be measured in fixed axial alignment with the objective lens; a total reflectance mirror positioned in axial alignment with the objective lens and on an opposite side of the IOL receiver from the objective lens, the mirror being linearly adjustable relative to the IOL receiver to adjust an axial distance between the mirror and a toric IOL mounted in the IOL receiver; and a rotational slit aperture positioned between the objective lens and the IOL receiver, the slit aperture being rotationally adjustable relative to the IOL receiver to adjust a rotational orientation of the slit aperture about an axis passing through the objective lens and a toric IOL mounted in the IOL receiver; wherein a test laser beam passing through a toric IOL mounted in the IOL receiver is limited by the slit aperture to a plane corresponding to the rotational orientation of the slit aperture. an objective lens; an IOL receiver for mounting a toric IOL to be measured in fixed axial alignment with the objective lens; a total reflectance mirror positioned in axial alignment with the objective lens and on an opposite side of the IOL receiver from the objective lens, the mirror being linearly adjustable relative to the IOL receiver to adjust an axial distance between the mirror and a toric IOL mounted in the IOL receiver; and a rotational slit aperture positioned between the objective lens and the IOL receiver, the slit aperture being rotationally adjustable relative to the IOL receiver to adjust a rotational orientation of the slit aperture about an axis passing through the objective lens and a toric IOL mounted in the IOL receiver;
A wireless communication method, comprising receiving, by a terminal device, first information transmitted by a network device, the first information being used to indicate at least one piece of slicing information supported by a target cell; and determining, by the terminal device based on the at least one piece of slicing information, target slicing information, characterized in that the method further comprises: determining by the terminal device a target random access parameter corresponding to the target slicing information comprises a random access resource, for the target cell, at least one parameter for access control comprises at least one of: at least one barring parameter corresponding to the at least one piece of slicing information, at least one Unified Access Control parameter corresponding to the at least one piece of slicing information, and at least one access priority parameter corresponding to the at least one piece of slicing information, and at least some of slices indicated by the at least one piece of slicing information correspond to different Backoff Indicator values. receiving, by a terminal device, first information transmitted by a network device, the first information being used to indicate at least one piece of slicing information supported by a target cell; and determining, by the terminal device based on the at least one piece of slicing information, target slicing information, characterized in that the method further comprises: determining by the terminal device a target random access parameter corresponding to the target slicing information comprises a random access resource, for the target cell, at least one parameter for access control comprises at least one of: at least one barring parameter corresponding to the at least one piece of slicing information, at least one Unified Access Control parameter corresponding to the at least one piece of slicing information, and at least one access priority parameter corresponding to the at least one piece of slicing information, and at least some of slices indicated by the at least one piece of slicing information correspond to different Backoff Indicator values.
Process for manufacturing an aqueous transparent oil-in-water emulsion comprising an emulsified carotenoid, whereby the carotenoid is present in the droplets and solved in the oil, with an oil droplets size measured as z-average size with dynamic light scattering of 50 - 400 nm comprising the following steps: a) manufacturing a solution comprising modified starch in a concentration of 0,7 - 70 %, optionally adding at least one water soluble antioxidant in a concentration of 0,001 - 10 %, at least one sugar in a concentration of 0,001 -80 % and water and mixing the components, b) manufacturing a solution by mixing at least one carotenoid in a concentration of 0,1 - 15 %, optionally adding at least one oil-soluble antioxidant in a concentration of 0,001 - 10 %, in triacylglycerol oil in a concentration of 1 - 30 % and melting the dispersed carotenoid at a temperature of 100- 200°C, c) introducing the solution of step b) into solution of step a), d) performing at least one step of pre-emulsification by passing the mixture of step c) through a rotator/stator mixer, e) performing at least one step, preferably two steps of high pressure homogenization, f) spray drying the emulsion of step e) to obtain a powder, g-1) manufacturing an emulsion by introducing the powder of step f) in water, whereby the percent are weight percent referring to the emulsion of step c) to e). a) manufacturing a solution comprising modified starch in a concentration of 0,7 - 70 %, optionally adding at least one water soluble antioxidant in a concentration of 0,001 - 10 %, at least one sugar in a concentration of 0,001 -80 % and water and mixing the components, b) manufacturing a solution by mixing at least one carotenoid in a concentration of 0,1 - 15 %, optionally adding at least one oil-soluble antioxidant in a concentration of 0,001 - 10 %, in triacylglycerol oil in a concentration of 1 - 30 % and melting the dispersed carotenoid at a temperature of 100- 200°C, c) introducing the solution of step b) into solution of step a), d) performing at least one step of pre-emulsification by passing the mixture of step c) through a rotator/stator mixer, e) performing at least one step, preferably two steps of high pressure homogenization, f) spray drying the emulsion of step e) to obtain a powder, g-1) manufacturing an emulsion by introducing the powder of step f) in water, whereby the percent are weight percent referring to the emulsion of step c) to e).
A lighting device with a printed circuit board that is populated with a lamp and an electronic circuit to control the lamp, the lamp comprising one or more LEDs, especially OLEDs and/or LECs, characterized by a decorative layer that is applied directly onto a surface of the printed circuit board.