mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a housing; a plurality of coils (510; 530) disposed on a first layer within the housing; a plurality of other coils (520; 540) disposed on a second layer substantially parallel to the first layer; a first conductor that connects an end point of a first coil of the plurality of coils and a start point of a second coil of the plurality of other coils and conducts a current from the end point of the first coil to the start point of the second coil; and a second conductor that connects a start point of a third coil, of which an inner side surrounds an outer side of the first coil of the plurality of coils, and an end point of the second coil and conducts the current to be applied from the end point of the second coil to the start point of the third coil, wherein the first conductor and the second conductor induce a directional magnetic field when the current flows, the electronic device being characterized in that: the first coil includes a first connection part connected with a start point of the first coil and a second connection part connected with the end point of the first coil, wherein the first connection part has a form in which a width increases in a first direction of the winding pattern from the start point of the first coil and the second connection part has a form in which a width increases in a second direction of the winding pattern from the end point of the first coil, the second direction being opposite to the first direction. a housing; a plurality of coils (510; 530) disposed on a first layer within the housing; a plurality of other coils (520; 540) disposed on a second layer substantially parallel to the first layer; a first conductor that connects an end point of a first coil of the plurality of coils and a start point of a second coil of the plurality of other coils and conducts a current from the end point of the first coil to the start point of the second coil; and a second conductor that connects a start point of a third coil, of which an inner side surrounds an outer side of the first coil of the plurality of coils, and an end point of the second coil and conducts the current to be applied from the end point of the second coil to the start point of the third coil, wherein the first conductor and the second conductor induce a directional magnetic field when the current flows, the electronic device being characterized in that: the first coil includes a first connection part connected with a start point of the first coil and a second connection part connected with the end point of the first coil, wherein the first connection part has a form in which a width increases in a first direction of the winding pattern from the start point of the first coil and the second connection part has a form in which a width increases in a second direction of the winding pattern from the end point of the first coil, the second direction being opposite to the first direction.
A fastening arrangement, especially for furniture parts, comprising at least one mounting element (40, 50, 60) which is glued together with a component (41, 51, 61), whereby the component is arranged as a lightweight building board with two cover layers and an interposed middle layer and whereby fastening means (42, 43, 52, 53, 63, 64) to which a fitting part (45, 55) is attached are arranged on the mounting element (40, 50, 60), characterized in that several mounting elements (40, 50, 60) are glued together with the component (41, 51, 61) which are connected with one another.
A method of producing an optical coating having reduced light scattering, comprising the steps of: - determination of a layer design of the optical coating, the determination of the layer design comprising a determination of the arrangement of layers (3, 4), a determination of the layer materials and a determination of the layer thicknesses of the layers (3, 4), - computational optimisation of the reflection or transmission of the optical coating for a predetermined wavelength or range of wavelengths by varying at least one layer parameter, - determination of the position of a scattering zone of the optical coating, wherein the determination of the position of the scattering zone comprises an estimation of the particle diameters at the surface of the optical coating of contaminations which are to be expected during operation of the optical coating and which are suitable for scattering electromagnetic radiation, and wherein the position of the scattering zone is determined in such a way that the scattering zone lies in the range of the particle diameters above the surface, - computational optimisation of the position of a minimum of the electric field strength by varying at least one layer parameter in such a way that the electric field strength has a minimum in the scattering zone, the minimum of the electric field strength occurring in a range between 10 nm and 2.5 μm above the surface of the uppermost layer, and - producing the optical coating with the layer parameters determined by the computational optimisations on a substrate. - determination of a layer design of the optical coating, the determination of the layer design comprising a determination of the arrangement of layers (3, 4), a determination of the layer materials and a determination of the layer thicknesses of the layers (3, 4), - computational optimisation of the reflection or transmission of the optical coating for a predetermined wavelength or range of wavelengths by varying at least one layer parameter, - determination of the position of a scattering zone of the optical coating, wherein the determination of the position of the scattering zone comprises an estimation of the particle diameters at the surface of the optical coating of contaminations which are to be expected during operation of the optical coating and which are suitable for scattering electromagnetic radiation, and wherein the position of the scattering zone is determined in such a way that the scattering zone lies in the range of the particle diameters above the surface, - computational optimisation of the position of a minimum of the electric field strength by varying at least one layer parameter in such a way that the electric field strength has a minimum in the scattering zone, the minimum of the electric field strength occurring in a range between 10 nm and 2.5 μm above the surface of the uppermost layer, and - producing the optical coating with the layer parameters determined by the computational optimisations on a substrate.
A tunable white light generator, comprising: an active phosphor element including a III-nitride nanowires-based light emitting diode emitting broadband light across yellow-amber-red wavelengths with peak wavelengths of 590 nm to 650 nm, with nanowires of said active phosphor element being epitaxially grown on a first side of a quartz substrate; and a narrow linewidth external red, blue, and green laser diode light source emitting light at second wavelengths outside of said yellow-amber-red wavelengths toward a second side of the substrate opposite the first side, with said RBG light source being positioned away from the substrate, and with light from the LEDs combining with light from the external RBG light source that passed through the substrate to generate a wide-spectrum white light away from the first side of the substrate, said substrate being semi-transparent to light from the narrow linewidth external RBG light source. an active phosphor element including a III-nitride nanowires-based light emitting diode emitting broadband light across yellow-amber-red wavelengths with peak wavelengths of 590 nm to 650 nm, with nanowires of said active phosphor element being epitaxially grown on a first side of a quartz substrate; and a narrow linewidth external red, blue, and green laser diode light source emitting light at second wavelengths outside of said yellow-amber-red wavelengths toward a second side of the substrate opposite the first side, with said RBG light source being positioned away from the substrate, and with light from the LEDs combining with light from the external RBG light source that passed through the substrate to generate a wide-spectrum white light away from the first side of the substrate, said substrate being semi-transparent to light from the narrow linewidth external RBG light source.
An electronic operating and display unit comprising at least one display and at least one operating unit, wherein the display includes a plurality of visualisation regions, characterised in that the display is operable in navigation levels (19, 20), wherein the display is subdivided within a navigation level (19, 20) into visualisation regions (32, 33, 37, 38, 46, 47) and at least a part of the visualisation regions (32, 33, 37, 38, 46, 47) are moveable relative to each other, wherein a part of the display and visualisation regions (26, 28, 33) is visible in each navigation level (19, 20) and wherein the visualisation region of the first navigation level can be horizontally scrolled and the visualisation region (37, 38) of the second menu level can be vertically scrolled.
A method of forming a component by an additive manufacturing process, the method comprising: forming, using the additive manufacturing process, a body of the component from an additive manufacturing material; forming a first cavity within the body; and forming a first vibration damper within the first cavity by: forming, during the same additive manufacturing process used to form the body, a first solidified element by selectively solidifying the additive manufacturing material; and enclosing the first solidified element and a flowable medium within the first cavity. forming, using the additive manufacturing process, a body of the component from an additive manufacturing material; forming a first cavity within the body; and forming a first vibration damper within the first cavity by: forming, during the same additive manufacturing process used to form the body, a first solidified element by selectively solidifying the additive manufacturing material; and enclosing the first solidified element and a flowable medium within the first cavity. forming, during the same additive manufacturing process used to form the body, a first solidified element by selectively solidifying the additive manufacturing material; and enclosing the first solidified element and a flowable medium within the first cavity.
A method for receiving a downlink signal by a user equipment, UE, part of a wireless communication system, comprising: receiving a plurality of parameter sets for a Semi Persistent Scheduling, SPS, -Physical Downlink Shared CHannel, PDSCH, through higher layer signaling; receiving a Downlink Control information, DCI, carried on a physical downlink control channel, PDCCH, configuring SPS; and characterized in that the method further comprises: if the DCI is a first DCI format including an indicator, decoding the SPS-PDSCH using a parameter set indicated by the indicator among the plurality of parameter sets; and if the DCI is a second DCI format not including the indicator, decoding the SPS-PDSCH using a predetermined parameter set from among the plurality of parameter sets. receiving a plurality of parameter sets for a Semi Persistent Scheduling, SPS, -Physical Downlink Shared CHannel, PDSCH, through higher layer signaling; receiving a Downlink Control information, DCI, carried on a physical downlink control channel, PDCCH, configuring SPS; and characterized in that the method further comprises: if the DCI is a first DCI format including an indicator, decoding the SPS-PDSCH using a parameter set indicated by the indicator among the plurality of parameter sets; and if the DCI is a second DCI format not including the indicator, decoding the SPS-PDSCH using a predetermined parameter set from among the plurality of parameter sets. if the DCI is a first DCI format including an indicator, decoding the SPS-PDSCH using a parameter set indicated by the indicator among the plurality of parameter sets; and if the DCI is a second DCI format not including the indicator, decoding the SPS-PDSCH using a predetermined parameter set from among the plurality of parameter sets.
A pressure relief door assembly for use with an engine nacelle, the assembly comprising: a PRD frame; a PRD hinge-coupled to the PRD frame; a latch element configured to normally remain in a latched condition to maintain the PRD in a closed condition relative to the PRD frame and to assume an unlatched condition to permit the PRD to assume an open condition relative to the PRD frame in accordance with an occurrence of a burst duct event within the PRD frame; and a retention element configured to automatically activate responsive to the PRD opening, the retention element including an end disposable between the PRD and the PRD frame with the retention element automatically activated to provide positive interference directed to maintain the PRD in the open condition; characterised in that the retention element comprises: a first frame element affixed to the PRD; a second frame element affixed to the PRD frame; and an elastic element coupled to one of the first and second frame elements (30, 40) such that the end is: elastically biased against the other of the first and second frame elements in a non-interfering position with the PRD in the closed condition, and disposable in an interference position between the PRD and the PRD frame with the PRD in the open condition. a PRD frame; a PRD hinge-coupled to the PRD frame; a latch element configured to normally remain in a latched condition to maintain the PRD in a closed condition relative to the PRD frame and to assume an unlatched condition to permit the PRD to assume an open condition relative to the PRD frame in accordance with an occurrence of a burst duct event within the PRD frame; and a retention element configured to automatically activate responsive to the PRD opening, the retention element including an end disposable between the PRD and the PRD frame with the retention element automatically activated to provide positive interference directed to maintain the PRD in the open condition; characterised in that the retention element comprises: a first frame element affixed to the PRD; a second frame element affixed to the PRD frame; and an elastic element coupled to one of the first and second frame elements (30, 40) such that the end is: elastically biased against the other of the first and second frame elements in a non-interfering position with the PRD in the closed condition, and disposable in an interference position between the PRD and the PRD frame with the PRD in the open condition. a first frame element affixed to the PRD; a second frame element affixed to the PRD frame; and an elastic element coupled to one of the first and second frame elements (30, 40) such that the end is: elastically biased against the other of the first and second frame elements in a non-interfering position with the PRD in the closed condition, and disposable in an interference position between the PRD and the PRD frame with the PRD in the open condition. elastically biased against the other of the first and second frame elements in a non-interfering position with the PRD in the closed condition, and disposable in an interference position between the PRD and the PRD frame with the PRD in the open condition.
A housing (1, 1') for housing at least one power semiconductor, the housing comprising: two openings and; two movable covers provided respectively by the two openings, wherein each movable cover is arranged to move, during operation, from an open state, in which the respective cover does not cover its respective opening, to a closed state, in which the respective cover covers its respective opening, when the respective cover is subjected to a pressure from a shockwave occurring inside the housing (1, 1'). two openings and; two movable covers provided respectively by the two openings, wherein each movable cover is arranged to move, during operation, from an open state, in which the respective cover does not cover its respective opening, to a closed state, in which the respective cover covers its respective opening, when the respective cover is subjected to a pressure from a shockwave occurring inside the housing (1, 1').
A removeable insert for converting a vacuum cleaner, the insert comprising an enclosure in which the filter bag can be accommodated, which enclosure comprises structural constraint means which limits vacuum induced expansion of at least a region of the bag and maintains an airflow gap between the filter bag outer surface and a vacuum chamber inner wall and wherein a wall portion of the enclosure is formed with an aperture through which a vacuum tube may extend for delivery of air entrained detritus into the filter bag when disposed in the enclosure, characterised in that said structural constraint means comprises a plurality of spaced apart protrusions provided in a base sheet, each protrusion having a base region and a distal end which faces a surface region of the filter bag to limit expansion thereof.
A detergent composition comprising at least one compound of formula or wherein M is hydrogen or cation together with at least one compound of formula wherein R 6 and R 7, independently of each other, are hydrogen, C 1 -C 8 alkyl, C 1 -C 8 alkoxy or halogen, and M is is as defined above under formulae to.
An assembly comprising; a disk having a groove, a blade retained within said groove, a strip placed between said blade and said disk, said strip minimizing rubbing damage to said blade and said disk, said disk being made of a first material and said blade being made of a second material, the assembly further comprising an insulating material between said rub strip and said blade for minimizing damaging responses of said blade to galvanic forces between said first material and said second material, characterized in that said strip is a nano-based nickel.
Door, suitable for closing at least one cooking chamber opening of a cooking appliance, comprising at least one inner pane, which faces the cooking chamber when the door is closed, and comprising at least one outer pane, which faces outwards when the door is closed, and comprising at least one receiving means for arranging the at least one inner and the at least one outer pane in such a way that at least one ventilation channel is formed between the panes (4, 5), characterised in that a cooling device, which extends into the ventilation channel, is associated with the receiving means, the cooling device being in contact with the receiving means in a manner that is effective for conducting heat in order to conduct heat away from the receiving means.
An apparatus conveyed into a well borehole for conducting a downhole operation, the apparatus comprising: a mechanically-actuated device (202, 412) adapted for conveyance by a work string, the mechanically-actuated device (202, 412) being used at least in part for conducting the downhole operation; and a magnetostrictive linear actuator coupled to the mechanically-actuated device for selectively actuating the mechanically-actuated device, the magnetostrictive linear actuator comprising: a support structure (218, 404, 504) to compensate for a borehole parameter; characterised by: a magnetostrictive rod (216, 410, 502, 608) passing through the support structure (218, 404, 504); and a current-carrying coil (214, 406a, 406b, 506) causing elongation of the rod (216, 410, 502, 608). a mechanically-actuated device (202, 412) adapted for conveyance by a work string, the mechanically-actuated device (202, 412) being used at least in part for conducting the downhole operation; and a magnetostrictive linear actuator coupled to the mechanically-actuated device for selectively actuating the mechanically-actuated device, the magnetostrictive linear actuator comprising: a support structure (218, 404, 504) to compensate for a borehole parameter; characterised by: a magnetostrictive rod (216, 410, 502, 608) passing through the support structure (218, 404, 504); and a current-carrying coil (214, 406a, 406b, 506) causing elongation of the rod (216, 410, 502, 608). a support structure (218, 404, 504) to compensate for a borehole parameter; characterised by: a magnetostrictive rod (216, 410, 502, 608) passing through the support structure (218, 404, 504); and a current-carrying coil (214, 406a, 406b, 506) causing elongation of the rod (216, 410, 502, 608). a magnetostrictive rod (216, 410, 502, 608) passing through the support structure (218, 404, 504); and a current-carrying coil (214, 406a, 406b, 506) causing elongation of the rod (216, 410, 502, 608).
A Ganoderma lucidum strain suitable for large-scale liquid fermentation characterized in that the strain is named as Ganoderma lucidum G2, deposited with China General Microbiological Culture Collection Center under the accession number CGMCC No. 3982 on July 20, 2010.
Method of operation of a device (21; 22; 23; 24; 25; 26; 210; 211) for controlling a home-automation appliance, characterized in that it comprises at least one step of selecting a possible control command from among a plurality of predefined control commands, that may be sent by the control device and at least one step of displaying the command selected by this control device, the method comprising a step of defining priorities between the various control commands which may be sent, these priorities being used by the control device in the step of selecting a control command.
A method of removing unburned carbon from fly ash comprising the steps of: adding water to fly ash to produce slurry; adding collector to said slurry; feeding said slurry and collector to a submerged agitator having a rotation shaft penetrating a cylindrical main body in an axial direction thereof, plurality of chambers formed by dividing an inside of the main body in the axial direction thereof and an agitating vane fixed to the rotation shaft and rotating in each chamber, and adding shearing force to said slurry and collector; adding frother to said slurry and collector to which the shearing force was added; sending the slurry to a flotation machine; supplying air to generate air bubbles so as to adhere unburned carbon of said fly ash to the air bubbles to rise said unburned carbon. adding water to fly ash to produce slurry; adding collector to said slurry; feeding said slurry and collector to a submerged agitator having a rotation shaft penetrating a cylindrical main body in an axial direction thereof, plurality of chambers formed by dividing an inside of the main body in the axial direction thereof and an agitating vane fixed to the rotation shaft and rotating in each chamber, and adding shearing force to said slurry and collector; adding frother to said slurry and collector to which the shearing force was added; sending the slurry to a flotation machine; supplying air to generate air bubbles so as to adhere unburned carbon of said fly ash to the air bubbles to rise said unburned carbon.