mhurhangee/ep-ind-claims huggingface dataset:
An illumination device comprising: a light source arranged to generate light, a carrier arranged to support said light source, said light source being in thermal contact with said carrier, and an envelope enclosing said light source and said carrier, wherein said envelope comprises at least two enveloping parts (131, 132) which, when joined together, form said envelope, wherein the carrier is arranged in thermal contact with at least one of the enveloping parts for dissipating heat out of said illumination device, said illumination device being characterised in that the carrier extends along an axis extending from the base of the illumination device to its top or along a direction crossing an axis extending from the base of the illumination device to its top, wherein a flat interface between the enveloping parts extends from the base of the illumination device to its top and said interface is located in a plane comprising the axis. a light source arranged to generate light, a carrier arranged to support said light source, said light source being in thermal contact with said carrier, and an envelope enclosing said light source and said carrier, wherein said envelope comprises at least two enveloping parts (131, 132) which, when joined together, form said envelope, wherein the carrier is arranged in thermal contact with at least one of the enveloping parts for dissipating heat out of said illumination device, said illumination device being characterised in that the carrier extends along an axis extending from the base of the illumination device to its top or along a direction crossing an axis extending from the base of the illumination device to its top, wherein a flat interface between the enveloping parts extends from the base of the illumination device to its top and said interface is located in a plane comprising the axis.
Electric machine, - wherein the electric machine has a stator and a rotor, - wherein the rotor can be rotated about an axis of rotation and the stator is arranged around the axis of rotation, - wherein an electromotive force between the stator and the rotor corresponds with a magnetic base flow, - wherein the magnetic base flow in the stator is oriented so as to be radial-tangential with regard to the axis of rotation, - wherein on the stator, on the side facing away from the rotor, a plurality of chokes are arranged which are arranged in a distributed manner when viewed tangentially to the axis of rotation, - wherein the chokes, when a respective choke current (I') is applied to them in the stator, induce a respective magnetic additional flow (B'), - wherein the respective magnetic additional flow (B') in a region of the stator bordering the respective choke is oriented so as to be radial-axial with regard to the axis of rotation, so that the electromotive force between the stator and the rotor is not influenced by the magnetic additional flow (B'), characterised in that the chokes are arranged on a respective U-shaped yoke, the U-shaped yokes each have two limbs and a base connecting the two respective limbs and the limbs of the respective yoke, with respect to the axis of rotation, in regions at a distance from one another axially with the same tangential position, border the stator. - wherein the electric machine has a stator and a rotor, - wherein the rotor can be rotated about an axis of rotation and the stator is arranged around the axis of rotation, - wherein an electromotive force between the stator and the rotor corresponds with a magnetic base flow, - wherein the magnetic base flow in the stator is oriented so as to be radial-tangential with regard to the axis of rotation, - wherein on the stator, on the side facing away from the rotor, a plurality of chokes are arranged which are arranged in a distributed manner when viewed tangentially to the axis of rotation, - wherein the chokes, when a respective choke current (I') is applied to them in the stator, induce a respective magnetic additional flow (B'), - wherein the respective magnetic additional flow (B') in a region of the stator bordering the respective choke is oriented so as to be radial-axial with regard to the axis of rotation, so that the electromotive force between the stator and the rotor is not influenced by the magnetic additional flow (B'),
A TEM grid for a transmission electron microscope, comprising: a holder body (404, 804) having an outer edge and an inner edge; multiple attachment elements (414, 814) attached to the holder body, each respective attachment element adapted for attaching multiple thin samples prepared for viewing on a TEM, each respective attachment element having a base attached to the holder body characterized in that each respective attachment element extends from the inner edge, one side of each respective attachment element has at least two steps (418, 818) extending to a right side of each respective attachment element, each step of the at least two steps adapted to receive attachment of one of the multiple thin samples, the at least two steps of each respective attachment element located at different distances from the base, and wherein each attachment element has a top end with a different shape from the other attachment elements; and each respective attachment element has an opposite side from the at least two steps, the opposite side extending to a left side of each respective attachment element, the opposite side including no steps and further adapted to receive one of the multiple thin samples attached at a sufficient distance from a bulk of the TEM grid to minimize the risk of redeposition from the TEM grid. a holder body (404, 804) having an outer edge and an inner edge; multiple attachment elements (414, 814) attached to the holder body, each respective attachment element adapted for attaching multiple thin samples prepared for viewing on a TEM, each respective attachment element having a base attached to the holder body characterized in that each respective attachment element extends from the inner edge, one side of each respective attachment element has at least two steps (418, 818) extending to a right side of each respective attachment element, each step of the at least two steps adapted to receive attachment of one of the multiple thin samples, the at least two steps of each respective attachment element located at different distances from the base, and wherein each attachment element has a top end with a different shape from the other attachment elements; and each respective attachment element has an opposite side from the at least two steps, the opposite side extending to a left side of each respective attachment element, the opposite side including no steps and further adapted to receive one of the multiple thin samples attached at a sufficient distance from a bulk of the TEM grid to minimize the risk of redeposition from the TEM grid.
A method to extend a frequency lock range of a received RF signal in a satellite receiver, comprising: analyzing data information of a preamble associated with the received satellite RF signal by the satellite receiver; determining an estimated frequency value by the satellite receiver, said determined estimated frequency value being a function of said analyzed data information that further includes at least a portion of said frequency error formed therein; characterized in additionally, comparing the determined estimated frequency value to at least one predetermined threshold value by the satellite receiver; and using said determined estimated frequency value by the satellite receiver when the determined estimated frequency value is greater than said at least one predetermined threshold value to operatively control tracking mode electronic circuitry disposed in the satellite receiver to attain frequency lock on the received satellite RF signal. analyzing data information of a preamble associated with the received satellite RF signal by the satellite receiver; determining an estimated frequency value by the satellite receiver, said determined estimated frequency value being a function of said analyzed data information that further includes at least a portion of said frequency error formed therein; characterized in additionally, comparing the determined estimated frequency value to at least one predetermined threshold value by the satellite receiver; and using said determined estimated frequency value by the satellite receiver when the determined estimated frequency value is greater than said at least one predetermined threshold value to operatively control tracking mode electronic circuitry disposed in the satellite receiver to attain frequency lock on the received satellite RF signal.
A biomolecule analyzing device comprising i. a solution vessel defined by a space between a pair of highly hydrophilic upper and lower flat substrates (101, 906); ii. an inlet for introducing magnetic fine particles (103, 903) into the solution vessel, a biomolecule (901, 1001) and a fluorescent label being specifically bound to the magnetic fine particle (103, 903); and iii. magnetic field generating means that enables switching on and off of a magnetic force, or switching of magnetic force strengths, wherein the magnetic field generating means immobilizes the magnetic fine particles (103, 903) on one of the substrates (101, 906) forming the solution vessel; iv. excitation means that excites fluorescent labels bound to the magnetic fine particles (103, 903) that are immobilized on one of the flat substrates (101, 906); v. imaging means that acquires an image from light emitted from the fluorescent labels; and vi. means that obtains a biomolecule (901, 1001) concentration by counting bright spots of fluorescent labels from the image, wherein - the distance between the flat substrates (101, 906) is 100 μm or less, and - the magnetic fine particles (103, 903) are paramagnetic fine particles (103, 903) having a particle size of 0.02 to 1 μm. i. a solution vessel defined by a space between a pair of highly hydrophilic upper and lower flat substrates (101, 906); ii. an inlet for introducing magnetic fine particles (103, 903) into the solution vessel, a biomolecule (901, 1001) and a fluorescent label being specifically bound to the magnetic fine particle (103, 903); and iii. magnetic field generating means that enables switching on and off of a magnetic force, or switching of magnetic force strengths, wherein the magnetic field generating means immobilizes the magnetic fine particles (103, 903) on one of the substrates (101, 906) forming the solution vessel; iv. excitation means that excites fluorescent labels bound to the magnetic fine particles (103, 903) that are immobilized on one of the flat substrates (101, 906); v. imaging means that acquires an image from light emitted from the fluorescent labels; and vi. means that obtains a biomolecule (901, 1001) concentration by counting bright spots of fluorescent labels from the image, - the distance between the flat substrates (101, 906) is 100 μm or less, and - the magnetic fine particles (103, 903) are paramagnetic fine particles (103, 903) having a particle size of 0.02 to 1 μm.
A cooling coil assembly for removing heat generated by an oxidation or ammoxidation reactor having walls, the cooling coil assembly including multiple cooling coils, each cooling coil comprising multiple cooling coil courses fluidly connected to one another in series so as to define a cooling water passageway having a cooling water inlet passing through a wall of the reactor and a cooling water outlet, wherein the cooling water inlet includes a cooling coil inlet fitting rigidly attached to the wall of the reactor and a thermal sleeve inside the cooling water inlet fitting, wherein the outside diameter of thermal sleeve is smaller than the inside diameter of cooling coil inlet fitting so as to define a thermal space therebetween.
A method for producing a display comprising: producing a display layer; and providing a piezoelectric material, wherein the display layer is produced such that it has a first portion (906, 1102, 1104) and a second portion (904, 1100, 1106), the first portion (906, 1102, 1104) having a plurality of micro-cells containing an electrophoretic display material and the second portion (904, 1100, 1106) being substantially flat and free from micro-cells; and the piezoelectric material is provided such that it is aligned to the second portion (904, 1100, 1106) of the display layer such that the piezoelectric material substantially overlaps only with the second portion (904, 1100, 1106), wherein the second portion is configured to ensure a secured connection with the piezoelectric material, and wherein the display layer and the piezoelectric material are sandwiched between two conductive electrodes. producing a display layer; and providing a piezoelectric material, wherein the display layer is produced such that it has a first portion (906, 1102, 1104) and a second portion (904, 1100, 1106), the first portion (906, 1102, 1104) having a plurality of micro-cells containing an electrophoretic display material and the second portion (904, 1100, 1106) being substantially flat and free from micro-cells; and the piezoelectric material is provided such that it is aligned to the second portion (904, 1100, 1106) of the display layer such that the piezoelectric material substantially overlaps only with the second portion (904, 1100, 1106), wherein the second portion is configured to ensure a secured connection with the piezoelectric material, and wherein the display layer and the piezoelectric material are sandwiched between two conductive electrodes. wherein the display layer is produced such that it has a first portion (906, 1102, 1104) and a second portion (904, 1100, 1106), the first portion (906, 1102, 1104) having a plurality of micro-cells containing an electrophoretic display material and the second portion (904, 1100, 1106) being substantially flat and free from micro-cells; and the piezoelectric material is provided such that it is aligned to the second portion (904, 1100, 1106) of the display layer such that the piezoelectric material substantially overlaps only with the second portion (904, 1100, 1106), wherein the second portion is configured to ensure a secured connection with the piezoelectric material, and wherein the display layer and the piezoelectric material are sandwiched between two conductive electrodes.
A grain sweep for use on a floor comprising: - at least a first drive means, - an elongated frame comprising a rotatably arranged inner end and an outer end, - a drive wheel adapted to rotate the elongated frame around said inner end, wherein the drive wheel is arranged at the outer end of the elongated frame and wherein the drive wheel comprises contacting parts arranged to be in contact with the floor upon which the drive wheel rests, and wherein the contacting parts propel the drive wheel forward such that it moves along the floor in an operable state, - a grain moving means adapted to move grain, wherein the first drive means is arranged to power the grain moving means, - characterized in that the grain sweep further comprises: - at least one resilient member having a first end directly or indirectly rotatably connected to said outer end of said elongated frame and a second end rotatably connected to the drive wheel, whereby the resilient member allows the elongated frame to move from an upper position towards a lower position when pressure is applied upon the elongated frame, and whereby the elongated frame moves in relation to the drive wheel when pressure is applied upon the elongated frame such that the drive wheel essentially remains in its vertical position when the elongated frame moves from its upper position, and wherein the resilient member allows the elongated frame to move back towards said upper position when the pressure is removed. - at least a first drive means, - an elongated frame comprising a rotatably arranged inner end and an outer end, - a drive wheel adapted to rotate the elongated frame around said inner end, wherein the drive wheel is arranged at the outer end of the elongated frame and wherein the drive wheel comprises contacting parts arranged to be in contact with the floor upon which the drive wheel rests, and wherein the contacting parts propel the drive wheel forward such that it moves along the floor in an operable state, - a grain moving means adapted to move grain, wherein the first drive means is arranged to power the grain moving means, - characterized in that the grain sweep further comprises: - at least one resilient member having a first end directly or indirectly rotatably connected to said outer end of said elongated frame and a second end rotatably connected to the drive wheel, whereby the resilient member allows the elongated frame to move from an upper position towards a lower position when pressure is applied upon the elongated frame, and whereby the elongated frame moves in relation to the drive wheel when pressure is applied upon the elongated frame such that the drive wheel essentially remains in its vertical position when the elongated frame moves from its upper position, and wherein the resilient member allows the elongated frame to move back towards said upper position when the pressure is removed.
A radio communications system having a radio base station and at least one radio relay station, where a terminal performs a radio communication through a link with the radio base station or a link with the radio base station via the at least one radio relay station, characterized in that: the radio base station comprises an antenna gain pattern switching part (SW1, SW2, 14, 15) configured to switch between an omnidirectional antenna gain pattern and an adaptive array antenna gain pattern forming a beam; and a control part configured to form the beam for the terminal by causing the antenna gain pattern switching part (SW1, SW2, 14, 15) to switch to the adaptive array antenna gain pattern in response to reception of control information from the terminal through the at least one relay station. the radio base station comprises an antenna gain pattern switching part (SW1, SW2, 14, 15) configured to switch between an omnidirectional antenna gain pattern and an adaptive array antenna gain pattern forming a beam; and a control part configured to form the beam for the terminal by causing the antenna gain pattern switching part (SW1, SW2, 14, 15) to switch to the adaptive array antenna gain pattern in response to reception of control information from the terminal through the at least one relay station. an antenna gain pattern switching part (SW1, SW2, 14, 15) configured to switch between an omnidirectional antenna gain pattern and an adaptive array antenna gain pattern forming a beam; and a control part configured to form the beam for the terminal by causing the antenna gain pattern switching part (SW1, SW2, 14, 15) to switch to the adaptive array antenna gain pattern in response to reception of control information from the terminal through the at least one relay station.
A panel fitting, especially for cabinets, comprising a pivot part which can be connected to a panel and is supported on two guide levers (7, 9), and a retaining plate which can be connected to a furniture body, with two levers (11, 12) being supported on the retaining plate, of which a first lever is connected to the two guide levers (7, 9) in an articulated manner and a second lever is connected to one guide lever in an articulated manner, with a coupling element (30, 30', 50, 60) being provided on a lever (11, 12) or guide lever (7, 9), with the coupling element (30, 30', 50, 60) being displaceable by a drive (32, 55, 67) for moving the pivot part and the drive (32, 55, 67) comprising an electric motor which is connected via a gear (36 to 39) to the coupling element (30, 30', 50, 60), characterized in that the coupling element (30, 30', 50, 60) is arranged as an additional lever, which is mounted on one side on the gear and on the opposite side on the hinge axis between the second lever and the guide lever.
A vibration damping device wherein a first mounting member and a second mounting member are elastically connected by a main rubber elastic body, and a separate stopper member is positioned in a housing recess that is formed by a cylindrical portion of the second mounting member and that opens in an axial direction, the vibration damping device comprising: at least one elastic tapered portion that is equipped with a contact surface that inclines gradually to an inner circumferential side toward an open side of the housing recess is provided at an inner circumferential surface of the cylindrical portion which constitutes a peripheral wall of the housing recess; at least one stopper protrusion projecting outward in an axis-perpendicular direction is provided to the stopper member; and the stopper protrusion is positioned further inside the housing recess than the elastic tapered portion and the stopper protrusion overlaps the elastic tapered portion when viewed in axial direction projection, wherein the housing recess has a quadrangular shape when viewed in the axial direction, and wherein the vibration damping device is characterized in that it comprises a plurality of elastic tapered portions that are provided in respective corners of the housing recess.
An apparatus comprising: a partially-subterranean nuclear island including at least a nuclear reactor (12, 14); a turbine island including at least one turbine driven by steam generated by the nuclear reactor and at least a turbine building housing the at least one turbine; a protected area having a perimeter protected by at least one fence surrounding the perimeter; an isolation zone comprising an engagement space surrounding the protected area and having a physical barrier field having a width of at least 9 meters (30 feet) and a sensor array surrounding the engagement space and configured to detect unauthorized approach toward the engagement space; wherein the nuclear island is disposed inside the protected area; wherein the turbine island is disposed outside of and spaced apart from the protected area and the isolation zone; and wherein the nuclear island and the turbine island are spaced apart from each other. a partially-subterranean nuclear island including at least a nuclear reactor (12, 14); a turbine island including at least one turbine driven by steam generated by the nuclear reactor and at least a turbine building housing the at least one turbine; a protected area having a perimeter protected by at least one fence surrounding the perimeter; an isolation zone comprising an engagement space surrounding the protected area and having a physical barrier field having a width of at least 9 meters (30 feet) and a sensor array surrounding the engagement space and configured to detect unauthorized approach toward the engagement space; wherein the nuclear island is disposed inside the protected area; wherein the turbine island is disposed outside of and spaced apart from the protected area and the isolation zone; and wherein the nuclear island and the turbine island are spaced apart from each other.