mhurhangee/ep-ind-claims huggingface dataset:
A seed dispensing system comprising: at least a first row unit and a second row unit adapted to dispense seeds and arranged adjacent to one another or in a staggered configuration or both, each row unit including: a seed dispensing device adapted to provide a dispensing action for a plurality of seeds; a drive assembly (112, 122) configured to drive the seed dispensing device; a sensor (116, 126) adapted to sense at least the passage of a seed and generate a signal corresponding to the seed passage; and an individual row controller operably coupled to the drive assembly of each row unit and configured to receive the sensor signals, assign distance tags for each seed related to a seed position in a furrow beneath each of the first and second row units, and to determine whether the seed spacing is at a desired level, characterized in that the individual row controller is further configured to store sensor signals from each row unit until a first row unit sample size and a second row unit sample size is reached; and to combine the first and second sample size to generate a third sample size that simulates a single row seed spacing configuration. at least a first row unit and a second row unit adapted to dispense seeds and arranged adjacent to one another or in a staggered configuration or both, each row unit including: a seed dispensing device adapted to provide a dispensing action for a plurality of seeds; a drive assembly (112, 122) configured to drive the seed dispensing device; a sensor (116, 126) adapted to sense at least the passage of a seed and generate a signal corresponding to the seed passage; and an individual row controller operably coupled to the drive assembly of each row unit and configured to receive the sensor signals, assign distance tags for each seed related to a seed position in a furrow beneath each of the first and second row units, and to determine whether the seed spacing is at a desired level, a seed dispensing device adapted to provide a dispensing action for a plurality of seeds; a drive assembly (112, 122) configured to drive the seed dispensing device; a sensor (116, 126) adapted to sense at least the passage of a seed and generate a signal corresponding to the seed passage; and an individual row controller operably coupled to the drive assembly of each row unit and configured to receive the sensor signals, assign distance tags for each seed related to a seed position in a furrow beneath each of the first and second row units, and to determine whether the seed spacing is at a desired level,
A fin (10, 10a, 101) of a heat exchanger comprising: a substrate including aluminum or an aluminum alloy, the substrate having a plurality of holes or a plurality of cutout portions in which a plurality of heat transfer tubes are to be disposed respectively; characterized in that the fin (10, 10a, 101) comprises an organic layer having a first organic layer, a second organic layer, and a third organic layer, wherein the second organic layer and the first organic layer are disposed on an end face of the substrate in order from a substrate side, the third organic layer, the second organic layer, and the first organic layer are disposed on a surface of the substrate in order from the substrate side, and the second organic layer and the first organic layer continuously cover the end face of the substrate and a surface of the third organic layer. a substrate including aluminum or an aluminum alloy, the substrate having a plurality of holes or a plurality of cutout portions in which a plurality of heat transfer tubes are to be disposed respectively; characterized in that the fin (10, 10a, 101) comprises an organic layer having a first organic layer, a second organic layer, and a third organic layer, wherein the second organic layer and the first organic layer are disposed on an end face of the substrate in order from a substrate side, the third organic layer, the second organic layer, and the first organic layer are disposed on a surface of the substrate in order from the substrate side, and the second organic layer and the first organic layer continuously cover the end face of the substrate and a surface of the third organic layer.
A Coriolis vibratory gyroscope, comprising a thin-walled mushroom configuration resonator of hemispherical or cylindrical or toroidal shape, fastened centrally on a stem located in a cavity within the resonator; wherein holes are provided in a wall of the resonator, the holes being arranged around said stem, the number of holes being determined from the formula "4nk", where "k" is an integer, "n" is the order of vibration modes of the thin walled resonator, and the angle between each two adjacent holes is equal to "π/2nk"; said stem is rotationally symmetric about its longitudinal axis and is fastened on a base; electrodes are arranged on an outside of the resonator wall for excitation and measurement of two vibration modes, with leads passing from the electrodes through holes in the resonator wall; and wherein the base is made with a seating for the resonator stem, and leads pass through the base to outside of the base, the leads being electrically-insulated and sealed relative to the base, and being configured for lead-in and/or lead-out of signals through the base, thereby allowing the signals to pass from outside the base, through the base, through the holes in the resonator wall and to the electrodes.
A crane, in particular a revolving tower crane, having a boom and a counterboom that are connected in an articulated manner to an articulation piece, wherein the boom comprises an outer boom part that is pivotally connected in an articulated manner to an inner boom part and is held by a guying, wherein the inner boom part is configured as a bending beam that is flexurally rigidly fastened to the articulation piece; wherein the inner boom part is held without guying and the boom is only guyed at the outer boom part, characterized in that the inner boom part has a profile cross-sectional height that is larger than a maximum profile cross-sectional height of the outer boom part and/or has a profile cross-sectional area that is larger than the maximum profile cross-sectional area of the outer boom part.
A method of preparing a personal care composition, wherein the composition comprises: a cationic surfactant system; a high melting point fatty compound having a melting temperature of at least 25°C; and an aqueous carrier, wherein the cationic surfactant system comprising a mono-alkyl quaternized ammonium salt cationic surfactant having one long alkyl chain of from 12 to 30 carbon atoms and a di-alkyl cationic surfactant having two long alkyl chains of from 12 to 30 carbon atoms; and wherein the method comprises the steps: preparing an oil phase comprising the surfactant and the high melting point fatty compound, wherein the temperature of the oil phase is higher than a melting point of the high melting point fatty compound; and preparing an aqueous phase comprising the aqueous carrier, wherein the temperature of the aqueous phase is below the melting point of the high melting point fatty compounds; and mixing the oil phase and the aqueous phase to form an emulsion; wherein the mixing step comprises the following detailed steps: feeding either of the oil phase or the aqueous phase into a high shear field having an energy density of 1.0x10 2 J/m 3 or more; feeding the other phase directly to the field; and forming an emulsion; wherein the mixing step is conducted by using a homogenizer having a rotating member; wherein the oil phase contains from 0 to 50% of the aqueous carrier by weight of the oil phase; and wherein the temperature of the emulsion when formed is from 10°C to 40°C. preparing an oil phase comprising the surfactant and the high melting point fatty compound, wherein the temperature of the oil phase is higher than a melting point of the high melting point fatty compound; and preparing an aqueous phase comprising the aqueous carrier, wherein the temperature of the aqueous phase is below the melting point of the high melting point fatty compounds; and mixing the oil phase and the aqueous phase to form an emulsion; feeding either of the oil phase or the aqueous phase into a high shear field having an energy density of 1.0x10 2 J/m 3 or more; feeding the other phase directly to the field; and forming an emulsion;
A setting system at least of one cylinder of a folder unit, whereby the at least one cylinder is arranged rotatably and/or rotatingly about an axis of rotation and relative to an axial direction has at least at one end an axle journal connected in a rotationally fixed manner to the at least one cylinder, and whereby at least one drive gear wheel is connected in a rotationally fixed manner to the axle journal and whereby at least one adjustment drive wheel is arranged rotatably and/or rotatingly relative to the at least one cylinder about the axis of rotation of the at least one cylinder and whereby the at least one drive gear wheel is connected to the at least one adjustment drive wheel at least via a gearbox formed as a speed modulation gearbox and is connected to an adjustment drive, whereby the at least one gearbox has at least one first input strand and a second input strand and an output strand, characterized in that the folder unit has a common oil chamber, in which at least the drive gear wheel fully and at least one first component of the at least one gearbox formed as component of the first input strand, and at least one second component of the at least one gearbox formed as component of the output strand are located and in that the first component of the at least one gearbox formed as component of the first input strand and the second component of the at least one gearbox formed as component of the output strand, are formed as torque-transferring and/or torque-transfer-capable components.
A method for the production of circovirus, comprising: seeding a host cell culture with a seed culture of a circovirus; incubating the host cell culture in the absence of fetal calf serum; monitoring (i) viability of the host cells, and (ii) ORF1 and ORF2 expression by the host cells; and harvesting the circovirus from the host cell culture when ORF2 expression is approximately the same in the non-adherent cells and adherent cells of the host cell culture; and wherein the circovirus is PCV2. seeding a host cell culture with a seed culture of a circovirus; incubating the host cell culture in the absence of fetal calf serum; monitoring (i) viability of the host cells, and (ii) ORF1 and ORF2 expression by the host cells; and harvesting the circovirus from the host cell culture when ORF2 expression is approximately the same in the non-adherent cells and adherent cells of the host cell culture; and wherein the circovirus is PCV2.
A filter for RF signals comprising at least one filter component (740, 742) and a metal housing, the housing comprising a monolithic metal body, the filter comprises at least one coaxial resonator rod, characterized in, that the housing comprises a metal cover capacitively coupled to the body without any galvanic contact.
A control method for controlling a biometric authentication system (0, 2, 4, 6, 8) including a server that stores reference biometric data used as a reference for authentication of a user, and a client that acquires biometric authentication data, which is used in biometric authentication, from the user, the control method comprising: saving in the server a table in which identification information identifying the user and a previous authentication result of the user previously acquired by the server or the client are associated with each other; transmitting the identification information identifying the user to the server from the client; referring to, at the server, the identification information transmitted from the client and acquiring a previous authentication result of the user corresponding to the identification information from the table; calculating, at the server, an authentication success rate of the user from the at least one acquired previous authentication result; transmitting the reference biometric data from the server to the client when the authentication success rate is less than or equal to a certain value; calculating, at the client, a degree of matching between the biometric authentication data and the reference biometric data transmitted from the server; and determining, based on the degree of matching, whether or not the authentication of the user has succeeded, further comprising, when the authentication success rate is greater than the certain value, calculating, at the server, a degree of matching between the biometric authentication data, which is transmitted from the client, and the reference biometric data, and determining whether or not the authentication of the user has succeeded. saving in the server a table in which identification information identifying the user and a previous authentication result of the user previously acquired by the server or the client are associated with each other; transmitting the identification information identifying the user to the server from the client; referring to, at the server, the identification information transmitted from the client and acquiring a previous authentication result of the user corresponding to the identification information from the table; calculating, at the server, an authentication success rate of the user from the at least one acquired previous authentication result; transmitting the reference biometric data from the server to the client when the authentication success rate is less than or equal to a certain value; calculating, at the client, a degree of matching between the biometric authentication data and the reference biometric data transmitted from the server; and determining, based on the degree of matching, whether or not the authentication of the user has succeeded, further comprising, when the authentication success rate is greater than the certain value, calculating, at the server, a degree of matching between the biometric authentication data, which is transmitted from the client, and the reference biometric data, and determining whether or not the authentication of the user has succeeded.
Valve having at least one outlet part for injecting a first solution containing a solid material into a second solution for continuous crystallisation of the solid material, which is dissolved in the first solution, in the second solution, characterised in that at least one valve cone is disposed in the outlet part, and the valve cone includes a truncated cone, a cylindrical part with outlet openings and a conical rod.
An organic light emitting display device including a display area, a through hole, and a peripheral area, the organic light emitting display device comprising: a flexible substrate including a first plastic layer and a first barrier layer on the first plastic layer, and having a groove in the peripheral area, the groove being undercut, wherein the first plastic layer is undercut at the groove with respect to the first barrier layer; a common layer on an upper surface of the flexible substrate, the common layer having: a first part in the display area including a first organic function layer, a second organic function layer, a common electrode, a capping layer, and an organic light emitting layer; and a second part in the peripheral area including the first organic function layer, the second organic function layer, the common electrode, and the capping layer, the first organic function layer, the second organic function layer, the common electrode and the capping layer extending from the display area to the peripheral area and the common layer being disconnected by the groove; an encapsulation member on the common layer, the encapsulation member covering the common layer and the groove; a lower protective film on a lower surface of the flexible substrate; and a polarizing member on the encapsulation member, wherein the polarizing member is configured to suppress reflection of external light. a flexible substrate including a first plastic layer and a first barrier layer on the first plastic layer, and having a groove in the peripheral area, the groove being undercut, wherein the first plastic layer is undercut at the groove with respect to the first barrier layer; a common layer on an upper surface of the flexible substrate, the common layer having: a first part in the display area including a first organic function layer, a second organic function layer, a common electrode, a capping layer, and an organic light emitting layer; and a second part in the peripheral area including the first organic function layer, the second organic function layer, the common electrode, and the capping layer, a first part in the display area including a first organic function layer, a second organic function layer, a common electrode, a capping layer, and an organic light emitting layer; and a second part in the peripheral area including the first organic function layer, the second organic function layer, the common electrode, and the capping layer, the first organic function layer, the second organic function layer, the common electrode and the capping layer extending from the display area to the peripheral area and the common layer being disconnected by the groove; an encapsulation member on the common layer, the encapsulation member covering the common layer and the groove; a lower protective film on a lower surface of the flexible substrate; and a polarizing member on the encapsulation member, wherein the polarizing member is configured to suppress reflection of external light.
Process to control an electro-hydraulic drive for a horizontal baler to compact loose material and to tie up the compacted material into bales, whereby the horizontal baler has at least a compaction chamber to hold the material for compacting, a subsequent baling channel in the feed direction in which the material is compacted into a bale as a consequence of a feed force, a feed chute that is essentially arranged above the compaction chamber, which ends in the upper opening of the compaction chamber, a horizontal moving press plate with which the material is pushed from the compaction chamber into the baling channel and with which the material is compacted in the baling channel, a strapping device to apply spaced straps around the compacted bales, as well as a control unit as well as actuators (7, 8, 9) to move the press plate, to actuate at least one push-through unit of the strapping device for hooping and to produce the rotary movement to twist the strap, that (7, 8, 9) are driven by the electro-hydraulic drive, whereby the actuators (7, 8, 9) are connected to a hydraulic pump by means of a hydraulic line, interposing at least one hydraulic control valve in each case (11, 12, 13), whereby the control signals of the control unit serve to activate an electromotor to drive the hydraulic pump of the electro-hydraulic drive, characterised in that the oil flow required by each of the actuators (7, 8, 9) is controlled by the combined use of a fixed displacement pump as a hydraulic pump and a frequency-controlled electromotor for the electro-hydraulic drive, whereby the control signals output by the control unit to activate the electromotor of the motor-pump unit (4, 5) of the electro-hydraulic drive are initially fed to a frequency inverter connected to the electromotor, and, that the control signals that are then generated in the control unit and output by this to further control the electromotor take into account the signals generated by a pressure transducer about the actual status of a hydraulic line with respect to flow rate, delivery pressure and similar parameters.
Holding device, in particular a grinding disc, for a grinding means (30a-i), having at least one support body (12a-i), which comprises at least one material recess (20a-i), which is provided for transverse transport of grinding dust on a side facing the grinding means (30a-i) in a plane parallel to a grinding face (24a-i), and having at least one securing layer (14a-i) for securing the grinding means (30a-i) on the at least one support body (12a-i), wherein, when decoupled from the grinding means (30a-i), the at least one material recess (20a-i) is at least substantially open on a side facing the grinding means (30a-i) and is substantially delimited by the support body (12a-i) on a side facing away from the grinding means (30a-i), characterized in that the at least one material recess (20a-i) is formed as an inner region of a channel element (22a-i), i.e. as an elongate material depression, which is at least partially curved, wherein the at least partially curved channel element (22c-d) is formed as a Fibonacci spiral element.
An inertial sensor comprising: a substrate; a first movable element suspended from said substrate; a second movable element suspended from said substrate and positioned laterally adjacent to said first movable element, each of said first and second movable elements (30, 32) having a mass that is asymmetric relative to a rotational axis, wherein said rotational axis is common to said first and second movable elements (30, 32); a first spring system coupling said first movable element to said substrate; and a second spring system coupling said second movable element to said substrate, wherein said first and second spring systems (34, 36) enable said first and second movable elements (30, 32) to move together in response to force imposed upon said first and second movable elements (30, 32) in at least two orthogonal directions, wherein said first and second spring systems (34, 36) facilitate translatory motion of said first and second movable masses in response to a first force imposed upon said first and second movable elements (30, 32) in a first direction substantially parallel to a surface of said substrate; and wherein said first and second spring systems (34, 36) further facilitate in-plane torsion motion of said first and second movable masses in response to a second force imposed upon said first and second movable elements (30, 32) in a second direction substantially parallel to said surface of said substrate, said second direction being substantially orthogonal to said first direction. a substrate; a first movable element suspended from said substrate; a second movable element suspended from said substrate and positioned laterally adjacent to said first movable element, each of said first and second movable elements (30, 32) having a mass that is asymmetric relative to a rotational axis, wherein said rotational axis is common to said first and second movable elements (30, 32); a first spring system coupling said first movable element to said substrate; and a second spring system coupling said second movable element to said substrate, wherein said first and second spring systems (34, 36) enable said first and second movable elements (30, 32) to move together in response to force imposed upon said first and second movable elements (30, 32) in at least two orthogonal directions, wherein said first and second spring systems (34, 36) facilitate translatory motion of said first and second movable masses in response to a first force imposed upon said first and second movable elements (30, 32) in a first direction substantially parallel to a surface of said substrate; and wherein said first and second spring systems (34, 36) further facilitate in-plane torsion motion of said first and second movable masses in response to a second force imposed upon said first and second movable elements (30, 32) in a second direction substantially parallel to said surface of said substrate, said second direction being substantially orthogonal to said first direction.