mhurhangee/ep-ind-claims huggingface dataset:
A device for removing feed from a feed store, comprising a separating unit for separating feed from the feed store, a conveyor unit for conveying separated feed material from a supply region of the conveyor unit arranged on the separating unit to a discharge region of the conveyor unit, and also a transport container provided for filling with separated feed material in a filling position in the discharge region of the conveyor unit, wherein the separating unit comprises a separating tool embodied as a milling machine, and the conveyor unit is embodied as a fan, wherein the supply region is embodied as a suction opening of the fan arranged in the region of the milling machine, and the discharge region is embodied as an ejection opening of the fan arranged above the transport container in its filling position, characterized in that the transport container is embodied as a self-propelled wagon movable independently of the separating unit, which is also embodied as a mixing container having a mixer for the received feed and includes a weighing unit or volume monitor which monitors the quantity of the received feed.
A heat exchanger (10, 20, 30, 40, 50) for an exchange of heat between a first fluid, in particular charge air or an exhaust gas, and a second fluid, in particular a coolant, having: - a block for the separate and heat-exchanging guidance of the first and second fluid, which block has a number of flow ducts which can be traversed by the first fluid and a housing (7, 37, 47, 57) which holds the flow ducts and which can be traversed by the second fluid; - at least one casing cover (11, 11') which is flow-connected to the flow ducts, - a base which is fixed to the casing cover (11, 11') and which is provided with one or with a plurality of passage openings for the flow ducts, wherein the base (15, 15') is composed of at least one first base part (15.1) and a second base part (15.2), wherein the first base part (15.1) is a base plate and the second base part (15.2) is a base frame part which is substantially L-shaped in cross section, characterised in that the base plate has a podium with a plurality of passage openings which is elevated above a base plate edge region and the opening of the base frame part substantially corresponds to the area of the podium and accepts the podium with the passage openings, wherein the limb of the L-shaped cross section of the base frame plate, which lies in the plane of the base plate, serves as a contact surface for the base plate edge region on its lower surface, wherein the inner area of the base plate is custom-fit to the opening of the base frame part. - a block for the separate and heat-exchanging guidance of the first and second fluid, which block has a number of flow ducts which can be traversed by the first fluid and a housing (7, 37, 47, 57) which holds the flow ducts and which can be traversed by the second fluid; - at least one casing cover (11, 11') which is flow-connected to the flow ducts, - a base which is fixed to the casing cover (11, 11') and which is provided with one or with a plurality of passage openings for the flow ducts, wherein the base (15, 15') is composed of at least one first base part (15.1) and a second base part (15.2), wherein the first base part (15.1) is a base plate and the second base part (15.2) is a base frame part which is substantially L-shaped in cross section, characterised in that the base plate has a podium with a plurality of passage openings which is elevated above a base plate edge region and the opening of the base frame part substantially corresponds to the area of the podium and accepts the podium with the passage openings, wherein the limb of the L-shaped cross section of the base frame plate, which lies in the plane of the base plate, serves as a contact surface for the base plate edge region on its lower surface, wherein the inner area of the base plate is custom-fit to the opening of the base frame part.
A single-use connector, comprising: a body (512, 612), defining: a plurality of threads (514, 614); a plurality of recesses (516, 616) respectively positioned between the threads; and an aperture (532, 632) extending through one or more of the threads; and a single-use mechanism (520, 620), comprising: a blocking pin (522, 622) configurable between a retracted position in which the blocking pin is at least partially retracted from the aperture and an extended position in which the blocking pin extends through the aperture and blocks at least one of the recesses; a biasing mechanism (524, 624) configured to bias the blocking pin toward the extended position; and a release mechanism (526, 626) configured to retain the blocking pin in the retracted position and release the blocking pin after the threads and the recesses engage a mating connector. a body (512, 612), defining: a plurality of threads (514, 614); a plurality of recesses (516, 616) respectively positioned between the threads; and an aperture (532, 632) extending through one or more of the threads; and a plurality of threads (514, 614); a plurality of recesses (516, 616) respectively positioned between the threads; and an aperture (532, 632) extending through one or more of the threads; and a single-use mechanism (520, 620), comprising: a blocking pin (522, 622) configurable between a retracted position in which the blocking pin is at least partially retracted from the aperture and an extended position in which the blocking pin extends through the aperture and blocks at least one of the recesses; a biasing mechanism (524, 624) configured to bias the blocking pin toward the extended position; and a release mechanism (526, 626) configured to retain the blocking pin in the retracted position and release the blocking pin after the threads and the recesses engage a mating connector. a blocking pin (522, 622) configurable between a retracted position in which the blocking pin is at least partially retracted from the aperture and an extended position in which the blocking pin extends through the aperture and blocks at least one of the recesses; a biasing mechanism (524, 624) configured to bias the blocking pin toward the extended position; and a release mechanism (526, 626) configured to retain the blocking pin in the retracted position and release the blocking pin after the threads and the recesses engage a mating connector.
A method, comprising: configuring a first interlace for block interleaved frequency division multiple access, wherein the first interlace comprises ten equally spaced clusters, wherein each cluster of the first interlace has a size of a variable number of adjacent physical resource blocks; configuring a second interlace for block interleaved frequency division multiple access, wherein the second interlace comprises ten equally spaced clusters, wherein each cluster of the second interlace has the same size as each cluster of the first interlace; wherein physical resource blocks of the first interlace are offset in frequency domain from physical resource blocks of the second interlace; transmitting or receiving a signal based on a combination of clusters comprising clusters of the first interlace and clusters of the second interlace, characterised in that the combination of clusters comprises a signal portion in a measurement interval, such that the signal portion in the measurement interval has a bandwidth of at least the size of one cluster size but less than the size of two clusters; wherein a power spectral density of the signal is controlled to avoid exceeding a predetermined limit in any measurement interval; and wherein each measurement interval is based on a resolution bandwidth used in power spectral density measurement. configuring a first interlace for block interleaved frequency division multiple access, wherein the first interlace comprises ten equally spaced clusters, wherein each cluster of the first interlace has a size of a variable number of adjacent physical resource blocks; configuring a second interlace for block interleaved frequency division multiple access, wherein the second interlace comprises ten equally spaced clusters, wherein each cluster of the second interlace has the same size as each cluster of the first interlace; wherein physical resource blocks of the first interlace are offset in frequency domain from physical resource blocks of the second interlace; transmitting or receiving a signal based on a combination of clusters comprising clusters of the first interlace and clusters of the second interlace, characterised in that the combination of clusters comprises a signal portion in a measurement interval, such that the signal portion in the measurement interval has a bandwidth of at least the size of one cluster size but less than the size of two clusters; wherein a power spectral density of the signal is controlled to avoid exceeding a predetermined limit in any measurement interval; and wherein each measurement interval is based on a resolution bandwidth used in power spectral density measurement.
A water-in-oil latex comprising 15 wt% to 70 wt% of a water soluble or dispersible polymer comprising 1 mol % to 100 mol % acrylamide monomers; 0.1 wt% to 20.0 wt% of an inversion surfactant characterized as having a hydrophilic/lipophilic balance of 10 or greater; and 0.1 wt% to 20.0 wt% of an inversion agent that is a carbonyl functional inversion agent; wherein the inversion agent is selected from hydroxycarboxylic acids or salts thereof, hydroxyamides, and amino acids; wherein the hydroxyamides include N-hydroxysuccinimide. 15 wt% to 70 wt% of a water soluble or dispersible polymer comprising 1 mol % to 100 mol % acrylamide monomers; 0.1 wt% to 20.0 wt% of an inversion surfactant characterized as having a hydrophilic/lipophilic balance of 10 or greater; and 0.1 wt% to 20.0 wt% of an inversion agent that is a carbonyl functional inversion agent;
Electromagnet, consisting of an armature arranged in a sleeve, a coil body with a wire winding that can be loaded with current and encircling the armature at least partly, and an armature spring that moves the armature, when not loaded with current, back in its starting position, wherein the armature spring is designed as flat spring and attached to the armature, characterized in that the outer diameter of the armature spring corresponds with the inner diameter of the sleeve, or the sleeve tapers (3.1) on one side and the outer diameter of the armature spring corresponds with the inner diameter of the tapering (3.1).
A method of secure information sharing between a first domain and a plurality of destination domains, the method comprising: a. Processing a file at the first domain to establish a set of attributes of the file, the attributes of the file comprising a destination attribute for determining permitted domains to which the file may be sent, b. Encrypting the file at the first domain using the attributes of the file, and thereby generating an encrypted file, and holding that encrypted file at the storage resource of the first domain, c. providing the first domain with, for a first destination domain, a first egress data guard comprising a destination attribute associated with the first destination domain, d. identifying that the encrypted file is desired to be communicated to the first destination domain, e. attempting to decrypt the encrypted file at the first egress data guard using a decryption key derived from the destination attribute of the first egress data guard, where decryption will be possible if the destination attribute of the data guard matches the destination attribute of the file, f. if it has been possible to decrypt the encrypted file at step e, making a determination as to whether the file may be communicated to the first destination domain. a. Processing a file at the first domain to establish a set of attributes of the file, the attributes of the file comprising a destination attribute for determining permitted domains to which the file may be sent, b. Encrypting the file at the first domain using the attributes of the file, and thereby generating an encrypted file, and holding that encrypted file at the storage resource of the first domain, c. providing the first domain with, for a first destination domain, a first egress data guard comprising a destination attribute associated with the first destination domain, d. identifying that the encrypted file is desired to be communicated to the first destination domain, e. attempting to decrypt the encrypted file at the first egress data guard using a decryption key derived from the destination attribute of the first egress data guard, where decryption will be possible if the destination attribute of the data guard matches the destination attribute of the file, f. if it has been possible to decrypt the encrypted file at step e, making a determination as to whether the file may be communicated to the first destination domain.
A linear drive for a door leaf with a motor unit and a carriage element, which is linearly movable along a profile, wherein the carriage element, at which the door leaf can be attached, is configured with roller elements, and a guiding element is provided at the carriage element, which is accommodated in a guiding path to be movable, and wherein a securing unit, which is disposed at the carriage element, is provided, which unit acts upon the guiding element with a force and retains the guiding element reliably in the guiding path, whereby the carriage element can be reliably displaced along the profile, characterized in that • the guiding path is disposed at the motor unit, and • the securing unit presents a basic body, within which the guiding element is rotatably supported, wherein a spring element acts upon the side of the basic body facing away from the motor unit, whereby the guiding element is reliably retained in the guiding path, wherein • the motor unit is configured as a stator and the carriage element is configured as a rotor. • the guiding path is disposed at the motor unit, and • the securing unit presents a basic body, within which the guiding element is rotatably supported, wherein a spring element acts upon the side of the basic body facing away from the motor unit, whereby the guiding element is reliably retained in the guiding path, wherein • the motor unit is configured as a stator and the carriage element is configured as a rotor.
Profile arrangement with a support part (12; 66; 72) in the form of a plastic injection moulded part and an at least sectorwise elastically flexible switch rail profile (14; 64; 76), wherein the switch rail profile (14; 36; 40; 44; 64; 76) has a holding portion (16; 38; 42; 46; 78) extruded together with the switch rail profile (14; 36; 40; 44; 64; 76), which holding portion is joined to the support part (12; 66; 72), characterized in that the holding portion (16; 38; 42; 46; 78) of the switch rail profile (14; 36; 40; 44; 64; 76) is at least sectorwise integrally joined to the support part (12; 66; 72) by injection moulding of a support part portion thereon, and in that the holding portion (16; 38; 42; 46; 78) projects laterally beyond a tubular switching profile of the switch rail profile (14; 36; 40; 44; 64; 76) on both sides.
Optical enhancement resonator for nonlinear processes formed as a passive resonator of multiple mirrors (1-4, 7, 8), by means of which an optical axis is specified, which has at least one obstacle on the optical axis in the form of a through-opening in one of the mirrors (1-4, 7, 8) or of an incoupling or outcoupling element, wherein the mirrors (1-4, 7, 8) are selected and arranged such that - the resonator is stable and - without the obstacle has first transverse eigenmodes which belong to a group of eigenmodes with the same resonant frequency, wherein at least three of these groups exist in the resonator with a different resonance frequency, and by means of the obstacle by combination of the first transverse eigenmodes of a resonance frequency new eigenmodes are produced which have an intensity minimum at the position of the obstacle, characterized in that the mirrors (1-4, 7, 8) form a ring resonator, the optical axis of which lies in a plane and which has two curved mirrors (1, 2). - the resonator is stable and - without the obstacle has first transverse eigenmodes which belong to a group of eigenmodes with the same resonant frequency,
A pressure-sensitive adhesive composition, comprising: a pressure-sensitive adhesive polymer including a polymerization unit of a first monomer which forms a homopolymer having a glass transition temperature of less than 0°C, a polymerization unit of a second monomer which forms a homopolymer having a glass transition temperature of 0°C or more, and a polymerization unit of a cross-linking monomer, and having an acid value of 1 mgKOH/g or less; a cross-linking agent at 0.01 to 10 parts by weight, relative to 100 parts by weight of the pressure-sensitive adhesive polymer; and a cross-linking catalyst in an amount of 1 to 40 ppm with respect to the content of the pressure-sensitive adhesive polymer, wherein the first monomer is an alkyl (meth)acrylate containing an alkyl group with 1 to 20 carbon atoms and the second monomer is an alkyl acrylate or vinyl acetate containing a straight-chain or branched-chain alkyl group with 1 to 6 carbon atoms, wherein the glass transition temperature is measured using a Differential Scanning Calorimetry with a heating rate of 10 °C per minute. a pressure-sensitive adhesive polymer including a polymerization unit of a first monomer which forms a homopolymer having a glass transition temperature of less than 0°C, a polymerization unit of a second monomer which forms a homopolymer having a glass transition temperature of 0°C or more, and a polymerization unit of a cross-linking monomer, and having an acid value of 1 mgKOH/g or less; a cross-linking agent at 0.01 to 10 parts by weight, relative to 100 parts by weight of the pressure-sensitive adhesive polymer; and a cross-linking catalyst in an amount of 1 to 40 ppm with respect to the content of the pressure-sensitive adhesive polymer, wherein the first monomer is an alkyl (meth)acrylate containing an alkyl group with 1 to 20 carbon atoms and the second monomer is an alkyl acrylate or vinyl acetate containing a straight-chain or branched-chain alkyl group with 1 to 6 carbon atoms, wherein the glass transition temperature is measured using a Differential Scanning Calorimetry with a heating rate of 10 °C per minute.
Angle sensor configured to measure an angle α which describes a direction of a magnetic field in a plane, comprising a first magnetic field sensor having a first sensitivity direction, the first magnetic field sensor having two current terminals and two voltage terminals, a second magnetic field sensor having a second sensitivity direction, the second magnetic field sensor having two current terminals and two voltage terminals, a first current source supplying a first biasing current I 1 to the current terminals of the first magnetic field sensor, a second current source supplying a second biasing current I 2 to the current terminals of the second magnetic field sensor, and electronic circuitry forming a closed control loop configured to rotate a sensitivity direction of the angle sensor by changing the biasing currents I 1 and I 2 until a signal U equals 0 and to determine the angle α from the sensitivity direction of the angle sensor when the signal U equals 0, wherein either the voltage terminals of the first and second magnetic field sensor (1, 2) are connected in series and the voltage appearing over the series connected voltage terminals is tapped and amplified to deliver the signal U, or the voltage terminals of the first and second magnetic field sensor (1, 2) are connected in parallel and the voltage appearing at the parallel connected voltage terminals is tapped and amplified to deliver the signal U, or wherein the angle sensor comprises a first amplifier coupled to the voltage terminals of the first magnetic field sensor, a second amplifier coupled to the voltage terminals of the second magnetic field sensor and a summing junction coupled to the outputs of the first and second amplifier (6, 7) and having an output delivering the signal U.
A bearing support assembly comprising: a squirrel cage defining a longitudinal axis and including a cylindrical portion defining a bearing seat, wherein the squirrel cage is configured to provide a first level of radial support stiffness between a housing and a bearing seated in the bearing seat; a damper sleeve operatively coupled to the cylindrical portion of the squirrel cage through a fluid film to dampen relative radial motion between the damper sleeve and the squirrel cage; and a radial spring component operatively connected to a side of the damper sleeve radially opposite the cylindrical portion of the squirrel cage to provide a second level of radial support stiffness. a squirrel cage defining a longitudinal axis and including a cylindrical portion defining a bearing seat, wherein the squirrel cage is configured to provide a first level of radial support stiffness between a housing and a bearing seated in the bearing seat; a damper sleeve operatively coupled to the cylindrical portion of the squirrel cage through a fluid film to dampen relative radial motion between the damper sleeve and the squirrel cage; and a radial spring component operatively connected to a side of the damper sleeve radially opposite the cylindrical portion of the squirrel cage to provide a second level of radial support stiffness.
A method of processing a data packet received from a network in a multi core processor platform, the multi core processor platform comprising a network interface connected to a first central processor unit core, the method comprising the steps of: receiving an interrupt in the first CPU core from the network interface for processing a data packet received from the network; selecting a second central processor unit core (131, 132) based on processor load and establishing an application connection in said second CPU core (131, 132), the selecting and establishing steps being performed at a data link layer level of a network stack of the first CPU core; associating the data packet with the application connection established in said second CPU core (131, 132); creating a separate interrupt thread on said second CPU core (131, 132) associated with the application connection for processing the received data packet; handing off handling of the data packet to a network stack (211, 212) of said second CPU core (131, 132); and handling the data packet at levels above the data link layer level in the network stack (211, 212) of said second CPU core (131, 132). receiving an interrupt in the first CPU core from the network interface for processing a data packet received from the network; selecting a second central processor unit core (131, 132) based on processor load and establishing an application connection in said second CPU core (131, 132), the selecting and establishing steps being performed at a data link layer level of a network stack of the first CPU core; associating the data packet with the application connection established in said second CPU core (131, 132); creating a separate interrupt thread on said second CPU core (131, 132) associated with the application connection for processing the received data packet; handing off handling of the data packet to a network stack (211, 212) of said second CPU core (131, 132); and handling the data packet at levels above the data link layer level in the network stack (211, 212) of said second CPU core (131, 132).