mhurhangee/ep-ind-claims huggingface dataset:
Method for buffer-storing electrical energy of a DC energy generating installation, by virtue of the fact that a non-earthed storage unit is arranged and connected in series in a positive line connecting a positive pole of a DC energy generating installation to a positive pole of a DC load, such that - in the case of a DC energy demand by the DC load which is lower than the DC energy provided by the DC energy generating installation, the excess DC energy is buffer-stored in the storage unit by virtue of the fact that the positive pole of the storage unit is connected to the positive pole of the DC energy generating installation and the negative pole of the storage unit is connected to the positive pole of the DC load, and - in the case of a DC energy demand by the DC load which is greater than the DC energy provided by the DC energy generating installation, DC energy is drawn from the storage unit by virtue of the fact that the positive pole of the storage unit is connected to the positive pole of the DC load and the negative pole of the storage unit is connected to the positive pole of the DC energy generating installation, wherein - in both cases the negative pole of the DC energy generating installation is directly connected to the negative pole of a DC load by means of a negative line. - in the case of a DC energy demand by the DC load which is lower than the DC energy provided by the DC energy generating installation, the excess DC energy is buffer-stored in the storage unit by virtue of the fact that the positive pole of the storage unit is connected to the positive pole of the DC energy generating installation and the negative pole of the storage unit is connected to the positive pole of the DC load, and - in the case of a DC energy demand by the DC load which is greater than the DC energy provided by the DC energy generating installation, DC energy is drawn from the storage unit by virtue of the fact that the positive pole of the storage unit is connected to the positive pole of the DC load and the negative pole of the storage unit is connected to the positive pole of the DC energy generating installation, wherein - in both cases the negative pole of the DC energy generating installation is directly connected to the negative pole of a DC load by means of a negative line.
A cylinder lock, comprising a body and, inside it, an inner cylinder unit provided with an inner cylinder, a tumbler and electric means, which electric means allow the tumbler to be guided from a locking position into an opening position, the tumbler preventing the turning of the inner cylinder with respect to the body in the locking position and allowing the inner cylinder to be turned with respect to the body in the opening position, the inner cylinder having a channel inside it, the cylinder lock comprising a generator for generating electricity to the cylinder lock from the movement of a key inserted in the cylinder lock, the electricity generated being used to identify the key, and the electricity generated also being used in the electric means if opening the cylinder lock is allowed on the basis of the identification of the key, wherein the cylinder lock comprises, in connection with the generator, a generator shaft system, a channel axis and transmission parts from the channel axis to the generator, and a key channel module with a key channel and an opening from its side surface into the key channel, the key channel and the channel inside the inner cylinder forming a joint channel (20, 6), in which key channel module opening is positioned a part of the channel axis, which extends into the key channel, and which channel axis comprises a gearwheel which is in the key channel and arranged to rotate by the movement of the key inserted in the cylinder lock, the generator shaft system, the channel axis, the transmission parts and the key channel module being in connection with the inner cylinder such that they are arranged to turn with the inner cylinder, and the cylinder lock comprises a circuit board provided with a memory for identifying the key, and also for conveying the electricity generated to the electric means if opening the cylinder lock is allowed on the basis of the identification of the key, and which cylinder lock comprises at least one protective cover, between which protective cover and the key channel module are located the channel axis, the transmission parts, the generator shaft system and the generator.
A method for the production of wood fiberboards, comprising the following steps: a) crushing wood into wood chips, b) hydrothermal pretreatment of the wood chips with steam in a pre-steaming bin at a temperature of 100 to 180° C and a pressure of 1 to 10 bar, c) grinding the pre-treated wood chips into fine wood particles in a refiner in the presence of steam at a temperature of 150 to 200° C and a pressure of 4.5 to 16 bar, d) gluing and drying the fine wood particles, wherein the drying of the wood particles can also be carried out prior to gluing, e) forming mats from the bonded fibers and precompacting the mats, f) pressing the glued and dried wood particles at a temperature of 170 to 240° C into wood fiberboards, characterized by carrying out at least one of steps d) to e) in the presence of one or a plurality of surfactants added in step d) and/or in step e). a) crushing wood into wood chips, b) hydrothermal pretreatment of the wood chips with steam in a pre-steaming bin at a temperature of 100 to 180° C and a pressure of 1 to 10 bar, c) grinding the pre-treated wood chips into fine wood particles in a refiner in the presence of steam at a temperature of 150 to 200° C and a pressure of 4.5 to 16 bar, d) gluing and drying the fine wood particles, wherein the drying of the wood particles can also be carried out prior to gluing, e) forming mats from the bonded fibers and precompacting the mats, f) pressing the glued and dried wood particles at a temperature of 170 to 240° C into wood fiberboards, characterized by carrying out at least one of steps d) to e) in the presence of one or a plurality of surfactants added in step d) and/or in step e).
Method for producing a motor shaft of a rotor of an electric motor, in which method a first module of the motor shaft and an additional module (3, 4) of the motor shaft are produced and interconnected, • the first module of the motor shaft being produced by a base module of the first module being provided with a module-side connection element (5, 6) at a side assigned to the additional module (3, 4) of the motor shaft, • the additional module (3, 4) of the motor shaft being produced by a base module (3a, 4a) of the additional module (3, 4) being provided with a module-side connection element (14, 15) at a side assigned to the first module of the motor shaft, and • the first module of the motor shaft and the additional module (3, 4) of the motor shaft being interconnected by joining the mutual module-side connection elements (5, 6, 14, 15), characterised • in that the first module of the motor shaft or the additional module (3, 4) of the motor shaft is provided with the module-side connection element (5, 6, 14, 15) by cold forming in the form of axial forming the respective base module (2a, 3a, 4a) and • in that the respective other module (2, 3, 4) is provided with the module-side connection element (5, 6, 14, 15) by separating machining the respective base module (2a, 3a, 4a). • the first module of the motor shaft being produced by a base module of the first module being provided with a module-side connection element (5, 6) at a side assigned to the additional module (3, 4) of the motor shaft, • the additional module (3, 4) of the motor shaft being produced by a base module (3a, 4a) of the additional module (3, 4) being provided with a module-side connection element (14, 15) at a side assigned to the first module of the motor shaft, and • the first module of the motor shaft and the additional module (3, 4) of the motor shaft being interconnected by joining the mutual module-side connection elements (5, 6, 14, 15), • in that the first module of the motor shaft or the additional module (3, 4) of the motor shaft is provided with the module-side connection element (5, 6, 14, 15) by cold forming in the form of axial forming the respective base module (2a, 3a, 4a) and • in that the respective other module (2, 3, 4) is provided with the module-side connection element (5, 6, 14, 15) by separating machining the respective base module (2a, 3a, 4a).
A motor-driven hand tool having a machine body and having a handgrip arrangement, wherein the handgrip arrangement has a handgrip and a coupling arrangement for coupling the handgrip to the machine body, wherein, in the operational state, in any case, the machine body vibrates, wherein the coupling arrangement has at least two parallel coupling strands (11, 12) and wherein the coupling strands (11, 12) are of different configuration such that the force effects which are channeled out at the handgrip side via the individual coupling strands (11, 12) and which are attributed to vibrations introduced at the machine side into the individual coupling strands (11, 12) at least partially cancel one another out, characterized in that a first coupling strand has a transmission element for the substantially in-phase transmission of machine-side vibrations, in that a second coupling strand has a mass-spring oscillator for the phase-offset, substantially anti-phase, transmission of machine-side vibrations, in that the force effects of the vibrations introduced at the machine side into the two coupling strands (11, 12) at least partially cancel one another out at the handgrip side, in that the oscillator spring arrangement of the mass-spring oscillator has a first spring element coupled to the machine body and a second spring element coupled to the handgrip, in that the two spring elements (19, 20) are connected in series and in that the oscillator mass arrangement is coupled to the oscillator spring arrangement at the connection point between the two spring elements (19, 20).
Method for adjusting the angular position of a wheel, in particular of a wheel of an aircraft landing gear, the wheel being connected to at least one hydraulic cylinder controlled by a servo valve, the method comprising: - a step of determining an angular difference (ε) between a measurement of the angular position (ANGm) and a setpoint angular position (ANGc), - a first proportional correction step so as to determine a first current from the angular difference (ε) - a second integral correction step so as to determine a second current from the angular difference (ε), - a step of adding the first current and the second current so as to determine a control current of the servo valve - method characterised in the fact that, - the second integral adjustment step comprises a substep of limiting (R2") the second current according to a parametric law, the parametric law imposing a zero-value second current when the angular difference (ε) is less, in absolute value, than a determined first angular threshold (ε1). - a step of determining an angular difference (ε) between a measurement of the angular position (ANGm) and a setpoint angular position (ANGc), - a first proportional correction step so as to determine a first current from the angular difference (ε) - a second integral correction step so as to determine a second current from the angular difference (ε), - a step of adding the first current and the second current so as to determine a control current of the servo valve - method characterised in the fact that, - the second integral adjustment step comprises a substep of limiting (R2") the second current according to a parametric law, the parametric law imposing a zero-value second current when the angular difference (ε) is less, in absolute value, than a determined first angular threshold (ε1).
A data processing method, performed by a computer, for determining a leg length difference and a leg offset difference of a patient's leg including a femur connected to a pelvis, comprising the steps of: - determining a first landmark vector between a femoral landmark and a second landmark (LM2; LM3) at a first point in time; - determining a second landmark vector between the femoral landmark and the second landmark (LM2; LM3) at a second point in time which is later than the first point in time; - calculating a direction which is perpendicular to a sagittal plane and using this direction as a leg offset direction; and - calculating the leg length difference in a leg length direction and the leg offset difference in the leg offset direction from the first landmark vector and the second landmark vector; characterized by - calculating an orthogonal projection of the first landmark vector into a sagittal plane and using the direction of the orthogonal projection of the first landmark vector into the sagittal plane as the leg length direction. - determining a first landmark vector between a femoral landmark and a second landmark (LM2; LM3) at a first point in time; - determining a second landmark vector between the femoral landmark and the second landmark (LM2; LM3) at a second point in time which is later than the first point in time; - calculating a direction which is perpendicular to a sagittal plane and using this direction as a leg offset direction; and - calculating the leg length difference in a leg length direction and the leg offset difference in the leg offset direction from the first landmark vector and the second landmark vector; characterized by - calculating an orthogonal projection of the first landmark vector into a sagittal plane and using the direction of the orthogonal projection of the first landmark vector into the sagittal plane as the leg length direction.
A roller for elevator door hangers, comprising: a roller body rotatable around a central rotation axis, said roller body having an outer groove destined to move along a guide rail; at least one insert embedded within the roller body and arranged below said groove, said at least one insert being arranged below the groove at a first predetermined distance from a lateral surface of the roller body, characterized in that the roller comprises a further insert embedded and arranged below said groove at a second predetermined distance from the lateral surface of the roller body, said second predetermined distance being different from the first predetermined distance. a roller body rotatable around a central rotation axis, said roller body having an outer groove destined to move along a guide rail; at least one insert embedded within the roller body and arranged below said groove, said at least one insert being arranged below the groove at a first predetermined distance from a lateral surface of the roller body, characterized in that the roller comprises a further insert embedded and arranged below said groove at a second predetermined distance from the lateral surface of the roller body, said second predetermined distance being different from the first predetermined distance.
A beverage machine comprising: - a beverage processing module having a liquid inlet and a module fastening arrangement (12,13,15); and - a liquid supply tank having a liquid outlet and a tank fastening arrangement (32,33,35), e.g. a tank for supplying water, the outlet being fluidically connectable to the inlet and disconnectable therefrom, the fastening arrangements (12,13,15;32,33,35) comprising a female connector and a male connector cooperating with the female connector for reversibly assembling the module and the tank, such as a male tank connector cooperating with a female module connector or a male module connector cooperating with a female tank connector, optionally the tank having a pivot area about which the tank is pivoted into and out of a fastening position in which the tank and the module are fastened together via the fastening arrangement (12,13,15;32,33,35), the fastening arrangements (12,13,15;32,33,35) further comprising at least one pair of a support surface (13,35) and a resilient member (33,15) cooperating together, such as module support surface and a tank resilient member or a tank support surface and a module resilient member, characterised in that said support surface (13,35) and said resilient member (33,15) cooperate together for urging the male connector into the female connector so as to fasten the tank to the module, optionally the female and male connectors (12,32) having one or more degrees of freedom (F1,F2) when the tank is assembled to the module, said degree(s) of freedom (F1,F2) being generally in opposition to a direction into which the tank is urged by the resilient member (33,15) cooperating with the support surface (13,35). - a beverage processing module having a liquid inlet and a module fastening arrangement (12,13,15); and - a liquid supply tank having a liquid outlet and a tank fastening arrangement (32,33,35), e.g. a tank for supplying water,
A cleaning sheet (1A, 1B) comprising: a substrate sheet; and at least one long-fiber bundle disposed on at least one side of the substrate sheet and made by aggregating long fibers (31, 31') oriented in substantially one direction, characterized in that: the long-fiber bundle is formed by joining the long fibers (31, 31') together with a fiber-joining section (32, 32') extending linearly in a direction orthogonal to the orientation direction of the long fibers (31, 31'); the long-fiber bundle is joined to the substrate sheet by at least one sheet-joining section (21, 21'); the entire fiber-joining section (32, 32') or at least a portion of the fiber-joining section (32,32') is not joined to the substrate sheet; and the sheet-joining section (21, 21') is in perpendicular contact with the fiber-joining section (32, 32'). the long-fiber bundle is formed by joining the long fibers (31, 31') together with a fiber-joining section (32, 32') extending linearly in a direction orthogonal to the orientation direction of the long fibers (31, 31'); the long-fiber bundle is joined to the substrate sheet by at least one sheet-joining section (21, 21'); the entire fiber-joining section (32, 32') or at least a portion of the fiber-joining section (32,32') is not joined to the substrate sheet; and the sheet-joining section (21, 21') is in perpendicular contact with the fiber-joining section (32, 32').
A biological microchip for the simultaneous quantitative determination of various immunoglobulins E and G in biological fluids, this microchip being an array of three-dimensional hydrogel elements, characterized in that the microchip comprises: elements containing various immobilized allergens which are capable of causing in humans allergic reactions involving immunoglobulins E and G, elements containing immobilized human immunoglobulins E in various concentrations, elements containing immobilized human immunoglobulins G in various concentrations. elements containing various immobilized allergens which are capable of causing in humans allergic reactions involving immunoglobulins E and G, elements containing immobilized human immunoglobulins E in various concentrations, elements containing immobilized human immunoglobulins G in various concentrations.
Extruder device for manufacturing moulded components, comprising a conveyor container and a feeding device for feeding a material to be extruded into the conveyor container, and comprising a shaping extruder port as output of the conveyor container, whereby the extruder port comprises a ring, which is deformable in itself and which is formed of a multitude of links, which are movable relative to each other characterized in that the links are configured as continuous and circumferentially closed link chain.
A dust cup assembly (100, WD, VB), comprising: a casing (1, D1, B1) including a cup body with an open top, and a cleaner cover (12, D12, B13) disposed at a top of the cup body and capable of being opened and closed; a negative pressure device (3, D3, B3) provided in the cup body and used to suck airflow from an environment into the casing (1, D1, B1); and a dedusting device (4, D2, B2) provided in the cup body, located above the negative pressure device (3, D3, B3) and withdrawable from the top of the cup body when the cleaner cover (12, D12, B13) is opened, characterized in that a central chamber and a dedusting chamber (Al, D102, B102) surrounding the central chamber are provided in the cup body, the negative pressure device (3, D3, B3) is provided in the central chamber, the dedusting device (4, D2, B2) is provided in the dedusting chamber (A1, D102, B102), a communicating chamber is provided in the cleaner cover (12, D12, B13), an end face at a side of the cleaner cover (12, D12, B13) facing towards the cup body has an air inlet communicating the communicating chamber with the dedusting chamber and an air outlet communicating the communicating chamber with the central chamber. a casing (1, D1, B1) including a cup body with an open top, and a cleaner cover (12, D12, B13) disposed at a top of the cup body and capable of being opened and closed; a negative pressure device (3, D3, B3) provided in the cup body and used to suck airflow from an environment into the casing (1, D1, B1); and a dedusting device (4, D2, B2) provided in the cup body, located above the negative pressure device (3, D3, B3) and withdrawable from the top of the cup body when the cleaner cover (12, D12, B13) is opened, characterized in that a central chamber and a dedusting chamber (Al, D102, B102) surrounding the central chamber are provided in the cup body, the negative pressure device (3, D3, B3) is provided in the central chamber, the dedusting device (4, D2, B2) is provided in the dedusting chamber (A1, D102, B102), a communicating chamber is provided in the cleaner cover (12, D12, B13), an end face at a side of the cleaner cover (12, D12, B13) facing towards the cup body has an air inlet communicating the communicating chamber with the dedusting chamber and an air outlet communicating the communicating chamber with the central chamber.
A decoding method, wherein the method comprises: extracting at least one piece of prior information from at least one first transport block that has been successfully decoded, and assembling the at least one piece of prior information into a prior information set, wherein one piece of prior information comprises header information of a transmission protocol layer of one first transport block; characterized in that when a to-be-decoded second transport block sent by a transmit end is received, wherein the second transport block is a transport block obtained by the transmit end by coding a third transport block, first decoding the second transport block based on a first demodulation information of the second transport block, to obtain a fourth transport block; and if the decoding fails, i.e. the fourth transport block is different from the third transport block, selecting first prior information from the prior information set and subsequently decoding the second transport block based on both the first prior information and the first demodulation information of the second transport block, to obtain the third transport block. extracting at least one piece of prior information from at least one first transport block that has been successfully decoded, and assembling the at least one piece of prior information into a prior information set, wherein one piece of prior information comprises header information of a transmission protocol layer of one first transport block; characterized in that when a to-be-decoded second transport block sent by a transmit end is received, wherein the second transport block is a transport block obtained by the transmit end by coding a third transport block, first decoding the second transport block based on a first demodulation information of the second transport block, to obtain a fourth transport block; and if the decoding fails, i.e. the fourth transport block is different from the third transport block, selecting first prior information from the prior information set and subsequently decoding the second transport block based on both the first prior information and the first demodulation information of the second transport block, to obtain the third transport block.