mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle differential reducer comprising: - a substantially longitudinal differential mechanism comprising at least one ring gear of which a lower portion is intended to be immersed in lubricating oil; - a reduction mechanism comprising a secondary shaft and a primary shaft, a pinion of the primary shaft being driven by the ring gear via a pinion of the secondary shaft; - a case which contains the differential mechanism and the reduction mechanism, the differential mechanism and the shafts (26, 28) each being borne in the case by an associated pair of opposite bearings (22, 34, 36), said case comprising, on the one hand, a first half-case of which an internal transverse wall comprises three housings (38A, 40A, 42A) which each receive a first bearing (22, 34, 36) of each pair, and, on the other hand, a second half-case of which an internal transverse wall comprises three housings (38B, 40B, 42B) which each receive a second bearing (22, 34, 36) of each pair, the rotation of the ring gear in a first direction of rotation being capable of spraying oil substantially transversely from the top of the ring gear in the direction of the reducer shafts (26, 28), each internal transverse wall (21A, 21B) having first means for collecting and guiding the oil sprayed by the ring gear rotating in said first direction of rotation to the bearing housings (38A, 38B, 40A, 40B, 42A, 42B); characterized in that each internal wall (21A, 21B) comprises second means for collecting the oil sprayed substantially transversely by rotation of the ring gear in a second direction of rotation from the bottom of the ring gear in the direction of the reducer shafts (26, 28). - a substantially longitudinal differential mechanism comprising at least one ring gear of which a lower portion is intended to be immersed in lubricating oil; - a reduction mechanism comprising a secondary shaft and a primary shaft, a pinion of the primary shaft being driven by the ring gear via a pinion of the secondary shaft; - a case which contains the differential mechanism and the reduction mechanism, the differential mechanism and the shafts (26, 28) each being borne in the case by an associated pair of opposite bearings (22, 34, 36), said case comprising, on the one hand, a first half-case of which an internal transverse wall comprises three housings (38A, 40A, 42A) which each receive a first bearing (22, 34, 36) of each pair, and, on the other hand, a second half-case of which an internal transverse wall comprises three housings (38B, 40B, 42B) which each receive a second bearing (22, 34, 36) of each pair,
An antibody or a functional fragment thereof capable of binding to human tumor necrosis factor alpha (TNFα), wherein said antibody or functional fragment comprises (i) a V L domain having the amino acid sequence as shown in SEQ ID NO:27, and (ii) a V H domain having the amino acid sequence as shown in SEQ ID NO:28.
Method for modifying in a spatially periodic manner at least in some regions a surface of a substrate, said surface being disposed on a sample plane, by acting upon different regions (211, 221, 231, 232) of the substrate surface successively with a spatially periodic illumination pattern of an energy density above a processing threshold of the substrate surface, where the illumination pattern is generated by diffraction of an input beam and superimposition of resulting, diffracted sub-beams (12, 14) by means of a grid interferometer, and where, in order to select the substrate surface region to be illuminated in each case (211, 221, 231, 232), the input beam is deviated by means of a beam-deviating unit arranged upstream of the grid interferometer, characterised in that the input beam passes through a telecentric F-Theta lens between the beam-deviating unit and the grid interferometer.
Process of producing a composition comprising a cellulose component and a carboxycellulose; the process comprising the steps of: a) providing a mixture of an aqueous liquid and a plant or micro-organism derived cellulose material; b) blending a quantity of carboxycellulose with the mixture to reach a ratio of cellulose material to carboxycellulose (w/w) of more than 90/10; c) subjecting the mixture or slurry obtained in step b) to mechanical/physical and/or enzymatic fibrillation treatment; d) mechanically de-watering the composition obtained in step c) to reach a dry matter content of at least 5 wt.%, preferably at least 10 wt.%, more preferably at least 20 wt.%; and e) blending a further quantity of the carboxycellulose with the composition as obtained in step d). a) providing a mixture of an aqueous liquid and a plant or micro-organism derived cellulose material; b) blending a quantity of carboxycellulose with the mixture to reach a ratio of cellulose material to carboxycellulose (w/w) of more than 90/10; c) subjecting the mixture or slurry obtained in step b) to mechanical/physical and/or enzymatic fibrillation treatment; d) mechanically de-watering the composition obtained in step c) to reach a dry matter content of at least 5 wt.%, preferably at least 10 wt.%, more preferably at least 20 wt.%; and e) blending a further quantity of the carboxycellulose with the composition as obtained in step d).
A web printing press comprising: a first sensor (102, 212) and a second sensor (104, 214) separated by a calibrated sensor distance along a web feed direction, the first and second sensors to detect marks (226-1, 226-2,..., 226-N) on a substrate as the substrate advances through the press; a rotary encoder (106, 216) coupled to a roller of the printing press to detect advancement of the substrate; and a scaling measurement correction module (108, 218) to: determine a measured sensor distance based on an amount of substrate advancement, as detected by the encoder, between detection of a mark by the first sensor and detection of the mark by the second sensor, and determine a correction factor to convert the measured sensor distance to the calibrated sensor distance; and a web tension controller to adjust the web tension on the substrate based on the correction factor. a first sensor (102, 212) and a second sensor (104, 214) separated by a calibrated sensor distance along a web feed direction, the first and second sensors to detect marks (226-1, 226-2,..., 226-N) on a substrate as the substrate advances through the press; a rotary encoder (106, 216) coupled to a roller of the printing press to detect advancement of the substrate; and a scaling measurement correction module (108, 218) to: determine a measured sensor distance based on an amount of substrate advancement, as detected by the encoder, between detection of a mark by the first sensor and detection of the mark by the second sensor, and determine a correction factor to convert the measured sensor distance to the calibrated sensor distance; and determine a measured sensor distance based on an amount of substrate advancement, as detected by the encoder, between detection of a mark by the first sensor and detection of the mark by the second sensor, and determine a correction factor to convert the measured sensor distance to the calibrated sensor distance; and a web tension controller to adjust the web tension on the substrate based on the correction factor.
A method for producing a surface-treated carbon black particle aqueous dispersion comprising providing an aqueous dispersion of oxidized carbon black particles obtained by forming acidic hydroxyl groups on a surface of carbon black particles having a DBP absorption of 120 cm 3 /100 g or more, neutralizing 5% or more and less than 50% of the acidic hydroxyl groups with a polyvalent cation, and neutralizing the remainder of the acidic hydroxyl groups with a monovalent cation.
Electrode material for lithium ion batteries, comprising - 5-85% by weight of nanosize silicon particles which have fracture surfaces and a sphericity of 0.3 < ψ < 0.9 and are not aggregated and whose volume-weighted particle size distribution lies between the diameter percentiles d 10 > 20 nm and d 90 < 2000 nm and has a width d 90 -d 10 of < 1200 nm; - 0-40% by weight of an electrically conductive component comprising nanosize structures having dimensions of less than 800 nm; - 0-80% by weight of graphite particles having a volume-weighted particle size distribution between the diameter percentiles d 10 > 0.2 μm and d 90 < 200 μm; - 5-25% by weight of a binder; wherein the total proportion of graphite particles and electrically conductive component is at least 10% by weight, where the proportions of all components add up to a maximum of 100% by weight. - 5-85% by weight of nanosize silicon particles which have fracture surfaces and a sphericity of 0.3 < ψ < 0.9 and are not aggregated and whose volume-weighted particle size distribution lies between the diameter percentiles d 10 > 20 nm and d 90 < 2000 nm and has a width d 90 -d 10 of < 1200 nm; - 0-40% by weight of an electrically conductive component comprising nanosize structures having dimensions of less than 800 nm; - 0-80% by weight of graphite particles having a volume-weighted particle size distribution between the diameter percentiles d 10 > 0.2 μm and d 90 < 200 μm; - 5-25% by weight of a binder; wherein the total proportion of graphite particles and electrically conductive component is at least 10% by weight, where the proportions of all components add up to a maximum of 100% by weight.
A method for separating a main body of a semiconductor substrate from a functional layer, the semiconductor substrate being a piece of mono-crystalline semiconductor, the method comprising the steps of: implanting ions into the semiconductor substrate through a top surface of the semiconductor substrate, the implanted ions located at a depth in the range from 0.1μm-100μm underneath the top surface of the semiconductor substrate, to form an ion damage layer in the semiconductor substrate; forming the functional layer on the top surface of the semiconductor substrate after the ions are implanted into the semiconductor substrate; forming a stress inducing layer on the functional layer, the stress inducing layer being tensile stressed and introducing compressive stress to the functional layer; and separating the functional layer from the main body of the semiconductor substrate at the ion damage layer. implanting ions into the semiconductor substrate through a top surface of the semiconductor substrate, the implanted ions located at a depth in the range from 0.1μm-100μm underneath the top surface of the semiconductor substrate, to form an ion damage layer in the semiconductor substrate; forming the functional layer on the top surface of the semiconductor substrate after the ions are implanted into the semiconductor substrate; forming a stress inducing layer on the functional layer, the stress inducing layer being tensile stressed and introducing compressive stress to the functional layer; and separating the functional layer from the main body of the semiconductor substrate at the ion damage layer.
A handheld device for producing electrospun fiber dressing; said device comprising: a. a housing having at least one portion configured to be handheld by a user; b. a container accommodating at least one electrospinning medium: c. at least one nozzle in fluid communication with said container; d. a mechanism dispensing said medium from said container via said nozzle; e. an auxiliary electrode surrounding said nozzle; f. a power supply providing electric potentials to said nozzle and said auxiliary electrode; wherein said housing comprises an electrically conductive portion configured to be gripped by said user during operation; said electrically conductive portion is connected to said power supply. a. a housing having at least one portion configured to be handheld by a user; b. a container accommodating at least one electrospinning medium: c. at least one nozzle in fluid communication with said container; d. a mechanism dispensing said medium from said container via said nozzle; e. an auxiliary electrode surrounding said nozzle; f. a power supply providing electric potentials to said nozzle and said auxiliary electrode;
A method for increasing the ability of an antibody to mediate complement-dependent cytotoxicity, said method comprising the step of removing a C-terminal lysine residue from the heavy-chains of an antibody.
Process for capturing mosquitoes by producing carbon dioxide (CO 2) directed towards one or more mosquito traps, characterised in that the CO 2 is separated from the ambient air via at least one central system comprising at least one bed of microporous solid type materials, said process enabling an incoming flow of ambient air comprising 0.039% CO 2 in the central system to be used to produce, in the direction of one or more traps, a gaseous outgoing flow with a controlled regular flow rate comprising at least 10 g/hour/trap of CO 2.
A railroad-vehicle drive system comprising: a permanent magnet-type motor for driving the railroad-vehicle; an inverter that includes switching elements (64a, 65a, 66a, 64b, 65b, 66b) formed of a wide band-gap semiconductor and that drives the permanent magnet-type motor; and a control unit that controls the inverter, wherein the permanent magnet-type motor includes a rotor core in which magnet insertion holes are arranged in a convex shape, facing a center of a rotor, the magnet insertion holes having a plurality of permanent magnets embedded therein for each pole, wherein a permanent magnet group for each pole having the plurality of permanent magnets includes vent holes passing through the rotor core in an axial direction between one of the magnet insertion holes in which the permanent magnets are embedded and adjacent one of the magnet insertion holes or between the one of the magnet insertion holes and outer circumferential portions of the rotor core, and wherein the control unit controls the inverter by setting a target current for the permanent magnet-type motor constant in an entire control area up to a maximum number of revolutions of the permanent magnet-type motor. a permanent magnet-type motor for driving the railroad-vehicle; an inverter that includes switching elements (64a, 65a, 66a, 64b, 65b, 66b) formed of a wide band-gap semiconductor and that drives the permanent magnet-type motor; and a control unit that controls the inverter, wherein the permanent magnet-type motor includes a rotor core in which magnet insertion holes are arranged in a convex shape, facing a center of a rotor, the magnet insertion holes having a plurality of permanent magnets embedded therein for each pole, wherein a permanent magnet group for each pole having the plurality of permanent magnets includes vent holes passing through the rotor core in an axial direction between one of the magnet insertion holes in which the permanent magnets are embedded and adjacent one of the magnet insertion holes or between the one of the magnet insertion holes and outer circumferential portions of the rotor core, and wherein the control unit controls the inverter by setting a target current for the permanent magnet-type motor constant in an entire control area up to a maximum number of revolutions of the permanent magnet-type motor.
A nozzle assembly of a vacuum cleaner, comprising: a casing comprising an upper casing and a lower casing, and a suction port formed in a lower portion of the lower casing; a drum brush comprising a plurality of drum bristles planted along an outer circumference thereof, the drum brush rotatably disposed in an interior space of the casing so the drum bristles hit a surface being cleaned; a fan disposed in the interior space of the casing to be rotated by air being drawn in through the suction port, the fan to provide the drum brush with a rotational force; and a blocking plate formed adjacently to a front of the fan to screen most of the fan except for a driving portion of the fan, the fan comprising, a circular fan body, a shaft member extending from the center of the circular fan body, and a plurality of blades formed on the circular fan body, and each of the blades having an inside edge that is at a distance from the shaft member so that the drawn-in air passes through a space defined between the inside edge of each of the blades and the shaft member, characterized in that the blocking plate comprises: a straight portion parallel to a tangent to an outer circumference of the circular fan body; and a curved portion extending from a bottom of the straight portion and curved toward the driving portion of the fan. a casing comprising an upper casing and a lower casing, and a suction port formed in a lower portion of the lower casing; a drum brush comprising a plurality of drum bristles planted along an outer circumference thereof, the drum brush rotatably disposed in an interior space of the casing so the drum bristles hit a surface being cleaned; a fan disposed in the interior space of the casing to be rotated by air being drawn in through the suction port, the fan to provide the drum brush with a rotational force; and a blocking plate formed adjacently to a front of the fan to screen most of the fan except for a driving portion of the fan, the fan comprising, a circular fan body, a shaft member extending from the center of the circular fan body, and a plurality of blades formed on the circular fan body, and each of the blades having an inside edge that is at a distance from the shaft member so that the drawn-in air passes through a space defined between the inside edge of each of the blades and the shaft member, characterized in that the blocking plate comprises: a straight portion parallel to a tangent to an outer circumference of the circular fan body; and a curved portion extending from a bottom of the straight portion and curved toward the driving portion of the fan. a straight portion parallel to a tangent to an outer circumference of the circular fan body; and a curved portion extending from a bottom of the straight portion and curved toward the driving portion of the fan.
A transmission device for transmitting a radio signal over a radio channel, the transmission device comprising: a radio signal generator, configured to generate a radio signal in time-frequency domain; a channel state information, CSI interface, configured to receive CSI of the radio channel; a pilot generator, configured to compose a pilot signal from at least one pre-defined pilot signal comprising a pre-defined base pilot pattern and an optional set of pre-defined dynamic pilot patterns (602, 603), wherein a number and a location of the at least one pre-defined pilot signal in the composed pilot signal is determined based on a latency requirement and the received CSI; a pilot insertion unit, configured to insert the composed pilot signal into the radio signal; and a transmission unit configured to transmit the radio signal comprising the inserted composed pilot signal. a radio signal generator, configured to generate a radio signal in time-frequency domain; a channel state information, CSI interface, configured to receive CSI of the radio channel; a pilot generator, configured to compose a pilot signal from at least one pre-defined pilot signal comprising a pre-defined base pilot pattern and an optional set of pre-defined dynamic pilot patterns (602, 603), wherein a number and a location of the at least one pre-defined pilot signal in the composed pilot signal is determined based on a latency requirement and the received CSI; a pilot insertion unit, configured to insert the composed pilot signal into the radio signal; and a transmission unit configured to transmit the radio signal comprising the inserted composed pilot signal.
A method for managing a plurality of disparate computer application and data control policies on a computing device, comprising: providing at least one policy distribution point (5010a, 5020b, 5030c), said at least one policy distribution point including at least one information management policy; providing a plurality of policy enforcement points (5070, 5080, 5090, 5100), including a first policy enforcement point operating at first policy enforcement level, and a second policy enforcement point operating at second policy enforcement level; allocating a first policy element to said first policy enforcement point, and a second policy element to said second policy enforcement point; and providing a management compartment in computer memory in communication with said computing device, said management compartment including one or more computer applications, data, and metadata specified and controlled by said at least one information management policy, said management compartment including a management compartment policy controlling how information in the at rest, in motion, and in use states of said information is to be managed. providing at least one policy distribution point (5010a, 5020b, 5030c), said at least one policy distribution point including at least one information management policy; providing a plurality of policy enforcement points (5070, 5080, 5090, 5100), including a first policy enforcement point operating at first policy enforcement level, and a second policy enforcement point operating at second policy enforcement level; allocating a first policy element to said first policy enforcement point, and a second policy element to said second policy enforcement point; and providing a management compartment in computer memory in communication with said computing device, said management compartment including one or more computer applications, data, and metadata specified and controlled by said at least one information management policy, said management compartment including a management compartment policy controlling how information in the at rest, in motion, and in use states of said information is to be managed.
A positioning device adapted to produce a position signal indicative of a rotational position of a resolver, the positioning device comprising: - a signal interface adapted to receive a first alternating signal (V_cos) and a second alternating signal (V_sin), amplitudes of the first and second alternating signals being dependent on the rotational position of the resolver so that envelopes of the first and second alternating signals have a mutual phase shift, and - a processing system adapted to generate the position signal based on the amplitudes of the first and second alternating signals and on polarity information indicative of a polarity of an excitation signal of the resolver, characterized in that the processing system is configured to: - recognize a polarity indicator on a waveform of at least the first alternating signal, and - determine the polarity information based on the recognized polarity indicator. - a signal interface adapted to receive a first alternating signal (V_cos) and a second alternating signal (V_sin), amplitudes of the first and second alternating signals being dependent on the rotational position of the resolver so that envelopes of the first and second alternating signals have a mutual phase shift, and - a processing system adapted to generate the position signal based on the amplitudes of the first and second alternating signals and on polarity information indicative of a polarity of an excitation signal of the resolver, - recognize a polarity indicator on a waveform of at least the first alternating signal, and - determine the polarity information based on the recognized polarity indicator.