mhurhangee/ep-ind-claims huggingface dataset:
A nut chopper, comprising: a main body having a hopper configured to hold a plurality of nuts and a container positioned below the hopper; a grate positioned to support the plurality of nuts in the hopper, the grate having a plurality of slots; and a plurality of blades carried on an axle and positioned adjacent the grate for rotational movement of the plurality of blades, whereby when the axle is rotated the plurality of blades is rotated through the plurality of slots in the grate, wherein each of the plurality of slots includes a length in a direction parallel to a plane defined by a corresponding one of the plurality of blades, each of the plurality of slots further having a first slot width defined over a first portion (51, 52, 53) of the slot and a second slot width over a second portion (54, 55, 56) of the slot, the first slot width being greater than the second slot width, characterized in that each one of the plurality of blades is angularly offset about the axle from each of the remaining of the plurality of blades, and in that each of the blades is positioned such that the axle extends substantially through the center of the blade, wherein the angular offset of each of the plurality of blades from the adjacent one of the remaining blades on each side of the blade about the axle is substantially uniform about the axle. a main body having a hopper configured to hold a plurality of nuts and a container positioned below the hopper; a grate positioned to support the plurality of nuts in the hopper, the grate having a plurality of slots; and a plurality of blades carried on an axle and positioned adjacent the grate for rotational movement of the plurality of blades, whereby when the axle is rotated the plurality of blades is rotated through the plurality of slots in the grate, wherein each of the plurality of slots includes a length in a direction parallel to a plane defined by a corresponding one of the plurality of blades, each of the plurality of slots further having a first slot width defined over a first portion (51, 52, 53) of the slot and a second slot width over a second portion (54, 55, 56) of the slot, the first slot width being greater than the second slot width, characterized in that each one of the plurality of blades is angularly offset about the axle from each of the remaining of the plurality of blades, and in that each of the blades is positioned such that the axle extends substantially through the center of the blade, wherein the angular offset of each of the plurality of blades from the adjacent one of the remaining blades on each side of the blade about the axle is substantially uniform about the axle.
A method for producing a hydrocarbon fraction, wherein the hydrocarbon fraction is formed from synthesis gas and the synthesis gas is treated by means of catalysts, char act e r i zed in that - the hydrocarbon fraction is formed from biomass based synthesis gas wherein the biomass based synthesis gas comprises an H 2:CO molar ratio of about 1.1, - the synthesis gas is fed through at least two catalyst layers in which the first catalyst layer and the second catalyst layer is arranged sequentially, and the synthesis gas is first fed through the first catalyst layer and then through the second catalyst layer, - the first catalyst layer includes Fe-based catalyst for producing olefinic hydrocarbons and removing sulphur, and feeding the biomass based synthesis gas through the first catalyst layer increases the H 2:CO molar ratio to about 1.5:1-2.5:1, - the second catalyst layer includes Co-based catalyst for modifying the hydrocarbons, - the synthesis gas is treated by supplying the synthesis gas through the first and second catalyst layers in order to form a hydrocarbon composition including the hydrocarbon fraction which is a gasoline fraction, - temperatures and pressures are controlled independently in the both catalyst layers, and - a reaction pressure is between 4 to 8 bar and a temperature is between 220 to 350 °C in the first catalyst layer and a reaction pressure is between 4 to 8 bar and a temperature is between 180 to 250 °C in the second catalyst layer. - the hydrocarbon fraction is formed from biomass based synthesis gas wherein the biomass based synthesis gas comprises an H 2:CO molar ratio of about 1.1, - the synthesis gas is fed through at least two catalyst layers in which the first catalyst layer and the second catalyst layer is arranged sequentially, and the synthesis gas is first fed through the first catalyst layer and then through the second catalyst layer, - the first catalyst layer includes Fe-based catalyst for producing olefinic hydrocarbons and removing sulphur, and feeding the biomass based synthesis gas through the first catalyst layer increases the H 2:CO molar ratio to about 1.5:1-2.5:1, - the second catalyst layer includes Co-based catalyst for modifying the hydrocarbons, - the synthesis gas is treated by supplying the synthesis gas through the first and second catalyst layers in order to form a hydrocarbon composition including the hydrocarbon fraction which is a gasoline fraction, - temperatures and pressures are controlled independently in the both catalyst layers, and - a reaction pressure is between 4 to 8 bar and a temperature is between 220 to 350 °C in the first catalyst layer and a reaction pressure is between 4 to 8 bar and a temperature is between 180 to 250 °C in the second catalyst layer.
A classifier, comprising: a first receiving module, configured to receive a first service packet, wherein the first service packet comprises at least one packet characteristic; and characterized in a first processing module, configured to generate a second service packet according to the packet characteristic, wherein the second service packet comprises the first service packet and at least two pieces of service chain information, and each piece of service chain information indicates a route of one service chain; and a first sending module, configured to send the second service packet to a forwarder, so that the forwarder forwards the second service packet according to the at least two pieces of service chain information constituting an entire path for forwarding the second service packet. a first receiving module, configured to receive a first service packet, wherein the first service packet comprises at least one packet characteristic; and characterized in a first processing module, configured to generate a second service packet according to the packet characteristic, wherein the second service packet comprises the first service packet and at least two pieces of service chain information, and each piece of service chain information indicates a route of one service chain; and a first sending module, configured to send the second service packet to a forwarder, so that the forwarder forwards the second service packet according to the at least two pieces of service chain information constituting an entire path for forwarding the second service packet.
A stent graft comprising a tubular stent graft fabric and having a central end and a peripheral end, wherein said stent graft fabric comprises microfiber bundles as a warp, weft or both, and the content of said microfiber bundles in the entire fabric is at least 20% by weight, wherein each of said microfiber bundles consists of 120 to 3000 microfilaments having a filament linear density of 0.5 dtex or less and at most 3% or less of fibers that are not microfilaments based on the number of microfilaments, has a total linear density of 10 to 60 dtex, and has a porosity of 30% to 95% as measured by the method described in the description, and has 10 microcrimp bending points or more per centimeter as measured by the method described in the description and wherein said stent graft fabric is located immediately at the edge of any of the central end and the peripheral end of the stent graft and extends at least 1 cm inwards from said end. wherein said stent graft fabric comprises microfiber bundles as a warp, weft or both, and the content of said microfiber bundles in the entire fabric is at least 20% by weight, wherein each of said microfiber bundles consists of 120 to 3000 microfilaments having a filament linear density of 0.5 dtex or less and at most 3% or less of fibers that are not microfilaments based on the number of microfilaments, has a total linear density of 10 to 60 dtex, and has a porosity of 30% to 95% as measured by the method described in the description, and has 10 microcrimp bending points or more per centimeter as measured by the method described in the description and wherein said stent graft fabric is located immediately at the edge of any of the central end and the peripheral end of the stent graft and extends at least 1 cm inwards from said end.
Air guiding device for a motor-vehicle, comprising: - a main chamber located at the rear of a front wall of the motor-vehicle, defined between said front wall, a rear wall spaced apart from said front wall, an upper wall, a lower wall and two side walls, - at least one first opening on said front wall for the inlet of air into said chamber, - at least one second opening on said rear wall, for guiding air to the engine compartment of the motor-vehicle, - two side ducts, each extending from an inlet located at a respective side wall of the main chamber to an outlet giving out on a respective outer side wall of the motor vehicle, - a device for controlling the airflow through said second opening, - the outlets of the two side ducts being arranged and oriented so as to generate a substantially flattened and vertical air curtain adjacent to each front wheel of the motor-vehicle, on the outer side thereof, characterized in that said front wall is the wall of a front bumper of the motor vehicle, in that said main chamber is defined by a peripheral frame having an upper wall, a lower wall and two side walls said peripheral frame being secured against the inner surface of the front wall of the bumper, so as to define said main chamber, said peripheral frame acting also as a support for said adjustment device and in that the two side ducts are defined by two channel-like elements secured against the inner surface of the bumper so as to define therewith said side ducts. - a main chamber located at the rear of a front wall of the motor-vehicle, defined between said front wall, a rear wall spaced apart from said front wall, an upper wall, a lower wall and two side walls, - at least one first opening on said front wall for the inlet of air into said chamber, - at least one second opening on said rear wall, for guiding air to the engine compartment of the motor-vehicle, - two side ducts, each extending from an inlet located at a respective side wall of the main chamber to an outlet giving out on a respective outer side wall of the motor vehicle, - a device for controlling the airflow through said second opening, - the outlets of the two side ducts being arranged and oriented so as to generate a substantially flattened and vertical air curtain adjacent to each front wheel of the motor-vehicle, on the outer side thereof,
RFID/NFC-system comprising a stationary RFID/NFC-interface and a movable RFID/NFC-element (6, 6', 6"), wherein the stationary RFID/NFC-interface comprises a stationary carrier with a first coil arranged for example on its upper surface or on its lower surface and connected to a first RFID/NFC-chip, wherein the stationary carrier is fixed with one of its side faces to a mounting device, wherein the movable RFID/NFC-element (6, 6', 6") comprises a movable carrier (7, 7', 7") with a second coil (8, 8', 8") arranged for example on its upper surface or on its lower surface, wherein the second coil (8, 8', 8") is connectable to a second RFID/NFC-chip and wherein the movable RFID/NFC-element (6, 6', 6") can be moved with respect to the stationary RFID/NFC-interface such that the upper surface or the lower surface of the movable carrier (7, 7', 7") and the upper surface or the lower surface of the stationary carrier at least partly face each other such that signals can be transferred between the first coil and the second coil (8, 8', 8") characterized in that the second coil (8, 8', 8") is connected to a third coil for transmitting signals to or receiving signals from a portable RFID/NFC-interface, wherein the third coil is attached on a substrate and wherein the substrate is designed as a sticker such that the substrate is attachable to the portable RFID/NFC-interface by adhesive means.
A control device for controlling a vehicle testing apparatus or a vehicle lifting apparatus, configured to exchange data with one or more actuators of said vehicle testing apparatus or said vehicle lifting apparatus and/or to exchange data with one or more sensors of said vehicle testing apparatus or said vehicle lifting apparatus, said control device comprising a calculation unit, configured to drive said actuator or actuators of said vehicle testing apparatus or said vehicle lifting apparatus and to query data from said sensor or sensors, and a transceiver, configured to wirelessly transmit data from said actuator or actuators and/or said sensor or sensors to one or more network(s) and/or to receive data from said network or networks, characterized in said control device being connectable over said network or networks to a background administration system, to which the data of said control device are transmitted and/or from which data are transmitted to said control device, and said control device being configured to transmit, before sending a control instruction to an actuator of said vehicle testing apparatus or said vehicle lifting apparatus, a request to said background administration system and, when said background administration system does not approve sending said control instruction, not to send said control instruction. characterized in said control device being connectable over said network or networks to a background administration system, to which the data of said control device are transmitted and/or from which data are transmitted to said control device, and said control device being configured to transmit, before sending a control instruction to an actuator of said vehicle testing apparatus or said vehicle lifting apparatus, a request to said background administration system and, when said background administration system does not approve sending said control instruction, not to send said control instruction.
A modulation mapping method for Discontinuous Transmission, DTX, bits, characterized by: receiving binary symbols from a downlink physical channel; replacing symbol values of DTX bits in the binary symbols with symbol values of non-DTX bits, to obtain updated binary symbols; and performing modulation mapping on the updated binary symbols. receiving binary symbols from a downlink physical channel; replacing symbol values of DTX bits in the binary symbols with symbol values of non-DTX bits, to obtain updated binary symbols; and performing modulation mapping on the updated binary symbols.
A stress distribution image processing device comprising: a processing unit, characterized in that the processing unit is configured to: designate a normalization region (6a, 6b, 6c); and normalize pixels in the normalization region (6a, 6b, 6c) based on stress values in the normalization region (6a, 6b, 6c) to obtain a normalized image, wherein the normalization region (6a, 6b, 6c) is designated such that it includes a portion of stress equal to or larger than a predetermined threshold value in a stress distribution image of a target object wherein the normalizing uses a normalization method in which a maximum value and a minimum value of stress values in the normalization region (6a, 6b, 6c) are set to 1 and 0. a processing unit, characterized in that the processing unit is configured to: designate a normalization region (6a, 6b, 6c); and normalize pixels in the normalization region (6a, 6b, 6c) based on stress values in the normalization region (6a, 6b, 6c) to obtain a normalized image, wherein the normalization region (6a, 6b, 6c) is designated such that it includes a portion of stress equal to or larger than a predetermined threshold value in a stress distribution image of a target object wherein the normalizing uses a normalization method in which a maximum value and a minimum value of stress values in the normalization region (6a, 6b, 6c) are set to 1 and 0.
A motor unit configured for actuating a rope of in particular a telescoping pole assembly comprising a telescopic pole, comprising a motor, a wheel comprising a rotatable wheel drum for receiving the rope, the wheel further comprising a rotating arm for manually operating the wheel, characterized in that said rotating arm is axially extendable between a motor operated position and a manually operated position, a slidable axis engage means configured for torque-proof connecting the motor and the wheel in a first position only when the rotating arm is in the motor operated position and configured for releasing the connection between motor and the wheel in a second position only when the rotating arm is in the manually operated position, and a kinematic means configured to move the axis engage means from the first position to the second position when the rotating arm is in the manually operated position. a motor, a wheel comprising a rotatable wheel drum for receiving the rope, the wheel further comprising a rotating arm for manually operating the wheel, characterized in that said rotating arm is axially extendable between a motor operated position and a manually operated position, a slidable axis engage means configured for torque-proof connecting the motor and the wheel in a first position only when the rotating arm is in the motor operated position and configured for releasing the connection between motor and the wheel in a second position only when the rotating arm is in the manually operated position, and a kinematic means configured to move the axis engage means from the first position to the second position when the rotating arm is in the manually operated position.
A method for fabricating a sensors comprising the following steps in following order: step 101: forming, on a base substrate, a pattern of a source electrode and a drain electrode, a pattern of a data line connected to the drain electrode, a pattern of a receiving electrode connected to the source electrode, a pattern of a photodiode disposed on the receiving electrode, and a pattern of a transparent electrode disposed on the photodiode by using a first patterning process, wherein the source electrode and the drain electrode are disposed opposed to each other to form a channel; step 102: forming a pattern of an ohmic layer disposed on the source electrode and the drain electrode by using a second patterning process; step 103: forming a pattern of an active layer which is disposed on the ohmic layer and overlaying the channel by using a third patterning process; step 104: forming a pattern of a gate insulating layer by using a fourth patterning process, wherein the gate insulating layer has a via hole above the transparent electrode; and step 105: forming a pattern of a gate electrode which is disposed on the gate insulating layer and over the channel, a pattern of a gate line connected to the gate electrode, and a pattern of a bias line connected to the transparent electrode by way of the via hole above the transparent electrode by using a fifth patterning process. step 101: forming, on a base substrate, a pattern of a source electrode and a drain electrode, a pattern of a data line connected to the drain electrode, a pattern of a receiving electrode connected to the source electrode, a pattern of a photodiode disposed on the receiving electrode, and a pattern of a transparent electrode disposed on the photodiode by using a first patterning process, wherein the source electrode and the drain electrode are disposed opposed to each other to form a channel; step 102: forming a pattern of an ohmic layer disposed on the source electrode and the drain electrode by using a second patterning process; step 103: forming a pattern of an active layer which is disposed on the ohmic layer and overlaying the channel by using a third patterning process; step 104: forming a pattern of a gate insulating layer by using a fourth patterning process, wherein the gate insulating layer has a via hole above the transparent electrode; and step 105: forming a pattern of a gate electrode which is disposed on the gate insulating layer and over the channel, a pattern of a gate line connected to the gate electrode, and a pattern of a bias line connected to the transparent electrode by way of the via hole above the transparent electrode by using a fifth patterning process.
A reception device comprising: a receiver (701, 702, 8600) receiving, from a transmission device for Multiple-Input, Single-Output [MISO] transmission, a signal containing polarization information indicating whether antennas for transmission by MISO have only a first polarization or have a second polarization as well as the first polarization; and a demodulator (8601, 8603, 8701, 8801) decoding the polarization information contained in the signal received by the receiver (701, 702, 8600), wherein when the polarization information indicates that antennas used for transmission of transmission data have only the first polarization, the demodulator is adapted to stop a processing system for antennas having the second polarization during decoding of the transmission data. a receiver (701, 702, 8600) receiving, from a transmission device for Multiple-Input, Single-Output [MISO] transmission, a signal containing polarization information indicating whether antennas for transmission by MISO have only a first polarization or have a second polarization as well as the first polarization; and a demodulator (8601, 8603, 8701, 8801) decoding the polarization information contained in the signal received by the receiver (701, 702, 8600), wherein when the polarization information indicates that antennas used for transmission of transmission data have only the first polarization, the demodulator is adapted to stop a processing system for antennas having the second polarization during decoding of the transmission data.
Movable component made of metal for compensating for in-situ movements of a line for fluids, in particular a fluid-carrying pipeline, wherein the movable component is in particular variable in length and/or angularly and/or axially and/or laterally movable, wherein a digitally readable information element (6, 7) is attached to the movable component, characterised in that the readable information element (6, 7) is provided with a digital memory which can be read from the outside, in particular by means of near-field communication, and wherein the digital memory of the readable information element (6, 7) is writable from the outside, in particular by means of near field communication.