mhurhangee/ep-ind-claims huggingface dataset:
A terminal block to be fixed to a motor case which houses a motor body and includes a coolant flow path and adapted to fasten at least one conductive member by tightening at least one bolt, comprising: at least one nut portion for tightening the bolt; and a metal heat sink provided such that heat can be transferred from the nut portion; wherein the heat sink includes at least one heat radiating portion which comes into contact with a coolant passing in the coolant flow path of the motor case; and characterized in that the nut portion is arranged via an insulation plate made of synthetic resin on a placing surface of the heat sink at a side opposite to a side where the heat radiating portion is formed, wherein the insulation plate is at least partly sandwiched between the nut portion and the heat sink from opposite front and rear sides. at least one nut portion for tightening the bolt; and a metal heat sink provided such that heat can be transferred from the nut portion; wherein the heat sink includes at least one heat radiating portion which comes into contact with a coolant passing in the coolant flow path of the motor case; and characterized in that the nut portion is arranged via an insulation plate made of synthetic resin on a placing surface of the heat sink at a side opposite to a side where the heat radiating portion is formed, wherein the insulation plate is at least partly sandwiched between the nut portion and the heat sink from opposite front and rear sides.
A two-component polyurethane composition consisting of a polyol component and a polyisocyanate component; wherein the polyol component K1 comprises castor oil; at least one polyol having 5-8 hydroxyl groups; at least one polyether and/or polyester polyol on the basis of castor oil or soybean oil having an OH number of 150 to 200 mg KOH/g ( A2-1) and at least one polyether and/or polyester polyol based on castor oil or soybean oil with an OH number of 210-300 mg KOH/g ( A2-2) and wherein the polyisocyanate component comprises at least one polyisocyanate.
A molding device for a tire component for molding a tire component comprising: an extruder of a rubber material provided with a mouthpiece (14a, 14b) with a rhombic cross-section; and a pair of rollers (21, 22) for rolling a belt-shaped member with a rhombic cross-section extruded through the mouthpiece into a hexagonal cross-section; the molding device molding the tire component by laminating the belt-shaped member with the hexagonal cross-section, wherein the pair of rollers roll the belt-shaped member with the rhombic cross-section so as to have the hexagonal cross-section having, after the rolling, a ratio between distance a and width b (a/b) of 0.73 or less where the distance a is from the center line to a side part in a width direction of the belt-shaped member and the width b is from the center line to an edge part in the width direction thereof; and a ratio between width c and thickness d (c/d) of 2.98 or more where the width c is of the side part and the thickness d is from the center to a surface in a thickness direction at the central part of the belt-shaped member. an extruder of a rubber material provided with a mouthpiece (14a, 14b) with a rhombic cross-section; and a pair of rollers (21, 22) for rolling a belt-shaped member with a rhombic cross-section extruded through the mouthpiece into a hexagonal cross-section; the molding device molding the tire component by laminating the belt-shaped member with the hexagonal cross-section, wherein the pair of rollers roll the belt-shaped member with the rhombic cross-section so as to have the hexagonal cross-section having, after the rolling, a ratio between distance a and width b (a/b) of 0.73 or less where the distance a is from the center line to a side part in a width direction of the belt-shaped member and the width b is from the center line to an edge part in the width direction thereof; and a ratio between width c and thickness d (c/d) of 2.98 or more where the width c is of the side part and the thickness d is from the center to a surface in a thickness direction at the central part of the belt-shaped member.
A system comprising: a microfluidic body (212, 504) having a body side (214, 502, 706) and a fluidic network that includes a supply port (210, 526-530, 731-734) and a feed port (226, 524, 736), the supply port (210, 527, 731-734) opening to the body side; a rotary valve (216, 500, 704) that is rotatably mounted to the body side, the rotary valve (216, 500) having a first channel port, a second channel port, and a flow channel that extends between the first and second channel ports (547, 544), the rotary valve (216, 500) configured to rotate between first and second valve positions, the first channel port being in flow communication with the supply port of the microfluidic body (212, 504) when the rotary valve (216, 500) is in the first valve position, the first channel port being sealed by the microfluidic body (212, 504) when the rotary valve (216, 500) is in the second valve position; and a pump assembly configured to induce a flow of a fluid through the supply port and into the flow channel when the rotary valve (216, 500) is in the first valve position; and characterized in that a thermocycler positioned relative to the rotary valve (216, 500) and configured to control a temperature experienced by the fluid within the flow channel when the rotary valve is in the second valve position; wherein the rotary valve (216, 504) is configured to rotate about an axis (299, 542), the second channel port and the feed port (226, 524) being aligned with the axis (299, 542). a microfluidic body (212, 504) having a body side (214, 502, 706) and a fluidic network that includes a supply port (210, 526-530, 731-734) and a feed port (226, 524, 736), the supply port (210, 527, 731-734) opening to the body side; a rotary valve (216, 500, 704) that is rotatably mounted to the body side, the rotary valve (216, 500) having a first channel port, a second channel port, and a flow channel that extends between the first and second channel ports (547, 544), the rotary valve (216, 500) configured to rotate between first and second valve positions, the first channel port being in flow communication with the supply port of the microfluidic body (212, 504) when the rotary valve (216, 500) is in the first valve position, the first channel port being sealed by the microfluidic body (212, 504) when the rotary valve (216, 500) is in the second valve position; and a pump assembly configured to induce a flow of a fluid through the supply port and into the flow channel when the rotary valve (216, 500) is in the first valve position; and characterized in that a thermocycler positioned relative to the rotary valve (216, 500) and configured to control a temperature experienced by the fluid within the flow channel when the rotary valve is in the second valve position; wherein the rotary valve (216, 504) is configured to rotate about an axis (299, 542), the second channel port and the feed port (226, 524) being aligned with the axis (299, 542).
A method for admission control in a Metropolitan Area Network, MAN, comprising: converging resource reservation requests from users, wherein the resource reservation requests contain bandwidth values to be occupied for data transmission; and determining whether a total bandwidth value in the converged resource reservation requests is larger than a preset bandwidth threshold of a transmission path in a channel; if yes, searching the MAN for another channel satisfying the total bandwidth value in the converged resource reservation requests, wherein a channel includes several transmission paths; after the channel is found, establishing a new transmission path using an identifier, ID, number of the transmission path originally distributed to the users, and removing the transmission path originally distributed to the users at the same time, wherein a bandwidth value of the newly established transmission path is larger than or equal to the total bandwidth value in the converged resource reservation requests, and the total bandwidth value is a sum of the bandwidth values to be occupied for data transmission in the converged resource reservation requests. converging resource reservation requests from users, wherein the resource reservation requests contain bandwidth values to be occupied for data transmission; and determining whether a total bandwidth value in the converged resource reservation requests is larger than a preset bandwidth threshold of a transmission path in a channel; if yes, searching the MAN for another channel satisfying the total bandwidth value in the converged resource reservation requests, wherein a channel includes several transmission paths; after the channel is found, establishing a new transmission path using an identifier, ID, number of the transmission path originally distributed to the users, and removing the transmission path originally distributed to the users at the same time, wherein a bandwidth value of the newly established transmission path is larger than or equal to the total bandwidth value in the converged resource reservation requests, and the total bandwidth value is a sum of the bandwidth values to be occupied for data transmission in the converged resource reservation requests.
A switch device for use in telecommunications apparatus, the switch device comprising: a substantially planar substrate having first substantially planar face and an opposing second substantially planar face; a first plurality of ports mounted on the first face (31 a) of the substrate, and having a first arrangement of locating pins which extend into the substrate from the first face towards the second face thereof; and a second plurality of ports mounted on the second face of the substrate, and having a second arrangement of locating pins which extend into the substrate from the second face towards the first face thereof, characterised in that the first arrangement of locating pins is offset with respect to the second arrangement of locating pins. a substantially planar substrate having first substantially planar face and an opposing second substantially planar face; a first plurality of ports mounted on the first face (31 a) of the substrate, and having a first arrangement of locating pins which extend into the substrate from the first face towards the second face thereof; and a second plurality of ports mounted on the second face of the substrate, and having a second arrangement of locating pins which extend into the substrate from the second face towards the first face thereof,
Method for optimising the cleaning, along a flushing segment, of pipes or systems through which fluid flows, in which method, at the start of the flushing segment, at a feed-in point, a gas or a gas mixture is applied in a pulsed manner to the pipe, which is filled at least in part with fluid, characterised by: - an initial non-operational phase in which the flushing segment is filled or is being filled with fluid, - a start-up phase in which the flushing segment is partially emptied by introducing a gas or a gas mixture into the pipe portion, - a pulsed phase in which the gas or gas mixture is applied to the flushing segment in a plurality of sequences consisting of at least two pulses, a sequence being composed as follows: sequence = pulse count n × duration of pulse DIM + pulse interval INT, the pulse count (n) corresponding to the number of pulses in the sequence, the pulse duration corresponding to the duration of a pulse in the sequence, and the pulse interval corresponding to the distance in time between two pulses, and a pause phase being introduced at the end of a sequence until the start of the subsequent sequence, in which pause phase a reduction of pressure in and a partial filling of the flushing segment occurs. - an initial non-operational phase in which the flushing segment is filled or is being filled with fluid, - a start-up phase in which the flushing segment is partially emptied by introducing a gas or a gas mixture into the pipe portion, - a pulsed phase in which the gas or gas mixture is applied to the flushing segment in a plurality of sequences consisting of at least two pulses, a sequence being composed as follows: sequence = pulse count n × duration of pulse DIM + pulse interval INT, the pulse count (n) corresponding to the number of pulses in the sequence, the pulse duration corresponding to the duration of a pulse in the sequence, and the pulse interval corresponding to the distance in time between two pulses, and a pause phase being introduced at the end of a sequence until the start of the subsequent sequence, in which pause phase a reduction of pressure in and a partial filling of the flushing segment occurs.
A method for preparing a cathode electrode, comprising the following steps: under a condition of continuous stirring, mixing a binder with N-methylpyrrolidone, and adding a conductive material, a cathode additive, and a cathode material to obtain a cathode slurry, the cathode additive having been prepared by dispersing a carbon-coated lithium manganese iron phosphate in an organic solvent to obtain the cathode additive and wherein the cathode additive comprises, in percentage by mass, 10% to 40% carbon-coated lithium manganese iron phosphate and the organic solvent, wherein the carbon-coated lithium manganese iron phosphate is dispersed in the organic solvent, and a median particle diameter of the carbon-coated lithium manganese iron phosphate is 30 nm to 100 nm, a mass ratio of the cathode material to the carbon-coated lithium manganese iron phosphate in the cathode additive is 80: 20 to 99: 1; and preparing the cathode slurry into the cathode electrode; wherein the cathode material is at least one selected from a group consisting of a nickel cobalt manganese ternary material, a nickel cobalt aluminum ternary material, lithium nickel manganese oxide, lithium manganate, and lithium cobaltate. under a condition of continuous stirring, mixing a binder with N-methylpyrrolidone, and adding a conductive material, a cathode additive, and a cathode material to obtain a cathode slurry, the cathode additive having been prepared by dispersing a carbon-coated lithium manganese iron phosphate in an organic solvent to obtain the cathode additive and wherein the cathode additive comprises, in percentage by mass, 10% to 40% carbon-coated lithium manganese iron phosphate and the organic solvent, wherein the carbon-coated lithium manganese iron phosphate is dispersed in the organic solvent, and a median particle diameter of the carbon-coated lithium manganese iron phosphate is 30 nm to 100 nm, a mass ratio of the cathode material to the carbon-coated lithium manganese iron phosphate in the cathode additive is 80: 20 to 99: 1; and preparing the cathode slurry into the cathode electrode; wherein the cathode material is at least one selected from a group consisting of a nickel cobalt manganese ternary material, a nickel cobalt aluminum ternary material, lithium nickel manganese oxide, lithium manganate, and lithium cobaltate.
A device for producing an alcohol synthesis gas, designed to produce a synthesis gas, comprising hydrogen and carbon monoxide, comprising a reactor vessel, a plasma generator and an oxygen separator, wherein the reactor vessel is designed as a bubble column reactor, comprising an organic-substrate-water supply line, a reaction chamber which is designed to receive an organic-substrate-water suspension, a gassing system which is designed to supply and disperse a process gas in the organic-substrate-water suspension to produce a three-phase dispersion by means of generating a bubble column, the dispersion comprising a solid, a liquid and a gaseous phase, the solid phase comprising the organic substrate, the liquid phase comprising the water and the gaseous phase comprising the process gas, a discharge line designed to discharge the synthesis gas or a synthesis gas intermediate product, wherein the plasma generator is arranged in the bubble column and comprises plasma electrodes, wherein these are provided as anodes and cathodes, wherein the plasma electrodes are designed to generate a plasma with the production of the synthesis gas intermediate product, and wherein the oxygen separator is designed to separate oxygen from the synthesis gas intermediate product to obtain the synthesis gas. designed to produce a synthesis gas, comprising hydrogen and carbon monoxide, comprising a reactor vessel, a plasma generator and an oxygen separator, wherein the reactor vessel is designed as a bubble column reactor, comprising an organic-substrate-water supply line, a reaction chamber which is designed to receive an organic-substrate-water suspension, a gassing system which is designed to supply and disperse a process gas in the organic-substrate-water suspension to produce a three-phase dispersion by means of generating a bubble column, the dispersion comprising a solid, a liquid and a gaseous phase, the solid phase comprising the organic substrate, the liquid phase comprising the water and the gaseous phase comprising the process gas, a discharge line designed to discharge the synthesis gas or a synthesis gas intermediate product, wherein the plasma generator is arranged in the bubble column and comprises plasma electrodes, wherein these are provided as anodes and cathodes, wherein the plasma electrodes are designed to generate a plasma with the production of the synthesis gas intermediate product, and wherein the oxygen separator is designed to separate oxygen from the synthesis gas intermediate product to obtain the synthesis gas.
A method of manufacturing a low-phosphorus whey having a phosphorus content of not more than 12 mmol per 100 g of solids, the method comprising: passing a low-chloride whey liquid, which has a chloride content of not more than 30 mmol per 100 g of solids, through an ion exchange resin, wherein the ion exchange resin comprises an anion exchange resin, at least an anion exchange resin in chloride form is used as the anion exchange resin, a pH of the low-chloride whey liquid is within a range from 6 to 7, and a pH of an eluate from the anion exchange resin is within a range from 6 to 7. passing a low-chloride whey liquid, which has a chloride content of not more than 30 mmol per 100 g of solids, through an ion exchange resin, wherein the ion exchange resin comprises an anion exchange resin, at least an anion exchange resin in chloride form is used as the anion exchange resin, a pH of the low-chloride whey liquid is within a range from 6 to 7, and a pH of an eluate from the anion exchange resin is within a range from 6 to 7.
A frequency offset estimation apparatus which estimates the difference between a carrier frequency of a received signal and the frequency of an output signal of a local oscillator, the apparatus comprising: a frequency offset coarse estimation unit that estimates a frequency offset from a frequency spectrum of the received signal including two polarizations sampled in advance with a predetermined sampling frequency; a frequency offset fine estimation unit that has a periodical frequency offset estimation characteristic with respect to the received signal or a signal obtained by compensating for dispersion of the received signal; and a frequency ambiguity elimination control unit that eliminates frequency ambiguity of a frequency offset which has been estimated by the frequency offset fine estimation unit, based on the value of the frequency offset estimated by the frequency offset coarse estimation unit, to estimate the frequency offset. a frequency offset coarse estimation unit that estimates a frequency offset from a frequency spectrum of the received signal including two polarizations sampled in advance with a predetermined sampling frequency; a frequency offset fine estimation unit that has a periodical frequency offset estimation characteristic with respect to the received signal or a signal obtained by compensating for dispersion of the received signal; and a frequency ambiguity elimination control unit that eliminates frequency ambiguity of a frequency offset which has been estimated by the frequency offset fine estimation unit, based on the value of the frequency offset estimated by the frequency offset coarse estimation unit, to estimate the frequency offset.
An ultrasound imaging apparatus comprising, a probe provided with an array of plural ultrasound elements along a predetermined direction, a transmit beamformer configured to transmit ultrasonic waves to a test subject from at least a part of the ultrasound elements, giving a delay time to the ultrasonic waves transmitted respectively from the ultrasound elements, so as to focus the ultrasound waves on a predetermined depth, a receive beamformer comprising, a delay adder configured to delay received signals outputted from the plural ultrasound elements that receive ultrasound waves from the test subject, adding thus delayed signals, thereby obtaining a phasing signal as to each of plural receive phasing points within a predetermined phasing range, and an inter-transmission synthesizer configured to apply an inter-transmission weight to each of a plurality of the phasing signals obtained through transmissions and receptions, as to each of the receive phasing points, and then to combine the phasing signals so as to perform inter-transmission synthesis, an inter-transmission weight adjuster configured to adjust the inter-transmission weight, and an image processor configured to generate an ultrasound image from the phasing signals, after the inter-transmission synthesis is performed as to the plural receive phasing points, characterised in that the inter-transmission weight adjuster is configured to adjust the inter-transmission weight in accordance with the phasing range. a probe provided with an array of plural ultrasound elements along a predetermined direction, a transmit beamformer configured to transmit ultrasonic waves to a test subject from at least a part of the ultrasound elements, giving a delay time to the ultrasonic waves transmitted respectively from the ultrasound elements, so as to focus the ultrasound waves on a predetermined depth, a receive beamformer comprising, a delay adder configured to delay received signals outputted from the plural ultrasound elements that receive ultrasound waves from the test subject, adding thus delayed signals, thereby obtaining a phasing signal as to each of plural receive phasing points within a predetermined phasing range, and an inter-transmission synthesizer configured to apply an inter-transmission weight to each of a plurality of the phasing signals obtained through transmissions and receptions, as to each of the receive phasing points, and then to combine the phasing signals so as to perform inter-transmission synthesis, an inter-transmission weight adjuster configured to adjust the inter-transmission weight, and an image processor configured to generate an ultrasound image from the phasing signals, after the inter-transmission synthesis is performed as to the plural receive phasing points, characterised in that the inter-transmission weight adjuster is configured to adjust the inter-transmission weight in accordance with the phasing range.