mhurhangee/ep-ind-claims huggingface dataset:
A particulate material comprising: zirconia particles having - a secondary particle size, as determined according to the description, in a range of at least 110 nm to no greater than 350 nm; - a density of 5.50 g/cm 3 to 5.80 g/cm 3; - a specific surface area, determined by using a TriStar 3000TM-brand surface area analyzer by Micromeritics Instrument Corporation, in a range of 11 m 2 /g to 25 m 2 /g; - an isoelectric point of at least 6.3 pH and not greater than 6.8, and - an average pore size, determined by the Barrett-Joyner-Halenda method, in a range of 15 nm to 26 nm, wherein the zirconia particles are monoclinic ZrO 2. zirconia particles having - a secondary particle size, as determined according to the description, in a range of at least 110 nm to no greater than 350 nm; - a density of 5.50 g/cm 3 to 5.80 g/cm 3; - a specific surface area, determined by using a TriStar 3000TM-brand surface area analyzer by Micromeritics Instrument Corporation, in a range of 11 m 2 /g to 25 m 2 /g; - an isoelectric point of at least 6.3 pH and not greater than 6.8, and - an average pore size, determined by the Barrett-Joyner-Halenda method, in a range of 15 nm to 26 nm, - a secondary particle size, as determined according to the description, in a range of at least 110 nm to no greater than 350 nm; - a density of 5.50 g/cm 3 to 5.80 g/cm 3; - a specific surface area, determined by using a TriStar 3000TM-brand surface area analyzer by Micromeritics Instrument Corporation, in a range of 11 m 2 /g to 25 m 2 /g; - an isoelectric point of at least 6.3 pH and not greater than 6.8, and - an average pore size, determined by the Barrett-Joyner-Halenda method, in a range of 15 nm to 26 nm, wherein the zirconia particles are monoclinic ZrO 2.
A floating type wind turbine generating apparatus comprising: a floating body including three columns (22a,22b,22c) having a quadratic prism shape and at least two lower hulls connecting two of the three columns; and a wind turbine generator disposed on a top face of at least one of the three columns, wherein the floating body is configured to be moored on a water surface in a state where a waterline is positioned above top faces of the lower hulls by injecting a ballast water inside; and an entrance is provided for a side face of at least one of the three columns, the entrance being disposed above a connection part between the lower hull and the at least one column, and configured to provide access inside the at least one column from a ship or a submarine. a floating body including three columns (22a,22b,22c) having a quadratic prism shape and at least two lower hulls connecting two of the three columns; and a wind turbine generator disposed on a top face of at least one of the three columns,
A method, comprising: determining a desired logic state of a self-selecting memory cell (105, 710, 920), the desired logic state representing one or more bits of data, wherein the self-selecting memory cell (105, 710, 920) comprises a chalcogenide alloy (220-a, 220-b, 510) and wherein a first side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a first electrode (215-a, 215-b, 505) and a second side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a second electrode (225-a, 225-b, 515); determining a threshold voltage of the self-selecting memory cell (105, 710, 920) that corresponds to the desired logic state of the self-selecting memory cell (105, 710, 920); determining a shape of a programming pulse having a single polarity in order to obtain the threshold voltage of the self-selecting memory cell (105, 710, 920); and applying the programming pulse to the self-selecting memory cell (105, 710, 920) based at least in part on determining the shape of the programming pulse, characterised in that the method is further comprising: wherein applying the programming pulse to the self-selecting memory cell (105, 710, 920) comprises producing an asymmetric spatial distribution of at least one constituent of the chalcogenide alloy (220-a, 220-b, 510) between the first side of the chalcogenide alloy (220-a, 220-b, 510) and the second side of the chalcogenide alloy (220-a, 220-b, 510). determining a desired logic state of a self-selecting memory cell (105, 710, 920), the desired logic state representing one or more bits of data, wherein the self-selecting memory cell (105, 710, 920) comprises a chalcogenide alloy (220-a, 220-b, 510) and wherein a first side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a first electrode (215-a, 215-b, 505) and a second side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a second electrode (225-a, 225-b, 515); determining a threshold voltage of the self-selecting memory cell (105, 710, 920) that corresponds to the desired logic state of the self-selecting memory cell (105, 710, 920); determining a shape of a programming pulse having a single polarity in order to obtain the threshold voltage of the self-selecting memory cell (105, 710, 920); and applying the programming pulse to the self-selecting memory cell (105, 710, 920) based at least in part on determining the shape of the programming pulse, characterised in that the method is further comprising: wherein applying the programming pulse to the self-selecting memory cell (105, 710, 920) comprises producing an asymmetric spatial distribution of at least one constituent of the chalcogenide alloy (220-a, 220-b, 510) between the first side of the chalcogenide alloy (220-a, 220-b, 510) and the second side of the chalcogenide alloy (220-a, 220-b, 510).
A sensor device provided with: a body, formed at the interior of which is a fluid passage into which fluid serving as detection target flows; and a pressure sensor which is installed at the body so as to be in communication with the fluid passage and which detects fluid pressure within the fluid passage; the sensor device being characterized in that the body has a cylindrical portion having a cylindrical inside circumferential surface; provided therein is an insert that is formed in the shape of a rod at which a helically shaped groove is formed on an outside circumferential surface thereof, and that is inserted into the cylindrical portion of the body such that the inside circumferential surface of said cylindrical portion and the helically shaped groove together form the fluid passage in such fashion that the fluid passage is helically shaped; and a temperature sensor having a cylindrical sheath pipe, incorporated within which is a thermocouple or resistance temperature detector that detects temperature of the fluid, the sheath pipe being inserted in the insert with a tip of the sheath protruding from the insert. a body, formed at the interior of which is a fluid passage into which fluid serving as detection target flows; and a pressure sensor which is installed at the body so as to be in communication with the fluid passage and which detects fluid pressure within the fluid passage; the sensor device being characterized in that the body has a cylindrical portion having a cylindrical inside circumferential surface; provided therein is an insert that is formed in the shape of a rod at which a helically shaped groove is formed on an outside circumferential surface thereof, and that is inserted into the cylindrical portion of the body such that the inside circumferential surface of said cylindrical portion and the helically shaped groove together form the fluid passage in such fashion that the fluid passage is helically shaped; and a temperature sensor having a cylindrical sheath pipe, incorporated within which is a thermocouple or resistance temperature detector that detects temperature of the fluid, the sheath pipe being inserted in the insert with a tip of the sheath protruding from the insert.
An externally heated microwave plasma gasifier, comprising a vertically disposed furnace body, a feeder disposed in a middle part of the furnace body and communicating with the furnace body, one or two layers of microwave plasma generators, an external heater configured to supply external thermal energy for the gasifier, and a monitoring unit, the furnace body comprising an upper nozzle for spraying vapor, a lower nozzle for spraying CO 2 /vapor, a syngas outlet disposed at a top of the furnace body; wherein the upper nozzle for spraying vapor is disposed in a clearance zone of the furnace body, and the lower nozzle for spraying CO 2 /vapor is disposed in a bed zone of the furnace body; the monitoring unit is disposed close to the syngas outlet; the one or two layers of microwave plasma generators are disposed above the upper nozzle in the clearance zone of the gasifier; each layer of the microwave plasma generators comprises three or four working gas inlets, and plasma flow is sprayed into the clearance zone of the gasifier horizontally/tangentially; the external heater is separated from the furnace body; and the external heater comprises a slag outlet for discharging slags, wherein further a circulating material outlet is disposed at a bottom of the furnace body and a circulating material inlet is disposed at a top of the furnace body, or the circulating material outlet and the circulating material inlet are both disposed at a sidewall of the furnace body;the external heater is disposed between the circulating material outlet and the circulating material inlet the gasifier being adapted such that circulating materials flow out from the circulating material outlet, are heated by the external heater, and flow back to the furnace body from the circulating material inlet; a heat source of the external heater is microwave, high temperature microwave plasma, laser, plasma arc, solar energy, or a combination thereof.
A portable transceiver unit comprising: a microphone to receive spoken voice commands from a user; a wireless transceiver to wirelessly communicate with a separate computer remotely located from the portable transceiver unit; and a motion sensor to detect a predetermined motion pattern at the portable transceiver unit; the wireless transceiver, in response to the motion sensor detecting the predetermined motion pattern of the transceiver, arranged to: wirelessly transmit a wake signal to the computer when in a sleeping state; wirelessly transmit a launch command to launch a personal assistant application on the computer in response to receiving a voice command; wirelessly transmit the voice command to the personal assistant application; wirelessly receive a response from the personal assistant application; and the portable transceiver unit comprising a speaker arranged to audibly output data received from the personal assistant application. a microphone to receive spoken voice commands from a user; a wireless transceiver to wirelessly communicate with a separate computer remotely located from the portable transceiver unit; and a motion sensor to detect a predetermined motion pattern at the portable transceiver unit; the wireless transceiver, in response to the motion sensor detecting the predetermined motion pattern of the transceiver, arranged to: wirelessly transmit a wake signal to the computer when in a sleeping state; wirelessly transmit a launch command to launch a personal assistant application on the computer in response to receiving a voice command; wirelessly transmit the voice command to the personal assistant application; wirelessly receive a response from the personal assistant application; and the portable transceiver unit comprising a speaker arranged to audibly output data received from the personal assistant application. wirelessly transmit a wake signal to the computer when in a sleeping state; wirelessly transmit a launch command to launch a personal assistant application on the computer in response to receiving a voice command; wirelessly transmit the voice command to the personal assistant application; wirelessly receive a response from the personal assistant application; and the portable transceiver unit comprising a speaker arranged to audibly output data received from the personal assistant application.
A method for testing a chip, the chip comprising an operation module and a controller, the method comprising: receiving, by the controller, a test control signal indicating a test type of the operation module via a first pin of the chip; and characterised by further comprising: performing, by the controller and based on the test type, a first test for the operation module with a first test vector obtained from outside the chip via a second pin of the chip, or performing, by the controller and based on the test type, a second test for the operation module with a second test vector obtained from outside the chip via the second pin of the chip, wherein the first test is a test performed for a memory included in the operation module, and the second test is a test performed for a functional logic included in the operation module. performing, by the controller and based on the test type, a first test for the operation module with a first test vector obtained from outside the chip via a second pin of the chip, or performing, by the controller and based on the test type, a second test for the operation module with a second test vector obtained from outside the chip via the second pin of the chip, wherein the first test is a test performed for a memory included in the operation module, and the second test is a test performed for a functional logic included in the operation module.
A wedge clamp for retaining a steel wire, comprising: a first member having a wedge shape; and a second member having a cylindrical or tubular body in which, by sliding and fitting the first member into the cylindrical or tubular body, a pressure that generates based on the wedge shape of the first member restrains the steel wire, wherein the wedge clamp comprises an engaging portion enabling slidable fit of the first member and the second member while engaging the first member and the second member in a state where the first member is disengaged from the cylindrical or tubular body of the second member, wherein the engaging portion is configured from a protrusion formed on one of the first member and the second member, and an anchoring portion for limiting movement of the protrusion formed on other of the first member and the second member. a first member having a wedge shape; and a second member having a cylindrical or tubular body in which, by sliding and fitting the first member into the cylindrical or tubular body, a pressure that generates based on the wedge shape of the first member restrains the steel wire, wherein the wedge clamp comprises an engaging portion enabling slidable fit of the first member and the second member while engaging the first member and the second member in a state where the first member is disengaged from the cylindrical or tubular body of the second member, wherein the engaging portion is configured from a protrusion formed on one of the first member and the second member, and an anchoring portion for limiting movement of the protrusion formed on other of the first member and the second member.
A syringe for a fluid injector system, comprising: an elongated, cylindrical syringe body having a distal end and a proximal end; a discharge conduit formed to extend distally from the syringe body and further extending distally past the distal end of the syringe body; and a plunger disposed in the syringe body, wherein the discharge conduit is offset from a central longitudinal axis of the syringe body and that the distal end tapers at an angle to define a central apex point characterized in that the discharge conduit defines a discharge port situated immediately adjacent a sidewall of the syringe body and at a base of the distal end. an elongated, cylindrical syringe body having a distal end and a proximal end; a discharge conduit formed to extend distally from the syringe body and further extending distally past the distal end of the syringe body; and a plunger disposed in the syringe body, wherein the discharge conduit is offset from a central longitudinal axis of the syringe body and that the distal end tapers at an angle to define a central apex point characterized in that the discharge conduit defines a discharge port situated immediately adjacent a sidewall of the syringe body and at a base of the distal end.
A composition comprising an effective amount of (a) a biological control agent comprising NRRL No. B-50897 and (b) a fungicide, wherein said composition controls a fungal plant pathogen.
A topical ophthalmic preparation consisting of an oil-in-water microemulsion comprising: one or more liposoluble active ingredients; an emulsifying agent consisting of d-α-tocopheryl polyethylene glycol 1000 succinate (TPGS); an oily component consisting of medium chain triglycerides; an ophthalmologically acceptable aqueous phase; wherein the concentration of TPGS is comprised between 0.1 and 5% by weight and the weight ratio of MCT to TPGS is comprised between 1:2.8 and 1:3.6, the average size of the dispersed particles of oily phase being not greater than 100 nm, and wherein no co-surfactants are present. one or more liposoluble active ingredients; an emulsifying agent consisting of d-α-tocopheryl polyethylene glycol 1000 succinate (TPGS); an oily component consisting of medium chain triglycerides; an ophthalmologically acceptable aqueous phase;
A stirrer head having a bearing boss, a bearing bushing, at least one stirrer vane and a coupling section, wherein the bearing boss has an external surface and an internal surface and the bearing bushing is form-fit into the bearing boss, resting on the internal surface, wherein the stirrer vane is connected to the coupling section and the external surface of the bearing boss, characterized in that the stirrer head has an identification device and the bearing boss has a through-opening between the external surface and the internal surface, the identification device is positioned in the through-opening and the stirrer vane closes the through-opening at the external surface.
An antenna structure (100, 200, 300, 400, 500, 600, 700) comprising: a substrate having a surface; a grounding layer formed on the surface of the substrate; a first antenna layer (130, 330, 430, 530, 630) formed on the surface of the substrate, wherein the first antenna layer (130, 330, 430, 530, 630) comprises a first radiating portion (131, 531, 631) and a second radiating portion connected with the first radiating portion (131, 531, 631); a second antenna layer (140, 340, 440, 540, 640) formed on the surface of the substrate, wherein the second antenna layer (140, 340, 440, 540, 640) comprises a third radiating portion (141, 541, 641) and a fourth radiating portion connected with the third radiating portion (141, 541, 641), the third radiating portion (141, 541, 641) and the first radiating portion (131, 531, 631) are connected at a connection portion, the connection portion and the grounding layer are separated from each other, and the fourth radiating portion and the second radiating portion are disposed oppositely and separated from each other; characterized in that the antenna structure further comprises: an inductance element bridging the grounding layer and the connection portion; and a capacitance element bridging the fourth radiating portion and the second radiating portion. a substrate having a surface; a grounding layer formed on the surface of the substrate; a first antenna layer (130, 330, 430, 530, 630) formed on the surface of the substrate, wherein the first antenna layer (130, 330, 430, 530, 630) comprises a first radiating portion (131, 531, 631) and a second radiating portion connected with the first radiating portion (131, 531, 631); a second antenna layer (140, 340, 440, 540, 640) formed on the surface of the substrate, wherein the second antenna layer (140, 340, 440, 540, 640) comprises a third radiating portion (141, 541, 641) and a fourth radiating portion connected with the third radiating portion (141, 541, 641), the third radiating portion (141, 541, 641) and the first radiating portion (131, 531, 631) are connected at a connection portion, the connection portion and the grounding layer are separated from each other, and the fourth radiating portion and the second radiating portion are disposed oppositely and separated from each other; characterized in that the antenna structure further comprises: an inductance element bridging the grounding layer and the connection portion; and a capacitance element bridging the fourth radiating portion and the second radiating portion. an inductance element bridging the grounding layer and the connection portion; and a capacitance element bridging the fourth radiating portion and the second radiating portion.
A thermosetting silicon-containing compound comprising one or more of structural units shown by the following general formulae (Sx-1), (Sx-2), and (Sx-3): wherein R 1 represents a monovalent organic group containing both a phenyl group optionally having a substituent, and a non-aromatic ring having 3 to 10 carbon atoms; and R 2 and R 3 each represent the R 1 or a monovalent organic group having 1 to 30 carbon atoms.
A binaural hearing aid comprising a first hearing aid and a second hearing aid, each hearing aid (121, 122) comprising a microphone (161, 162) for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor (151, 152) for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing aid, a wireless communications unit (131, 132) connected to the signal processor (151, 152) for wireless communication and being interconnected with an antenna (111, 112) for emission and/or reception of an electromagnetic field, the antenna (111, 112) being configured for operation at a frequency of at least 800 MHz, the first hearing aid having a detector connected to the wireless communications unit, the detector being configured to detect a signal strength of a communications signal received through the wireless communications unit, and the first hearing aid and/or the second hearing aid having an adjustable antenna matching mechanism configured to receive information on the detected signal strength and adjust the matching mechanism to optimize antenna (111, 112) reception/emission according to the detected signal strength of the received communications signal. a microphone (161, 162) for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor (151, 152) for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing aid, a wireless communications unit (131, 132) connected to the signal processor (151, 152) for wireless communication and being interconnected with an antenna (111, 112) for emission and/or reception of an electromagnetic field, the antenna (111, 112) being configured for operation at a frequency of at least 800 MHz,
A fabric treatment composition for use in a laundering process which comprises: a) at least one cationic softening agent or nonionic softening agent, and b) a probiotic particle. a) at least one cationic softening agent or nonionic softening agent, and b) a probiotic particle.