mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing nickel powder and for reducing carbon and sulfur concentrations contained in the nickel powder, the method sequentially comprising: a complexing treatment of adding a complexing agent to a nickel sulfate aqueous solution to prepare a solution containing nickel complex ions; a hydrogen reduction treatment of charging the solution containing nickel complex ions in a pressure vessel, maintaining the solution at a solution temperature of 150 to 250°C, and blowing hydrogen gas into the solution containing nickel complex ions to perform hydrogen reduction to produce nickel powder; a water-washing treatment of washing the nickel powder with water of which amount is at least equal to and at most 5 times larger than a weight of the nickel powder at a water temperature of 50 to 90°C, or of subjecting a mixture of the nickel powder and water to ultrasonic washing under low pressure, to thereby produce nickel powder in which more than 90% to 95% or less of sulfur content and more than 60% to 65% or less of carbon content before the washing with water or the ultrasonic washing are reduced; and a roasting treatment of roasting the nickel powder washed with water in a mixed gas atmosphere of nitrogen and hydrogen having a concentration of 2 to 4% by weight. a complexing treatment of adding a complexing agent to a nickel sulfate aqueous solution to prepare a solution containing nickel complex ions; a hydrogen reduction treatment of charging the solution containing nickel complex ions in a pressure vessel, maintaining the solution at a solution temperature of 150 to 250°C, and blowing hydrogen gas into the solution containing nickel complex ions to perform hydrogen reduction to produce nickel powder; a water-washing treatment of washing the nickel powder with water of which amount is at least equal to and at most 5 times larger than a weight of the nickel powder at a water temperature of 50 to 90°C, or of subjecting a mixture of the nickel powder and water to ultrasonic washing under low pressure, to thereby produce nickel powder in which more than 90% to 95% or less of sulfur content and more than 60% to 65% or less of carbon content before the washing with water or the ultrasonic washing are reduced; and a roasting treatment of roasting the nickel powder washed with water in a mixed gas atmosphere of nitrogen and hydrogen having a concentration of 2 to 4% by weight.
A holding assembly for holding one or more stemmed objects in a dishwasher , said holding assembly comprising an elongated gripping unit frame and two or more gripping units arranged at said elongated gripping unit frame , where said two or more gripping units are arranged to grip a respective stemmed portion of said one or more stemmed objects , and where at least one of said two or more gripping units is displaceably arranged along a longitudinal direction (Id) of said elongated gripping unit frame , characterized in that each gripping unit is arranged to grip a stemmed portion of a stemmed object such that the stemmed portion , when gripped, is essentially perpendicular to a main extension plane (p) of the holding assembly .
A memory device comprising: memory cells; a mode register to contain a value to indicate whether post package repair, PPR, is disabled for the memory device; and device processing logic to: receive a PPR command to execute PPR, and in response to receipt of the command, selectively execute or not execute PPR for one or more of the memory cells based on the value in the mode register, wherein the device processing logic is operable to selectively not execute PPR based on a determination that the value in the mode register indicates PPR is disabled. memory cells; a mode register to contain a value to indicate whether post package repair, PPR, is disabled for the memory device; and device processing logic to: receive a PPR command to execute PPR, and in response to receipt of the command, selectively execute or not execute PPR for one or more of the memory cells based on the value in the mode register, wherein the device processing logic is operable to selectively not execute PPR based on a determination that the value in the mode register indicates PPR is disabled. receive a PPR command to execute PPR, and in response to receipt of the command, selectively execute or not execute PPR for one or more of the memory cells based on the value in the mode register, wherein the device processing logic is operable to selectively not execute PPR based on a determination that the value in the mode register indicates PPR is disabled.
A pheromone formulation comprising: a) 20% to 90%, by volume, of ethanol, b) 0.1% to 10%, by weight, of at least one pheromone whose boiling temperature is greater than 180°C at atmospheric pressure, c) 0.1% to 10% by weight of a polymer whose solubility in ethanol is greater than 10% (w/v) at 70°C and less than 1% (w/v) at 20°C, d) 0 to 40% by weight of at least one pheromone synergizing compound selected from: (C1-C6)alkyl acetates, esters of a C 1 -C 6 carboxylic acid with ethanol, acetic acid, ammonium acetate, acetoin, ammonia, ammonium carbonate, ammonium phosphate, terpene derivatives such as alpha-pinene or menthol, salicylic acid, and mixtures thereof, e) 0 to 5% by weight of antioxidant, characterized in that the polymer is a PMMA-PABu-PMMA triblock acrylic block copolymer. a) 20% to 90%, by volume, of ethanol, b) 0.1% to 10%, by weight, of at least one pheromone whose boiling temperature is greater than 180°C at atmospheric pressure, c) 0.1% to 10% by weight of a polymer whose solubility in ethanol is greater than 10% (w/v) at 70°C and less than 1% (w/v) at 20°C, d) 0 to 40% by weight of at least one pheromone synergizing compound selected from: (C1-C6)alkyl acetates, esters of a C 1 -C 6 carboxylic acid with ethanol, acetic acid, ammonium acetate, acetoin, ammonia, ammonium carbonate, ammonium phosphate, terpene derivatives such as alpha-pinene or menthol, salicylic acid, and mixtures thereof, e) 0 to 5% by weight of antioxidant,
A naphtha reforming catalyst, comprising a sulfate ion-containing alumina support and following components with the content calculated on the basis of the support: VIII group metal 0.1-2.0% by weight, as the metal, VIIB group metal 0.1-3.0% by weight, as the metal, Sulfate ion 0.45-3.0% by weight, halogen 0.5-3.0% by weight, wherein said sulfate ion-containing alumina support has content of sodium of 0.008% to 0.03% by weight, and in said catalyst, the ratio of the pore volume of the pores with a pore radius between 3 nm and 10 nm to the total pore volume is from 60% to 85%; the ratio of the pore volume of the pores with a pore radius smaller than 3 nm to the total pore volume is not more than 36%; and the ratio of the pore volume of the pores with a pore radius larger than 10 nm to the total pore volume is more than 2%, wherein the pore volume is measured in accordance with ASTM D 4641-12.
Device for the continuous production of pure chlorine and/or chlorine dioxide, which comprises a reactor , separate lines for the supply of perchlorate, chlorate, hypochlorite and/or chlorite solution and acid solution and a vacuum pump and/or compressed gas supply connected to the reactor characterized in that the reactor is formed by a corrugated tube that is arranged horizontally or with a slope, the lines for the supply of perchlorate, chlorate, hypochlorite and/or chlorite solution and acid solution and the connection to the vacuum pump and/or a gas outlet are arranged in a section at one end, the inlet end, of the reactor , and an outlet and, if necessary, a pressurized gas supply at the other end, the outlet end, of the reactor , wherein the diameter of the reactor , the feed quantities of perchlorate, chlorate, hypochlorite and/or chlorite solution and acid solution, the vacuum/pressurized gas supply and, if necessary, the slope of the reactor are adapted to one another in such a way that the supplied perchlorate, chlorate, hypochlorite and/or chlorite solution and acid solution form a liquid phase for the conversion of perchlorate, chlorate, hypochlorite and/or chlorite with acid to form chlorine and/or chlorine dioxide and the chlorine and/or chlorine dioxide evaporate from the liquid phase and a gas phase is formed, wherein the liquid phase and the gas phase are being conducted in countercurrent.
A method for providing feedback for a transport climate control system , the transport climate control system providing climate control to a climate controlled space of a transport unit , characterized in that the method comprises: determining , by a controller , a first energy level state capable of providing power to the transport climate control system; starting a timer; obtaining a timestamp when a triggering event occurs; determining a number and a duration of the occurrence of the triggering event; obtaining , by the controller, status data when the triggering event occurs; determining , by the controller, a second energy level state capable of providing power to the transport climate control system after a time interval; determining energy consumption data based on the first energy level state and the second energy level state; combining the status data and the energy consumption data to obtain feedback data; and displaying , via a display device, the feedback data, wherein the status data includes the number and the duration of the occurrence of the triggering event. determining , by a controller , a first energy level state capable of providing power to the transport climate control system; starting a timer; obtaining a timestamp when a triggering event occurs; determining a number and a duration of the occurrence of the triggering event; obtaining , by the controller, status data when the triggering event occurs; determining , by the controller, a second energy level state capable of providing power to the transport climate control system after a time interval; determining energy consumption data based on the first energy level state and the second energy level state; combining the status data and the energy consumption data to obtain feedback data; and displaying , via a display device, the feedback data, wherein the status data includes the number and the duration of the occurrence of the triggering event.
A method of cooling a turbine engine in an aircraft , said method comprising: shutting down the turbine engine such that a rotational speed of the turbine engine decreases; obtaining feedback indicating a likelihood that residual heat is present in the turbine engine sufficient to cause a thermal gradient capable of forming thermal rotor bow; determining a flight status of the aircraft attached to the turbine engine, ensuring no response to the feedback if the aircraft is in flight; and if the aircraft is not in flight, then, responsive to the feedback, actuating a starter motor of the turbine engine either as the rotational speed of the turbine engine decreases or at a preset time after the turbine engine receives a full stop command to rotate a rotor assembly of the turbine engine such that residual heat is exhausted from the turbine engine. shutting down the turbine engine such that a rotational speed of the turbine engine decreases; obtaining feedback indicating a likelihood that residual heat is present in the turbine engine sufficient to cause a thermal gradient capable of forming thermal rotor bow; determining a flight status of the aircraft attached to the turbine engine, ensuring no response to the feedback if the aircraft is in flight; and if the aircraft is not in flight, then, responsive to the feedback, actuating a starter motor of the turbine engine either as the rotational speed of the turbine engine decreases or at a preset time after the turbine engine receives a full stop command to rotate a rotor assembly of the turbine engine such that residual heat is exhausted from the turbine engine.
An exercise machine for performing dip exercises, comprising: a stationary main frame ; a first mounting bracket connected to the stationary main frame ; a first dip handle assembly connected to the first mounting bracket , the first dip handle assembly comprising a first exercise arm , a first stop plate , and a first arm mount hub ; wherein the first exercise arm is pivotally mounted on the first arm mount hub for rotation about a first pivot axis ; a second mounting bracket connected to the stationary main frame ; a second dip handle assembly connected to the second mounting bracket , the second dip handle assembly comprising a second exercise arm , a second stop plate , and a second arm mount hub ; wherein the second exercise arm is pivotally mounted on the second arm mount hub for rotation about a second pivot axis ; wherein the first and second dip handle assemblies are each configured to be converted between a horizontal exercise position and a vertical storage position while connected to the exercise machine , wherein the conversion of the first and second dip handle assemblies between the exercise position and the storage position comprises: a rotation of the first exercise arm about the first pivot axis and a rotation of the second exercise arm about the second pivot axis . a stationary main frame ; a first mounting bracket connected to the stationary main frame ; a first dip handle assembly connected to the first mounting bracket , the first dip handle assembly comprising a first exercise arm , a first stop plate , and a first arm mount hub ; wherein the first exercise arm is pivotally mounted on the first arm mount hub for rotation about a first pivot axis ; a second mounting bracket connected to the stationary main frame ; a second dip handle assembly connected to the second mounting bracket , the second dip handle assembly comprising a second exercise arm , a second stop plate , and a second arm mount hub ; wherein the second exercise arm is pivotally mounted on the second arm mount hub for rotation about a second pivot axis ; wherein the first and second dip handle assemblies are each configured to be converted between a horizontal exercise position and a vertical storage position while connected to the exercise machine , wherein the conversion of the first and second dip handle assemblies between the exercise position and the storage position comprises: a rotation of the first exercise arm about the first pivot axis and a rotation of the second exercise arm about the second pivot axis .
A method to automatically predict a calving moment of a pregnant cow, comprising the steps of: - recording, by a camera system , at least one image of the cow, - processing, by a processing device , the at least one image of the cow, wherein processing of the image comprises: - determining at least one parameter indicative of the calving moment, and - predicting on the basis of the parameter a calving moment of the cow, characterized in that , the camera system is a three dimensionalcamera system and wherein the at least one parameter is selected from the group consisting of: - a body contraction parameter representative for the body contraction of the cow; - an orientation parameter representative for the orientation of the cow; - a pin line length parameter representative for a distance between the two pin bone points; - a laying down parameter representative for the laying down frequency of the cow; and - a tail movement parameter representative for tail movements of the cow. - recording, by a camera system , at least one image of the cow, - processing, by a processing device , the at least one image of the cow, wherein processing of the image comprises: - determining at least one parameter indicative of the calving moment, and - predicting on the basis of the parameter a calving moment of the cow, characterized in that , the camera system is a three dimensionalcamera system and wherein the at least one parameter is selected from the group consisting of: - a body contraction parameter representative for the body contraction of the cow; - an orientation parameter representative for the orientation of the cow; - a pin line length parameter representative for a distance between the two pin bone points; - a laying down parameter representative for the laying down frequency of the cow; and - a tail movement parameter representative for tail movements of the cow. - determining at least one parameter indicative of the calving moment, and - predicting on the basis of the parameter a calving moment of the cow, characterized in that , the camera system is a three dimensionalcamera system and wherein the at least one parameter is selected from the group consisting of: - a body contraction parameter representative for the body contraction of the cow; - an orientation parameter representative for the orientation of the cow; - a pin line length parameter representative for a distance between the two pin bone points; - a laying down parameter representative for the laying down frequency of the cow; and - a tail movement parameter representative for tail movements of the cow. - a body contraction parameter representative for the body contraction of the cow; - an orientation parameter representative for the orientation of the cow; - a pin line length parameter representative for a distance between the two pin bone points; - a laying down parameter representative for the laying down frequency of the cow; and - a tail movement parameter representative for tail movements of the cow.
An adapter , comprising: a plurality of power inputs coupled to power sources ; a plurality of power outputs coupled to electronic devices ; a power management component coupled to the plurality of power inputs and the plurality of power outputs to manage delivery of power; a power source capability information translation component coupled to the power management component and an external source that is configured to provide a power source capability information of a power source connected to a power input of the plurality of power inputs , wherein the power management component is configured to deliver the power from the power source to a power output of the plurality of power outputs in accordance with the power source capability information received from the external source ; wherein the power management component is configured to monitor a power delivered from each of the plurality of power inputs and power delivered to each of the plurality of power outputs and the power management component is configured to regulate the amount of power delivered from the plurality of power inputs based on the power that is monitored; and wherein the power source capability information translation component communicates the power source capability information to the electronic devices via signaling lines . a plurality of power inputs coupled to power sources ; a plurality of power outputs coupled to electronic devices ; a power management component coupled to the plurality of power inputs and the plurality of power outputs to manage delivery of power; a power source capability information translation component coupled to the power management component and an external source that is configured to provide a power source capability information of a power source connected to a power input of the plurality of power inputs , wherein the power management component is configured to deliver the power from the power source to a power output of the plurality of power outputs in accordance with the power source capability information received from the external source ; wherein the power management component is configured to monitor a power delivered from each of the plurality of power inputs and power delivered to each of the plurality of power outputs and the power management component is configured to regulate the amount of power delivered from the plurality of power inputs based on the power that is monitored; and wherein the power source capability information translation component communicates the power source capability information to the electronic devices via signaling lines .
A system for identifying soil layers within a field, the system comprising: a non-contact-based sensor configured to capture data, during soil cultivation in the field, indicative of a subsurface soil layer within the field, and a computing system communicatively coupled to the non-contact-based sensor , the system being characterized by the computing system being configured to: determine a thickness of the subsurface soil layer in a vertical direction based on the data captured by the non-contact-based sensor ; and identify the subsurface soil layer as one of a compaction layer or a B-horizon based on the determined thickness. a non-contact-based sensor configured to capture data, during soil cultivation in the field, indicative of a subsurface soil layer within the field, and a computing system communicatively coupled to the non-contact-based sensor , the system being characterized by the computing system being configured to: determine a thickness of the subsurface soil layer in a vertical direction based on the data captured by the non-contact-based sensor ; and identify the subsurface soil layer as one of a compaction layer or a B-horizon based on the determined thickness. determine a thickness of the subsurface soil layer in a vertical direction based on the data captured by the non-contact-based sensor ; and identify the subsurface soil layer as one of a compaction layer or a B-horizon based on the determined thickness.
An apparatus for battery electric vehicle charging, comprising: a conductive charging interface, CCI, configured to receive a first AC power signal from an AC power supply system; an antenna circuit configured to wirelessly receive a modulated low frequency, LF, power signal via an electromagnetic near field of a wireless power link from a transmitting device; a power factor correction, PFC, circuit shared by the CCI and the antenna circuit via a switching circuit configured to selectively couple the PFC circuit to the CCI or the antenna circuit; an AC/DC converter operably coupled between the PFC circuit and the switching circuit, and a rectifier circuit operably coupled between the antenna circuit and the switching circuit configured to receive the modulated LF power signal from the antenna circuit and convert the modulated LF power signal into a DC output signal and pass the DC output signal through the AC/DC converter when the PFC circuit is operably coupled to the antenna circuit; wherein the PFC circuit is configured to, when operably coupled to the antenna circuit, receive the DC output signal from the rectifier circuit and reduce harmonics back through the wireless power link to the transmitting device, via presenting a variable impedance to the rectifier circuit. a conductive charging interface, CCI, configured to receive a first AC power signal from an AC power supply system; an antenna circuit configured to wirelessly receive a modulated low frequency, LF, power signal via an electromagnetic near field of a wireless power link from a transmitting device; a power factor correction, PFC, circuit shared by the CCI and the antenna circuit via a switching circuit configured to selectively couple the PFC circuit to the CCI or the antenna circuit; an AC/DC converter operably coupled between the PFC circuit and the switching circuit, and a rectifier circuit operably coupled between the antenna circuit and the switching circuit configured to receive the modulated LF power signal from the antenna circuit and convert the modulated LF power signal into a DC output signal and pass the DC output signal through the AC/DC converter when the PFC circuit is operably coupled to the antenna circuit; wherein the PFC circuit is configured to, when operably coupled to the antenna circuit, receive the DC output signal from the rectifier circuit and reduce harmonics back through the wireless power link to the transmitting device, via presenting a variable impedance to the rectifier circuit.