mhurhangee/ep-ind-claims huggingface dataset:
An Fe-based soft magnetic alloy comprising: Fe; and a component R, wherein the component R contains at least one of P, C, B, and Si, there is a temperature difference of equal to or greater than 20°C between a precipitation temperature of an α-Fe crystal phase and a precipitation temperature of an Fe compound, the Fe-based soft magnetic alloy is formed of a mixed-phase structure in which an amorphous phase and the α-Fe crystal phase are mixed, a diameter of a crystallite of the α-Fe crystal phase is equal to or smaller than 50 nm, and a volume fraction of the α-Fe crystal phase to the total is equal to or lower than 40%, characterized in that a composition formula is represented by Fe 100-x-u J x R u, a component J contains at least one of Cr, Co, Ni, and Nb, and 0 at%≤x≤6 at%, 17 at%≤u≤25 at%, and 17 at%≤x+u≤27.1 at% are satisfied. Fe; and a component R, wherein the component R contains at least one of P, C, B, and Si, there is a temperature difference of equal to or greater than 20°C between a precipitation temperature of an α-Fe crystal phase and a precipitation temperature of an Fe compound, the Fe-based soft magnetic alloy is formed of a mixed-phase structure in which an amorphous phase and the α-Fe crystal phase are mixed, a diameter of a crystallite of the α-Fe crystal phase is equal to or smaller than 50 nm, and a volume fraction of the α-Fe crystal phase to the total is equal to or lower than 40%, characterized in that a composition formula is represented by Fe 100-x-u J x R u, a component J contains at least one of Cr, Co, Ni, and Nb, and 0 at%≤x≤6 at%, 17 at%≤u≤25 at%, and 17 at%≤x+u≤27.1 at% are satisfied.
Holding device for applying at least one measuring element, in particular a sensor, sensor element or a measuring mark, to a vehicle wheel, wherein at least one plug-in part and a clamping member are provided, wherein the plug-in part has a plug-in attachment (1.1) for the precise-fitting attachment to a wheel nut or to the head of a wheel bolt and for inserting a holding force in the axial direction of the wheel nut, wherein a plurality of plug-in parts are provided for attaching to various wheel nuts or wheel bolts of a wheel, and also a carrier is provided, which carrier can be mounted indirectly or directly on the plug-in part substantially parallel to the plane of rotation of the wheel and on which at least one measuring element is formed or accommodated, characterized in that the holding force is brought about in the axial direction by a magnet provided in the plug-in attachment (1.1), wherein the plug-in attachment (1.1) is held with a form fit and force fit, and a play-free fit is produced in the transverse direction.
A power tool comprising: a motor; a power circuit coupled to the motor for providing power to the motor; a speed sensor coupled to the motor for detecting a position of the motor; and an electronic processor coupled to the motor and the speed sensor, the electronic processor configured to: receive an output signal from the speed sensor indicative of a measured speed of the motor at a first time, determine a cumulative value based on a difference between the measured speed of the motor and a target speed, and interrupt power from the power circuit to the motor when the cumulative value exceeds an accumulator threshold, wherein the electronic processor is configured to increase the cumulative value when the measured speed is below the target speed, and decrease the cumulative value when the measured speed exceeds the target speed, and wherein the electronic processor is configured to increase the cumulative value by a weighted quantity, the weighted quantity based on a multiplier and a speed difference corresponding to the difference between the measured speed of the motor and the target speed. a motor; a power circuit coupled to the motor for providing power to the motor; a speed sensor coupled to the motor for detecting a position of the motor; and an electronic processor coupled to the motor and the speed sensor, the electronic processor configured to: receive an output signal from the speed sensor indicative of a measured speed of the motor at a first time, determine a cumulative value based on a difference between the measured speed of the motor and a target speed, and interrupt power from the power circuit to the motor when the cumulative value exceeds an accumulator threshold, receive an output signal from the speed sensor indicative of a measured speed of the motor at a first time, determine a cumulative value based on a difference between the measured speed of the motor and a target speed, and interrupt power from the power circuit to the motor when the cumulative value exceeds an accumulator threshold, wherein the electronic processor is configured to increase the cumulative value when the measured speed is below the target speed, and decrease the cumulative value when the measured speed exceeds the target speed, and wherein the electronic processor is configured to increase the cumulative value by a weighted quantity, the weighted quantity based on a multiplier and a speed difference corresponding to the difference between the measured speed of the motor and the target speed.
A sliding bearing (210; 310) for structural engineering applications, said sliding bearing (210; 310) comprising at least one first component and one second component (211, 213; 311, 312, 313) made of steel that are operatively connected to one another and configured to withstand a vertical load, as well as at least one pair of mating curved sliding surfaces (223, 224; 321, 322, 323, 324) arranged between said first and second components in order to allow relative displacements and/or rotations thereof, wherein one of the curved sliding surfaces (223; 321, 323) of the pair is a plate made of a polymeric material mounted on one between the first and the second components and the other one of the curved sliding surfaces (224; 322, 324) is a metal surface, wherein said curved metal surface is at least a portion of the face of the other steel made component facing said polymeric material plate, characterized in that on said curved metal surface a surface coating is formed, said surface being coated by a plating of aluminum, zinc or respective alloys thereof.
Ultrasound visualization system (111, 311) for tracking a position of an interventional device based on a stream of live ultrasound images of an ultrasound imaging probe, the ultrasound visualization system comprising at least one processor configured to: receive the stream of live ultrasound images; extract from the stream of live ultrasound images a reference image comprising reference image data, the reference image including an anatomical feature; extract from the stream of live ultrasound images a current image comprising current image data, the current image being later in time to the reference image and including at least a portion of the anatomical feature and including at least a portion of the interventional device at a current position; match the at least a portion of the anatomical feature in the current image with the anatomical feature in the reference image to determine a spatial relationship between the current position of the interventional device and the anatomical feature in the reference image; characterized in that the processor is further configured to: indicate, in the reference image, the current position of the interventional device, based on the determined spatial relationship; receive from the interventional device a trigger signal indicative of an activation of the interventional device; and to provide a marker in the reference image corresponding to the position of the interventional device at the time at which the interventional device was activated. receive the stream of live ultrasound images; extract from the stream of live ultrasound images a reference image comprising reference image data, the reference image including an anatomical feature; extract from the stream of live ultrasound images a current image comprising current image data, the current image being later in time to the reference image and including at least a portion of the anatomical feature and including at least a portion of the interventional device at a current position; match the at least a portion of the anatomical feature in the current image with the anatomical feature in the reference image to determine a spatial relationship between the current position of the interventional device and the anatomical feature in the reference image; characterized in that the processor is further configured to: indicate, in the reference image, the current position of the interventional device, based on the determined spatial relationship; receive from the interventional device a trigger signal indicative of an activation of the interventional device; and to provide a marker in the reference image corresponding to the position of the interventional device at the time at which the interventional device was activated.
Two-walled cooking utensil comprising an inner wall provided to contain food to cook, an outer wall provided to be heated, an air gap being arranged between the inner wall and the outer wall, the inner wall and the outer wall being assembled sealed, characterised in that the inner wall and the outer wall are assembled by welding, in that the inner wall is made of normal steel and has a nitrocarburized and post-oxidised inner cooking face, in that the inner wall has a nitrocarburized and post-oxidised outer face, in that the outer wall is made of normal steel and has a nitrocarburized and post-oxidised outer heating face, in that the outer wall has a nitrocarburized and post-oxidised inner face, and in that the outer wall has an orifice, the orifice arranged in the outer wall making it possible to put in communication the inner face of the outer wall and the outer wall of the inner wall with the nitrocarburizing environment, the orifice being sealed after nitrocarburizing and post-oxidising treatments.
A binary cycle power system for generating electrical power comprising a heat exchanger for evaporating a first fluid, a turbine converter, an electrical generator, and a first condenser for condensing the evaporated first fluid, wherein the turbine converter is configured to convert energy of the evaporated first fluid to mechanical energy and the electrical generator is configured to generate the electrical power from the mechanical energy, and wherein the heat exchanger is a second condenser, which is a part of a heat pump and configured to transfer heat from a second fluid circulating in a closed channel system of the heat pump into the first fluid circulating in another closed channel system so that the first fluid evaporates, characterized in that the system further comprises a pressure control for controlling absolute pressure inside the closed channel systems to optimize boiling points of the first and second fluids (106, 108) for available heat and a part of the closed channel system of the heat pump is configured to be immersed into a water of river, lake, or sea to allow the heat to be extracted from the water of the river, lake, or sea and transferred to the second fluid, which circulates in the partly immersed closed channel system. a turbine converter, an electrical generator, and a first condenser for condensing the evaporated first fluid, wherein the turbine converter is configured to convert energy of the evaporated first fluid to mechanical energy and the electrical generator is configured to generate the electrical power from the mechanical energy, and wherein the heat exchanger is a second condenser, which is a part of a heat pump and configured to transfer heat from a second fluid circulating in a closed channel system of the heat pump into the first fluid circulating in another closed channel system so that the first fluid evaporates, characterized in that the system further comprises a pressure control for controlling absolute pressure inside the closed channel systems to optimize boiling points of the first and second fluids (106, 108) for available heat and a part of the closed channel system of the heat pump is configured to be immersed into a water of river, lake, or sea to allow the heat to be extracted from the water of the river, lake, or sea and transferred to the second fluid, which circulates in the partly immersed closed channel system.
Method for operating a reaction vessel for steel production in which oxygen, or oxygen-containing gases, is/are both blown into the molten bath from below and blown onto the molten bath from above as a blast of preheated hot air by a hot-blast lance, wherein the hot-blast lance is connected to a source of hot air by way of a hot-blast pipe, characterized in that the hot air is heated up to a temperature between 500 and 1400°C and fed to the process in a controlled manner as an external heat input analogous to allothermal heat input, whereby released carbon monoxide is afterburned exothermically more effectively by way of the hot air, and the released energy is transferred to the molten bath in such a way that the autothermal process rate is controlled with respect to the coolant or scrap rate by the marginal heat input analogous to allothermal heat input, by a controlled supply of hot air, and wherein the hot-blast lance is fed by way of the hot-blast pipe from a stationary and compactly formed regenerator, i.e. a pebble heater, in which the hot air generated is enriched with oxygen on the cold air side, and wherein the amount of hot air blown in is controlled exclusively by way of the setting of the amount of cold air supplied to the pebble heater.
A method of controlling a transition time through a speed range that is unsafe for an integrity of a second expander that receives a fluid flow from a first expander, by automatically biasing a speed of the second expander, the method characterized by setting the speed of the second expander to be smaller than a current speed of the first expander, when (a) the current speed of the first expander is within a bias application range, and(b) a current speed of the second expander increases and is smaller than a first speed value, or decreases and is smaller than a second speed value; and setting the speed of the second expander to be larger than the current speed of the first expander, when (a) the current speed of the first expander is within the bias application range and (c) the current speed of the second expander increases and is larger than the first speed value, or decreases and is larger than the second speed value.
A method for determining time of taking effect of Radio Resource Control, RRC, signaling, comprising: receiving, by a terminal, a broadcast message, configuration information, or control information from a base station to obtain a time of taking effect of RRC signaling comprised in the broadcast message, the configuration information, or the control information, wherein the time of taking effect of RRC signaling is a time difference between time when the terminal receives an RRC signaling and time when the RRC signaling takes effect; and receiving, by the terminal, third RRC signaling, and controlling the third RRC signaling to take effect based on the time of taking effect. receiving, by a terminal, a broadcast message, configuration information, or control information from a base station to obtain a time of taking effect of RRC signaling comprised in the broadcast message, the configuration information, or the control information, wherein the time of taking effect of RRC signaling is a time difference between time when the terminal receives an RRC signaling and time when the RRC signaling takes effect; and receiving, by the terminal, third RRC signaling, and controlling the third RRC signaling to take effect based on the time of taking effect.
A charged particle device comprising: an electron emitting part configured to emit electrons; an electron irradiated part configured to be irradiated with the electrons emitted from the electron emitting part; a container part formed of conductive material and configured to have an interior thereof brought into a vacuum state by an evacuation system and contain the electron irradiated part in the interior thereof; an electric wire containing part formed of dielectric material and configured to be inserted from an outside of the container part via an insertion part provided in the container part to contain an electric wire through which electricity is conducted to the electron irradiated part contained in the container part; and an insertion-part-side protrusion part configured to surround the electric wire containing part and protrude from a vicinity of the insertion part on an inner wall of the container part to an interior of the container part, so as to surround a triple junction section at which the container part, the electric wire containing part and the interior of the container part are abutted, wherein the charged particle device is an X-ray generation device, and the electron irradiated part emits X-rays by being irradiated with the electrons. an electron emitting part configured to emit electrons; an electron irradiated part configured to be irradiated with the electrons emitted from the electron emitting part; a container part formed of conductive material and configured to have an interior thereof brought into a vacuum state by an evacuation system and contain the electron irradiated part in the interior thereof; an electric wire containing part formed of dielectric material and configured to be inserted from an outside of the container part via an insertion part provided in the container part to contain an electric wire through which electricity is conducted to the electron irradiated part contained in the container part; and an insertion-part-side protrusion part configured to surround the electric wire containing part and protrude from a vicinity of the insertion part on an inner wall of the container part to an interior of the container part, so as to surround a triple junction section at which the container part, the electric wire containing part and the interior of the container part are abutted, wherein the charged particle device is an X-ray generation device, and the electron irradiated part emits X-rays by being irradiated with the electrons.
A hot stamped high strength part which is excellent in post painting anticorrosion property, comprising an alloy plating layer comprising an Al-Fe intermetallic compound phase on the surface of a steel sheet, said alloy plating layer is comprised from phases of a plurality of intermetallic compounds, a mean linear intercept length of crystal grains of a phase containing Al: 40 to 65 mass% among said phases of the plurality of intermetallic compounds is 3 to 20 μm, wherein the mean linear intercept length is defined and measured as described in the description, an average value of thickness of said Al-Fe alloy plating layer is 10 to 50 μm,and a ratio of the average value of thickness to the standard deviation of thickness of said Al-Fe alloy plating layer satisfies the following relationship: 0 < standard deviation of thickness/average value of thickness ≤ 0.15; wherein said Al-Fe alloy plating layer contains, by mass%, Si: 2 to 7%. said alloy plating layer is comprised from phases of a plurality of intermetallic compounds, a mean linear intercept length of crystal grains of a phase containing Al: 40 to 65 mass% among said phases of the plurality of intermetallic compounds is 3 to 20 μm, wherein the mean linear intercept length is defined and measured as described in the description, an average value of thickness of said Al-Fe alloy plating layer is 10 to 50 μm,and a ratio of the average value of thickness to the standard deviation of thickness of said Al-Fe alloy plating layer satisfies the following relationship: 0 < standard deviation of thickness/average value of thickness ≤ 0.15; wherein said Al-Fe alloy plating layer contains, by mass%, Si: 2 to 7%.
A method comprising: obtaining (302, 402) data at a first router of a subscriber network; determining (304, 404), based on the data, whether the first router is a service provider, SP, -facing router; if it is determined that the first router is an SP-facing router, then storing identification data that identifies the first router as an SP-facing router; if it is determined that the first router is not an SP-facing router, then storing identification data that identifies the first router as a non-SP-facing router; wherein the method is performed by one or more processors or computers. obtaining (302, 402) data at a first router of a subscriber network; determining (304, 404), based on the data, whether the first router is a service provider, SP, -facing router; if it is determined that the first router is an SP-facing router, then storing identification data that identifies the first router as an SP-facing router; if it is determined that the first router is not an SP-facing router, then storing identification data that identifies the first router as a non-SP-facing router; wherein the method is performed by one or more processors or computers.
An electrode assembly formed from a layered structure having first and second (120 electrode plates with a separator therebetween, wherein at least the first and second electrode plates overlap each other so as to form a step between an upper surface of the first electrode plate and an upper surface of the second electrode plate, wherein a cap having a planar upper surface is attached to and overlaps the ends of the first and second electrode plates, an inner surface of said cap facing the first and second electrode plates being shaped to complement said step formed between said upper surfaces of the first and second electrode plates.
A granular activated carbon with a particle size of 0.150 mm or more as specified in JIS K1474 having the following properties to: an ignition residue of 2 mass fraction% or less; a hardness of 60 mass fraction% or more; a mesopore volume of 0.5 mL/g or more, the mesopore volume refers to the volume of pores with a diameter of 2 to 30 nm measured by a nitrogen adsorption method and calculated by the Cranston-Inkley method; and the raw material of the granular activated carbon being coconut shell, wherein the ignition residue and the hardness are determined according to JIS K1474, and wherein the specific surface area of the activated carbon is 1,000 to 2,200 m 2 /g, wherein the specific surface area is determined by the BET method. an ignition residue of 2 mass fraction% or less; a hardness of 60 mass fraction% or more; a mesopore volume of 0.5 mL/g or more, the mesopore volume refers to the volume of pores with a diameter of 2 to 30 nm measured by a nitrogen adsorption method and calculated by the Cranston-Inkley method; and the raw material of the granular activated carbon being coconut shell,