mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the presence of a particle while actively calculating and monitoring oil debris monitor phase angle in an oil system , comprising: a) collecting In-phase and Quadrature (I and Q) channel data from an oil debris monitor sensor (86; 96); b) processing the I and Q channel data to identify ferrous and nonferrous signals ; c) filtering and phase adjusting the ferrous and nonferrous signals and determining if the lobe peaks of said filtered and phase adjusted signals are symmetric to determine if a particle is present; d) determining a symmetry factor from the lobe peaks of the I and Q channel data in response to the particle being present in step c), wherein the symmetry factor = peak / absolute value of the valley of the I and Q channel data; and e) confirming that the particle is present from the symmetry factor. a) collecting In-phase and Quadrature (I and Q) channel data from an oil debris monitor sensor (86; 96); b) processing the I and Q channel data to identify ferrous and nonferrous signals ; c) filtering and phase adjusting the ferrous and nonferrous signals and determining if the lobe peaks of said filtered and phase adjusted signals are symmetric to determine if a particle is present; d) determining a symmetry factor from the lobe peaks of the I and Q channel data in response to the particle being present in step c), wherein the symmetry factor = peak / absolute value of the valley of the I and Q channel data; and e) confirming that the particle is present from the symmetry factor.
A liquid lignin composition comprising 20-55% wt-% water, 20-40 wt-% lignin, 0.5-11 wt-% of a group 1 alkali metal hydroxide and 1-30 wt-% urea.
Composite structure for an acoustic wave device comprising a heterostructure which includes: a useful layer of piezoelectric material, having a first face and a second face , the first face being arranged at a first bonding interface on a support substrate having a coefficient of thermal expansion lower than that of the useful layer , the composite structure being characterized in that it comprises a functional layer , an entire surface of which is arranged at a second bonding interface on the second face of the useful layer and which has a coefficient of thermal expansion lower than that of the useful layer . a useful layer of piezoelectric material, having a first face and a second face , the first face being arranged at a first bonding interface on a support substrate having a coefficient of thermal expansion lower than that of the useful layer , the composite structure being characterized in that it comprises a functional layer , an entire surface of which is arranged at a second bonding interface on the second face of the useful layer and which has a coefficient of thermal expansion lower than that of the useful layer .
A bending mode transducer comprising: a substrate having a first surface and a second surface, opposite the first surface; a piezoelectric layer on the first surface of the substrate , wherein the piezoelectric layer comprises PZT material and has a thickness of from about 20 μm to about 1000 μm; at least one patterned electrode on the piezoelectric layer; a mounting block on the at least one patterned electrode, the mounting block having a thickness of 0.5 mm to 10.0 mm; and at least two electrical contact points on the at least one patterned electrode. a substrate having a first surface and a second surface, opposite the first surface; a piezoelectric layer on the first surface of the substrate , wherein the piezoelectric layer comprises PZT material and has a thickness of from about 20 μm to about 1000 μm; at least one patterned electrode on the piezoelectric layer; a mounting block on the at least one patterned electrode, the mounting block having a thickness of 0.5 mm to 10.0 mm; and at least two electrical contact points on the at least one patterned electrode.
A composition comprising a plurality of particles, wherein said particles comprise: 25% to 99% by weight a water soluble carrier; and 1% to 75% by weight a graft copolymer; wherein said graft copolymer comprises: (a) a polyalkylene oxide which has a number average molecular weight of from 1000 to 20000 Da and is based on ethylene oxide; (b) a N-vinylpyrrolidone; and (c) a vinyl ester derived from a saturated monocarboxylic acid containing from 1 to 6 carbon atoms; wherein (a) and (b) are present at a weight ratio of (a):(b) of from 1:0.1 to 1:1; wherein by weight, (a) is present in an amount greater than (c); wherein order of addition of (b) and (c) in graft polymerization is immaterial; and wherein each of said particles has a mass from 1 mg to 1 g. 25% to 99% by weight a water soluble carrier; and 1% to 75% by weight a graft copolymer; wherein said graft copolymer comprises: (a) a polyalkylene oxide which has a number average molecular weight of from 1000 to 20000 Da and is based on ethylene oxide; (b) a N-vinylpyrrolidone; and (c) a vinyl ester derived from a saturated monocarboxylic acid containing from 1 to 6 carbon atoms; (a) a polyalkylene oxide which has a number average molecular weight of from 1000 to 20000 Da and is based on ethylene oxide; (b) a N-vinylpyrrolidone; and (c) a vinyl ester derived from a saturated monocarboxylic acid containing from 1 to 6 carbon atoms; wherein (a) and (b) are present at a weight ratio of (a):(b) of from 1:0.1 to 1:1; wherein by weight, (a) is present in an amount greater than (c); wherein order of addition of (b) and (c) in graft polymerization is immaterial; and wherein each of said particles has a mass from 1 mg to 1 g.
A coupled inductor (200; 400; 600), comprising: at least two input ends (221, 222; 421, 422; 621, 622), an output end (230; 430; 630), a common magnetic core, at least two first windings (L11, L21) and at least two second windings (L12, L22), wherein the common magnetic core comprises at least two magnetic cylinders (211, 212; 411, 412; 611,612), and the number of the at least two magnetic cylinders corresponds to the number of the at least two input ends; and each cylinder among the at least two magnetic cylinders having one of the at least two first windings and one of the at least two second windings being twined thereon in parallel to each other, and the first windings and the second windings on the at least two magnetic cylinders are mutually connected between the at least two input ends and the output end to form mutually coupled inductances and the number of turns of the respective first and second windings on a same magnetic cylinder of said magnetic cylinders is the same, such that when currents that flow into the at least two input ends are equal, the first winding and the second winding in each cylinder generate magnetic flux with same magnitudes and opposite directions along an axis of the cylinder; wherein the at least two magnetic cylinders comprise a first cylinder (211; 411; 611) and a second cylinder (212; 412; 612), and the at least two input ends comprise a first input end (221; 421; 621) and a second input end (222; 422; 622); the first winding (L11) on the first cylinder and the first winding (L21) on the second cylinder are connected in series between the second input end and the output end, and the second winding (L12) on the first cylinder and the second winding (L22) on the second cylinder are connected in series between the first input end and the output end; or the first winding (L11) on the first cylinder and the first winding (L21) on the second cylinder are connected in parallel between the first input end and the output end, and the second winding (L12) on the first cylinder and the second winding (L22) on the second cylinder are connected in parallel between the second input end and the output end.
A method for manufacturing an elongated element comprising a tubular body portion, comprising the steps of: arranging a molding cavity , defined by a mold and a mold insert , said mold insert comprising a mold core and a displaceable mold cavity wall , said displaceable mold cavity wall being arranged between the mold and the mold core , such that the molding cavity has a start volume in a start position of the displaceable mold cavity wall ; injecting a liquid material into a proximal end of the molding cavity ; displacing the displaceable mold cavity wall , in relation to and along the mold and the mold core , distally during said injection, to increase the molding cavity volume from the start volume into an end volume at an end position of the displaceable mold cavity wall , wherein the molding cavity in said end position of the displaceable mold cavity wall corresponds to the elongated element ; solidifying said liquid material, such that the elongated element is formed; removing said elongated element and mold insert from said mold ; removing said elongated element from said mold insert ; and stabilizing the mold core distally of the displaceable mold cavity wall via a core guide support . arranging a molding cavity , defined by a mold and a mold insert , said mold insert comprising a mold core and a displaceable mold cavity wall , said displaceable mold cavity wall being arranged between the mold and the mold core , such that the molding cavity has a start volume in a start position of the displaceable mold cavity wall ; injecting a liquid material into a proximal end of the molding cavity ; displacing the displaceable mold cavity wall , in relation to and along the mold and the mold core , distally during said injection, to increase the molding cavity volume from the start volume into an end volume at an end position of the displaceable mold cavity wall , wherein the molding cavity in said end position of the displaceable mold cavity wall corresponds to the elongated element ; solidifying said liquid material, such that the elongated element is formed; removing said elongated element and mold insert from said mold ; removing said elongated element from said mold insert ; and stabilizing the mold core distally of the displaceable mold cavity wall via a core guide support .
A method for supporting image processing for a movable object , comprising: acquiring one or more images captured by an imaging device borne by the movable object , wherein the imaging device is at least partially blocked by an obstructive object attached to the movable object , such that at least one image captured by the imaging device includes at least a portion of the obstructive object; applying a template to the one or more images to obtain one or more locations of the obstructive object within the one or more images; and detecting the at least a portion of the obstructive object at the one or more locations within the one or more images, wherein the template includes a pattern representing the one or more locations of the at least a portion of the obstructive object during a rotational motion of the obstructive object, and wherein the pattern comprises one or more lines respectively representing the one or more locations of the obstructive object during the rotational motion, each line associated with a rotation angle of a corresponding location, and wherein the template comprises a first group of markers distributed on the one or more lines , wherein markers distributed on a respective line comprise a first set of markers located at centers of stripes on the obstructive object, and a second set of markers located at centers of intervals between two adjacent stripes on the obstructive object. acquiring one or more images captured by an imaging device borne by the movable object , wherein the imaging device is at least partially blocked by an obstructive object attached to the movable object , such that at least one image captured by the imaging device includes at least a portion of the obstructive object; applying a template to the one or more images to obtain one or more locations of the obstructive object within the one or more images; and detecting the at least a portion of the obstructive object at the one or more locations within the one or more images, wherein the template includes a pattern representing the one or more locations of the at least a portion of the obstructive object during a rotational motion of the obstructive object, and wherein the pattern comprises one or more lines respectively representing the one or more locations of the obstructive object during the rotational motion, each line associated with a rotation angle of a corresponding location, and wherein the template comprises a first group of markers distributed on the one or more lines , wherein markers distributed on a respective line comprise a first set of markers located at centers of stripes on the obstructive object, and a second set of markers located at centers of intervals between two adjacent stripes on the obstructive object.
Vertically adjustable wheel block for car-carrying railway wagons, characterised in that it contains a fixed part , which has a cross-section of upside-down letter U, where gouges , of upside-down V letter shape with one arm shorter, are created on the side walls of the fixed part , whereby a movable part is located on the fixed part , where pins , which fit into the gouges of the fixed part , are located on the corresponding areas of the movable part .
Method for operating a broadband lambda probe , in which a Nernst cell and a pump cell are electrically connected in series via a first circuit node (N1), wherein the method comprises: determining a voltage drop (Up) across the pump cell , determining a first setpoint value (SW) for the electrical potential of the first circuit node (N1) as a function of the voltage drop (Up) across the pump cell , applying the first setpoint value (SW) to the first circuit node (N1), wherein a constant first value (W1) is assigned to the first setpoint value (SW) for a first value range (WB1) of the voltage drop (Up) across the pump cell , wherein a second value (W2) is assigned to the first setpoint value (SW) for a second value range (WB2a, WB2b) of the voltage drop (Up) across the pump cell , said second value varying as a function of the value of the voltage drop (Up).
A sulfur-based positive-electrode active material (i) wherein the sulfur-based positive electrode active material comprises: a carbon skeleton derived from a polymer composed of a monomer unit having at least one hetero atom-containing moiety, and sulfur incorporated into the carbon skeleton as the carbon skeleton is formed from the polymer by heat treatment under a non-oxidizing atmosphere, wherein the temperature of the heat treatment is within the range from 250°C to 550°C; or (ii) wherein the sulfur-based positive-electrode active material is one prepared by a preparation process comprising a step of heat-treating a polymer composed of a monomer unit having at least one hetero atom-containing moiety and sulfur under a non-oxidizing atmosphere, and a heat-treating temperature is from 250°C to 550°C; wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a group selected from the group consisting of a monovalent functional group having at least one hetero atom being P and a heterocyclic group having at least one hetero atom being P; or in that the polymer is phosphorylcholine polymer. (i) wherein the sulfur-based positive electrode active material comprises: a carbon skeleton derived from a polymer composed of a monomer unit having at least one hetero atom-containing moiety, and sulfur incorporated into the carbon skeleton as the carbon skeleton is formed from the polymer by heat treatment under a non-oxidizing atmosphere, wherein the temperature of the heat treatment is within the range from 250°C to 550°C; or (ii) wherein the sulfur-based positive-electrode active material is one prepared by a preparation process comprising a step of heat-treating a polymer composed of a monomer unit having at least one hetero atom-containing moiety and sulfur under a non-oxidizing atmosphere, and a heat-treating temperature is from 250°C to 550°C; wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a group selected from the group consisting of a monovalent functional group having at least one hetero atom being P and a heterocyclic group having at least one hetero atom being P; or in that the polymer is phosphorylcholine polymer. wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a group selected from the group consisting of a monovalent functional group having at least one hetero atom being P and a heterocyclic group having at least one hetero atom being P; or in that the polymer is phosphorylcholine polymer.
A display device comprising a flexible circuit board , the flexible circuit board comprising: a base film including a bending area; and a plurality of signal wires formed over the bending area (BA) of the base film ; a first pad region in which a first end of the plurality of signal wires is located; a second pad region in which a second end of the signal wires is located; and an integrated circuit (IC) chip arranged over the base film and electrically connected to the signal wires and disposed in the second pad region , wherein at least one through-hole is disposed in the base film , and wherein the at least one through-hole is disposed between the first pad region and the integrated circuit (IC) chip characterized in that the integrated circuit (IC) chip is disposed between the first pad region and the second pad region , the display device further comprising: a camera at least partly positioned in the at least one through-hole , wherein the at least one through-hole is formed in the flexible circuit board and is defined in the bending area (BA). a base film including a bending area; and a plurality of signal wires formed over the bending area (BA) of the base film ; a first pad region in which a first end of the plurality of signal wires is located; a second pad region in which a second end of the signal wires is located; and an integrated circuit (IC) chip arranged over the base film and electrically connected to the signal wires and disposed in the second pad region , wherein at least one through-hole is disposed in the base film , and wherein the at least one through-hole is disposed between the first pad region and the integrated circuit (IC) chip characterized in that the integrated circuit (IC) chip is disposed between the first pad region and the second pad region , the display device further comprising: a camera at least partly positioned in the at least one through-hole , wherein the at least one through-hole is formed in the flexible circuit board and is defined in the bending area (BA). a camera at least partly positioned in the at least one through-hole , wherein the at least one through-hole is formed in the flexible circuit board and is defined in the bending area (BA).
Device for controlling an ultrasonic tool unit for machining a workpiece (WS) on a machine tool , comprising: - a control device for controlling an ultrasonic transducer of the ultrasonic tool unit accommodated on a work spindle of the machine tool for machining a workpiece (WS) on the basis of a sensor signal input into a controller by means of a generator operated by the controller , on the basis of a first parameter set assigned to the ultrasonic tool unit and setting the operation of the controller , wherein the control device comprises a storage device for storing a plurality of parameter sets; characterized in that the control device is configured to switch an operating setting of the controller by changing the first parameter set setting the operation of the controller on the basis of a second parameter set, assigned to the ultrasonic tool unit, of the plurality of parameter sets stored on the storage device , and the control device is configured to carry out the switching of the operating setting of the controller during the machining of the workpiece (WS). - a control device for controlling an ultrasonic transducer of the ultrasonic tool unit accommodated on a work spindle of the machine tool for machining a workpiece (WS) on the basis of a sensor signal input into a controller by means of a generator operated by the controller , on the basis of a first parameter set assigned to the ultrasonic tool unit and setting the operation of the controller , wherein the control device comprises a storage device for storing a plurality of parameter sets; characterized in that the control device is configured to switch an operating setting of the controller by changing the first parameter set setting the operation of the controller on the basis of a second parameter set, assigned to the ultrasonic tool unit, of the plurality of parameter sets stored on the storage device , and the control device is configured to carry out the switching of the operating setting of the controller during the machining of the workpiece (WS). the control device comprises a storage device for storing a plurality of parameter sets; characterized in that the control device is configured to switch an operating setting of the controller by changing the first parameter set setting the operation of the controller on the basis of a second parameter set, assigned to the ultrasonic tool unit, of the plurality of parameter sets stored on the storage device , and the control device is configured to carry out the switching of the operating setting of the controller during the machining of the workpiece (WS).
A portable device comprising: a display unit ; a touch input unit ; a memory storing one or more instructions; and a controller configured to execute the one or more instructions to: control the display unit to display a display screen comprising an upper part and a lower part, the display screen including an input window for user input at a first position in the upper part of the display screen; receive, by the touch input unit , a first touch input to move the display screen; in response to recognizing a predefined specific pattern of the first touch input, control the display unit to move the input window from the first position downwards to a second position by moving the upper part of the display screen downwards; in response to receiving a second touch input to the input window, control the display unit to display an input screen. a display unit ; a touch input unit ; a memory storing one or more instructions; and a controller configured to execute the one or more instructions to: control the display unit to display a display screen comprising an upper part and a lower part, the display screen including an input window for user input at a first position in the upper part of the display screen; receive, by the touch input unit , a first touch input to move the display screen; in response to recognizing a predefined specific pattern of the first touch input, control the display unit to move the input window from the first position downwards to a second position by moving the upper part of the display screen downwards; in response to receiving a second touch input to the input window, control the display unit to display an input screen. control the display unit to display a display screen comprising an upper part and a lower part, the display screen including an input window for user input at a first position in the upper part of the display screen; receive, by the touch input unit , a first touch input to move the display screen; in response to recognizing a predefined specific pattern of the first touch input, control the display unit to move the input window from the first position downwards to a second position by moving the upper part of the display screen downwards; in response to receiving a second touch input to the input window, control the display unit to display an input screen.