mhurhangee/patent-ind-claim-en huggingface dataset:
An optical element comprising an optically effective surface (R1, R2) and an optically non-effective surface (a, b, c, d, e), a light-shielding coating film being formed on the optically non-effective surface, wherein: the optically non-effective surface includes a concave step corner section ; in a section obtained when the optical element is cut along a plane crossing the concave step corner section and perpendicular to a ridge line of the concave step corner section formed at an intersection of two surfaces of the concave step corner section excluding a round chamfer when the two surfaces are extended, a line corresponding to a surface of the concave step corner section has a shape in which two line segments (b, d) are smoothly connected to each other via an arc-shaped curve (c); and when that end of each of the two line segments which borders on the curve is designated as an inner end (A1, B1) of the line segment while an opposite end is designated as an outer end (A2, B2) of the line segment, characterized in that the light-shielding coating film is formed on a surface of the concave step corner section of the optically non-effective surface so as to have a raised area that increases in film thickness continuously or stepwise from the inner end to the outer end and then decreases continuously or stepwise on at least one of the two line segments in the section. the optically non-effective surface includes a concave step corner section ; in a section obtained when the optical element is cut along a plane crossing the concave step corner section and perpendicular to a ridge line of the concave step corner section formed at an intersection of two surfaces of the concave step corner section excluding a round chamfer when the two surfaces are extended, a line corresponding to a surface of the concave step corner section has a shape in which two line segments (b, d) are smoothly connected to each other via an arc-shaped curve (c); and when that end of each of the two line segments which borders on the curve is designated as an inner end (A1, B1) of the line segment while an opposite end is designated as an outer end (A2, B2) of the line segment, characterized in that the light-shielding coating film is formed on a surface of the concave step corner section of the optically non-effective surface so as to have a raised area that increases in film thickness continuously or stepwise from the inner end to the outer end and then decreases continuously or stepwise on at least one of the two line segments in the section.
A method for producing a head chip comprising: cutting or cutting-off of a ceramic substrate constituting a head chip in an inkjet head (H) by using a dicing blade (A), wherein the dicing blade (A) has an annular blade portion made of an abrasive grain layer formed over an entire circumference on both axial surfaces on radially outer peripheral edge sides of a disc-shaped base metal ; a radially inner-peripheral side portion of the disc-shaped base metal , on which the annular blade portion is not formed, is thinner in the axial direction than a radially outer peripheral-edge side portion including the annular blade portion so that the annular blade portion protrudes on both axial surfaces of the base metal ; and a width (a) of the annular blade portion in the radial direction from the radially outer peripheral edge towards the radially inner peripheral side portion is smaller than a cutting depth (b) of the ceramic substrate to be cut or to be cut off such that a gap is generated between both cutting surfaces of the ceramic substrate formed by the axial surfaces of the annular blade portion and the radially inner-peripheral side portion of the disc-shaped base metal . cutting or cutting-off of a ceramic substrate constituting a head chip in an inkjet head (H) by using a dicing blade (A), wherein the dicing blade (A) has an annular blade portion made of an abrasive grain layer formed over an entire circumference on both axial surfaces on radially outer peripheral edge sides of a disc-shaped base metal ; a radially inner-peripheral side portion of the disc-shaped base metal , on which the annular blade portion is not formed, is thinner in the axial direction than a radially outer peripheral-edge side portion including the annular blade portion so that the annular blade portion protrudes on both axial surfaces of the base metal ; and a width (a) of the annular blade portion in the radial direction from the radially outer peripheral edge towards the radially inner peripheral side portion is smaller than a cutting depth (b) of the ceramic substrate to be cut or to be cut off such that a gap is generated between both cutting surfaces of the ceramic substrate formed by the axial surfaces of the annular blade portion and the radially inner-peripheral side portion of the disc-shaped base metal .
A flight control device having a function of correcting a reference trajectory that is a trajectory for allowing a spacecraft in flight to arrive at a target position on a celestial body with an atmosphere, the reference trajectory being identified based on velocity or energy of the spacecraft and on drag acceleration of the spacecraft , the flight control device being characterized in that it comprises: A storage means for storing the reference trajectory analytically calculated in advance based on an equation of motion indicating a behavior of the spacecraft , a ratio calculating means for calculating a ratio between a distance from a current position based on the reference trajectory stored in the storage means to the target position, and a real distance from a current position to the target position; and a correcting means for correcting the reference trajectory by calculating the drag acceleration in the reference trajectory stored in the storage means using the ratio calculated in the ratio calculating means. A storage means for storing the reference trajectory analytically calculated in advance based on an equation of motion indicating a behavior of the spacecraft , a ratio calculating means for calculating a ratio between a distance from a current position based on the reference trajectory stored in the storage means to the target position, and a real distance from a current position to the target position; and a correcting means for correcting the reference trajectory by calculating the drag acceleration in the reference trajectory stored in the storage means using the ratio calculated in the ratio calculating means.
A hydrogel composition comprising components (A) to (D) below: (A) water in an amount of 50 mass% or more and 95 mass% or less; (B) an anionic water-soluble polymer compound comprising 80 mass% or more of carboxymethylcellulose or a salt thereof; (C) a crosslinking agent that forms ionic crosslinking with an anionic functional group; and (D) a nonionic water-soluble polymer compound in an amount of 2.5 mass% or more and 8 mass% or less, wherein the nonionic water-soluble polymer compound is represented by formula below: where R denotes -OH, -NX 2 , where X denotes -CH 3 or a hydrogen atom, ―OCH 3 , ―NHCOCH 3 , or ―NCH 3 COCH 3 , and n is a numerical value of from 200 to 500,000, or is one or more selected from the group consisting of polyvinylpyrrolidone, polyacrylamide, and polyvinylpyrrolidone-vinyl acetate copolymer, wherein a mass ratio of the component (B) to the component (D), ((B)/(D)), is 0.4 or more and 1.7 or less. (A) water in an amount of 50 mass% or more and 95 mass% or less; (B) an anionic water-soluble polymer compound comprising 80 mass% or more of carboxymethylcellulose or a salt thereof; (C) a crosslinking agent that forms ionic crosslinking with an anionic functional group; and (D) a nonionic water-soluble polymer compound in an amount of 2.5 mass% or more and 8 mass% or less, wherein the nonionic water-soluble polymer compound is represented by formula below: where R denotes -OH, -NX 2 , where X denotes -CH 3 or a hydrogen atom, ―OCH 3 , ―NHCOCH 3 , or ―NCH 3 COCH 3 , and n is a numerical value of from 200 to 500,000, or is one or more selected from the group consisting of polyvinylpyrrolidone, polyacrylamide, and polyvinylpyrrolidone-vinyl acetate copolymer, wherein a mass ratio of the component (B) to the component (D), ((B)/(D)), is 0.4 or more and 1.7 or less. where R denotes -OH, -NX 2 , where X denotes -CH 3 or a hydrogen atom, ―OCH 3 , ―NHCOCH 3 , or ―NCH 3 COCH 3 , and n is a numerical value of from 200 to 500,000, or is one or more selected from the group consisting of polyvinylpyrrolidone, polyacrylamide, and polyvinylpyrrolidone-vinyl acetate copolymer, wherein a mass ratio of the component (B) to the component (D), ((B)/(D)), is 0.4 or more and 1.7 or less.
An orienteering compass comprising a capsule with a magnetic pointer and a plate. A loop is attached to the plate. With this loop the compass is held and carried on the finger. The plate has an edge line in the direction of movement . The extension of the edge line runs through the middle of the capsule. The compass is characterized in that the compass plate has a second edge line . The second edge line is perpendicular to the edge line of the direction of movement. The second edge line is located behind the capsule.
Tank for a compact assembly, comprising an outer wall , which encompasses an inner wall and which, together with the inner wall , defines an annular space which is closed at the bottom by a bottom wall , wherein an inlet connection and an outlet connection for an oil open out into the annular space , wherein at least one cooling device (42-46) through which the oil can flow is provided in the annular space , which cooling device has a plurality of blades , characterized in that the blades are encompassed radially inwardly and/or radially outwardly and/or at the bottom and/or top thereof by a labyrinth seal .
A method of identifying a target for preparing an inhibitory chimeric antigen receptor (iCAR) or a protective chimeric antigen receptor (pCAR) capable of preventing or attenuating undesired activation of an effector immune cell, wherein the target is identified by a method comprising: (i) identifying a gene with at least two expressed alleles that encodes a protein comprising an extracellular polymorphic epitope; (ii) determining that at least one of the expressed alleles exhibits an amino acid sequence change in the extracellular polymorphic epitope sequence relative to an extracellular polymorphic epitope reference sequence; (iii) determining that the gene is located in a chromosomal region which undergoes loss of heterozygosity (LOH) in a tumor type, wherein the LOH position is selected from the group consisting of a substitution, deletion, and insertion; and (iv) determining that the gene is expressed in the tissue-of-origin of the tumor type in which the chromosomal region was found to undergo LOH, whereby the identified target is an extracellular polymorphic epitope absent from the tumor due to loss of heterozygosity (LOH) but present in the tissue-of-origin of the tumor type. (i) identifying a gene with at least two expressed alleles that encodes a protein comprising an extracellular polymorphic epitope; (ii) determining that at least one of the expressed alleles exhibits an amino acid sequence change in the extracellular polymorphic epitope sequence relative to an extracellular polymorphic epitope reference sequence; (iii) determining that the gene is located in a chromosomal region which undergoes loss of heterozygosity (LOH) in a tumor type, wherein the LOH position is selected from the group consisting of a substitution, deletion, and insertion; and (iv) determining that the gene is expressed in the tissue-of-origin of the tumor type in which the chromosomal region was found to undergo LOH,
A multilayered structure that includes no less than 8 resin-layers, the resin-layer comprising a layer A constituted with a resin composition containing a gas barrier resin, and a layer B constituted with a resin composition containing a thermoplastic resin, at least one of the resin compositions included in the layer A and the layer B that are adjacent with each other containing a metal salt, the content of the metal salt being no less than 1 ppm and no greater than 10,000 ppm in terms of metal element equivalent, a single layer of at least one selected from the layer A and the layer B having an average thickness of no less than 0.01 μm and no greater than 10 μm, an interlayer adhesive force between the layer A and the layer B being no less than 450 g/15 mm, the interlayer adhesive force being a T-die peel strength value as determined in accordance with the method as disclosed in the specification description, and the gas barrier resin having an oxygen transmission rate of no greater than 100 mL · 20 μm / (m 2 ·day·atm) as determined according to a method described in JIS-K7126 (isopiestic method) under conditions including 20 °C and 65% RH.
A method for making a medical device, comprising: using a polymer scaffold including a strut having a hole formed in the strut, wherein the strut has a thickness of between 80 and 120 microns measured between a first side of the strut and a second side of the strut and the strut comprises poly(L-lactide); and using a radiopaque rivet marker having a head and a shank ; and placing the rivet into the hole so that the head is disposed on a first surface of the first side of the strut ; and swaging the rivet including making a deformed shank from the shank while the rivet sits in the hole; wherein the head resists a first push-out force acting on the first surface by the head interfering with the first side of the hole ; wherein the deformed shank resists a second push-out force acting on a second surface of the second side of the strut by the deformed shank interfering with the second side of the hole ; and wherein before swaging the hole is cylindrical and after swaging the hole is tapered. using a polymer scaffold including a strut having a hole formed in the strut, wherein the strut has a thickness of between 80 and 120 microns measured between a first side of the strut and a second side of the strut and the strut comprises poly(L-lactide); and using a radiopaque rivet marker having a head and a shank ; and placing the rivet into the hole so that the head is disposed on a first surface of the first side of the strut ; and swaging the rivet including making a deformed shank from the shank while the rivet sits in the hole; wherein the head resists a first push-out force acting on the first surface by the head interfering with the first side of the hole ; wherein the deformed shank resists a second push-out force acting on a second surface of the second side of the strut by the deformed shank interfering with the second side of the hole ; and wherein before swaging the hole is cylindrical and after swaging the hole is tapered.
A method for wireless communication, comprising: determining , by a terminal, K pieces of Scheduling Request, SR, information, K being a positive integer; and sending , by the terminal, a target channel, the target channel comprising M-bit first information, the M-bit first information being used to indicate a scheduling request situation for at least part of the K pieces of SR information, M being a positive integer and a value of M being determined based on a range, within which the K falls, out of ranges defined by at least one first numerical value. determining , by a terminal, K pieces of Scheduling Request, SR, information, K being a positive integer; and sending , by the terminal, a target channel, the target channel comprising M-bit first information, the M-bit first information being used to indicate a scheduling request situation for at least part of the K pieces of SR information, M being a positive integer and a value of M being determined based on a range, within which the K falls, out of ranges defined by at least one first numerical value.
A laundry scheduling device comprising: a communication unit configured to communicate with a plurality of laundry apparatuses ; an input interface configured to receive speech of a user; and one or more processors configured to: identify a plurality of terms of the received speech respectively corresponding to laundry items to be laundered; acquire one or more features associated with each of the plurality of terms for each of the laundry items by using a trained learning model; acquire laundry information for each of the laundry items based on the acquired one or more features; and generate laundry schedule information using at least one of the plurality of laundry apparatuses for the laundry items, wherein the plurality of laundry apparatuses comprise at least one of a washing apparatus, a dryer or a clothes manager, and wherein the laundry schedule information includes an order of laundry performed by at least one of the plurality of laundry apparatuses for the laundry items, wherein the one or more processors is further configured to generate the laundry schedule information by determining at least one of the laundry items not to be washed by at least one of the plurality of laundry apparatuses based on the laundry information for each of the laundry items. a communication unit configured to communicate with a plurality of laundry apparatuses ; an input interface configured to receive speech of a user; and one or more processors configured to: identify a plurality of terms of the received speech respectively corresponding to laundry items to be laundered; acquire one or more features associated with each of the plurality of terms for each of the laundry items by using a trained learning model; acquire laundry information for each of the laundry items based on the acquired one or more features; and generate laundry schedule information using at least one of the plurality of laundry apparatuses for the laundry items, identify a plurality of terms of the received speech respectively corresponding to laundry items to be laundered; acquire one or more features associated with each of the plurality of terms for each of the laundry items by using a trained learning model; acquire laundry information for each of the laundry items based on the acquired one or more features; and generate laundry schedule information using at least one of the plurality of laundry apparatuses for the laundry items, wherein the plurality of laundry apparatuses comprise at least one of a washing apparatus, a dryer or a clothes manager, and wherein the laundry schedule information includes an order of laundry performed by at least one of the plurality of laundry apparatuses for the laundry items, wherein the one or more processors is further configured to generate the laundry schedule information by determining at least one of the laundry items not to be washed by at least one of the plurality of laundry apparatuses based on the laundry information for each of the laundry items.
A device for generating an ultrasonic vibration of a tool for ultrasonic machining of a workpiece and for measuring ultrasonic vibration parameters of the ultrasonic vibration of said tool , comprising - a tool holder for receiving said tool , - an ultrasonic transducer in said tool holder , said ultrasonic transducer configured to generate the ultrasonic vibration of said tool , - a sensor means in said tool holder , said sensor means configured to generate a sensor signal based on the ultrasonic vibration of said tool , and - a sensor signal evaluation device configured to evaluate the sensor signal; characterized in that said sensor means comprises a one-piece element made of piezoelectric material and a plurality of electrode segments configured to detect ultrasonic vibration portions in an axial direction of said tool and bending vibration portions of the ultrasonic vibration of said tool . - a tool holder for receiving said tool , - an ultrasonic transducer in said tool holder , said ultrasonic transducer configured to generate the ultrasonic vibration of said tool , - a sensor means in said tool holder , said sensor means configured to generate a sensor signal based on the ultrasonic vibration of said tool , and - a sensor signal evaluation device configured to evaluate the sensor signal;
A fully integral epoxy cap probe (300; 800), comprising: a body having a cavity configured to be disposed radially outward of a fan blade and comprising a first material; a frame disposed within the cavity and comprising a second material; a first sensor element and a ground plane disposed within the frame , the first sensor element and the ground plane comprising a third material; and a first soft lead in electronic communication with the first sensor element and the ground plane , wherein the second material and the third material are at least one of a resin, epoxy, and/or thermoset material. a body having a cavity configured to be disposed radially outward of a fan blade and comprising a first material; a frame disposed within the cavity and comprising a second material; a first sensor element and a ground plane disposed within the frame , the first sensor element and the ground plane comprising a third material; and a first soft lead in electronic communication with the first sensor element and the ground plane , wherein the second material and the third material are at least one of a resin, epoxy, and/or thermoset material.
A video signal processing device comprising: a frame rate conversion unit configured to provide a video signal at a first frame rate from a captured video signal at a second frame rate N times higher than the first frame rate, N being an integer larger than or equal to two; an edge signal detection unit configured to detect, for each frame in the captured video signal, an edge signal corresponding to an edge of a moving subject by filtering each frame in the captured video signal at the second frame rate in horizontal and vertical high pass filter processes; an edge signal generation unit configured to perform an arithmetic process to find a difference absolute value between the detected edge signals of each frame and an adjacent frame, using the detected edge signal of each frame detected with the edge signal detection unit, and generates a first edge signal corresponding to each frame at the first frame rate by summing some or all of the difference absolute values of the detected edge signals of the frames every N frames; and a signal synthesis unit configured to synthesize the first edge signal onto the video signal at the first frame rate to generate a first video signal for a viewfinder display in which the edge of the moving subject is highlighted. a frame rate conversion unit configured to provide a video signal at a first frame rate from a captured video signal at a second frame rate N times higher than the first frame rate, N being an integer larger than or equal to two; an edge signal detection unit configured to detect, for each frame in the captured video signal, an edge signal corresponding to an edge of a moving subject by filtering each frame in the captured video signal at the second frame rate in horizontal and vertical high pass filter processes; an edge signal generation unit configured to perform an arithmetic process to find a difference absolute value between the detected edge signals of each frame and an adjacent frame, using the detected edge signal of each frame detected with the edge signal detection unit, and generates a first edge signal corresponding to each frame at the first frame rate by summing some or all of the difference absolute values of the detected edge signals of the frames every N frames; and a signal synthesis unit configured to synthesize the first edge signal onto the video signal at the first frame rate to generate a first video signal for a viewfinder display in which the edge of the moving subject is highlighted.