mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber-containing resin substrate for collectively sealing at least a surface of a substrate having a plurality of semiconductor devices mounted thereon or a surface of a wafer having semiconductor devices formed thereon, wherein the substrate or the wafer has a diameter of 300 mm or above, comprising: a resin-impregnated fiber base material impregnated with a semi-cured thermosetting resin; and an uncured resin layer containing an uncured thermosetting resin of the same type on one side of the resin-impregnated fiber base material , wherein a thickness of the uncured resin layer is not smaller than 20 microns and not greater than 200 microns. a resin-impregnated fiber base material impregnated with a semi-cured thermosetting resin; and an uncured resin layer containing an uncured thermosetting resin of the same type on one side of the resin-impregnated fiber base material , wherein a thickness of the uncured resin layer is not smaller than 20 microns and not greater than 200 microns.
Measurement element for distinguishing between different liquids , in particular for determining a concentration of aqueous urea solution, in a storage container , characterized in that the measurement element is designed to perform the following method: 1) heating the liquid or a derivative of the liquid via a heated measurement element , for the crystallization of a salt out of the liquid , or a liquid mixture or a liquid/gas mixture or emulsions or solutions, up to a boiling temperature of the liquid or a decomposition temperature of the derivative, 2) removing the liquid for a storage container, wherein the measurement element is wetted with the liquid outside the storage container, or the measurement element is arranged at a position such that, when a storage container for the liquid is filled, said measurement element is wetted with the liquid , 3) instigating a phase transition of a liquid or of a derivative of the liquid , wherein the measurement element is heated such that the liquid crystallizes on the measurement element , and 4) identifying the liquid or the derivative on the basis of substance properties which correlate with the phase transition of the liquid or of the derivative of the liquid . 1) heating the liquid or a derivative of the liquid via a heated measurement element , for the crystallization of a salt out of the liquid , or a liquid mixture or a liquid/gas mixture or emulsions or solutions, up to a boiling temperature of the liquid or a decomposition temperature of the derivative, 2) removing the liquid for a storage container, wherein the measurement element is wetted with the liquid outside the storage container, or the measurement element is arranged at a position such that, when a storage container for the liquid is filled, said measurement element is wetted with the liquid , 3) instigating a phase transition of a liquid or of a derivative of the liquid , wherein the measurement element is heated such that the liquid crystallizes on the measurement element , and 4) identifying the liquid or the derivative on the basis of substance properties which correlate with the phase transition of the liquid or of the derivative of the liquid .
A method for generating a mask for a digital image of a tissue sample, comprising: receiving first image data, the first image data representing the tissue sample stained with a first staining agent; receiving second image data, the second image data representing the tissue sample after washing the tissue sample to remove the first staining agent from the tissue specimen and staining the tissue sample with a second staining agent, wherein the first staining agent is hematoxylin and eosin and the second staining agent comprises an immunohistochemical (IHC) stain; registering the first and second image data to generate registration data; receiving data identified as a region of interest in the second image data, wherein the region of interest is a region of interest comprising cells representing cancer cells in the second image data; transferring the region of interest from the second image data to the first image data based on the registration data, thereby determining a mask in the first image data ; and training a neural network pattern recognizer using the first image data and the determined mask to identify a corresponding region of interest in a third image that is stained with the first staining agent. receiving first image data, the first image data representing the tissue sample stained with a first staining agent; receiving second image data, the second image data representing the tissue sample after washing the tissue sample to remove the first staining agent from the tissue specimen and staining the tissue sample with a second staining agent, wherein the first staining agent is hematoxylin and eosin and the second staining agent comprises an immunohistochemical (IHC) stain; registering the first and second image data to generate registration data; receiving data identified as a region of interest in the second image data, wherein the region of interest is a region of interest comprising cells representing cancer cells in the second image data; transferring the region of interest from the second image data to the first image data based on the registration data, thereby determining a mask in the first image data ; and training a neural network pattern recognizer using the first image data and the determined mask to identify a corresponding region of interest in a third image that is stained with the first staining agent.
Device for reducing vibrations in a hydraulic actuating system, particularly a hydraulic clutch actuating system for motor vehicles, comprising a housing in which a pressure chamber is formed, the pressure chamber being fluid-connectible by way of at least one connection with the hydraulic actuating system and being bounded by a resilient membrane which has a pressure-loadable surface facing the pressure chamber and a surface remote from the pressure chamber , wherein the latter is provided with a profiling by way of which the membrane when loaded with pressure is capable of support on a fixed wall section of the housing and which has at least one web section with at least one web having a web foot distant from the wall section , a web end adjacent to the wall section and a defined web cross-section, characterized in that the or each web is formed asymmetrically with respect to a notional plane (E) extending normal to the pressure-loadable surface of the membrane through the web foot and perpendicularly to the web cross-section so that the or each web when the membrane is subjected to predetermined pressure loading buckles in a predetermined direction without hindrance and with support of the web end on the wall section .
Channel for protecting and insulating electrical power supply cables with angle profile , and at least one rubber sleeve structured on open trench on its longitudinal axis in a civil engineering (CV) installation and with two zones, a zone of greater height and another zone of lower height , with different heights (h1) (h2) at which, respectively, the cables (C) will be placed, that must be protected and the angle profiles , located on the upper side opposite the zone of greatest height; the angle profiles have a closed tubular configuration and each one has at least one flat upper face; and the rubber sleeve mounted on the entire set with the possibility of accessing, at least the zone of greatest height of the trench, it includes longitudinal grooves that contribute to its flexibility; having: a) a deformable support , with two opposite edges, located in the zone of greatest height (h1) and distant both from its sides and from its base, where the cables (C) that must be protected are located; the cables (C) are supported and hang from the deformable support without direct contact with the civil engineering (CV) installation; b) two stanchions , associated with said deformable support and arranged respectively on the angle profiles toward the upper sides and opposite the zone ; of greatest height. c) means for sustaining the deformable support on the stanchions , and for fastening said set to the angle profiles , forming with them a hidden block with the rubber sleeve . a) a deformable support , with two opposite edges, located in the zone of greatest height (h1) and distant both from its sides and from its base, where the cables (C) that must be protected are located; the cables (C) are supported and hang from the deformable support without direct contact with the civil engineering (CV) installation; b) two stanchions , associated with said deformable support and arranged respectively on the angle profiles toward the upper sides and opposite the zone ; of greatest height. c) means for sustaining the deformable support on the stanchions , and for fastening said set to the angle profiles , forming with them a hidden block with the rubber sleeve .
A method of controlling a hybrid electric vehicle (1-6) comprising: a) calculating (S15) a rising gradient (G1) of a motor speed increasing during kick-down shift (S2) based on a present speed (NC) of a motor (3; 30) for driving the vehicle which is detected at a control unit in real time, upon detection of demand (S2) of the kick-down shift due to acceleration operation (S1) of a driver; b) calculating (S17) a falling gradient of intervention torque based on the rising gradient (R1) of the motor speed at the control unit, the intervention torque being caused by a torque intervention control in which a motor torque transmitted to the input side of a transmission of the vehicle is decreased based on a control command of the control unit ; c) determining (S16) an entry point of torque intervention control based on the present speed (NC) of the motor detected at the control unit in real time; and d) performing (S5) the torque intervention control for controlling driving of the motor in order to output intervention torque, namely, motor torque decreased based on the falling gradient of the intervention torque calculated from the determined entry point at the control unit . a) calculating (S15) a rising gradient (G1) of a motor speed increasing during kick-down shift (S2) based on a present speed (NC) of a motor (3; 30) for driving the vehicle which is detected at a control unit in real time, upon detection of demand (S2) of the kick-down shift due to acceleration operation (S1) of a driver; b) calculating (S17) a falling gradient of intervention torque based on the rising gradient (R1) of the motor speed at the control unit, the intervention torque being caused by a torque intervention control in which a motor torque transmitted to the input side of a transmission of the vehicle is decreased based on a control command of the control unit ; c) determining (S16) an entry point of torque intervention control based on the present speed (NC) of the motor detected at the control unit in real time; and d) performing (S5) the torque intervention control for controlling driving of the motor in order to output intervention torque, namely, motor torque decreased based on the falling gradient of the intervention torque calculated from the determined entry point at the control unit .
A pharmaceutical composition for use in preventing or treating an inflammatory disease, comprising Lactobacillus plantarum-derived extracellular vesicles as active ingredients.
A water sprayer outlet mechanism configured for use with a pool, the water sprayer outlet mechanism having an inlet and an outlet nozzle in fluid communication with the inlet, the outlet nozzle comprising: an elongate hole configured to deliver water from the inlet to the pool, a planar projection of the elongate hole having a lateral axis and a central axis of symmetry, the elongate hole defined by: a first elongate section ; wherein the first elongate section is calculated with a formula: Y = a 4 x 4 + a 2 x 2 + a 0 wherein: x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12 ; and 10 -2 ≥ a 2 ≥10 -6 . a second elongate section ; a first end section that connects the first and second elongate sections; and a second end section that connects the first and second elongate sections; wherein a width of the elongate hole measured between the first and second elongate sections increases from the central axis to each of the first and second end sections. an elongate hole configured to deliver water from the inlet to the pool, a planar projection of the elongate hole having a lateral axis and a central axis of symmetry, the elongate hole defined by: a first elongate section ; wherein the first elongate section is calculated with a formula: Y = a 4 x 4 + a 2 x 2 + a 0 wherein: x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12 ; and 10 -2 ≥ a 2 ≥10 -6 . a second elongate section ; a first end section that connects the first and second elongate sections; and a second end section that connects the first and second elongate sections; a first elongate section ; wherein the first elongate section is calculated with a formula: Y = a 4 x 4 + a 2 x 2 + a 0 wherein: x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12 ; and 10 -2 ≥ a 2 ≥10 -6 . x is a value on the lateral axis; Y is a value on the central axis; a 0 ≥ 1; 10 -5 ≥ a 4 ≥10 -12 ; and 10 -2 ≥ a 2 ≥10 -6 . a second elongate section ; a first end section that connects the first and second elongate sections; and a second end section that connects the first and second elongate sections; wherein a width of the elongate hole measured between the first and second elongate sections increases from the central axis to each of the first and second end sections.
A fusion protein which comprises from the N- to the C-terminus: (a) the D1 and D2 extracellular domains of a human CD4, (b) the Fc portion of a human IgG, (c) a linker polypeptide of sequence (GGGGS) n wherein 4 ≤ n ≤ 10, and (d) a gp41-derived polypeptide, wherein said polypeptide is T-20 or C34, wherein the amino acid sequence of T-20 is SEQ ID NO:7, and the amino acid sequence of C34 is SEQ ID NO:9. (a) the D1 and D2 extracellular domains of a human CD4, (b) the Fc portion of a human IgG, (c) a linker polypeptide of sequence (GGGGS) n wherein 4 ≤ n ≤ 10, and (d) a gp41-derived polypeptide, wherein said polypeptide is T-20 or C34,
A learning system of a precipitable water vapor estimation model, comprising: a radio wave intensity acquisition part configured to acquire radio wave intensities of a plurality of frequencies among radio waves received by a microwave radiometer ; a precipitable water vapor acquisition part configured to acquire a precipitable water vapor calculated based on an atmospheric delay of a GNSS signal received by a GNSS receiver ; and a learning part configured to subject an estimation model to machine learning such that an input data based on the radio wave intensities of the plurality of frequencies is taken as an input to output the precipitable water vapor, based on the radio wave intensities of the plurality of frequencies and the precipitable water vapor at a plurality of time points in a particular period. a radio wave intensity acquisition part configured to acquire radio wave intensities of a plurality of frequencies among radio waves received by a microwave radiometer ; a precipitable water vapor acquisition part configured to acquire a precipitable water vapor calculated based on an atmospheric delay of a GNSS signal received by a GNSS receiver ; and a learning part configured to subject an estimation model to machine learning such that an input data based on the radio wave intensities of the plurality of frequencies is taken as an input to output the precipitable water vapor, based on the radio wave intensities of the plurality of frequencies and the precipitable water vapor at a plurality of time points in a particular period.
A method of characterizing a stress profile of a chemically strengthened glass substrate formed by diffusion of alkali ions and having an upper surface and a body, a shallow spike region of stress immediately adjacent the upper surface and a deep region of slowly varying stress within the body and that intersects the spike region at a knee, wherein the method comprises: measuring a TM mode spectrum and a TE mode spectrum of the glass substrate, wherein the TM mode spectrum and the TE mode spectrum each include mode lines and a transition that corresponds to a critical angle; determining a surface compressive stress CS sp of the spike using either at least one of the TM and TE mode spectra or a measurement of a surface concentration of at least one type of alkali ion that resides adjacent the surface; calculating a depth of layer DOL sp of the spike using the modes lines of at least one of the TM and TE spectra and including using a distance between the transition region and the most adjacent mode line to the transition region to obtain a non-integer mode count, measuring a difference between the TE and TM transition locations to determine an amount of birefringence BR, wherein BR is given by: BR = n LM TE − n LM TM where n LM TE is the effective index of a highest-common-order TE spike mode, n LM TM is the effective index of a highest-common-order TM spike mode; and calculating a knee stress as CS k using the equation: CS k = K 3 × BR/SOC where SOC is the stress-optic coefficient, and K 3 is a calibration factor that is in the range between 0.2 and 2. measuring a TM mode spectrum and a TE mode spectrum of the glass substrate, wherein the TM mode spectrum and the TE mode spectrum each include mode lines and a transition that corresponds to a critical angle; determining a surface compressive stress CS sp of the spike using either at least one of the TM and TE mode spectra or a measurement of a surface concentration of at least one type of alkali ion that resides adjacent the surface; calculating a depth of layer DOL sp of the spike using the modes lines of at least one of the TM and TE spectra and including using a distance between the transition region and the most adjacent mode line to the transition region to obtain a non-integer mode count, measuring a difference between the TE and TM transition locations to determine an amount of birefringence BR, wherein BR is given by: BR = n LM TE − n LM TM where n LM TE is the effective index of a highest-common-order TE spike mode, n LM TM is the effective index of a highest-common-order TM spike mode; and calculating a knee stress as CS k using the equation: CS k = K 3 × BR/SOC where SOC is the stress-optic coefficient, and K 3 is a calibration factor that is in the range between 0.2 and 2.
A computer-implemented method for encoding aligned genome sequence data comprising reads of sequences of nucleotides, said method comprising the steps of: • aligning said reads to one or more reference sequences thereby creating aligned reads, • mapping, on said one or more reference sequences, said aligned reads to be coded, • assembling said aligned reads thereby creating a contig, • comparing said one or more reference sequences and said contig thereby obtaining information related to the position of mismatches and the type of mismatches between the one or more reference sequences and the contig, • entropy coding said information related to the position of mismatches and the type of mismatches, and • wherein said information related to position of mismatches and the type of mismatches are indicated using, respectively a first descriptor and a second descriptor , and said first descriptor and second descriptor are encapsulated in a same Access Unit so to enable, at the decoding device, the selective reconstruction of the one or more reference sequences used for the alignment. • aligning said reads to one or more reference sequences thereby creating aligned reads, • mapping, on said one or more reference sequences, said aligned reads to be coded, • assembling said aligned reads thereby creating a contig, • comparing said one or more reference sequences and said contig thereby obtaining information related to the position of mismatches and the type of mismatches between the one or more reference sequences and the contig, • entropy coding said information related to the position of mismatches and the type of mismatches, and • wherein said information related to position of mismatches and the type of mismatches are indicated using, respectively a first descriptor and a second descriptor , and said first descriptor and second descriptor are encapsulated in a same Access Unit so to enable, at the decoding device, the selective reconstruction of the one or more reference sequences used for the alignment.
A wearable display device, comprising: a frame including an attachment member configured to secure the wearable display device to a head of a user; a projector coupled to the frame ; and a display assembly coupled to the frame , the display assembly comprising: a main display comprising one or more optical waveguides configured to project an angular representation of virtual content onto an eye of the user, and a peripheral display arranged along a periphery of the main display so as to cover a different portion of a field of view of the eye of the user than the main display, the peripheral display configured to generate a spatial representation of the virtual content, and wherein the peripheral display is in abutting contact with the one or more optical waveguides of the main display . a frame including an attachment member configured to secure the wearable display device to a head of a user; a projector coupled to the frame ; and a display assembly coupled to the frame , the display assembly comprising: a main display comprising one or more optical waveguides configured to project an angular representation of virtual content onto an eye of the user, and a peripheral display arranged along a periphery of the main display so as to cover a different portion of a field of view of the eye of the user than the main display, the peripheral display configured to generate a spatial representation of the virtual content, and wherein the peripheral display is in abutting contact with the one or more optical waveguides of the main display . a main display comprising one or more optical waveguides configured to project an angular representation of virtual content onto an eye of the user, and a peripheral display arranged along a periphery of the main display so as to cover a different portion of a field of view of the eye of the user than the main display, the peripheral display configured to generate a spatial representation of the virtual content, and wherein the peripheral display is in abutting contact with the one or more optical waveguides of the main display .