mhurhangee/patent-ind-claim-en huggingface dataset:
A method of selecting a treatment for a subject having inflammatory bowel disease (IBD) in clinical remission, comprising: measuring the level of an anti- granulocyte-macrophage colony stimulating factor (GM-CSF) antibody in a serum sample from said subject, thereby determining the IBD relapse risk for said subject; and selecting a treatment for said IBD relapse risk. measuring the level of an anti- granulocyte-macrophage colony stimulating factor (GM-CSF) antibody in a serum sample from said subject, thereby determining the IBD relapse risk for said subject; and selecting a treatment for said IBD relapse risk.
A display device, comprising: a substrate; a pixel portion on the substrate and including a pixel connected to a data line; a data pad connected to one end of the data line; and a first test area including a test control line to transmit a test control signal, a test signal line to transmit a test signal, and a first switch connected to the data pad, wherein the first switch includes: a gate electrode connected to the test control line, and characterised in that the first switch further includes a first semiconductor layer and a second semiconductor layer overlapping the gate electrode; a source electrode connected to the first semiconductor layer and the second semiconductor layer, the source electrode connected to the test signal line; and a drain electrode spaced apart from the source electrode and connected to the first semiconductor layer and the second semiconductor layer, the drain electrode connected to the data pad, wherein one of the first semiconductor layer or the second semiconductor layer includes an oxide semiconductor and the other of the first semiconductor layer or the second semiconductor layer includes a silicon-based semiconductor. a substrate; a pixel portion on the substrate and including a pixel connected to a data line; a data pad connected to one end of the data line; and a first test area including a test control line to transmit a test control signal, a test signal line to transmit a test signal, and a first switch connected to the data pad, wherein the first switch includes: a gate electrode connected to the test control line, and characterised in that the first switch further includes a first semiconductor layer and a second semiconductor layer overlapping the gate electrode; a source electrode connected to the first semiconductor layer and the second semiconductor layer, the source electrode connected to the test signal line; and a drain electrode spaced apart from the source electrode and connected to the first semiconductor layer and the second semiconductor layer, the drain electrode connected to the data pad, wherein one of the first semiconductor layer or the second semiconductor layer includes an oxide semiconductor and the other of the first semiconductor layer or the second semiconductor layer includes a silicon-based semiconductor. a gate electrode connected to the test control line, and characterised in that the first switch further includes a first semiconductor layer and a second semiconductor layer overlapping the gate electrode; a source electrode connected to the first semiconductor layer and the second semiconductor layer, the source electrode connected to the test signal line; and a drain electrode spaced apart from the source electrode and connected to the first semiconductor layer and the second semiconductor layer, the drain electrode connected to the data pad, wherein one of the first semiconductor layer or the second semiconductor layer includes an oxide semiconductor and the other of the first semiconductor layer or the second semiconductor layer includes a silicon-based semiconductor.
A method of producing a silicon carbide (SiC) ceramic matrix composite (CMC) comprising: providing a SiC fiber preform; applying a fiber interface coating; depositing a SiC matrix layer around individual layer/tows by chemical vapor infiltration (CVI); incorporating slurry additives by infiltration of a slurry comprising yttrium or ytterbium; incorporating melt infiltration additives by infiltration of a melt, thereby forming a composite, wherein 15-45 volume percent of the composite is the SiC fiber preform, 1-10 volume percent of the composite is the fiber interface coating, 5-30 volume percent of the composite is the SiC matrix layer, 10-30 volume percent of the composite is the slurry additives, and 5-30 volume percent of the composite is the melt infiltration additives. providing a SiC fiber preform; applying a fiber interface coating; depositing a SiC matrix layer around individual layer/tows by chemical vapor infiltration (CVI); incorporating slurry additives by infiltration of a slurry comprising yttrium or ytterbium; incorporating melt infiltration additives by infiltration of a melt, thereby forming a composite, 15-45 volume percent of the composite is the SiC fiber preform, 1-10 volume percent of the composite is the fiber interface coating, 5-30 volume percent of the composite is the SiC matrix layer, 10-30 volume percent of the composite is the slurry additives, and 5-30 volume percent of the composite is the melt infiltration additives.
A computer implemented method for calibrating the depth of an optical fibre in a well, characterized by comprising receiving (S10) borehole seismic wave field data acquired based on an optical fibre acoustic wave sensor; determining (S20) first arrival time information based on the borehole seismic wave field data; determining (S30) a downgoing wave first arrival amplitude based on the first arrival time information and the borehole seismic wave field data; determining (S40) an optical fibre amplitude feature point based on the downgoing wave first arrival amplitude; determining (S50) a wellhead initial position and a receiving point spacing of the optical fibre in the well based on the optical fibre amplitude feature point and logging curve feature points; and determining (S60) depth calibration information of the optical fibre in the well based on the wellhead initial position and the receiving point spacing. method for calibrating the depth of an optical fibre in a well, characterized by comprising receiving (S10) borehole seismic wave field data acquired based on an optical fibre acoustic wave sensor; determining (S20) first arrival time information based on the borehole seismic wave field data; determining (S30) a downgoing wave first arrival amplitude based on the first arrival time information and the borehole seismic wave field data; determining (S40) an optical fibre amplitude feature point based on the downgoing wave first arrival amplitude; determining (S50) a wellhead initial position and a receiving point spacing of the optical fibre in the well based on the optical fibre amplitude feature point and logging curve feature points; and determining (S60) depth calibration information of the optical fibre in the well based on the wellhead initial position and the receiving point spacing.
An integrated circuit used in a drive circuit that outputs a drive signal for driving a capacitive load, the integrated circuit characterised by comprising: a modulation circuit that modulates a base drive signal to output a modulation signal; a switching circuit that outputs an amplification control signal according to the modulation signal; an input terminal to which a feedback signal based on the drive signal is input; and a constant voltage output circuit that outputs a DC voltage signal, wherein the modulation circuit and the constant voltage output circuit are electrically coupled to the input terminal, a first virtual line segment located between the input terminal and the constant voltage output circuit in a first virtual straight line connecting the input terminal and the constant voltage output circuit at a shortest distance does not intersect the modulation circuit, and a second virtual line segment located between the input terminal and the modulation circuit in a second virtual straight line connecting the input terminal and the modulation circuit at a shortest distance does not intersect the constant voltage output circuit. a modulation circuit that modulates a base drive signal to output a modulation signal; a switching circuit that outputs an amplification control signal according to the modulation signal; an input terminal to which a feedback signal based on the drive signal is input; and a constant voltage output circuit that outputs a DC voltage signal, wherein the modulation circuit and the constant voltage output circuit are electrically coupled to the input terminal, a first virtual line segment located between the input terminal and the constant voltage output circuit in a first virtual straight line connecting the input terminal and the constant voltage output circuit at a shortest distance does not intersect the modulation circuit, and a second virtual line segment located between the input terminal and the modulation circuit in a second virtual straight line connecting the input terminal and the modulation circuit at a shortest distance does not intersect the constant voltage output circuit.
A fastening tool comprising: a housing ; a nosepiece assembly carried by the housing, the nosepiece assembly including a nose portion having first end adjacent to the housing and a second end opposite to the housing, a pair of hooks integrally formed on the nose portion, a door arranged opposite the nose portion and a fastener drive track disposed therebetween; a magazine for feeding fasteners successively to the fastener drive track of the nosepiece assembly; an engine carried by the housing and configured to drive a fastener out of the fastener drive track and into a workpiece during a drive stroke; and characterised by a latch mechanism arranged to cover the nosepiece assembly, the latch mechanism including: a latch cover ; a latch plate disposed between the latch cover and the door; and a latch member connecting the latch plate to the latch cover. a housing ; a nosepiece assembly carried by the housing, the nosepiece assembly including a nose portion having first end adjacent to the housing and a second end opposite to the housing, a pair of hooks integrally formed on the nose portion, a door arranged opposite the nose portion and a fastener drive track disposed therebetween; a magazine for feeding fasteners successively to the fastener drive track of the nosepiece assembly; an engine carried by the housing and configured to drive a fastener out of the fastener drive track and into a workpiece during a drive stroke; and characterised by a latch mechanism arranged to cover the nosepiece assembly, the latch mechanism including: a latch cover ; a latch plate disposed between the latch cover and the door; and a latch member connecting the latch plate to the latch cover. a latch cover ; a latch plate disposed between the latch cover and the door; and a latch member connecting the latch plate to the latch cover.
A compound of formula (I): or stereoisomers, racemic mixtures, pharmaceutically acceptable salts, hydrates, solvates, and polymorphs thereof; wherein R is selected from the group consisting of hydrogen and alkyl; R 1 is independently selected from the group consisting of fluorine, and -NR 3 R 4 ; R 2 is selected from the group consisting of fluorine and hydrogen; R 3 and R 4 are independently selected from the group consisting of alkyl, fluoro-alkyl, alkyl-O-alkyl and hydrogen; X and X 1 are independently selected from the group consisting of N and CH, provided that at least one of X and X 1 is N; Y is independently selected from the group consisting of N and CH or Y is C if Y is attached to R 1 ; n is 1 or 2; wherein the compound can optionally contain a detectable label selected from radionuclides, positron emitters, gamma emitters, fluorescent labels, luminescent labels and chromogenic labels. or stereoisomers, racemic mixtures, pharmaceutically acceptable salts, hydrates, solvates, and polymorphs thereof; wherein R is selected from the group consisting of hydrogen and alkyl; R 1 is independently selected from the group consisting of fluorine, and -NR 3 R 4 ; R 2 is selected from the group consisting of fluorine and hydrogen; R 3 and R 4 are independently selected from the group consisting of alkyl, fluoro-alkyl, alkyl-O-alkyl and hydrogen; X and X 1 are independently selected from the group consisting of N and CH, provided that at least one of X and X 1 is N; Y is independently selected from the group consisting of N and CH or Y is C if Y is attached to R 1 ; n is 1 or 2; wherein the compound can optionally contain a detectable label selected from radionuclides, positron emitters, gamma emitters, fluorescent labels, luminescent labels and chromogenic labels.
A vascular disrupting agent (VDA) or salt or solvate thereof for use in treating an avascular or hypovascular micro-tumor with a diameter below 20 mm.
A kit including a guiding system and a bone material removal device , said guiding system comprising: a guiding cannula ; and the bone material removal device having a longitudinal shaft and a cutting portion comprising an extendable cutting tooth selectively positionable in an open and a closed orientation, having a longitudinally-oriented cutting edge , said extendable cutting tooth configured to radially extend and thereby to cause an increase of a cross-sectional diameter of the bone material removal device; characterized in that : said cutting tooth is pivotably attached to a hinge member longitudinally oriented along said longitudinal shaft . a guiding cannula ; and the bone material removal device having a longitudinal shaft and a cutting portion comprising an extendable cutting tooth selectively positionable in an open and a closed orientation, having a longitudinally-oriented cutting edge , said extendable cutting tooth configured to radially extend and thereby to cause an increase of a cross-sectional diameter of the bone material removal device; characterized in that : said cutting tooth is pivotably attached to a hinge member longitudinally oriented along said longitudinal shaft .
A light-emitting device comprising: a substrate ; a lens array having a plurality of lens sections in a two-dimensional matrix pattern; a plurality of semiconductor laser elements disposed on an upper surface of the substrate in the two-dimensional matrix pattern, each of the plurality of semiconductor laser elements being configured to emit a laser beam to a respectively different one of the plurality of lens section ; and a plurality of mirrors disposed on the upper surface of the substrate in the two-dimensional matrix pattern and configured to reflect the laser beam of the plurality of semiconductor laser elements toward the lens sections , wherein each of the plurality of mirrors is arranged in correspondence with a respectively different one of the plurality of lens sections , each of the plurality of mirrors being positioned directly below a vertex of its corresponding one of the plurality of lens sections , wherein each laser beam having a beam shape with a greater width in a column direction (Y) than in a row direction (X) on a light incident surface of each respective lens section , wherein the lens sections have an inter-vertex distance (PX) in the row direction (X) that is smaller than both (i) a maximum outer diameter (E) of each of the lens sections , and (ii) an inter-vertex distance (PY) in the column direction (Y), and wherein a curvature of the lens sections in the row direction (X) is the same as a curvature of the lens sections in the column direction (Y). a substrate ; a lens array having a plurality of lens sections in a two-dimensional matrix pattern; a plurality of semiconductor laser elements disposed on an upper surface of the substrate in the two-dimensional matrix pattern, each of the plurality of semiconductor laser elements being configured to emit a laser beam to a respectively different one of the plurality of lens section ; and a plurality of mirrors disposed on the upper surface of the substrate in the two-dimensional matrix pattern and configured to reflect the laser beam of the plurality of semiconductor laser elements toward the lens sections , wherein each of the plurality of mirrors is arranged in correspondence with a respectively different one of the plurality of lens sections , each of the plurality of mirrors being positioned directly below a vertex of its corresponding one of the plurality of lens sections , wherein each laser beam having a beam shape with a greater width in a column direction (Y) than in a row direction (X) on a light incident surface of each respective lens section , wherein the lens sections have an inter-vertex distance (PX) in the row direction (X) that is smaller than both (i) a maximum outer diameter (E) of each of the lens sections , and (ii) an inter-vertex distance (PY) in the column direction (Y), and wherein a curvature of the lens sections in the row direction (X) is the same as a curvature of the lens sections in the column direction (Y).
An electronic device, comprising: a communicator (no) comprising communication circuitry; and a processor configured to: control the communicator to communicate with an access point, AP, device , receive a request via user command to check a communication network error, obtain information associated with a communication network between the AP device and the electronic device, estimate a bandwidth of the communication network based on the obtained information, identify a communication network error between the electronic device and the AP device if the estimated bandwidth is below a threshold; identify a communication network error between the AP device and an internet service provider if the estimated bandwidth is at or above the threshold, and provide guide information to the user for solving the communication network error based on the identification result. a communicator (no) comprising communication circuitry; and a processor configured to: control the communicator to communicate with an access point, AP, device , receive a request via user command to check a communication network error, obtain information associated with a communication network between the AP device and the electronic device, estimate a bandwidth of the communication network based on the obtained information, identify a communication network error between the electronic device and the AP device if the estimated bandwidth is below a threshold; identify a communication network error between the AP device and an internet service provider if the estimated bandwidth is at or above the threshold, and provide guide information to the user for solving the communication network error based on the identification result. control the communicator to communicate with an access point, AP, device , receive a request via user command to check a communication network error, obtain information associated with a communication network between the AP device and the electronic device, estimate a bandwidth of the communication network based on the obtained information, identify a communication network error between the electronic device and the AP device if the estimated bandwidth is below a threshold; identify a communication network error between the AP device and an internet service provider if the estimated bandwidth is at or above the threshold, and provide guide information to the user for solving the communication network error based on the identification result.
Biometric sensor module for a chip card, comprising - a dielectric carrier comprising a front face and a back face, both forming main faces of the carrier , - a biometric sensor for detecting fingerprints which is attached to the back face and extends beneath the back face over a detection area located opposite a detection region located on the front face of the carrier , the detection region being configured to receive a finger the fingerprint of which is detected by the sensor, - electrically conductive connection pads , arranged on the back face of the carrier and electrically connected to the biometric sensor , characterized in that at least one connection pad comprises a region that is wettable with a solder material, extending over an area of between 0.2 and 5 square millimetres, and in that the connection pad is placed essentially opposite a region of the front face covered with a bezel , and at least one conductive via is made in the thickness of the carrier , this via electrically connecting the bezel to the connection pad . - a dielectric carrier comprising a front face and a back face, both forming main faces of the carrier , - a biometric sensor for detecting fingerprints which is attached to the back face and extends beneath the back face over a detection area located opposite a detection region located on the front face of the carrier , the detection region being configured to receive a finger the fingerprint of which is detected by the sensor, - electrically conductive connection pads , arranged on the back face of the carrier and electrically connected to the biometric sensor , characterized in that at least one connection pad comprises a region that is wettable with a solder material, extending over an area of between 0.2 and 5 square millimetres, and in that the connection pad is placed essentially opposite a region of the front face covered with a bezel , and at least one conductive via is made in the thickness of the carrier , this via electrically connecting the bezel to the connection pad .
Method (V) for providing a travel profile (H), in particular the travel profile (H) of a tool (W) in a machine tool (WZM), wherein a reference line (S) is predetermined, wherein the reference line (S) is defined on the basis of points along an edge or a corner of a workpiece, wherein at least the following steps A), B), D) and E) proceed: A) Creating n approximation curves (K1, K2, K3), wherein the n approximation curves (K1, K2, K3) are created by means of an approximation on the basis of a different number and/or position of points, in particular of points from the reference line, B) Creating n transformation curves (K4, K5, K6), wherein the transformation curves (K4, K5, K6) are each generated by differentiation between in each case two of the n approximation curves (K1, K2, K3), C) Creating n transformation curves (K4, K5, K6) by means of wavelet approximations of the reference line (S) with wavelet base functions (WBF), D) Creating n modification curves (K7, K8, K9), wherein the j'th (k=1...n) modification curve (K7, K8, K9) is generated from the j'th transformation curve (K4, K5, K6) by means of a modification process, E) Creating the travel profile (H) by adding the n modification curves (K7, K8, K9). A) Creating n approximation curves (K1, K2, K3), wherein the n approximation curves (K1, K2, K3) are created by means of an approximation on the basis of a different number and/or position of points, in particular of points from the reference line, B) Creating n transformation curves (K4, K5, K6), wherein the transformation curves (K4, K5, K6) are each generated by differentiation between in each case two of the n approximation curves (K1, K2, K3), C) Creating n transformation curves (K4, K5, K6) by means of wavelet approximations of the reference line (S) with wavelet base functions (WBF), D) Creating n modification curves (K7, K8, K9), wherein the j'th (k=1...n) modification curve (K7, K8, K9) is generated from the j'th transformation curve (K4, K5, K6) by means of a modification process, E) Creating the travel profile (H) by adding the n modification curves (K7, K8, K9).