mhurhangee/patent-ind-claim-en huggingface dataset:
A downline wire for connecting a location on surface to at least one detonator in a blast hole , the downline wire including at least two flexible electrical conductors , a respective flexible layer of an insulating material which encases each conductor , and a flexible sheath in which the insulated conductors are embedded, wherein each conductor comprises a steel core which is clad with copper , the insulating material is selected from a filled flexible polyvinylchloride (PVC) composition and a polyester elastomer, and the sheath is made from a medium or high density polyethylene compound which includes carbon black.
Current-measuring circuit for redundantly measuring an electric current, having a measuring resistor , a magnetic-field sensor and an evaluation circuit on an evaluation-circuit printed circuit board for determining the electric current using the measuring resistor , characterized in that the magnetic-field sensor on the evaluation-circuit printed circuit board and the evaluation-circuit printed circuit board are arranged in the immediate vicinity of the measuring resistor , with the result that the magnetic-field sensor can detect the magnetic field of the measuring resistor when current flows through it, wherein the magnetic-field sensor is designed to measure a magnetic field around the measuring resistor, which magnetic field is proportional to the flow of current.
A system comprising: a circuit board and a power connector comprising: a circuit board contact to insert into the circuit board ; a pluggable power input contact to removably plug into a power distribution system of an electronic system external to the circuit board ; and a conductive body connecting the pluggable power input contact and the circuit board contact , the conductive body being narrowed to a fusible region between the pluggable power input contact and the circuit board contact ; the system being characterized in that : a primary protection is installed on the circuit board ; and the fusible region has an interrupting rating greater than an interrupting rating of the primary protection of the circuit board . a circuit board and a power connector comprising: a circuit board contact to insert into the circuit board ; a pluggable power input contact to removably plug into a power distribution system of an electronic system external to the circuit board ; and a conductive body connecting the pluggable power input contact and the circuit board contact , the conductive body being narrowed to a fusible region between the pluggable power input contact and the circuit board contact ; a circuit board contact to insert into the circuit board ; a pluggable power input contact to removably plug into a power distribution system of an electronic system external to the circuit board ; and a conductive body connecting the pluggable power input contact and the circuit board contact , the conductive body being narrowed to a fusible region between the pluggable power input contact and the circuit board contact ; the system being characterized in that : a primary protection is installed on the circuit board ; and the fusible region has an interrupting rating greater than an interrupting rating of the primary protection of the circuit board . a primary protection is installed on the circuit board ; and the fusible region has an interrupting rating greater than an interrupting rating of the primary protection of the circuit board .
A method for producing an alfalfa plant, the method comprising: providing a population of alfalfa cells that each comprise four COMT alleles, contacting the population of alfalfa cells with one or more rare-cutting endonucleases targeted to one or more of the four COMT alleles, regenerating alfalfa plants from the population of alfalfa cells, and selecting an alfalfa plant with an induced mutation in each of said four COMT alleles, wherein said selected alfalfa plant comprises a reduction in syringyl (S) units as compared to a corresponding wild type alfalfa plant, and/or wherein said selected alfalfa plant exhibits reduced lignin content as compared to a corresponding wild type alfalfa plant. providing a population of alfalfa cells that each comprise four COMT alleles, contacting the population of alfalfa cells with one or more rare-cutting endonucleases targeted to one or more of the four COMT alleles, regenerating alfalfa plants from the population of alfalfa cells, and selecting an alfalfa plant with an induced mutation in each of said four COMT alleles, wherein said selected alfalfa plant comprises a reduction in syringyl (S) units as compared to a corresponding wild type alfalfa plant, and/or wherein said selected alfalfa plant exhibits reduced lignin content as compared to a corresponding wild type alfalfa plant.
A transparent self-supporting film, which has a single layer structure, a thickness within a range of from 1 to 250 μm and is made of a cured product of a resin composition comprising an alicyclic epoxy compound (A), a polyol compound (B) and an acid generator (C), wherein an amount ratio of the alicyclic epoxy compound (A) to the total amount of the alicyclic epoxy compound (A) and the polyol compound (B) is within a range of from 70 to 75 mass%, and an amount of the acid generator (C) is within a range of from 0.05 to 0.1 parts by mass per 100 parts by mass of the alicyclic epoxy compound (A) and the polyol compound (B) in total, and wherein the polyol compound (B) has a number average molecular weight within a range of from 200 to 100,000 g/mol measured as described in the description and a hydroxyl group value within a range of from 190 to 550 KOH mg/g.
A chattering detection method for a cold rolling mill, the method comprising: a measuring step (S1) of measuring a vibration of a cold rolling mill; and a calculating step (S2) of calculating a time waveform of vibration intensity by performing frequency analysis on a time waveform of the vibration measured at the measuring step for a predetermined period equal to or shorter than a time in which a periodic vibration continues without converging; characterized by a sign vibration determining step (S3) of detecting a chattering sign vibration of the cold rolling mill based on a number of points having vibration intensity values that exceed a predetermined threshold, the points being included in the time waveform of the vibration intensity calculated at the calculating step. a measuring step (S1) of measuring a vibration of a cold rolling mill; and a calculating step (S2) of calculating a time waveform of vibration intensity by performing frequency analysis on a time waveform of the vibration measured at the measuring step for a predetermined period equal to or shorter than a time in which a periodic vibration continues without converging; characterized by a sign vibration determining step (S3) of detecting a chattering sign vibration of the cold rolling mill based on a number of points having vibration intensity values that exceed a predetermined threshold, the points being included in the time waveform of the vibration intensity calculated at the calculating step.
Method for controlling the positioning of an oscillation-sensitive platform , which is provided with a target-tracking device and can be pivoted about three spatial axes, comprising the steps of: a) determining the current positioning of the platform ; b) determining a deviation of the current positioning from a desired positioning for the platform , in which a target detection device provided on the platform is aimed at a target (T) located at a target position (P T ) ; c) reconstructing the absolute target position (P T ) of the target (T) from the current positioning of the platform determined in step a) and the deviation determined in step b); d) estimating a movement trajectory of the target (T) using a filter , the filter being a Kalman filter; e) generating an operating command using a control device , which has a tracking regulator , for the platform , so as to approach the desired positioning on the basis of the deviation determined in step b) and of the movement trajectory estimated in step d); f) applying the operating command generated in step e) to a movement device for the platform ; g) characterised in that oscillations in the deviation determined in step b) are determined by means of the filter , and if any oscillations occur filter parameters and/or amplification factors are adapted in the tracking regulator , oscillations being detected by evaluating the squared innovation sequence of the filter , the innovation sequence specifying a deviation between a measured value and an estimated value which is calculated using an underlying system model. a) determining the current positioning of the platform ; b) determining a deviation of the current positioning from a desired positioning for the platform , in which a target detection device provided on the platform is aimed at a target (T) located at a target position (P T ) ; c) reconstructing the absolute target position (P T ) of the target (T) from the current positioning of the platform determined in step a) and the deviation determined in step b); d) estimating a movement trajectory of the target (T) using a filter , the filter being a Kalman filter; e) generating an operating command using a control device , which has a tracking regulator , for the platform , so as to approach the desired positioning on the basis of the deviation determined in step b) and of the movement trajectory estimated in step d); f) applying the operating command generated in step e) to a movement device for the platform ; g) characterised in that oscillations in the deviation determined in step b) are determined by means of the filter , and if any oscillations occur filter parameters and/or amplification factors are adapted in the tracking regulator , oscillations being detected by evaluating the squared innovation sequence of the filter , the innovation sequence specifying a deviation between a measured value and an estimated value which is calculated using an underlying system model.
A compound comprising - a first polypeptide sequence comprising the structure A1 - x - A2 - y - A3, wherein A1 comprises an amino acid sequence as set forth in SEQ ID NO: 1, A2 comprises an amino acid sequence as set forth in SEQ ID NO: 2, A3 comprises an amino acid sequence as set forth in SEQ ID NO: 3, x, y are >=0 linking amino acids; - a second polypeptide sequence comprising the structure A4 - x - A5 - y - A6, wherein A4 comprises an amino acid sequence as set forth in SEQ ID NO: 4, A5 comprises an amino acid sequence as set forth in SEQ ID NO: 5, A6 comprises an amino acid sequence as set forth in SEQ ID NO: 6, x, y are >=0 linking amino acids, wherein said compound binds to tumour-associated mucin 1 (TA-MUC1). - a first polypeptide sequence comprising the structure A1 - x - A2 - y - A3, wherein A1 comprises an amino acid sequence as set forth in SEQ ID NO: 1, A2 comprises an amino acid sequence as set forth in SEQ ID NO: 2, A3 comprises an amino acid sequence as set forth in SEQ ID NO: 3, x, y are >=0 linking amino acids; A1 comprises an amino acid sequence as set forth in SEQ ID NO: 1, A2 comprises an amino acid sequence as set forth in SEQ ID NO: 2, A3 comprises an amino acid sequence as set forth in SEQ ID NO: 3, x, y are >=0 linking amino acids; - a second polypeptide sequence comprising the structure A4 - x - A5 - y - A6, wherein A4 comprises an amino acid sequence as set forth in SEQ ID NO: 4, A5 comprises an amino acid sequence as set forth in SEQ ID NO: 5, A6 comprises an amino acid sequence as set forth in SEQ ID NO: 6, x, y are >=0 linking amino acids, A4 comprises an amino acid sequence as set forth in SEQ ID NO: 4, A5 comprises an amino acid sequence as set forth in SEQ ID NO: 5, A6 comprises an amino acid sequence as set forth in SEQ ID NO: 6, x, y are >=0 linking amino acids,
A filter, comprising: a porous membrane having a plurality of nanochannels formed therein, wherein the nanochannels include an oxide surface and have a first diameter; and a self assembled film of functionalized nanoparticles, wherein the self assembled film is a single monolayer of the functionalized nanoparticles coating the internal surface of the nanochannel from the inlet opening of the nanochannel to the outlet opening of the nanochannel, wherein the functionalized nanoparticles comprise a metal nanoparticle and an organic ligand disposed thereon having at least one functional group reactive with the oxide surface, wherein the self assembled film decreases the first diameter to a second diameter, wherein: the first diameter is between about 10 nm and 200 nm; and the particle sizes of the nanoparticles range from about 2 nm to 20 nm. a porous membrane having a plurality of nanochannels formed therein, wherein the nanochannels include an oxide surface and have a first diameter; and a self assembled film of functionalized nanoparticles, wherein the self assembled film is a single monolayer of the functionalized nanoparticles coating the internal surface of the nanochannel from the inlet opening of the nanochannel to the outlet opening of the nanochannel, wherein the functionalized nanoparticles comprise a metal nanoparticle and an organic ligand disposed thereon having at least one functional group reactive with the oxide surface, wherein the self assembled film decreases the first diameter to a second diameter, wherein: the first diameter is between about 10 nm and 200 nm; and the particle sizes of the nanoparticles range from about 2 nm to 20 nm. the first diameter is between about 10 nm and 200 nm; and the particle sizes of the nanoparticles range from about 2 nm to 20 nm.
Connection arrangement with - a metallic terminal and - a metallic flat conductor having - an at least quadrangular cross-sectional profile and at least two opposing surfaces running, at least in one connection region, parallel to one another in the longitudinal direction, - a first through-opening between the surfaces in the connection region, the first through-opening being formed to receive a bolt, - at least one second through-opening between the surfaces in the connection region, the second through-opening being formed to receive the metallic terminal , wherein - the terminal is formed as a flat part and lies flat with a contact surface against one of the surfaces of the flat conductor in the connection region, wherein - the terminal has a first through-recess , which is arranged in alignment with the first through-opening , - the terminal has at least one projection projecting from the contact surface of the terminal , and - the projection is arranged in the second through-opening , characterized in that - the at least one projection , starting from the contact surface , has a longitudinal extent which is equal to the distance between the surfaces of the flat conductor in the connection region, - the terminal is materially bonded to the flat conductor with at least the contact surface . - a metallic terminal and - a metallic flat conductor having - an at least quadrangular cross-sectional profile and at least two opposing surfaces running, at least in one connection region, parallel to one another in the longitudinal direction, - a first through-opening between the surfaces in the connection region, the first through-opening being formed to receive a bolt, - at least one second through-opening between the surfaces in the connection region, the second through-opening being formed to receive the metallic terminal , wherein - the terminal is formed as a flat part and lies flat with a contact surface against one of the surfaces of the flat conductor in the connection region, wherein - the terminal has a first through-recess , which is arranged in alignment with the first through-opening , - the terminal has at least one projection projecting from the contact surface of the terminal , and - the projection is arranged in the second through-opening , characterized in that - the at least one projection , starting from the contact surface , has a longitudinal extent which is equal to the distance between the surfaces of the flat conductor in the connection region, - the terminal is materially bonded to the flat conductor with at least the contact surface .
A process comprising the steps of: (a) heating to 30 - 70°C a compound of formula (II) in the presence of hydrogen gas, a base and a homogeneous ruthenium catalyst resulting in a compound of formula (III) (b) followed by increasing the temperature up to 100 - 150°C, resulting in a compound of formula (I) wherein R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 is methyl, or ethyl; R 4 is hydrogen or methyl; and R is a linear or branched C 3 - C 10 alkyl comprising at least one non-terminal carbon-to-carbon double bond. (a) heating to 30 - 70°C a compound of formula (II) in the presence of hydrogen gas, a base and a homogeneous ruthenium catalyst resulting in a compound of formula (III) (b) followed by increasing the temperature up to 100 - 150°C, resulting in a compound of formula (I) wherein R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 is methyl, or ethyl; R 4 is hydrogen or methyl; and R is a linear or branched C 3 - C 10 alkyl comprising at least one non-terminal carbon-to-carbon double bond. R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 is methyl, or ethyl; R 4 is hydrogen or methyl; and R is a linear or branched C 3 - C 10 alkyl comprising at least one non-terminal carbon-to-carbon double bond.
An imaging device, comprising: a plurality of pixel sharing units, each of the plurality of pixel sharing units including: 8 photodiodes arranged in a 2 ∗ 4 matrix; a floating diffusion connected to the 8 photodiodes ; a reset transistor , a source electrode of the reset transistor connected to the floating diffusion ; an amplification transistor , a gate electrode of the amplification transistor connected to the floating diffusion ; and a selection transistor , a drain electrode of the selection transistor connected to a source electrode of the amplification transistor ; wherein the reset transistor , the amplification transistor and the selection transistor are arranged adjacent to a side of 4 photodiodes of the 8 photodiodes, the 4 photodiodes arranged in one direction. a plurality of pixel sharing units, each of the plurality of pixel sharing units including: 8 photodiodes arranged in a 2 ∗ 4 matrix; a floating diffusion connected to the 8 photodiodes ; a reset transistor , a source electrode of the reset transistor connected to the floating diffusion ; an amplification transistor , a gate electrode of the amplification transistor connected to the floating diffusion ; and a selection transistor , a drain electrode of the selection transistor connected to a source electrode of the amplification transistor ; 8 photodiodes arranged in a 2 ∗ 4 matrix; a floating diffusion connected to the 8 photodiodes ; a reset transistor , a source electrode of the reset transistor connected to the floating diffusion ; an amplification transistor , a gate electrode of the amplification transistor connected to the floating diffusion ; and a selection transistor , a drain electrode of the selection transistor connected to a source electrode of the amplification transistor ; wherein the reset transistor , the amplification transistor and the selection transistor are arranged adjacent to a side of 4 photodiodes of the 8 photodiodes, the 4 photodiodes arranged in one direction.
A LIDAR system which is configured to illuminate a target with an illumination pulse (I ill ) and to recover a signal pulse (Is) which is from a reflection of the illumination pulse on the target, the illumination and signal pulses having the same signal frequency (ω s ), the LIDAR system comprising: - a single laser source (LS) which is configured to generate an emission/detection signal (Sed) with a repetition frequency f, the emission/detection signal comprising a first pulse (I1) which is intended to generate the illumination pulse and having a first frequency (ω p1 ), then a second pulse (I2) which is separated temporally from the first pulse by a separation time (Δτ) and which has a second frequency (ω p2 ), - a first frequency conversion device (FC-up) which is configured to generate a converted pulse (Ic) from the signal pulse (Is) and the second pulse (I2) by a non-linear frequency summing method, the converted pulse having a converted frequency (ω c ) which is equal to the sum of the signal frequency (ω s ) and the second frequency (ω p2 ). - a single laser source (LS) which is configured to generate an emission/detection signal (Sed) with a repetition frequency f, the emission/detection signal comprising a first pulse (I1) which is intended to generate the illumination pulse and having a first frequency (ω p1 ), then a second pulse (I2) which is separated temporally from the first pulse by a separation time (Δτ) and which has a second frequency (ω p2 ), - a first frequency conversion device (FC-up) which is configured to generate a converted pulse (Ic) from the signal pulse (Is) and the second pulse (I2) by a non-linear frequency summing method, the converted pulse having a converted frequency (ω c ) which is equal to the sum of the signal frequency (ω s ) and the second frequency (ω p2 ).
A cellular solid material comprising at least 50 wt% cellulose nanofibers (CNF) and 0.2 - 5 wt% of a surfactant, as calculated on the total weight of the cellular solid material, wherein: a) the surfactant is anionic; b) the material has a density of less than 500 kg/m 3 ; and c) at least 50% of the cells of the material have a diameter of at least 10 μm. a) the surfactant is anionic; b) the material has a density of less than 500 kg/m 3 ; and c) at least 50% of the cells of the material have a diameter of at least 10 μm.
A transfer molding assembly , comprising: a die including a molding cavity interconnected with a reservoir ; a heater operable to heat the die ; a load plate configured to move under its own weight to transfer material from the reservoir into the molding cavity ; and said assembly including a control rod , and including an injection ram configured to translate along the reservoir under the weight of the load plate , the control rod configured to support the load plate above the injection ram before the heater softens the control rod . a die including a molding cavity interconnected with a reservoir ; a heater operable to heat the die ; a load plate configured to move under its own weight to transfer material from the reservoir into the molding cavity ; and said assembly including a control rod , and including an injection ram configured to translate along the reservoir under the weight of the load plate , the control rod configured to support the load plate above the injection ram before the heater softens the control rod .
An implantable medical device for treating reflux disease in a human patient, the implantable medical device comprising a movement restriction device having an outer surface including a biocompatible material, wherein the movement restriction device has a volume of at least 125 mm3, and a circumference of at least 15 mm, and is adapted to be at least partially invaginated by the stomach wall of the patient, without restricting the food passage in the food passageway when implanted and in function, such that movement of the cardiac notch of the patient's stomach towards the patient's diaphragm is restricted, thereby preventing the cardia from sliding through the patient's diaphragm opening into the patient's thorax, characterized in that the implantable medical device comprises a holding device, wherein the holding device is at least partly placed inside the outer wall of the implantable medical device.