mhurhangee/patent-ind-claim-en huggingface dataset:
Use of 4-chloroindole-3-acetic acid (4Cl-IAA) in the form of a potassium salt, a sodium salt or an amine salt to selectively eradicate at least one weed selected from the group consisting of burdock, thistle, hawkweed, autumn hawkbit, lupulin, dandelion, plantain, potentilla, clover and coltsfoot.
A liquid system tool comprising a current circuit having a power input for receiving an alternating electrical current, AC, a rectifier for rectifying the AC into a direct current, DC, a voltage booster for increasing a DC voltage and a motor unit connected to an output of the voltage booster for driving the liquid system tool, the liquid system tool having an integrated residual current device, RCD, for protecting an operator of the liquid system tool against hazardous ground fault currents, characterized by the RCD comprising: a sensor element (105, 205, 302, 403a-e) connected to an output of the rectifier and an input of the voltage booster , the sensor element being configured to collect an analog current signal, an analog to digital, A/D, converter configured to convert the analog current signal into a digital current signal; and a logic unit connected to the A/D converter , wherein the logic unit is configured to evaluate the digital current signal and compare it to a current requirement, and wherein if the logic unit determines that the digital current signal does not fulfill the current requirement, it is further configured to break the current circuit so that no current can flow in the liquid system tool. a sensor element (105, 205, 302, 403a-e) connected to an output of the rectifier and an input of the voltage booster , the sensor element being configured to collect an analog current signal, an analog to digital, A/D, converter configured to convert the analog current signal into a digital current signal; and a logic unit connected to the A/D converter , wherein the logic unit is configured to evaluate the digital current signal and compare it to a current requirement, and wherein if the logic unit determines that the digital current signal does not fulfill the current requirement, it is further configured to break the current circuit so that no current can flow in the liquid system tool.
An apparatus , comprising: a computing device ; and a wristband coupled to the computing device, the wristband comprising: a movable carriage , movable within the wristband toward a charging device, the movable carriage having a charging coil to wirelessly receive power from the charging device when the movable carriage is within a threshold distance from the charging device; and a connector device to send the power to the computing device a computing device ; and a wristband coupled to the computing device, the wristband comprising: a movable carriage , movable within the wristband toward a charging device, the movable carriage having a charging coil to wirelessly receive power from the charging device when the movable carriage is within a threshold distance from the charging device; and a connector device to send the power to the computing device
A diaphragm for alkaline water electrolysis, comprising: magnesium hydroxide having an average particle size of 0.05 to 2.0 μm; and an organic polymer resin, characterized in that the organic polymer resin is at least one selected from the group consisting of polysulfone, polyethersulfone, and polyphenylsulfone and a crystallite size of the magnesium hydroxide in the direction perpendicular to the plane determined by X-ray diffraction of 35 nm or greater. magnesium hydroxide having an average particle size of 0.05 to 2.0 μm; and an organic polymer resin, characterized in that the organic polymer resin is at least one selected from the group consisting of polysulfone, polyethersulfone, and polyphenylsulfone and a crystallite size of the magnesium hydroxide in the direction perpendicular to the plane determined by X-ray diffraction of 35 nm or greater.
A bubble column for catalytic ozonation with a thin-film heterogeneous catalyst, intended for a wastewater treatment process by catalytic ozonation, especially textile wastewater, in a form of a vertically positioned pipe section closed at a top with a cover connected by a pipe union to walls of the column, wherein at a bottom of the column connected by a pipe union to the walls of the column, a diffuser for supplying ozone is mounted, said bubble column comprising a packing in a form of an oxide catalyst deposited on a solid substrate, characterized in that the bubble column further comprises a packing in a form of trays arranged perpendicular to a vertical column axis, wherein each of said trays being a circular metal knitted mesh made of wire with a thickness of at least 0.05 mm, coated with a catalyst layer with a thickness of not more than 2 μm comprising a metal oxide, with a mesh diameter not less than 3 mm, wherein edges of said circular metal knitted mesh are fixed between two rings with an external diameter adapted to the internal diameter (D) of the column of at least 40 mm, said rings being placed one on top of the other and connected with a pipe union, wherein the maximum number of the trays is determined with the formula 0.85 ⋅ L l wherein L is the column height, l is the distance between the trays , and l is equal to 70 x the diameter of an ozone bubble used in the ozonation process, and wherein an upper tray is suspended on chains , upper ends of which are suspended on hooks attached to the cover , whereas lower ends of the chains are connected to hooks mounted in an upper ring of the upper tray , while the remaining trays are suspended on the chains , the upper ends of which are suspended on hooks attached to lower rings of the trays located above, and the lower ends of the chains are connected to hooks attached to the upper rings of the trays suspended on said chains . L is the column height, l is the distance between the trays , and l is equal to 70 x the diameter of an ozone bubble used in the ozonation process, and wherein an upper tray is suspended on chains , upper ends of which are suspended on hooks attached to the cover , whereas lower ends of the chains are connected to hooks mounted in an upper ring of the upper tray , while the remaining trays are suspended on the chains , the upper ends of which are suspended on hooks attached to lower rings of the trays located above, and the lower ends of the chains are connected to hooks attached to the upper rings of the trays suspended on said chains .
A method of rendering a light effect in a lighting system, wherein the lighting system comprises a plurality of lighting devices, wherein each of said plurality of lighting devices is associated with an own coverage area and is arranged for rendering a light effect within its own coverage area , wherein said plurality of lighting devices in said lighting system are provided such that the corresponding coverage areas associated to the lighting devices are adjacent to each other, wherein each of said plurality of lighting devices is further associated with an own observing area and comprises a camera arranged for observing its own observing area , wherein for each of said plurality of lighting devices the respective observing area covers at least its corresponding coverage area and overlaps with a part of the coverage area of at least one adjacent lighting device in said lighting system, said method comprising the steps of: - detecting by the camera of a lighting device of said plurality of lighting devices an incoming light effect within its corresponding observing area , said incoming light effect being rendered by an adjacent lighting device in said lighting system, wherein said adjacent lighting device is one of said plurality of lighting devices whose coverage area is adjacent to the coverage area of said lighting device ; wherein the incoming light effect is a moving light effect with a speed and a trajectory and said step of detecting comprises detecting the direction and the speed of said incoming light effect ; - determining, by said lighting device , that said incoming light effect is to enter the coverage area of said lighting device at a first entry location of said coverage area, wherein said step of determining comprises determining said first entry location by extrapolating the trajectory of the detected incoming light effect ; - taking over, by said lighting device , said incoming light effect , by rendering, by said lighting device a light effect directed to a second entry location of said coverage area . - detecting by the camera of a lighting device of said plurality of lighting devices an incoming light effect within its corresponding observing area , said incoming light effect being rendered by an adjacent lighting device in said lighting system, wherein said adjacent lighting device is one of said plurality of lighting devices whose coverage area is adjacent to the coverage area of said lighting device ; wherein the incoming light effect is a moving light effect with a speed and a trajectory and said step of detecting comprises detecting the direction and the speed of said incoming light effect ; - determining, by said lighting device , that said incoming light effect is to enter the coverage area of said lighting device at a first entry location of said coverage area, wherein said step of determining comprises determining said first entry location by extrapolating the trajectory of the detected incoming light effect ; - taking over, by said lighting device , said incoming light effect , by rendering, by said lighting device a light effect directed to a second entry location of said coverage area .
Sensor assembly for a sensor designed to measure pressure fluctuations in a flowing fluid, particularly to measure pressure fluctuations in a Karman vortex street formed in the flowing fluid, said sensor assembly comprising: - a basin-like diaphragm , particularly at least curved in part, with a first curved surface (111+) and a second curved surface (111#) which is located opposite the first surface, said second surface particularly being at least partially parallel and/or at least partially non-parallel to the first surface (111+); - as well as a sensor tab , particularly in the form of a rod or plate or wedge, said tab extending from the first surface (111+) of the diaphragm; characterized in that the diaphragm is formed in such a way that at least an area of the first surface (111+), which is adjacent to the sensor tab, is convex. - a basin-like diaphragm , particularly at least curved in part, with a first curved surface (111+) and a second curved surface (111#) which is located opposite the first surface, said second surface particularly being at least partially parallel and/or at least partially non-parallel to the first surface (111+); - as well as a sensor tab , particularly in the form of a rod or plate or wedge, said tab extending from the first surface (111+) of the diaphragm; characterized in that the diaphragm is formed in such a way that at least an area of the first surface (111+), which is adjacent to the sensor tab, is convex.
An apparatus for use with a tensioning cable and transverse bolts for causing compression between bone elements , the apparatus comprising: an elongated shaft having: a proximal end , a distal end, and an external surface; a longitudinal inner bore ; a compression slot oriented longitudinally along the elongated shaft and reaching transversely from the external surface to the longitudinal inner bore , wherein the compression slot is configured to allow longitudinal movement of the elongated shaft relative to a first transverse bolt extending through the compression slot into a first bone element ; at least one static fixation aperture configured to accept a second transverse bolt that may be extended at least partially through a second bone element and the static fixation aperture so as to substantially fix the second transverse bolt and the elongated shaft to second bone element ; and a first channel extending longitudinally along the longitudinal inner bore , the first channel being in communication with the compression slot ; characterized in that the apparatus further comprises a second channel , the first channel and the second channel being substantially opposed to one another on either side of the longitudinal inner bore , the channels being recessed into the wall of the elongated shaft along the longitudinal inner bore as grooves, thereby being configured to receive a section of a tensioning cable extending within the elongated shaft radially outward of the longitudinal inner bore . a proximal end , a distal end, and an external surface; a longitudinal inner bore ; a compression slot oriented longitudinally along the elongated shaft and reaching transversely from the external surface to the longitudinal inner bore , wherein the compression slot is configured to allow longitudinal movement of the elongated shaft relative to a first transverse bolt extending through the compression slot into a first bone element ; at least one static fixation aperture configured to accept a second transverse bolt that may be extended at least partially through a second bone element and the static fixation aperture so as to substantially fix the second transverse bolt and the elongated shaft to second bone element ; and a first channel extending longitudinally along the longitudinal inner bore , the first channel being in communication with the compression slot ; characterized in that the apparatus further comprises a second channel , the first channel and the second channel being substantially opposed to one another on either side of the longitudinal inner bore , the channels being recessed into the wall of the elongated shaft along the longitudinal inner bore as grooves, thereby being configured to receive a section of a tensioning cable extending within the elongated shaft radially outward of the longitudinal inner bore .
Dye doped liquid crystal switchable window, comprising a liquid crystal cell, wherein the liquid crystal cell comprises two glass sheets that are each 0.02 mm to 0.7 mm thick, wherein the two glass sheets are bent in one or more directions and wherein the glass sheets are, identically or differently, made from borosilicate glass or aluminosilicate glass, and wherein the dye doped liquid crystal switchable window further comprises a third sheet , wherein the third sheet is made from physically and/or chemically strengthened glass, has a thickness of between 0.7 mm and 8 mm and is positioned on the exterior side of the window.
A stapling assembly for use with a surgical stapler, comprising: a body having a plurality of staples disposed therein, the plurality of staples being configured to be deployed into tissue, and the body having a first end, a second end, and a longitudinal axis extending therebetween; and a three-dimensional compressible adjunct formed from a matrix comprising at least one fused bioabsorbable polymer and configured to be releasably retained on the body such that the adjunct can be attached to tissue by the plurality of staples in the body, the adjunct having a tissue-contacting surface , a body-contacting surface that is opposite the tissue-contacting surface, and an internal structure extending therebetween, wherein voids are present in the tissue-contacting surface and in the internal structure to allow a portion of the tissue to penetrate through the tissue contacting surface and into the internal structure when the adjunct is attached to the tissue by the plurality of staples, and wherein the internal structure includes a plurality of interconnected struts forming interconnected repeating geometric units, the struts defining voids that vertically extend between the tissue-contacting surface and the body-contacting surface, and wherein the voids are configured to enhance staple leg advancement though the internal structure and are interconnected to form a substantially continuous network of openings throughout the adjunct. a body having a plurality of staples disposed therein, the plurality of staples being configured to be deployed into tissue, and the body having a first end, a second end, and a longitudinal axis extending therebetween; and a three-dimensional compressible adjunct formed from a matrix comprising at least one fused bioabsorbable polymer and configured to be releasably retained on the body such that the adjunct can be attached to tissue by the plurality of staples in the body, the adjunct having a tissue-contacting surface , a body-contacting surface that is opposite the tissue-contacting surface, and an internal structure extending therebetween, wherein voids are present in the tissue-contacting surface and in the internal structure to allow a portion of the tissue to penetrate through the tissue contacting surface and into the internal structure when the adjunct is attached to the tissue by the plurality of staples, and wherein the internal structure includes a plurality of interconnected struts forming interconnected repeating geometric units, the struts defining voids that vertically extend between the tissue-contacting surface and the body-contacting surface, and wherein the voids are configured to enhance staple leg advancement though the internal structure and are interconnected to form a substantially continuous network of openings throughout the adjunct.
A medical system comprising: a sheath member ; an image capture device extending through the sheath member and configured to image at least a portion of an anatomical workspace of a patient; a manually operable elongate body operatively coupled to the image capture device , wherein the elongate body extends through the sheath member ; an optical fiber comprising a Bragg grating provided thereon; and a controller operatively coupled to the optical fiber and configured to: receive a signal from the Bragg grating ; and determine one or more position and/or orientation variables of the image capture device based on signals received from the Bragg grating provided on the optical fiber , wherein the optical fiber is further positioned on the image capture device . a sheath member ; an image capture device extending through the sheath member and configured to image at least a portion of an anatomical workspace of a patient; a manually operable elongate body operatively coupled to the image capture device , wherein the elongate body extends through the sheath member ; an optical fiber comprising a Bragg grating provided thereon; and a controller operatively coupled to the optical fiber and configured to: receive a signal from the Bragg grating ; and determine one or more position and/or orientation variables of the image capture device based on signals received from the Bragg grating provided on the optical fiber , wherein the optical fiber is further positioned on the image capture device . receive a signal from the Bragg grating ; and determine one or more position and/or orientation variables of the image capture device based on signals received from the Bragg grating provided on the optical fiber ,
Device for heating or cooling a living space, having a body which can be flowed through by a heat transfer fluid, preferably water, and which comprises a feed line for the introduction of heat transfer fluid into the body and a return line for the discharge of heat transfer fluid out of the body , wherein the device comprises at least one thermoelectric generator with a high-temperature end and a low-temperature end , wherein the at least one thermoelectric generator is connected between the feed line and the return line , wherein the high-temperature end of the thermoelectric generator is in thermal contact with the feed line and the low-temperature end of the thermoelectric generator is in thermal contact with the return line , wherein the at least one thermoelectric generator comprises an electrically positive terminal and an electrically negative terminal , wherein at least one electrical load is connected between the positive terminal and the negative terminal , characterized in that a sensor is used as the at least one electrical load, wherein the sensor comprises a pressure sensor and/or a temperature sensor.
A method of introducing a desired foreign substance from the outside of eukaryotic cells into at least the cytoplasm of the cells in vitro, comprising: a step of preparing a construct for introducing a foreign substance including a carrier peptide fragment composed of any one of the following amino acid sequences: KKRTLRKKKRKKR (SEQ ID NO 1); KKRTLRKRRRKKR (SEQ ID NO 2); KKRTLRKRKRKKR (SEQ ID NO 3); and KKRTLRKKRRKKR (SEQ ID NO 4); and the foreign substance that is bound to an N-terminal side and/or C-terminal side of the carrier peptide fragment; a step of supplying the construct for introducing a foreign substance to a sample containing desired eukaryotic cells; and a step of incubating the sample to which the construct for introducing a foreign substance is supplied and introducing the construct into eukaryotic cells in the sample, wherein the foreign substance is any organic compound selected from the group consisting of a polypeptide, a nucleic acid, a dye and a drug. a step of preparing a construct for introducing a foreign substance including a carrier peptide fragment composed of any one of the following amino acid sequences: KKRTLRKKKRKKR (SEQ ID NO 1); KKRTLRKRRRKKR (SEQ ID NO 2); KKRTLRKRKRKKR (SEQ ID NO 3); and KKRTLRKKRRKKR (SEQ ID NO 4); and the foreign substance that is bound to an N-terminal side and/or C-terminal side of the carrier peptide fragment; KKRTLRKKKRKKR (SEQ ID NO 1); KKRTLRKRRRKKR (SEQ ID NO 2); KKRTLRKRKRKKR (SEQ ID NO 3); and KKRTLRKKRRKKR (SEQ ID NO 4); and a step of supplying the construct for introducing a foreign substance to a sample containing desired eukaryotic cells; and a step of incubating the sample to which the construct for introducing a foreign substance is supplied and introducing the construct into eukaryotic cells in the sample, wherein the foreign substance is any organic compound selected from the group consisting of a polypeptide, a nucleic acid, a dye and a drug.
An ionogel composition comprising: at least one ionic liquid selected from imidazolium ionic liquid, ammonium-based ionic liquids, or mixtures thereof; and at least one unprotected tripeptide as a gelator, wherein the tripeptide is selected from the following list: Lysine-Tyrosine-Phenylalanine, Lysine-Phenylalanine-Phenylalanine, Arginine-Phenylalanine-Phenylalanine, Aspartic acid-Phenylalanine-Tyrosine, and Tyrosine-Phenylalanine-Aspartic acid; or 10-700 mM, preferably 20 - 600 mM, of at least one unprotected tripeptide as a gelator, wherein the unprotected tripeptide comprises at least a phenylalanine. at least one ionic liquid selected from imidazolium ionic liquid, ammonium-based ionic liquids, or mixtures thereof; and at least one unprotected tripeptide as a gelator, wherein the tripeptide is selected from the following list: Lysine-Tyrosine-Phenylalanine, Lysine-Phenylalanine-Phenylalanine, Arginine-Phenylalanine-Phenylalanine, Aspartic acid-Phenylalanine-Tyrosine, and Tyrosine-Phenylalanine-Aspartic acid; or 10-700 mM, preferably 20 - 600 mM, of at least one unprotected tripeptide as a gelator, wherein the unprotected tripeptide comprises at least a phenylalanine.
A process for preparing BCY6136: which comprises reacting compound 8: with compound BCY6099: wherein Sar is sarcosine, HArg is homoarginine and HyP is hydroxyproline.