mhurhangee/patent-ind-claim-en huggingface dataset:
A sliding shutter system for a window, door or French window comprising a preassembled assembly integrating a frame and at least one sliding panel , with the frame comprising at least one side upright extended at the top by a crosspiece , the upright comprising arrangements for mounting it to a wall next to an opening and the panel being mounted to the frame with a sliding ability to assume a closed position, characterised in that the panel, in the closed position, covers and masks the complete frame , and wherein the panel is mounted to the frame with the ability to allow the panel to slide to assume an open position in which the panel is designed to liberate the opening while masking the upright , and an installation position in which the panel slides to disclose the arrangements of the upright and allow the frame to be fastened to a wall.
A computer system comprising: at least one display device; one or more cameras; one or more processors communicatively coupled with the one or more cameras and the at least one display device; and one or more machine-accessible storage media coupled with the one or more processors, wherein the one or more processors are to execute instructions stored by the one or more machine-accessible storage media to: analyze code for a web page to be displayed by a web browser application to identify one or more actionable areas within the webpage; display a selection box to enable a user to select types of actionable areas to be viewed; capture a first gesture comprising a number of fingers held up by the user; generate icons to be displayed on the webpage, the icons to indicate positions of actionable areas within the webpage, said actionable areas having a type corresponding to the number of fingers; identify, from a motion data stream generated by the one or more cameras, a second gesture performed by a user; and cause performance of an action of the actionable area when the second gesture is determined to be a gesture for selection of the icon. at least one display device; one or more cameras; one or more processors communicatively coupled with the one or more cameras and the at least one display device; and one or more machine-accessible storage media coupled with the one or more processors, wherein the one or more processors are to execute instructions stored by the one or more machine-accessible storage media to: analyze code for a web page to be displayed by a web browser application to identify one or more actionable areas within the webpage; display a selection box to enable a user to select types of actionable areas to be viewed; capture a first gesture comprising a number of fingers held up by the user; generate icons to be displayed on the webpage, the icons to indicate positions of actionable areas within the webpage, said actionable areas having a type corresponding to the number of fingers; identify, from a motion data stream generated by the one or more cameras, a second gesture performed by a user; and cause performance of an action of the actionable area when the second gesture is determined to be a gesture for selection of the icon. analyze code for a web page to be displayed by a web browser application to identify one or more actionable areas within the webpage; display a selection box to enable a user to select types of actionable areas to be viewed; capture a first gesture comprising a number of fingers held up by the user; generate icons to be displayed on the webpage, the icons to indicate positions of actionable areas within the webpage, said actionable areas having a type corresponding to the number of fingers; identify, from a motion data stream generated by the one or more cameras, a second gesture performed by a user; and cause performance of an action of the actionable area when the second gesture is determined to be a gesture for selection of the icon.
Method for monitoring the integrity of a wire cable of a wire cable assembly , wherein - the wire cable is moved past a sensor device (S1), - a sensor signal characterizing a magnetic interaction between the sensor device and the wire cable moved past the sensor device is generated (S2) with the aid of the sensor device , and - a measure of the integrity of the wire cable is determined (S3) on the basis of the generated sensor signal, wherein the movement of the wire cable is generated (S1) during normal operation of the wire cable assembly , characterized in that the wire cable is moved past the sensor device , which is provided as a sheave (6; 6c) or cable drum or is integrated into a sheave or a cable drum, in a curved manner, the generated sensor signal being assigned to the position of the wire cable relative to the sensor device detected by a position encoder of the sheave or cable drum, and the measure of the integrity of the wire cable being determined on the basis of this assignment. - the wire cable is moved past a sensor device (S1), - a sensor signal characterizing a magnetic interaction between the sensor device and the wire cable moved past the sensor device is generated (S2) with the aid of the sensor device , and - a measure of the integrity of the wire cable is determined (S3) on the basis of the generated sensor signal, wherein the movement of the wire cable is generated (S1) during normal operation of the wire cable assembly ,
A method of producing a conductive copper coating on a substrate, the method comprising: coating a substrate with a copper-based ink comprising copper hydroxide and diethanolamine, wherein the copper hydroxide and diethanolamine form a complex in the ink and are in a molar ratio of about 1:2.5 to about 1:3.5; and, decomposing the ink on the substrate to form a conductive copper coating on the substrate. coating a substrate with a copper-based ink comprising copper hydroxide and diethanolamine, wherein the copper hydroxide and diethanolamine form a complex in the ink and are in a molar ratio of about 1:2.5 to about 1:3.5; and, decomposing the ink on the substrate to form a conductive copper coating on the substrate.
Device for deflecting push chains with laterally projecting bolts comprising a guide , which consists of at least two guide inserts, which consist of a first side wall and a second side wall , between which the push chain is guided and in which a first deflecting track and a second deflecting track are formed, wherein the deflecting tracks each have a straight inlet or outlet section and a straight inlet or outlet section oriented at an angle thereto, between which a curve section , respectively, is located, characterised in that the course of the first deflecting track in the first side wall is different from the course of the second deflecting track in the second side wall .
A mitral valve prosthesis configured to be implanted at a native mitral valve of a heart , the native mitral valve having native mitral valve leaflets, the mitral valve prosthesis comprising: an expandable valve frame ; and a plurality of arms each connected to the valve frame at or near a first end of the valve frame , the plurality of arms configured to extend around the native mitral valve leaflets; wherein a first arm from among the plurality of arms has a shape that is different from a shape of each of the other arms of the plurality of arms , wherein the mitral valve prosthesis further comprises an anchoring device comprising a coil that defines an inner space for holding the valve frame , wherein the first arm is configured to guide the anchoring device around the native mitral valve leaflets and the valve frame and the anchoring device is configured to be positioned between the plurality of arms and the valve frame in a radial direction relative to a central axis of the valve frame . an expandable valve frame ; and a plurality of arms each connected to the valve frame at or near a first end of the valve frame , the plurality of arms configured to extend around the native mitral valve leaflets; wherein a first arm from among the plurality of arms has a shape that is different from a shape of each of the other arms of the plurality of arms , wherein the mitral valve prosthesis further comprises an anchoring device comprising a coil that defines an inner space for holding the valve frame , wherein the first arm is configured to guide the anchoring device around the native mitral valve leaflets and the valve frame and the anchoring device is configured to be positioned between the plurality of arms and the valve frame in a radial direction relative to a central axis of the valve frame .
Method for producing solid-body layers , in particular for use as wafers, having the following steps: providing a workpiece for detaching the solid-body layers , wherein the material proportions of the workpiece that form the solid-body layers are disposed one on top of another before detachment in the longitudinal direction of the workpiece , and wherein the workpiece has at least one exposed surface, generating defects within the workpiece by means of a defect generation device, wherein the defect generation device is a laser, wherein the defects are generated in a crack progression layer , wherein the crack progression layer is generated with an inclination with respect to the longitudinal axis of the workpiece , wherein the crack progression layer and the longitudinal axis are aligned at an angle in relation to one another which differs from 90°, wherein the defects are generated by means of laser radiation from the laser, wherein the laser radiation penetrates the solid body via the exposed surface of the solid-body layer , wherein the exposed surface is a constituent part of the solid-body layer that is to be separated, applying or generating an acceptor layer to or on the exposed surface of the workpiece with formation of a composite structure, controlling the temperature of the acceptor layer to generate stresses within the workpiece , wherein the stresses bring about crack propagation within the workpiece , wherein the crack propagation causes separation of a solid-body layer from the workpiece along the crack progression layer . providing a workpiece for detaching the solid-body layers , wherein the material proportions of the workpiece that form the solid-body layers are disposed one on top of another before detachment in the longitudinal direction of the workpiece , and wherein the workpiece has at least one exposed surface, generating defects within the workpiece by means of a defect generation device, wherein the defect generation device is a laser, wherein the defects are generated in a crack progression layer , wherein the crack progression layer is generated with an inclination with respect to the longitudinal axis of the workpiece , wherein the crack progression layer and the longitudinal axis are aligned at an angle in relation to one another which differs from 90°, wherein the defects are generated by means of laser radiation from the laser, wherein the laser radiation penetrates the solid body via the exposed surface of the solid-body layer , wherein the exposed surface is a constituent part of the solid-body layer that is to be separated, applying or generating an acceptor layer to or on the exposed surface of the workpiece with formation of a composite structure, controlling the temperature of the acceptor layer to generate stresses within the workpiece , wherein the stresses bring about crack propagation within the workpiece , wherein the crack propagation causes separation of a solid-body layer from the workpiece along the crack progression layer .
Wind turbine facility having radial turbines and a generator , two radial turbines which are aligned one next to the other and in parallel and which each have a vertical rotor shaft being arranged, which turbines are connected to one another and are pivotable about a pivot axis in parallel with the rotor shafts , the pivot axis and a V-shaped wind distributor being arranged outside the connecting line of the rotor shafts and both on the same side of the connecting line, the generator being mechanically connected to the rotor shafts via a gear , and it being possible for the same generator to be driven by both rotor shafts , characterized in that the generator can be driven via drive shafts , in that decouplers are provided between the rotor shafts and the generator , which decouplers release the connection in the event of overload, in that a control means is provided and the control means triggers the decouplers in the event of overload, in that when defined parameters are reached, the control means generates a predefined torque by loading the generator , which torque triggers the decouplers and separates the rotor shafts from the generator , in that a mechanical brake having a brake disc and a brake caliper (4.1) is provided, in that the control means is designed such that in the event of an overload of the generator , the control means dissipates the excess energy by electrical braking and, if this is not sufficient, activates the mechanical brake and, if this is also not sufficient and a predefined torque is achieved at one of the decouplers , activates the decoupler in order to separate the generator from the energy supply through the shaft .
A method for regulating biosynthesis of at least one C7 building block chosen from pimelic acid, 7-aminoheptanoic acid, 7-hydroxyheptanoic acid, heptamethylenediamine, 7-aminoheptanol and 1,7-heptanediol in a recombinant host by fermentation using a pathway having a pimeloyl-ACP intermediate, said method comprising the step of downregulating the activity of BioF; and the step of overexpressing BioW and a CoA-specific BioF; wherein said BioW enzymatically converts pimelic acid to pimeloyl-CoA and wherein said BioW is a pimeloyl-CoA ligase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 18; and wherein said CoA-specific BioF enzymatically converts pimeloyl-CoA to 8-amino-7-oxo-nonanoic acid and wherein said CoA-specific BioF is a 8-amino-7-oxononanoate synthase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 19; wherein the recombinant host is a prokaryote chosen from the genii Escherichia, Clostridia, Corynebacteria, Cupriavidus, Pseudomonas, Dwelftia acidovorans, Bacillus, Lactobacillus, Lactococcus, or Rhodococcus or wherein the recombinant host is a eukaryote chosen from the genii Aspergillus, Saccharomyces,Pichia, Yarrowia, Issatchenkia, Debaryomyces, Arxula, or Kluyveromyces; and wherein the downregulation of the activity of BioF occurs through one or more of transposons, homologous recombination (double cross-over approach), mutagenesis, enzyme inhibitors and RNA interference (RNAi). the step of downregulating the activity of BioF; and the step of overexpressing BioW and a CoA-specific BioF; wherein said BioW enzymatically converts pimelic acid to pimeloyl-CoA and wherein said BioW is a pimeloyl-CoA ligase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 18; and wherein said CoA-specific BioF enzymatically converts pimeloyl-CoA to 8-amino-7-oxo-nonanoic acid and wherein said CoA-specific BioF is a 8-amino-7-oxononanoate synthase having at least 70% sequence identity or homology to the amino acid sequence set forth in SEQ ID NO: 19; wherein the recombinant host is a prokaryote chosen from the genii Escherichia, Clostridia, Corynebacteria, Cupriavidus, Pseudomonas, Dwelftia acidovorans, Bacillus, Lactobacillus, Lactococcus, or Rhodococcus or wherein the recombinant host is a eukaryote chosen from the genii Aspergillus, Saccharomyces,Pichia, Yarrowia, Issatchenkia, Debaryomyces, Arxula, or Kluyveromyces; and wherein the downregulation of the activity of BioF occurs through one or more of transposons, homologous recombination (double cross-over approach), mutagenesis, enzyme inhibitors and RNA interference (RNAi).
A system to create periodic pulse sequences with defined absolute phase, the system comprising a phase coherent analyzer and a pulse generator , the phase coherent analyzer and the pulse generator being connected with each other, the pulse generator having a clock input connected to the analyzer for receiving a clock signal from the analyzer , the system comprising a trigger line via which a marker signal is provided to at least one of the analyzer and the pulse generator , the marker signal temporally aligning an output signal of the pulse generator with a measurement process of the analyzer .
A method for guiding a user to obtain an eardrum standard image, comprising: providing an otoscope including an imaging module, a computing module, and a viewing module; showing on the viewing module a circle sight to assist the user in capturing an eardrum image using the imaging module; the computing module determining an eardrum region in the eardrum image, and calculating a percentage of area of overlap of the circle sight with the eardrum region; if the percentage is higher than a first pre-determined value, showing a first sign on the viewing module to inform the user; and if the percentage is lower than a second pre-determined value, showing a second sign on the viewing module to guide the user to move the otoscope toward a specific direction. providing an otoscope including an imaging module, a computing module, and a viewing module; showing on the viewing module a circle sight to assist the user in capturing an eardrum image using the imaging module; the computing module determining an eardrum region in the eardrum image, and calculating a percentage of area of overlap of the circle sight with the eardrum region; if the percentage is higher than a first pre-determined value, showing a first sign on the viewing module to inform the user; and if the percentage is lower than a second pre-determined value, showing a second sign on the viewing module to guide the user to move the otoscope toward a specific direction.
A vacuum cleaner including a suction portion configured to suck foreign materials on a surface to be cleaned, wherein the suction portion comprises: a case having an air hole formed on a flow path; a frame accommodated in the case , and configured to open or close the air hole , and a button mounted on the case , and configured to be operated to move the frame , wherein an interference rib protrudes from the button , and a sliding portion contacting the interference rib is provided in the case , characterized in that the the sliding portion comprises a first sliding portion extending in one direction and a second sliding portion bent downward from the first sliding portion , and wherein when the button is pressed, the interference rib is configured to move in one direction or in the other direction along the sliding portion , and to move upward and downward based on the change in height (h) between the first sliding portion and the second sliding portion to move the frame . a case having an air hole formed on a flow path; a frame accommodated in the case , and configured to open or close the air hole , and a button mounted on the case , and configured to be operated to move the frame , wherein an interference rib protrudes from the button , and a sliding portion contacting the interference rib is provided in the case , characterized in that the the sliding portion comprises a first sliding portion extending in one direction and a second sliding portion bent downward from the first sliding portion , and wherein when the button is pressed, the interference rib is configured to move in one direction or in the other direction along the sliding portion , and to move upward and downward based on the change in height (h) between the first sliding portion and the second sliding portion to move the frame .
A method for mitigating the effects of coil collapse on hot strip mill coils without the insertion of mechanical means into the coil eye to limit sagging, the method comprising the steps of: producing a hot rolled steel sheet in a hot strip mill; forming a hot strip coil by coiling said hot rolled steel sheet around a mandrel on a downcoiler; orienting said hot strip coil such that the coil eye axis thereof is in the horizontal direction; removing said hot strip coil from said mandrel/downcoiler; pre-sagging said hot strip coil to create an initial sag by allowing gravity cause the coil to sag in a first specific direction for a first period of time, causing the coil to become pre-sagged; without inserting a mechanical means into the coil eye to limit sagging, modifying the direction of the sag caused by the force of gravity to a direction perpendicular to said first specific direction and allowing gravity to sag said coil in said modified direction for a second period of time; wherein said first period of time and said second period of time are chosen such that said initial sag created during said first period of time is substantially mitigated by said perpendicular sag during said second period of time; and said hot strip coil is cooled enough by the end of said second period of time such that the rate of sagging of said hot strip coil has become negligible. producing a hot rolled steel sheet in a hot strip mill; forming a hot strip coil by coiling said hot rolled steel sheet around a mandrel on a downcoiler; orienting said hot strip coil such that the coil eye axis thereof is in the horizontal direction; removing said hot strip coil from said mandrel/downcoiler; pre-sagging said hot strip coil to create an initial sag by allowing gravity cause the coil to sag in a first specific direction for a first period of time, causing the coil to become pre-sagged; without inserting a mechanical means into the coil eye to limit sagging, modifying the direction of the sag caused by the force of gravity to a direction perpendicular to said first specific direction and allowing gravity to sag said coil in said modified direction for a second period of time; wherein said first period of time and said second period of time are chosen such that said initial sag created during said first period of time is substantially mitigated by said perpendicular sag during said second period of time; and said hot strip coil is cooled enough by the end of said second period of time such that the rate of sagging of said hot strip coil has become negligible.