mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly system for components of a pressurized fluid supply system for an agricultural vehicle, comprising: • a body (500; 700; 800) having at least one fluid duct (520, 520'; 710, 710'; 810) extending therethrough from a first end to a second end, said at least one fluid duct being connectable at the first end to a pressurized fluid supply via a first connection means and having a socket (510, 510'; 720, 720', 820) at the second end; • a detachable component (600, 600'; 650, 650'; 660) connectable in releasable mechanical engagement with the body to receive pressurized fluid from the at least one fluid duct, the releasable mechanical engagement resulting from insertion of at least a portion of the detachable component into the socket and rotation of the same to a locked position; wherein detachable component is an accumulator (600, 600'; 650, 650'; 660) and characterised in that the body is provided with at least one discharge duct (530, 540; 730, 740; 830) extending therethrough from a first end exiting the body to a second end intersecting the socket, wherein in a partially rotated position of the at least a portion of the detachable accumulator within the socket the detachable accumulator remains mechanically attached to the body and the at least one fluid duct and the at least one discharge duct are in fluidic connection, and wherein the locked position comprises a fully rotated position of the at least a portion of the detachable accumulator within the socket in which position the at least a portion of the accumulator blocks the fluidic connection between the at least one fluid duct and the at least one discharge duct. • a body (500; 700; 800) having at least one fluid duct (520, 520'; 710, 710'; 810) extending therethrough from a first end to a second end, said at least one fluid duct being connectable at the first end to a pressurized fluid supply via a first connection means and having a socket (510, 510'; 720, 720', 820) at the second end; • a detachable component (600, 600'; 650, 650'; 660) connectable in releasable mechanical engagement with the body to receive pressurized fluid from the at least one fluid duct, the releasable mechanical engagement resulting from insertion of at least a portion of the detachable component into the socket and rotation of the same to a locked position;
An electronic apparatus comprising: means configured to: perform processing (S301-S307) of detecting a predetermined object in a captured image and tracking the predetermined object, wherein in a case that the predetermined object is moving by an amount that is not less than a predetermined amount, a region in which the predetermined object is detected is displayed in a grid shape (S307), and in a case that the predetermined object is not moving by the amount that is not less than the predetermined amount, the region of the predetermined object is displayed without the grid shape (S306), and perform focus processing (S308-S322) on the region of the predetermined object in response to a shooting preparation instruction (S308), wherein in a case that the predetermined object is moving by the amount that is not less than the predetermined amount, an in-focus region of the predetermined object is displayed in a grid shape (S322), and in a case that the predetermined object is not moving by the amount that is not less than the predetermined amount, the in-focus region of the predetermined object is displayed without the grid shape (S321). perform processing (S301-S307) of detecting a predetermined object in a captured image and tracking the predetermined object, wherein in a case that the predetermined object is moving by an amount that is not less than a predetermined amount, a region in which the predetermined object is detected is displayed in a grid shape (S307), and in a case that the predetermined object is not moving by the amount that is not less than the predetermined amount, the region of the predetermined object is displayed without the grid shape (S306), and perform focus processing (S308-S322) on the region of the predetermined object in response to a shooting preparation instruction (S308), wherein in a case that the predetermined object is moving by the amount that is not less than the predetermined amount, an in-focus region of the predetermined object is displayed in a grid shape (S322), and in a case that the predetermined object is not moving by the amount that is not less than the predetermined amount, the in-focus region of the predetermined object is displayed without the grid shape (S321).
A projection apparatus, comprising: a casing , having a plurality of air inlets (E) and an air outlet (T); a light source module , disposed in the casing, and configured to provide an illumination beam (L1), wherein the light source module comprises a plurality of light sources (S); an optical engine module , disposed in the casing, and located on a transmission path of the illumination beam (L1), and configured to convert the illumination beam (L1) into an image beam (L2); a heat dissipation module , disposed in the casing, and connected to the plurality of light sources (S), wherein the heat dissipation module comprises a plurality of heat sinks (H), and the plurality of heat sinks (H) are located between the optical engine module and the plurality of air inlets (E), respectively; and a projection lens , disposed in the casing, connected to the optical engine module , and configured to project the image beam (L2) out of the casing, wherein the casing comprises a first sidewall and a second sidewall opposite to each other, and a third sidewall and a fourth sidewall opposite to each other and connected to the first sidewall and the second sidewall, characterized in that the air outlet (T) is disposed on the fourth sidewall , and the third sidewall is not configured with an air inlet or air outlet. a casing , having a plurality of air inlets (E) and an air outlet (T); a light source module , disposed in the casing, and configured to provide an illumination beam (L1), wherein the light source module comprises a plurality of light sources (S); an optical engine module , disposed in the casing, and located on a transmission path of the illumination beam (L1), and configured to convert the illumination beam (L1) into an image beam (L2); a heat dissipation module , disposed in the casing, and connected to the plurality of light sources (S), wherein the heat dissipation module comprises a plurality of heat sinks (H), and the plurality of heat sinks (H) are located between the optical engine module and the plurality of air inlets (E), respectively; and a projection lens , disposed in the casing, connected to the optical engine module , and configured to project the image beam (L2) out of the casing, wherein the casing comprises a first sidewall and a second sidewall opposite to each other, and a third sidewall and a fourth sidewall opposite to each other and connected to the first sidewall and the second sidewall, characterized in that the air outlet (T) is disposed on the fourth sidewall , and the third sidewall is not configured with an air inlet or air outlet.
Method for the preparation of oligocarbamates with a defined monomeric sequence of a general formula characterised in that the multistage synthesis is performed in one reaction pot without the necessity for purification between successive reactions, and the synthesis is driven by the addition of fresh portions of the N,N'-disuccinimidyl carbonate activator or a monomer in the form of HO-R 2 -NH 2 aminoalcohol, after complete conversion of the previous step has been confirmed, the method comprising the following steps: i. initiation which comprises the activation of 1 equiv. of alcohol dissolved in dry acetonitrile - a solution of 0.1-1 M with 3-12 equiv. of dry pyridine added - by the addition of an activator, being 1.2-2.1 equiv. of N,N'-disuccinimidyl carbonate, to the mixture and performing the reaction at room temperature until complete activation of alcohol, wherein the R 1 -OH alcohol is an aromatic primary or secondary alcohol not containing free nucleophilic groups in its structure; ii. at least one propagation of the oligomer chain by the addition of a portion of 1-2 equiv. of the first monomer in the form of HO-R 2 -NH 2 aminoalcohol to 1 equiv. of the activated alcohol of step (i.) and performing the reaction until complete conversion of the activated alcohol, and then the addition of a further portion of the activator, being 1.2-2.1 equiv. of N,N'-disuccinimidyl carbonate, to activate the hydroxyl group of the growing macromolecule, wherein the substituent R 2 is selected from the group comprising a linear or branched C3-C8 alkyl and a C3-C8 alkyl having at least one aryl, composed of 3-8 carbon atoms and not containing free nucleophilic groups in its structure; iii. repeating the propagation step until the desired oligocarbamate sequence is achieved. i. initiation which comprises the activation of 1 equiv. of alcohol dissolved in dry acetonitrile - a solution of 0.1-1 M with 3-12 equiv. of dry pyridine added - by the addition of an activator, being 1.2-2.1 equiv. of N,N'-disuccinimidyl carbonate, to the mixture and performing the reaction at room temperature until complete activation of alcohol, wherein the R 1 -OH alcohol is an aromatic primary or secondary alcohol not containing free nucleophilic groups in its structure; ii. at least one propagation of the oligomer chain by the addition of a portion of 1-2 equiv. of the first monomer in the form of HO-R 2 -NH 2 aminoalcohol to 1 equiv. of the activated alcohol of step (i.) and performing the reaction until complete conversion of the activated alcohol, and then the addition of a further portion of the activator, being 1.2-2.1 equiv. of N,N'-disuccinimidyl carbonate, to activate the hydroxyl group of the growing macromolecule, wherein the substituent R 2 is selected from the group comprising a linear or branched C3-C8 alkyl and a C3-C8 alkyl having at least one aryl, composed of 3-8 carbon atoms and not containing free nucleophilic groups in its structure; iii. repeating the propagation step until the desired oligocarbamate sequence is achieved.
A method of producing a motor core , comprising: preparing a soft magnetic plate containing a transition metal element; preparing modifying members containing an alloy having a melting point lower than a melting point of the soft magnetic plate ; bringing each modifying member into contact with a part of a plate surface of the soft magnetic plate at a predetermined position; causing each modifying member to diffuse and penetrate into the soft magnetic plate from a contact surface between the soft magnetic plate and the modifying member , and forming a hard magnetic phase-containing part in a part of the soft magnetic plate at each, predetermined position; and laminating a plurality of soft magnetic plates on each other after the modifying members are brought into contact with the parts of the plate surface of the soft magnetic plate . preparing a soft magnetic plate containing a transition metal element; preparing modifying members containing an alloy having a melting point lower than a melting point of the soft magnetic plate ; bringing each modifying member into contact with a part of a plate surface of the soft magnetic plate at a predetermined position; causing each modifying member to diffuse and penetrate into the soft magnetic plate from a contact surface between the soft magnetic plate and the modifying member , and forming a hard magnetic phase-containing part in a part of the soft magnetic plate at each, predetermined position; and laminating a plurality of soft magnetic plates on each other after the modifying members are brought into contact with the parts of the plate surface of the soft magnetic plate .
Beam guide for guiding a laser beam from a driver laser device in the direction of a target position for generating EUV radiation comprising: a device for increasing or decreasing the beam diameter (d1) of the laser beam , having: a first off-axis parabolic mirror having a first convex curved reflecting surface and a second off-axis parabolic mirror having a second concave curved reflecting surface , a moving device configured to change a distance (A, A') between the first and the second reflecting surfaces in order to change an opening angle (α) of the laser beam , and at least one displaceable redirection mirror for compensating for a beam offset of the laser beam when the at least one parabolic mirror is displaced, wherein the at least one redirection mirror is coupled for movement with the at least one parabolic mirror for conjoined displacement, characterized in that the moving device is configured to shift the at least one parabolic mirror over a distance of at least 10 mm along a displacement axis , and wherein the movement coupling is configured to displace the redirection mirror in a linear manner in a direction (Y) that deviates from the displacement axis , which direction (Y) runs perpendicular to the beam direction (X) of the laser beam that is reflected at the second parabolic mirror . a first off-axis parabolic mirror having a first convex curved reflecting surface and a second off-axis parabolic mirror having a second concave curved reflecting surface , a moving device configured to change a distance (A, A') between the first and the second reflecting surfaces in order to change an opening angle (α) of the laser beam , and at least one displaceable redirection mirror for compensating for a beam offset of the laser beam when the at least one parabolic mirror is displaced, wherein the at least one redirection mirror is coupled for movement with the at least one parabolic mirror for conjoined displacement, characterized in that the moving device is configured to shift the at least one parabolic mirror over a distance of at least 10 mm along a displacement axis , and wherein the movement coupling is configured to displace the redirection mirror in a linear manner in a direction (Y) that deviates from the displacement axis , which direction (Y) runs perpendicular to the beam direction (X) of the laser beam that is reflected at the second parabolic mirror .
A method for demodulating a received signal relating to a sequence of transmitted symbols that have been modulated by continuous phase modulation, the method comprising the steps of: estimating, on the basis of a sequence of samples generated from the received signal, a time offset and a frequency offset of the received signal and using the estimated time offset and the estimated frequency offset for compensating the sequence of samples for the time and frequency offsets, to obtain a compensated sequence of samples; determining a sequence of symbols corresponding to the transmitted sequence of symbols on the basis of the compensated sequence of samples, wherein said determining is performed such that each of the determined symbols is the symbol that has the highest probability of being identical to the corresponding transmitted symbol; generating a packet from the determined sequence of symbols; calculating a first checksum for the packet; and if the first checksum indicates that the packet has not been decoded correctly, inverting a first pair of symbols in the packet, wherein the two symbols of the first pair of symbols are separated by a further symbol, calculating a second checksum of the packet including the inverted first pair of symbols and outputting the packet including the inverted first pair of symbols if the second checksum indicates that the packet including the inverted first pair of symbols has been decoded correctly. estimating, on the basis of a sequence of samples generated from the received signal, a time offset and a frequency offset of the received signal and using the estimated time offset and the estimated frequency offset for compensating the sequence of samples for the time and frequency offsets, to obtain a compensated sequence of samples; determining a sequence of symbols corresponding to the transmitted sequence of symbols on the basis of the compensated sequence of samples, wherein said determining is performed such that each of the determined symbols is the symbol that has the highest probability of being identical to the corresponding transmitted symbol; generating a packet from the determined sequence of symbols; calculating a first checksum for the packet; and if the first checksum indicates that the packet has not been decoded correctly, inverting a first pair of symbols in the packet, wherein the two symbols of the first pair of symbols are separated by a further symbol, calculating a second checksum of the packet including the inverted first pair of symbols and outputting the packet including the inverted first pair of symbols if the second checksum indicates that the packet including the inverted first pair of symbols has been decoded correctly.
An HME device having a housing providing an inlet coupling , an outlet coupling and a transversely enlarged region between the inlet and outlet couplings, the device including an HME element having an outer surface retained in the enlarged region and opposite end faces spaced slightly from the housing in the enlarged region so that air can flow through the element across the entire surface of both faces , characterised in that the wall of the housing at least in the enlarged region includes a major part of its thickness of a foamed plastics material such as to provide thermal insulation of the housing around the HME element .
A polar monomer-grafted polypropylene resin, wherein the grafted polypropylene resin does not contain initiator residues, and the polar monomer is capable of absorbing microwaves so as to increase its temperature in the microwave field to higher than 200°C and selected from the group consisting of organic acids, as well as anhydrides, esters, and salts of organic acids, wherein there are side groups of the polar monomer on the backbone of polypropylene molecules, and the grafting ratio of the polar monomer is 0.01%-8%; and wherein the melt index of the grafted polypropylene resin is less than or equal to the melt index of the polypropylene resin as the grafting base. wherein there are side groups of the polar monomer on the backbone of polypropylene molecules, and the grafting ratio of the polar monomer is 0.01%-8%; and wherein the melt index of the grafted polypropylene resin is less than or equal to the melt index of the polypropylene resin as the grafting base.
A method for optimal storage of load data for lifetime prediction for a piece of equipment used in a well operation, the method comprising: using a lifetime model for the piece of equipment used in the well operation; calculating, by a processing device , a bucket size using one of the lifetime model and a distribution of load data for loads on the piece of equipment, wherein the loads comprise at least one of a temperature, an acceleration, a pressure, a mechanical load, and an electrical load; discretizing, by a processing device , a spectrum of the load data into one or more buckets using the calculated bucket size; collecting load data of the piece of equipment; assigning, by the processing device , the collected load data to the one or more buckets of the load data spectrum; storing, by the processing device , the collected load data assigned to the one or more buckets to a memory ; determining, by the processing device, a lifetime estimation of the piece of equipment based on the load data assigned to the one or more buckets of the load data spectrum and stored to the memory; and replacing or rerunning the piece of equipment based on the lifetime estimation. using a lifetime model for the piece of equipment used in the well operation; calculating, by a processing device , a bucket size using one of the lifetime model and a distribution of load data for loads on the piece of equipment, wherein the loads comprise at least one of a temperature, an acceleration, a pressure, a mechanical load, and an electrical load; discretizing, by a processing device , a spectrum of the load data into one or more buckets using the calculated bucket size; collecting load data of the piece of equipment; assigning, by the processing device , the collected load data to the one or more buckets of the load data spectrum; storing, by the processing device , the collected load data assigned to the one or more buckets to a memory ; determining, by the processing device, a lifetime estimation of the piece of equipment based on the load data assigned to the one or more buckets of the load data spectrum and stored to the memory; and replacing or rerunning the piece of equipment based on the lifetime estimation.
A manual control device for manually controlling a lock of a door or window, comprising a handle having a grip and an axially hollow neck , a drive pivot engaged in the axial cavity of the neck of the handle , a block that is fixable to a profile of the door or window, and a rotation bushing for rotating the handle that extends from said neck of the handle and engages a circular hole of said block into which said pivot is inserted, characterized in that said block supports a rotor module solid in rotation with said pivot and having quick locking means for extracting said pivot from said block , and in that , after the block has initially been fixed, the drive pivot is inserted through the hole of the block and through the rotor module and then up to the achievement of engagement with the lock, and in that after removal of the handle with its rotation bushing from the drive pivot , a tool can act on the quick locking means such that the drive pivot can be extracted from the block in the opposite direction.
A molten metal impeller comprised of a generally cylindrical graphite body including a plurality of vanes defining passages extending from a top or bottom surface to a side wall , a ceramic cap member secured to the surface of said graphite body , said cap member being comprised of a plurality of vanes at least substantially corresponding to said plurality of graphite body vanes and extending to a rim , said rim having segments between adjacent vanes , characterized in that the segments having a height profile which increases in the direction of intended impeller rotation .
Method for determining at least one analyte species in an analyte solution, comprising the steps of: a) carrying out a chromatographic separation of the analyte solution; b) conveying the eluate from the chromatographic separation through an electrochemical flow-through cell , having a working electrode , a counter electrode and a reference electrode ; c) determining the amount of and/or the concentration of the at least one analyte species in the eluate by amperometric detection in direct current mode (DC), preferably by chronoamperometric detection, wherein a detection potential is applied for the whole time of chromatographic separation; d) cleaning the working electrode on-line by applying at least one cyclic electric potential to the working electrode. a) carrying out a chromatographic separation of the analyte solution; b) conveying the eluate from the chromatographic separation through an electrochemical flow-through cell , having a working electrode , a counter electrode and a reference electrode ; c) determining the amount of and/or the concentration of the at least one analyte species in the eluate by amperometric detection in direct current mode (DC), preferably by chronoamperometric detection, wherein a detection potential is applied for the whole time of chromatographic separation; d) cleaning the working electrode on-line by applying at least one cyclic electric potential to the working electrode.