mhurhangee/patent-ind-claim-en huggingface dataset:
An intermittent drive system comprising: a rotatable output component ; a rotating input component including a driving engagement element ; a synchronizer including a synchronizing ring coupled to the output element to rotate therewith, the synchronizing ring having a driven engagement element configured to selectively engage with the driving engagement element , the synchronizing ring having an alignment feature configured to rotationally align the driving engagement element with the driven engagement element , and a decoupling ring selectively coupled to the input component , characterized in that the synchronizing ring having a decoupling feature configured to selectively disengage the driving engagement element from the driven engagement element ; and the decoupling ring having a decoupling feature configured to selectively engage with the decoupling feature of the synchronizing ring ; wherein the driving engagement element engages the driven engagement element only when both the alignment feature is rotationally oriented to align the driving engagement element with the driven engagement element and the decoupling features are rotationally oriented to allow the driving engagement element to engage the driven engagement element . a rotatable output component ; a rotating input component including a driving engagement element ; a synchronizer including a synchronizing ring coupled to the output element to rotate therewith, the synchronizing ring having a driven engagement element configured to selectively engage with the driving engagement element , the synchronizing ring having an alignment feature configured to rotationally align the driving engagement element with the driven engagement element , and a decoupling ring selectively coupled to the input component , characterized in that the synchronizing ring having a decoupling feature configured to selectively disengage the driving engagement element from the driven engagement element ; and the decoupling ring having a decoupling feature configured to selectively engage with the decoupling feature of the synchronizing ring ; wherein the driving engagement element engages the driven engagement element only when both the alignment feature is rotationally oriented to align the driving engagement element with the driven engagement element and the decoupling features are rotationally oriented to allow the driving engagement element to engage the driven engagement element .
A document reading device comprising: a document reading section configured to optically read an image of an original document; and an image memory configured to temporarily store the image read by the document reading section , an image processing section configured to retrieve the image of the original document from the image memory and process the image, wherein the image processing section comprises: a mark recognizing section configured to recognize an image of a predetermined mark made on the original document; a sticky note recognizing section configured to recognize an image of a sticky note placed on a predetermined position of the original document relative to the mark; characterised in that the image processing section further comprises: a mask determining section configured to determine, based on comparison between the mark masked by placing the sticky note over a portion of the mark and an original mark, a mask pattern representing how the mark is masked; and an image manipulating section configured to differently manipulate the image of the sticky note according to the mask pattern determined by the mask determining section . a document reading section configured to optically read an image of an original document; and an image memory configured to temporarily store the image read by the document reading section , an image processing section configured to retrieve the image of the original document from the image memory and process the image, wherein the image processing section comprises: a mark recognizing section configured to recognize an image of a predetermined mark made on the original document; a sticky note recognizing section configured to recognize an image of a sticky note placed on a predetermined position of the original document relative to the mark; a mark recognizing section configured to recognize an image of a predetermined mark made on the original document; a sticky note recognizing section configured to recognize an image of a sticky note placed on a predetermined position of the original document relative to the mark; a mask determining section configured to determine, based on comparison between the mark masked by placing the sticky note over a portion of the mark and an original mark, a mask pattern representing how the mark is masked; and an image manipulating section configured to differently manipulate the image of the sticky note according to the mask pattern determined by the mask determining section .
A device for generating an Augmented Reality, AR, image , the device being configured to: - obtain a first image of a scene , - obtain a second image of an object , - obtain a predetermined depth which relates to a distance from an observer at which the object will appear to be located within the scene in the AR image ; characterised by being configured to: - capture a third image of only the parts of the scene in front of the predetermined depth, wherein the third image is captured with a range gated imager and has a field of view that is substantially the same as a field of view of the first image, - generate occlusion information by comparing the first image and the third image , wherein the occlusion information identifies parts of the first image that are in front of the predetermined depth and parts of the first image that are not in front of the predetermined depth, and - overlay the first image and the second image based on the occlusion information , in order to generate the AR image , wherein the occlusion information identifies the parts of the first image that are to be replaced by the second image when overlaying the first image and the second image , in order to generate the AR image . - obtain a first image of a scene , - obtain a second image of an object , - obtain a predetermined depth which relates to a distance from an observer at which the object will appear to be located within the scene in the AR image ; - capture a third image of only the parts of the scene in front of the predetermined depth, wherein the third image is captured with a range gated imager and has a field of view that is substantially the same as a field of view of the first image, - generate occlusion information by comparing the first image and the third image , wherein the occlusion information identifies parts of the first image that are in front of the predetermined depth and parts of the first image that are not in front of the predetermined depth, and - overlay the first image and the second image based on the occlusion information , in order to generate the AR image , wherein the occlusion information identifies the parts of the first image that are to be replaced by the second image when overlaying the first image and the second image , in order to generate the AR image .
An image processing system for performing image measurement of an object (W) using image data obtained by photographing the object (W) comprising: a photographing part for photographing the object (W); a light emitting part , which has light transmittance, is disposed between the photographing part and the object (W) and has a light emitting surface widening in a direction different from an optical axis (l) directed from the photographing part to the object (W) having an illumination pattern which is a distribution pattern of luminous intensity; and a control part for controlling the photographing part and the light emitting part , wherein the control part causes light of a first illumination pattern (L 1 ) to be emitted from the light emitting part to the object (W) and obtains first image data (52-1, 53-1) by causing the photographing part to photograph the object (W), and causes light of a second illumination pattern (L 2 ) different from the first illumination pattern (L 1 ) to be emitted from the light emitting part to the object (W) and obtains second image data (52-2, 53-2) by causing the photographing part to photograph the object (W). a photographing part for photographing the object (W); a light emitting part , which has light transmittance, is disposed between the photographing part and the object (W) and has a light emitting surface widening in a direction different from an optical axis (l) directed from the photographing part to the object (W) having an illumination pattern which is a distribution pattern of luminous intensity; and a control part for controlling the photographing part and the light emitting part , wherein the control part causes light of a first illumination pattern (L 1 ) to be emitted from the light emitting part to the object (W) and obtains first image data (52-1, 53-1) by causing the photographing part to photograph the object (W), and causes light of a second illumination pattern (L 2 ) different from the first illumination pattern (L 1 ) to be emitted from the light emitting part to the object (W) and obtains second image data (52-2, 53-2) by causing the photographing part to photograph the object (W). causes light of a first illumination pattern (L 1 ) to be emitted from the light emitting part to the object (W) and obtains first image data (52-1, 53-1) by causing the photographing part to photograph the object (W), and causes light of a second illumination pattern (L 2 ) different from the first illumination pattern (L 1 ) to be emitted from the light emitting part to the object (W) and obtains second image data (52-2, 53-2) by causing the photographing part to photograph the object (W).
A computer-implemented sequence analysis method for analyzing nucleic acid sequence, the sequence analysis method comprising: obtaining a plurality of read sequences by sequencing a nucleic acid; and determining a nucleic acid sequence of the nucleic acid by aligning the plurality of read sequences with reference to a wild-type reference sequence and a single reference sequence which is separate from the wild-type reference sequence, wherein the single reference sequence is a linear reference sequence and comprises at least a first rearrangement sequence and a second rearrangement sequence that is different from the first rearrangement sequence, wherein the first rearrangement sequence comprises at least one of polymorphism, mutation, and methylation, and the second rearrangement sequence comprises at least one of polymorphism, mutation, and methylation and the determining comprises comparing the plurality of read sequences with each of the wild-type reference sequence and the single reference sequence while changing aligning position of the read sequence with respect to each of the wild-type reference sequence and the single reference sequence. obtaining a plurality of read sequences by sequencing a nucleic acid; and determining a nucleic acid sequence of the nucleic acid by aligning the plurality of read sequences with reference to a wild-type reference sequence and a single reference sequence which is separate from the wild-type reference sequence, wherein the single reference sequence is a linear reference sequence and comprises at least a first rearrangement sequence and a second rearrangement sequence that is different from the first rearrangement sequence, wherein the first rearrangement sequence comprises at least one of polymorphism, mutation, and methylation, and the second rearrangement sequence comprises at least one of polymorphism, mutation, and methylation and the determining comprises comparing the plurality of read sequences with each of the wild-type reference sequence and the single reference sequence while changing aligning position of the read sequence with respect to each of the wild-type reference sequence and the single reference sequence.
A driving tool for driving fastening means into workpieces comprising - a drive device in a housing , - an outlet tool protruding from the lower end of the housing with a driving channel , - a driving tappet that projects into the driving channel and is connected at the top to the drive device , - a magazine for fastening means that is attached to the driving channel in order to supply fastening means to the driving channel , and - a nail centering at the bottom on the outlet tool that has a centering opening that is limited by guide elements movable in the radial direction that are pretensioned toward the centering opening by at least one spring device, characterized in that - the nail centering comprises a centering housing in which at least one circle (59 to 62) of balls is arranged, between which the centering opening is defined, and - the spring device is an elastic ring that under pretensioning abuts the balls on the outside. - a drive device in a housing , - an outlet tool protruding from the lower end of the housing with a driving channel , - a driving tappet that projects into the driving channel and is connected at the top to the drive device , - a magazine for fastening means that is attached to the driving channel in order to supply fastening means to the driving channel , and - a nail centering at the bottom on the outlet tool that has a centering opening that is limited by guide elements movable in the radial direction that are pretensioned toward the centering opening by at least one spring device, characterized in that - the nail centering comprises a centering housing in which at least one circle (59 to 62) of balls is arranged, between which the centering opening is defined, and - the spring device is an elastic ring that under pretensioning abuts the balls on the outside. - the nail centering comprises a centering housing in which at least one circle (59 to 62) of balls is arranged, between which the centering opening is defined, and - the spring device is an elastic ring that under pretensioning abuts the balls on the outside.
A dispersion containing ultrafine metal particles which have an average primary particle size of not more than 100 nm and an average secondary particle size of not more than 900 nm, the dispersion comprising: a low-boiling solvent comprising methylisobutyl ketone or methyl ethyl ketone; and, contained therein, the ultrafine metal particles, wherein the ultrafine metal particles are of any one of Ag, Cu or Zn having a fatty acid and a glyceride coordinated on the surfaces thereof, wherein the average primary particle size is the average size of the metal particles that are present without gap among the metal particles, and the average secondary particle size is the average size of the metal particles that are in a packed state. a low-boiling solvent comprising methylisobutyl ketone or methyl ethyl ketone; and, contained therein, the ultrafine metal particles, wherein the ultrafine metal particles are of any one of Ag, Cu or Zn having a fatty acid and a glyceride coordinated on the surfaces thereof, wherein the average primary particle size is the average size of the metal particles that are present without gap among the metal particles, and the average secondary particle size is the average size of the metal particles that are in a packed state.
A method for analyzing the properties of an incident signal by an analysis device comprising an antenna network comprising N linearly spaced antennas , each antenna being marked by an index n, the index n being an integer between 0 and N-1, the method comprising a step of: - receiving the incident signal from the N antennas, the method being characterized in that the method further comprises a step of: - temporally shifting each received signal by a value of n times the same increment, in order to obtain temporally shifted samples, - calculating a summation of said temporally shifted samples, in order to obtain a summation signal relative to the considered increment, the summation signal being the product of the value of an envelope relative to one value of said increment and of a modulation, and - extracting the value of the envelope relative to the value of the increment, the steps of shifting, computing and extracting being repeated for several different valued of increments, and - estimating a property of the incident signal using the different extracted envelope values. - receiving the incident signal from the N antennas, - temporally shifting each received signal by a value of n times the same increment, in order to obtain temporally shifted samples, - calculating a summation of said temporally shifted samples, in order to obtain a summation signal relative to the considered increment, the summation signal being the product of the value of an envelope relative to one value of said increment and of a modulation, and - extracting the value of the envelope relative to the value of the increment, the steps of shifting, computing and extracting being repeated for several different valued of increments, and - estimating a property of the incident signal using the different extracted envelope values.
A method of forming a stent comprising the steps of: providing a wire comprising a wire first portion and a wire second portion ; wrapping the wire first portion around a mandrel thereby forming a first elongated tubular body comprising a first helical pattern; wrapping the wire second portion around the mandrel thereby forming a second elongated tubular body around the first elongated tubular body, wherein the second elongated tubular body comprises a second helical pattern comprising a pitch about opposite a pitch of the first helical pattern; wherein the first elongated tubular body and the second elongated tubular body together form a third elongated tubular body comprising a double helical pattern; characterised in that the wire first portion and the wire second portion are not woven; by heat-setting the third elongated tubular body such that it is biased to assume an expanded state from a compressed state; unwinding the wire second portion from the third elongated tubular body; unwinding the wire first portion from the third elongated tubular body; braiding the wire first portion and the wire second portion forming a stent wall comprising an elongated tubular body comprising a braided helical pattern; and heat-setting the stent wall such that it is biased to assume an expanded braided helical wire configuration. providing a wire comprising a wire first portion and a wire second portion ; wrapping the wire first portion around a mandrel thereby forming a first elongated tubular body comprising a first helical pattern; wrapping the wire second portion around the mandrel thereby forming a second elongated tubular body around the first elongated tubular body, wherein the second elongated tubular body comprises a second helical pattern comprising a pitch about opposite a pitch of the first helical pattern; wherein the first elongated tubular body and the second elongated tubular body together form a third elongated tubular body comprising a double helical pattern; characterised in that the wire first portion and the wire second portion are not woven; by heat-setting the third elongated tubular body such that it is biased to assume an expanded state from a compressed state; unwinding the wire second portion from the third elongated tubular body; unwinding the wire first portion from the third elongated tubular body; braiding the wire first portion and the wire second portion forming a stent wall comprising an elongated tubular body comprising a braided helical pattern; and heat-setting the stent wall such that it is biased to assume an expanded braided helical wire configuration.
A filling element for tires of off-road motor vehicles, comprising a body in elastomeric expanded material, having a shape of a toroid, characterized in that said filling element is provided on the surface with circular grooves , concentric to a generatrix of said toroid, said grooves being substantially equidistant between each other.
A polling and detecting method for a Passive Optical Network, PON, including Optical Network Units, ONUs, comprising: polling and detecting ONUs in an ONU polling queue, characterised by dividing (S102) Optical Line Terminals, OLTs, and Optical Network Units, ONUs, in the Passive Optical Network, PON, into an OLT polling queue and the ONU polling queue respectively; polling and detecting the OLTs in the OLT polling queue; and updating states of the OLTs after polling into an OLT state database; and in that the ONUs in the ONU polling queue are polled and detected based on states of the OLTs in the updated OLT state database. polling and detecting ONUs in an ONU polling queue, characterised by dividing (S102) Optical Line Terminals, OLTs, and Optical Network Units, ONUs, in the Passive Optical Network, PON, into an OLT polling queue and the ONU polling queue respectively; polling and detecting the OLTs in the OLT polling queue; and updating states of the OLTs after polling into an OLT state database; and in that the ONUs in the ONU polling queue are polled and detected based on states of the OLTs in the updated OLT state database.
A use of a ready to use, pasty or liquid levelling compound that allows to or is constructed/set up to coat a subfloor as basis for a floor covering on its upper surface, said floor levelling compound comprising a combination of an aqueous polymer dispersion, a water glass, a filler with gaseous inclusions, a spreading composition and optionally other additives, wherein the aqueous polymer dispersion is present in an amount of 0.1 to 30 percent by weight (W-%), calculated as dry polymer; the water glass is present in an amount of from 1 to 40 W-%; the filler with gaseous inclusions is present in an amount ranging from 0.5 to 10 W-%; and the spreading composition is present in an amount ranging from 0.01 to 5 W-%, as a levelling coating on a subfloor or as a finishing coating for floors.
A system for identifying at least one geometrical parameter of a trailer having a tow coupler and one or more wheel axle , the system comprising: a processor , and at least one sensor for acquiring data relating to the trailer and arranged to send said data to the processor , the at least one sensor being incorporated into a vehicle , wherein the processor is configured to process said data to identify the at least one geometrical parameter of the trailer with reference to a distance travelled by the vehicle as it travels past the trailer ; the processor being configured to process said data to identify the position of the tow coupler and the one or more wheel axle to generate a value representative of at least one geometrical parameter of the trailer , the at least one geometrical parameter comprising a hitch length (L) of the trailer . a processor , and at least one sensor for acquiring data relating to the trailer and arranged to send said data to the processor , the at least one sensor being incorporated into a vehicle , wherein the processor is configured to process said data to identify the at least one geometrical parameter of the trailer with reference to a distance travelled by the vehicle as it travels past the trailer ; the processor being configured to process said data to identify the position of the tow coupler and the one or more wheel axle to generate a value representative of at least one geometrical parameter of the trailer , the at least one geometrical parameter comprising a hitch length (L) of the trailer .