mhurhangee/patent-ind-claim-en huggingface dataset:
A verification system for verification of a printout, the verification system comprising a printing device and at least one image recording device , the printing device at least comprising a printer controller and a print head , the image recording device being positioned such that a focal point of the image recording device is in a distance (d) from the print head of the printing device, characterized in that the printer controller is configured to: - instruct the print head of the printing device to print on an area on a substrate; - compute a time for the printed area to be positioned in the field of view of the image recording device after the printout operation by the print head, wherein the computed time is calculated with respect to said distance (d) and information about a relative speed of the substrate, and - instruct the printing device to generate a trigger signal to said image recording device, which trigger signal activates the image recording device to capture an image of the printed area to be processed for detecting if the printout meets certain parameters. the image recording device being positioned such that a focal point of the image recording device is in a distance (d) from the print head of the printing device, characterized in that the printer controller is configured to: - instruct the print head of the printing device to print on an area on a substrate; - compute a time for the printed area to be positioned in the field of view of the image recording device after the printout operation by the print head, wherein the computed time is calculated with respect to said distance (d) and information about a relative speed of the substrate, and - instruct the printing device to generate a trigger signal to said image recording device, which trigger signal activates the image recording device to capture an image of the printed area to be processed for detecting if the printout meets certain parameters. - instruct the print head of the printing device to print on an area on a substrate; - compute a time for the printed area to be positioned in the field of view of the image recording device after the printout operation by the print head, wherein the computed time is calculated with respect to said distance (d) and information about a relative speed of the substrate, and - instruct the printing device to generate a trigger signal to said image recording device, which trigger signal activates the image recording device to capture an image of the printed area to be processed for detecting if the printout meets certain parameters.
A process design support apparatus, comprising: a part list storage part that holds a part list representing a part(s) included in a product; a process list storage part that holds a process list representing a process(es) included in a process sequence(s); and an association part that associates an item(s) included in the part list with an item(s) included in the process list, wherein item(s) in the process list and a part-based configuration(s) of the item(s) in the part list are associated with each other. a part list storage part that holds a part list representing a part(s) included in a product; a process list storage part that holds a process list representing a process(es) included in a process sequence(s); and an association part that associates an item(s) included in the part list with an item(s) included in the process list, wherein item(s) in the process list and a part-based configuration(s) of the item(s) in the part list are associated with each other.
A controller , comprising a controller body ; and an extendable mechanism , comprising: an extension member ; a link member which is provided with an extension-member-guide element , wherein the extension member is in direct engagement with the extension-member-guide element of the link member in a manner so as to be retractably extendable from the link member in an extension direction along an axis of the extension member ; a link-member-guide element disposed at the controller body , wherein the link member is in direct engagement with the link-member-guide element in a manner so as to be retractably extendable from the link-member-guide element in the extension direction ; and a biasing member arranged between the link member and the controller body . a controller body ; and an extendable mechanism , comprising: an extension member ; a link member which is provided with an extension-member-guide element , wherein the extension member is in direct engagement with the extension-member-guide element of the link member in a manner so as to be retractably extendable from the link member in an extension direction along an axis of the extension member ; a link-member-guide element disposed at the controller body , wherein the link member is in direct engagement with the link-member-guide element in a manner so as to be retractably extendable from the link-member-guide element in the extension direction ; and a biasing member arranged between the link member and the controller body . an extension member ; a link member which is provided with an extension-member-guide element , wherein the extension member is in direct engagement with the extension-member-guide element of the link member in a manner so as to be retractably extendable from the link member in an extension direction along an axis of the extension member ; a link-member-guide element disposed at the controller body , wherein the link member is in direct engagement with the link-member-guide element in a manner so as to be retractably extendable from the link-member-guide element in the extension direction ; and a biasing member arranged between the link member and the controller body .
A method carried out by a computer comprising: receiving sequencing quality control (QC) metrics of sample coverage data (SSQC); selecting a reference panel of reference coverage data, wherein QC metrics of the reference coverage data (RSQC) are used to build a k -d tree, wherein the SSQC metrics are inserted into the k -d tree, and wherein the k -d tree is used to identify nearest neighbors to the sample coverage data as the reference panel; normalizing the sample coverage data comprising a plurality of genomic regions; fitting a mixture model to the normalized sample coverage data based on the selected reference panel at each of the plurality of genomic regions to generate an expected coverage distribution at each of the plurality of genomic regions; and identifying one or more copy number variants (CNVs) according to a Hidden Markov Model (HMM) in the normalized sample coverage data using the expected coverage distribution at each of the plurality of genomic regions from the fitted mixture model. receiving sequencing quality control (QC) metrics of sample coverage data (SSQC); selecting a reference panel of reference coverage data, wherein QC metrics of the reference coverage data (RSQC) are used to build a k -d tree, wherein the SSQC metrics are inserted into the k -d tree, and wherein the k -d tree is used to identify nearest neighbors to the sample coverage data as the reference panel; normalizing the sample coverage data comprising a plurality of genomic regions; fitting a mixture model to the normalized sample coverage data based on the selected reference panel at each of the plurality of genomic regions to generate an expected coverage distribution at each of the plurality of genomic regions; and identifying one or more copy number variants (CNVs) according to a Hidden Markov Model (HMM) in the normalized sample coverage data using the expected coverage distribution at each of the plurality of genomic regions from the fitted mixture model.
An electronic control unit having a housing containing a circuit board , wherein the housing comprises a base and a cover between which the circuit board is located, and wherein the base and the cover are inter-engaged, wherein the inter-engagement is via an interference fit connection which extends around a peripheral edge of the cover , characterized in that said interference fit connection involves elastic deformation of said cover around its peripheral edge , when the peripheral edge of the cover is received within a groove of an inwardly directed surface of the base and wherein the cover is elastically deformed when the cover is engaged with the base . wherein the housing comprises a base and a cover between which the circuit board is located, and wherein the base and the cover are inter-engaged, wherein the inter-engagement is via an interference fit connection which extends around a peripheral edge of the cover , characterized in that said interference fit connection involves elastic deformation of said cover around its peripheral edge , when the peripheral edge of the cover is received within a groove of an inwardly directed surface of the base and wherein the cover is elastically deformed when the cover is engaged with the base .
A crystalline form of ( R )-2-((2-amino-7-fluoropyrido[3,2- d ]pyrimidin-4-yl)amino)-2-methylhexan-1-ol (Compound I): characterized by an X-ray powder diffraction (XRPD) pattern comprising three or more peaks at 10.9°, 11.5°, 13.2°, 14.7°, 15.5°, 21.4°, 21.9°, 23.2°, or 24.9° 2θ (± 0.2° 2θ), Form I.
Leaf spring (1; 11) for the chassis of a vehicle, having at least one metallic spring leaf (2; 12) which has at least one eye (3; 13) for the rotatable fastening of the leaf spring (1; 11) to a further component of the chassis, the spring leaf (2; 12) being primary-formed and then rolled into the required cross-section, the spring leaf (2; 12) being formed in the region of the eye (3; 13) with a spring thickness, perpendicular to the longitudinal axis of the eye (3; 13), which is greater than the adjoining section of the spring leaf (2; 12), characterised in that the spring leaf (2; 12) in the region of the opening is unrolled or only rolled by a small amount, so that the thickness in the region of the eye (3; 13) corresponds at least largely to the starting thickness, and that the eye (3; 13) is made as an opening in the spring leaf body of the spring leaf (2; 12) by cutting.
Sacrificial anode comprising an anode body having at least one cavity within the anode body and a sensor arranged in the cavity ; the sensor is: a sensor operable to measure the presence of sea water in the cavity , or a sensor operable to measure fluid communication between the cavity and the outside of the anode , wherein the sensor comprises at least one electrode (31a,b) or wherein the sensor is formed by at least two electrodes (31a,b) spaced apart, and wherein the at least one cavity is filled with a non-conducting material soluble in sea water or permeable to sea water. a sensor operable to measure the presence of sea water in the cavity , or a sensor operable to measure fluid communication between the cavity and the outside of the anode ,
An electrosurgical generator comprising: an H-bridge ; and a tank driven by the H-bridge, the tank including: a transformer having a primary winding and a secondary winding , the secondary winding including a first coil and a second coil ; characterised in that the tank further includes a capacitor connected in series between the first coil and the second coil, wherein the capacitor is placed across a common mode plane (X-X) for mitigating a current or charge imbalance between active and return terminals of the electrosurgical generator, thus reducing any common mode currents and high frequency leakage. an H-bridge ; and a tank driven by the H-bridge, the tank including: a transformer having a primary winding and a secondary winding , the secondary winding including a first coil and a second coil ; characterised in that the tank further includes a capacitor connected in series between the first coil and the second coil, wherein the capacitor is placed across a common mode plane (X-X) for mitigating a current or charge imbalance between active and return terminals of the electrosurgical generator, thus reducing any common mode currents and high frequency leakage. a transformer having a primary winding and a secondary winding , the secondary winding including a first coil and a second coil ; characterised in that the tank further includes a capacitor connected in series between the first coil and the second coil, wherein the capacitor is placed across a common mode plane (X-X) for mitigating a current or charge imbalance between active and return terminals of the electrosurgical generator, thus reducing any common mode currents and high frequency leakage.
A method comprising: identifying a first motion of a head mounted display, HMD, ( ); adjusting a first raw image received from a depth camera of the HMD based on the first motion to generate a first adjusted image ; generating adjusted depth data based on the first adjusted image; determining contours of objects in a local environment of the HMD based on different depth values for depth points of the adjusted depth data ; and providing virtual reality, VR, content at the HMD based on the first adjusted depth data, wherein the virtual reality content includes virtual objects having contours which are based on the contours of the objects in the local environment of the HMD indicated by the adjusted depth data, wherein adjusting the first raw image received from the depth camera includes identifying individual captured frames of the raw image for an adjustment based on a degree of motion of the HMD and adjusting only a subset of the captured frames. identifying a first motion of a head mounted display, HMD, ( ); adjusting a first raw image received from a depth camera of the HMD based on the first motion to generate a first adjusted image ; generating adjusted depth data based on the first adjusted image; determining contours of objects in a local environment of the HMD based on different depth values for depth points of the adjusted depth data ; and providing virtual reality, VR, content at the HMD based on the first adjusted depth data, wherein the virtual reality content includes virtual objects having contours which are based on the contours of the objects in the local environment of the HMD indicated by the adjusted depth data, wherein adjusting the first raw image received from the depth camera includes identifying individual captured frames of the raw image for an adjustment based on a degree of motion of the HMD and adjusting only a subset of the captured frames.
[Method for detecting abnormal operating conditions of a single battery element or of a plurality of the set of single elements comprising the following steps: sampling, at the common point of at least two resistors of a divider bridge with at least two resistors, at least one voltage proportional to the voltage at the terminals of the single element or of the set of single elements; comparing the detected voltage with a reference threshold; characterized in that said comparison with said reference threshold triggers the implementation of: an evaluation of the evolution to come by an integral, evaluated analogically or digitally; a comparison of this evaluation with a detection voltage threshold (Td) from which a disconnection of the single element or of the set of monitored single elements is carried out with respect, at least, to the terminals of the battery. sampling, at the common point of at least two resistors of a divider bridge with at least two resistors, at least one voltage proportional to the voltage at the terminals of the single element or of the set of single elements; comparing the detected voltage with a reference threshold; characterized in that said comparison with said reference threshold triggers the implementation of: an evaluation of the evolution to come by an integral, evaluated analogically or digitally; a comparison of this evaluation with a detection voltage threshold (Td) from which a disconnection of the single element or of the set of monitored single elements is carried out with respect, at least, to the terminals of the battery. an evaluation of the evolution to come by an integral, evaluated analogically or digitally; a comparison of this evaluation with a detection voltage threshold (Td) from which a disconnection of the single element or of the set of monitored single elements is carried out with respect, at least, to the terminals of the battery.
A method for integrating a polynucleotide library of interest in the chromosome of a filamentous fungal host cell using a site-specific recombinase, thereby achieving highly uniform expression levels, said method comprising the steps of: a) providing a filamentous fungal host cell comprising in its chromosome in the following order: i) a first recognition sequence of the recombinase or a region that is 5' or 3' of an integration site; ii) a first selection marker; iii) a second recognition sequence of the recombinase; and iv) a non-functional partial second selection marker; b) transforming said host cell with a nucleic acid construct comprising in the following order: i) the first recognition sequence of the recombinase or the region that is 5' or 3' of the integration site; ii) a polynucleotide library of interest; iii) a non-functional partial second selection marker; and iv) the second recognition sequence of the recombinase; c) expressing a gene encoding the site-specific recombinase in said host cell; and d) selecting a transformed host cell which expresses the second selection marker and not the first selection marker, wherein the polynucleotide library of interest is site-specifically integrated in the correct orientation in the chromosome of the host cell by the recombinase, whereby the first selectable marker is excised from the chromosome and whereby the non-functional partial second selectable markers are recombined to form a functional second selection marker in the chromosome. a) providing a filamentous fungal host cell comprising in its chromosome in the following order: i) a first recognition sequence of the recombinase or a region that is 5' or 3' of an integration site; ii) a first selection marker; iii) a second recognition sequence of the recombinase; and iv) a non-functional partial second selection marker; i) a first recognition sequence of the recombinase or a region that is 5' or 3' of an integration site; ii) a first selection marker; iii) a second recognition sequence of the recombinase; and iv) a non-functional partial second selection marker; b) transforming said host cell with a nucleic acid construct comprising in the following order: i) the first recognition sequence of the recombinase or the region that is 5' or 3' of the integration site; ii) a polynucleotide library of interest; iii) a non-functional partial second selection marker; and iv) the second recognition sequence of the recombinase; i) the first recognition sequence of the recombinase or the region that is 5' or 3' of the integration site; ii) a polynucleotide library of interest; iii) a non-functional partial second selection marker; and iv) the second recognition sequence of the recombinase; c) expressing a gene encoding the site-specific recombinase in said host cell; and d) selecting a transformed host cell which expresses the second selection marker and not the first selection marker,
A memory structure for use in a memory device comprising at least one first layer and at least one second layer : the at least one first layer comprises a plurality of a first metal oxide element, and the at least one second layer comprises a plurality of a second metal oxide element; and, wherein the memory structure has an electrical resistive state that can be changed in response to an electromotive force being applied thereto and characterised in that the elements are in the form of metal oxide nanocubes. the at least one first layer comprises a plurality of a first metal oxide element, and the at least one second layer comprises a plurality of a second metal oxide element; and, wherein the memory structure has an electrical resistive state that can be changed in response to an electromotive force being applied thereto and characterised in that the elements are in the form of metal oxide nanocubes.
A double-camera drive device, wherein the double-camera drive device comprises: a first cover body and a second cover body, the first cover body and the second cover body being respectively provided with a lens accommodating cavity ; a first photographing component and a second photographing component provided on the first cover body and the second cover body respectively, and the first photographing component and the second photographing component each comprising an upper spring , an upper cover , a lens support wound with a drive coil at an outer periphery, driving magnets and a lower spring , wherein the driving magnets comprise a left driving magnet provided on a left side of the first cover body, a right driving magnet provided on a right side of the second cover body and a middle driving magnet provided between the first cover body and the second cover body; and a first Hall detection component provided on the first cover body and the first photographing component and a second Hall detection component provided on the second cover body and the second photographing component, the first Hall detection component and the second Hall detection component each comprising a Hall gasket and a Hall magnet provided on the respective support , and a Printed Circuit Board, PCB, component , each of the PCB components comprising a PCB board provided at one side of the respective cover body, as well as a Hall chip , a capacitor , pins and an internal circuit provided on the PCB board . a first cover body and a second cover body, the first cover body and the second cover body being respectively provided with a lens accommodating cavity ; a first photographing component and a second photographing component provided on the first cover body and the second cover body respectively, and the first photographing component and the second photographing component each comprising an upper spring , an upper cover , a lens support wound with a drive coil at an outer periphery, driving magnets and a lower spring , wherein the driving magnets comprise a left driving magnet provided on a left side of the first cover body, a right driving magnet provided on a right side of the second cover body and a middle driving magnet provided between the first cover body and the second cover body; and a first Hall detection component provided on the first cover body and the first photographing component and a second Hall detection component provided on the second cover body and the second photographing component, the first Hall detection component and the second Hall detection component each comprising a Hall gasket and a Hall magnet provided on the respective support , and a Printed Circuit Board, PCB, component , each of the PCB components comprising a PCB board provided at one side of the respective cover body, as well as a Hall chip , a capacitor , pins and an internal circuit provided on the PCB board .