mhurhangee/patent-ind-claim-en huggingface dataset:
A method for identifying a site or region of a gene or genome for differential methylation analysis, the method comprising: (a) obtaining one or more test samples of genomic DNA and one or more reference samples of genomic DNA; (b) digesting said test and reference samples obtained in (a) with at least one methylation-dependent restriction enzyme including Gla I; (c) selecting restriction fragments generated in (b) of at least about 40 bp and up to about 500 bp; (d) constructing libraries of said size-selected restriction fragments and sequencing said fragments; (e) aligning sequences obtained in (d), derived from said test and reference samples, with a reference genome and comparing sequences; and (f) identifying from the aligned sequences a methylated or unmethylated site or region of a gene or genome for differential methylation analysis. (a) obtaining one or more test samples of genomic DNA and one or more reference samples of genomic DNA; (b) digesting said test and reference samples obtained in (a) with at least one methylation-dependent restriction enzyme including Gla I; (c) selecting restriction fragments generated in (b) of at least about 40 bp and up to about 500 bp; (d) constructing libraries of said size-selected restriction fragments and sequencing said fragments; (e) aligning sequences obtained in (d), derived from said test and reference samples, with a reference genome and comparing sequences; and (f) identifying from the aligned sequences a methylated or unmethylated site or region of a gene or genome for differential methylation analysis.
Method for determining a value of at least one geometrico-morphological parameter of a subject wearing an eyewear for precisely determining a vision correction equipment customized for this subject, said at least one geometrico-morphological parameter comprising either: - a parameter linked to both a head of the subject and said eyewear ; or - a parameter linked only to the morphology of the subject; or - a parameter linked only to the geometry of the eyewear ; said method being computer implemented, wherein the following steps are performed: a) obtaining at least one image (I) of the head of the subject wearing said eyewear ; b) identifying simultaneously, on said at least one image obtained in step a), a set of remarkable points (RPE) of the image of the eyewear and a set of remarkable points (RPH) of the image of the head of the subject, using an image processing algorithm determined based on a predetermined database comprising a plurality of reference images of heads wearing an eyewear, said image processing algorithm being based on machine learning, c) determining said at least one value of a geometrico-morphological parameter taking into account said sets of remarkable points (RPE, RPH) of the image of the eyewear and head of the subject identified in step b). - a parameter linked to both a head of the subject and said eyewear ; or - a parameter linked only to the morphology of the subject; or - a parameter linked only to the geometry of the eyewear ; said method being computer implemented, wherein the following steps are performed: a) obtaining at least one image (I) of the head of the subject wearing said eyewear ; b) identifying simultaneously, on said at least one image obtained in step a), a set of remarkable points (RPE) of the image of the eyewear and a set of remarkable points (RPH) of the image of the head of the subject, using an image processing algorithm determined based on a predetermined database comprising a plurality of reference images of heads wearing an eyewear, said image processing algorithm being based on machine learning, c) determining said at least one value of a geometrico-morphological parameter taking into account said sets of remarkable points (RPE, RPH) of the image of the eyewear and head of the subject identified in step b). a) obtaining at least one image (I) of the head of the subject wearing said eyewear ; b) identifying simultaneously, on said at least one image obtained in step a), a set of remarkable points (RPE) of the image of the eyewear and a set of remarkable points (RPH) of the image of the head of the subject, using an image processing algorithm determined based on a predetermined database comprising a plurality of reference images of heads wearing an eyewear, said image processing algorithm being based on machine learning, c) determining said at least one value of a geometrico-morphological parameter taking into account said sets of remarkable points (RPE, RPH) of the image of the eyewear and head of the subject identified in step b).
Method for automatically analyzing extruded films , in particular stretched films, wherein a neck-in portion is formed at each of both edges of the film at a specific distance from an extrusion lip of a film extruder along the longitudinal transport direction of the film , comprising the following steps: continuously detecting the lateral position of one respective edge of the neck-in portion of the film , using two edge detectors being arranged along a first line substantially transversal to the longitudinal direction and being spaced from each other by a specific distance, characterized by determining the spatial relation between at least one lateral position at the extrusion lip and a respective lateral position at the neck-in portion on the basis of the two lateral positions of the edges of the neck-in portion of the film using a calculation means, creating at least one mark on the extruded film at at least one lateral position at the extrusion lip in the border region of the first and/or second lateral side of the film , and detecting the lateral position of the mark at the neck-in portion . continuously detecting the lateral position of one respective edge of the neck-in portion of the film , using two edge detectors being arranged along a first line substantially transversal to the longitudinal direction and being spaced from each other by a specific distance, characterized by determining the spatial relation between at least one lateral position at the extrusion lip and a respective lateral position at the neck-in portion on the basis of the two lateral positions of the edges of the neck-in portion of the film using a calculation means, creating at least one mark on the extruded film at at least one lateral position at the extrusion lip in the border region of the first and/or second lateral side of the film , and detecting the lateral position of the mark at the neck-in portion .
A quick attach rotary mower blade system , comprising: a spindle extending through a flange mounted on a mower deck, the spindle having a first pair of projections extending radially outwardly from a lower end thereof; a spring-loaded collar having a bore through which the lower end of the spindle extends, a mower blade having a mounting hole including a circular center opening and a pair of fan-shaped openings extending radially outwardly therefrom; moving the mower blade and spring-loaded collar upwardly, characterized in that the first pair of projections is fan-shaped, wherein the spindle has a second pair of fan-shaped projections (136. 138) extending radially outwardly from the bore , the mower blade is installable on the spindle by aligning the pair of fan-shaped openings with the first and second pairs of fan-shaped projections (122, 124, 136. 138), rotating the mower blade and spring-loaded collar 90 degrees to interlock the second pair of fan-shaped projections (136. 138) between the first pair of fan-shaped projections . a spindle extending through a flange mounted on a mower deck, the spindle having a first pair of projections extending radially outwardly from a lower end thereof; a spring-loaded collar having a bore through which the lower end of the spindle extends, a mower blade having a mounting hole including a circular center opening and a pair of fan-shaped openings extending radially outwardly therefrom; moving the mower blade and spring-loaded collar upwardly, characterized in that the first pair of projections is fan-shaped, wherein the spindle has a second pair of fan-shaped projections (136. 138) extending radially outwardly from the bore , the mower blade is installable on the spindle by aligning the pair of fan-shaped openings with the first and second pairs of fan-shaped projections (122, 124, 136. 138), rotating the mower blade and spring-loaded collar 90 degrees to interlock the second pair of fan-shaped projections (136. 138) between the first pair of fan-shaped projections .
A method for producing an access point for manipulating a parameter of a runtime environment for testing a control device program component to be tested in a test environment , the software thereof being divided into three layers according to the AUTOSAR standard, namely into a layer of program components , a layer of the runtime environment , and a layer of the near-device basic software , the layer of program components comprising a test scenario program component for producing input values and an observer device for receiving output values and displaying the test results, the method comprising: providing the control device program component to be tested having interfaces each defined according to the AUTOSAR standard; creating an executable program of the control device program component to be tested and the test scenario program component , the creating comprising: generating the runtime environment , the runtime environment providing a communications channel for transmitting the input and output values, characterized in that a component test service is provided as part of a further component in the layer of near-device basic software , comprising a description for a port and an interface of the runtime environment according to the AUTOSAR standard, and providing the port and the interface of the runtime environment as an access point for manipulating the parameter of the runtime environment , and allowing access by the test scenario program component to the parameter of the runtime environment by means of generating corresponding code for the runtime environment , including the described port and the described interface , wherein the parameter determines or describes or influences a process running via the communications channel.
A method of digitally compensating distortions of rays of a light beam in tomography-based additive manufacturing, wherein said tomography-based additive manufacturing involves projecting light patterns from multiple angles into a container comprising photoresponsive material, characterized in that said method comprises the steps of: - simulating the path of the light rays through the container and the photoresponsive material; - digitally compensating the light projections based on the simulated path of the light rays, so as to obtain modified light projections. - simulating the path of the light rays through the container and the photoresponsive material; - digitally compensating the light projections based on the simulated path of the light rays, so as to obtain modified light projections.
A turbine housing comprising: an outer housing portion which includes an inner wall internally forming a spiral space ; a first heat shield core which separates the spiral space into a scroll flow passage where an exhaust gas flows and a heat shield space positioned on a side of the inner wall , the first heat shield core being disposed so as to face the inner wall in the spiral space ; a variable nozzle unit for adjusting a flow of the exhaust gas from the scroll flow passage toward an impeller, the variable nozzle unit being disposed on a side opposite to the outer housing portion across the first heat shield core in an axial direction; characterized in that the turbine housing further comprises at least one annular seal member disposed between the first heat shield core and the outer housing portion in the axial direction. an outer housing portion which includes an inner wall internally forming a spiral space ; a first heat shield core which separates the spiral space into a scroll flow passage where an exhaust gas flows and a heat shield space positioned on a side of the inner wall , the first heat shield core being disposed so as to face the inner wall in the spiral space ; a variable nozzle unit for adjusting a flow of the exhaust gas from the scroll flow passage toward an impeller, the variable nozzle unit being disposed on a side opposite to the outer housing portion across the first heat shield core in an axial direction; characterized in that the turbine housing further comprises at least one annular seal member disposed between the first heat shield core and the outer housing portion in the axial direction.
A delivery catheter for a cardiac stent-valve , comprising a tubing carrying a stent holder , the stent holder having a crimp connection to the tubing .
A membrane assembly (100; 101-108) comprising: an insulating structural member having a flat surface ; and a membrane coupled to the flat surface of the insulating structural member and having a plurality of corrugations protruded toward an outside formed at a portion thereof, the membrane assembly being characterized by further comprising: a reinforcing member disposed to be in contact with an internal face of the corrugation between the insulating structural member and the corrugation and comprising: a reinforcing body including a bottom portion , an external face of the bottom portion being flat so as to be in contact with the insulating structural member, and a supporting portion , an external face of the supporting portion corresponding to the internal face of the corrugation so as to be in contact with the internal face of the corrugation, the reinforcing body having the shape of a pipe, a cross section of which is a closed curve; and a reinforcing pipe disposed inside the reinforcing body to be in contact with and support an internal face of the reinforcing body . an insulating structural member having a flat surface ; and a membrane coupled to the flat surface of the insulating structural member and having a plurality of corrugations protruded toward an outside formed at a portion thereof, the membrane assembly being characterized by further comprising: a reinforcing member disposed to be in contact with an internal face of the corrugation between the insulating structural member and the corrugation and comprising: a reinforcing body including a bottom portion , an external face of the bottom portion being flat so as to be in contact with the insulating structural member, and a supporting portion , an external face of the supporting portion corresponding to the internal face of the corrugation so as to be in contact with the internal face of the corrugation, the reinforcing body having the shape of a pipe, a cross section of which is a closed curve; and a reinforcing pipe disposed inside the reinforcing body to be in contact with and support an internal face of the reinforcing body . a reinforcing member disposed to be in contact with an internal face of the corrugation between the insulating structural member and the corrugation and comprising: a reinforcing body including a bottom portion , an external face of the bottom portion being flat so as to be in contact with the insulating structural member, and a supporting portion , an external face of the supporting portion corresponding to the internal face of the corrugation so as to be in contact with the internal face of the corrugation, the reinforcing body having the shape of a pipe, a cross section of which is a closed curve; and a reinforcing pipe disposed inside the reinforcing body to be in contact with and support an internal face of the reinforcing body .
A composite cathode active material for a lithium battery comprising: a lithium composite oxide; a coating layer comprising a metal oxide and a lithium fluoride, wherein the coating layer is disposed on at least a portion of a surface of the lithium composite oxide; and characterized in that a spinel phase is disposed between the lithium composite oxide and the coating layer. a lithium composite oxide; a coating layer comprising a metal oxide and a lithium fluoride, wherein the coating layer is disposed on at least a portion of a surface of the lithium composite oxide; and characterized in that a spinel phase is disposed between the lithium composite oxide and the coating layer.
A computer-implemented method comprising: controlling input of at least a portion of a first training data set into a first machine learning algorithm , the first training data set including: data quantifying damage to a first compressor ; and data quantifying a first operating parameter of the first compressor ; receiving data quantifying the first operating parameter as an output of the first machine learning algorithm ; and training the first machine learning algorithm using: the received data output from the first machine learning algorithm ; and data quantifying the first operating parameter of the first compressor, the trained first machine learning algorithm being configured to enable determination of operability of a second compressor of a gas turbine engine . controlling input of at least a portion of a first training data set into a first machine learning algorithm , the first training data set including: data quantifying damage to a first compressor ; and data quantifying a first operating parameter of the first compressor ; receiving data quantifying the first operating parameter as an output of the first machine learning algorithm ; and training the first machine learning algorithm using: the received data output from the first machine learning algorithm ; and data quantifying the first operating parameter of the first compressor, the trained first machine learning algorithm being configured to enable determination of operability of a second compressor of a gas turbine engine .
A removable containment boom anchor, characterized in that it comprises: an anchor support comprising a flexible body fabricated of at least one resilient material, the flexible body having a base and a tab extending from the base , the flexible body encapsulating a plurality of permanent magnets ; a containment boom connector fastened to the anchor support ; and a reinforcement sheet encapsulated within the flexible body , and in that the reinforcement sheet extends from the base into the tab . an anchor support comprising a flexible body fabricated of at least one resilient material, the flexible body having a base and a tab extending from the base , the flexible body encapsulating a plurality of permanent magnets ; a containment boom connector fastened to the anchor support ; and a reinforcement sheet encapsulated within the flexible body , and in that the reinforcement sheet extends from the base into the tab .
An assembly for a gas turbine engine, the assembly comprising: a valve movable between an open and a closed configuration; and a controller assembly comprising an electromechanical actuator coupled to the valve ; and a single-stage pneumatic flow switch configured to thermally protect the electromechanical actuator by a supply of cooling fluid; wherein the single-stage pneumatic flow switch is movable between a first mode in which the switch is configured to open a cooling fluid flow passage and a second mode in which the switch is configured to close the cooling fluid flow passage ; and characterized in that the electromechanical actuator is disposed in a fluid flow outlet of the valve . a valve movable between an open and a closed configuration; and a controller assembly comprising an electromechanical actuator coupled to the valve ; and a single-stage pneumatic flow switch configured to thermally protect the electromechanical actuator by a supply of cooling fluid; wherein the single-stage pneumatic flow switch is movable between a first mode in which the switch is configured to open a cooling fluid flow passage and a second mode in which the switch is configured to close the cooling fluid flow passage ; and characterized in that the electromechanical actuator is disposed in a fluid flow outlet of the valve .
Use of a parallel connection apparatus for performing voltage leveling, the apparatus comprising: a cathode terminal connection unit; and an anode terminal connection unit, wherein each of the connection units has a plurality of connection members connected to cathode terminals and anode terminals of unit cells, the connection members being electrically connected with each other. a cathode terminal connection unit; and an anode terminal connection unit, wherein each of the connection units has a plurality of connection members connected to cathode terminals and anode terminals of unit cells, the connection members being electrically connected with each other.
A power-assisted rollator comprising: a frame ; at least one front wheel and at least one rear wheel provided on the frame ; a drive unit configured to produce a driving force to lift the at least one front wheel relative to the at least one rear wheel ; and a control unit connected to the drive unit and configured to control the drive unit , when the control unit determines that the at least one front wheel has struck a step while a user is trying to move the power-assisted rollator forward, the control unit controls the drive unit to lift the at least one front wheel relative to the at least one rear wheel ; and characterized in that when a deceleration of the power-assisted rollator is equal to or greater than a first threshold value, the control unit determines that the at least one front wheel has struck a step while the user is trying to move the power-assisted rollator forward. a frame ; at least one front wheel and at least one rear wheel provided on the frame ; a drive unit configured to produce a driving force to lift the at least one front wheel relative to the at least one rear wheel ; and a control unit connected to the drive unit and configured to control the drive unit , when the control unit determines that the at least one front wheel has struck a step while a user is trying to move the power-assisted rollator forward, the control unit controls the drive unit to lift the at least one front wheel relative to the at least one rear wheel ; and characterized in that when a deceleration of the power-assisted rollator is equal to or greater than a first threshold value, the control unit determines that the at least one front wheel has struck a step while the user is trying to move the power-assisted rollator forward.
A method for forming a busbar having a contact section comprising: - providing a first conductive section made from copper, - providing a second conductive section made from copper, wherein the second conductive section includes the contact section or is connected to the contact section and wherein the second conductive section is at least partially covered with nickel and/or tin and - creating a laser welding bond, in particular a laser welding seam , between the first conductive section and the second conductive section , by laser welding. - providing a first conductive section made from copper, - providing a second conductive section made from copper, wherein the second conductive section includes the contact section or is connected to the contact section and wherein the second conductive section is at least partially covered with nickel and/or tin and - creating a laser welding bond, in particular a laser welding seam , between the first conductive section and the second conductive section , by laser welding.