mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preserving privacy in an HTTP communication between a client and a server, the method comprising: intercepting, by a cookie modifier module, an HTTP request that is sent from said client to said server; extracting, by the cookie modifier module, a cookie from said HTTP request, wherein said cookie includes a cookie name and a cookie value; splitting, by the cookie modifier module, said cookie value into information segments, wherein the splitting is performed based on a split pattern for said cookie value such that said information segments and their data formats are identifiable; and modifying, by the cookie modifier module, one or more of said information segments based on predefined modification rules; wherein said split pattern for said cookie value is selected based on said cookie name and/or said server that is associated with said cookie, wherein the cookie modifier module receives said split pattern for said cookie value from a cookie format analyzer module that is configured to provide split patterns for predetermined cookie names, wherein said cookie format analyzer module intercepts network traffic and extracts a plurality of cookies from one or more servers, and wherein said cookie format analyzer module performs entity extraction in order to determine data formats within cookie values. intercepting, by a cookie modifier module, an HTTP request that is sent from said client to said server; extracting, by the cookie modifier module, a cookie from said HTTP request, wherein said cookie includes a cookie name and a cookie value; splitting, by the cookie modifier module, said cookie value into information segments, wherein the splitting is performed based on a split pattern for said cookie value such that said information segments and their data formats are identifiable; and modifying, by the cookie modifier module, one or more of said information segments based on predefined modification rules; wherein said split pattern for said cookie value is selected based on said cookie name and/or said server that is associated with said cookie, wherein the cookie modifier module receives said split pattern for said cookie value from a cookie format analyzer module that is configured to provide split patterns for predetermined cookie names, wherein said cookie format analyzer module intercepts network traffic and extracts a plurality of cookies from one or more servers, and wherein said cookie format analyzer module performs entity extraction in order to determine data formats within cookie values.
A reactor system for a single phase, multistage hydroprocessing of a liquid hydrocarbon feed pre-saturated with hydrogen, the reactor system comprising: a horizontal reactor with a feed inlet nozzle at one lateral end for axial entry of a premixed mixture of liquid hydrocarbon feed and gaseous hydrogen at mixing point ; a fixed bed catalyst loaded inside the reactor throughout length of the reactor, wherein the reactor is a fixed bed reactor; a longitudinal sparger running along bottom portion of the reactor with a multitude of nozzles provided at top periphery of the sparger to distribute gaseous hydrogen; a multitude of vertically oriented gas separation and withdrawal means provided at top of the reactor acting as micro separation vessels and withdrawal assembly, integrated with the reactor for removal of product gases comprising hydrogen sulfide (H 2 S), ammonia (NH 3 ) and dry gases that rise as bubbles against horizontally flowing liquid hydrocarbon feed, wherein the gas separation and withdrawal means are vertical separation limbs each provided with pressure and level control devices to control pressure and levels of each portion, and wherein each vertical limb comprises a gas-liquid disengaging space (6A, 6B and 6C) and gas withdrawal assembly (5A, 5B and 5C); and an outlet product collector provided with small outlet collectors distributed uniformly along cross section of the horizontal reactor designed to avoid accumulation of liquids at other lateral end of the reactor and enable removal of liquid product depleted of heteroatoms. a horizontal reactor with a feed inlet nozzle at one lateral end for axial entry of a premixed mixture of liquid hydrocarbon feed and gaseous hydrogen at mixing point ; a fixed bed catalyst loaded inside the reactor throughout length of the reactor, wherein the reactor is a fixed bed reactor; a longitudinal sparger running along bottom portion of the reactor with a multitude of nozzles provided at top periphery of the sparger to distribute gaseous hydrogen; a multitude of vertically oriented gas separation and withdrawal means provided at top of the reactor acting as micro separation vessels and withdrawal assembly, integrated with the reactor for removal of product gases comprising hydrogen sulfide (H 2 S), ammonia (NH 3 ) and dry gases that rise as bubbles against horizontally flowing liquid hydrocarbon feed, wherein the gas separation and withdrawal means are vertical separation limbs each provided with pressure and level control devices to control pressure and levels of each portion, and wherein each vertical limb comprises a gas-liquid disengaging space (6A, 6B and 6C) and gas withdrawal assembly (5A, 5B and 5C); and an outlet product collector provided with small outlet collectors distributed uniformly along cross section of the horizontal reactor designed to avoid accumulation of liquids at other lateral end of the reactor and enable removal of liquid product depleted of heteroatoms.
Lighting module for a motor vehicle headlight, specifically for providing a first beam with cut-off, said lighting module comprising: - a first, flat light emitter , giving the first beam; - a lens (L, L1, L', La) disposed in front of the emitter, - a first reflector (R1, R'1), characterized in that : - the first reflector (R1, R'1) is determined so as to create, in a plane comprising the first emitter , a light spot (S, S') by deflection of the rays emitted by the first emitter, said light spot being limited by a control curve (A, A') constituting the front edge or the rear edge of the spot, the curve being contained in the plane comprising the first emitter and situated in front of the first emitter, - the lens (L, L1, L', La) is determined in such a way that its section (Lc), through a plane (Vc) orthogonal to said control curve (A) at any point, is identical to that of a stigmatic reference lens between the point of intersection of the control curve with the orthogonal plane, and the infinity in the direction given by the intersection of the orthogonal plane and of the plane of the curve, the material of the lens (L, L1, L', La) of said module and of said reference lens having the same refractive index, the first reflector and the lens being arranged so as to form the first beam with cut-off after refraction by the lens of the rays deflected by the first reflector, the cut-off line of the first beam with cut-off being determined by the control curve. - a first, flat light emitter , giving the first beam; - a lens (L, L1, L', La) disposed in front of the emitter, - a first reflector (R1, R'1), - the first reflector (R1, R'1) is determined so as to create, in a plane comprising the first emitter , a light spot (S, S') by deflection of the rays emitted by the first emitter, said light spot being limited by a control curve (A, A') constituting the front edge or the rear edge of the spot, the curve being contained in the plane comprising the first emitter and situated in front of the first emitter, - the lens (L, L1, L', La) is determined in such a way that its section (Lc), through a plane (Vc) orthogonal to said control curve (A) at any point, is identical to that of a stigmatic reference lens between the point of intersection of the control curve with the orthogonal plane, and the infinity in the direction given by the intersection of the orthogonal plane and of the plane of the curve, the material of the lens (L, L1, L', La) of said module and of said reference lens having the same refractive index, the first reflector and the lens being arranged so as to form the first beam with cut-off after refraction by the lens of the rays deflected by the first reflector, the cut-off line of the first beam with cut-off being determined by the control curve.
A tissue containment and removal system , comprising: a tissue container comprising a translucent wall structure ; and a bulk tissue reducer including: a tissue cutter having a hollow structure with an inner lumen extending a length thereof and a tissue cutting blade disposed at a distal end of the tissue cutter , and a light energy source configured to emit light energy in a distal direction through the inner lumen and from the distal end of the tissue cutter . a tissue container comprising a translucent wall structure ; and a bulk tissue reducer including: a tissue cutter having a hollow structure with an inner lumen extending a length thereof and a tissue cutting blade disposed at a distal end of the tissue cutter , and a light energy source configured to emit light energy in a distal direction through the inner lumen and from the distal end of the tissue cutter . a tissue cutter having a hollow structure with an inner lumen extending a length thereof and a tissue cutting blade disposed at a distal end of the tissue cutter , and a light energy source configured to emit light energy in a distal direction through the inner lumen and from the distal end of the tissue cutter .
A method implemented by a transparent proxy to support graceful switchover in a network, wherein the transparent proxy proxies one or more Transmission Control Protocol, TCP, connections involving a destination Internet Protocol, IP, address, the method comprising: receiving an instruction from an Application Flow Controller, AFC, to start a switchover timer for the destination IP address; starting the switchover timer for the destination IP address in response to receiving the instruction from the AFC to start the switchover timer for the destination IP address; determining whether all of the one or more TCP connections involving the destination IP address that are proxied by the transparent proxy have ended or the switchover timer for the destination IP address has expired; and transmitting an indication to the AFC that all of the one or more TCP connections involving the destination IP address that are proxied by the transparent proxy have ended or the switchover timer for the destination IP address has expired in response to a determination that all of the one or more TCP connections involving the destination IP address that are proxied by the transparent proxy have ended or the switchover timer for the destination IP address has expired. receiving an instruction from an Application Flow Controller, AFC, to start a switchover timer for the destination IP address; starting the switchover timer for the destination IP address in response to receiving the instruction from the AFC to start the switchover timer for the destination IP address; determining whether all of the one or more TCP connections involving the destination IP address that are proxied by the transparent proxy have ended or the switchover timer for the destination IP address has expired; and transmitting an indication to the AFC that all of the one or more TCP connections involving the destination IP address that are proxied by the transparent proxy have ended or the switchover timer for the destination IP address has expired in response to a determination that all of the one or more TCP connections involving the destination IP address that are proxied by the transparent proxy have ended or the switchover timer for the destination IP address has expired.
An autoclave molding apparatus for use in molding a composite material composed of a fibrous base material and a matrix and sealed together with a molding tool in a vacuum bag , using steam for heating and compressing the composite material , characterized by a condensed water holder configured to hold condensed water generated during the heating is mounted on at least a portion of the vacuum bag or at least a portion of the molding tool , or the condensed water holders are mounted on at least a portion of the vacuum bag and at least a portion of the molding tool .
A scanning system for incising target tissue in a patient's eye comprising: a light source for generating a light beam , wherein the light source is an ultrafast laser; a controller a scanner for deflecting the light beam to form first and second treatment patterns of the light beam under the control of the controller; a delivery system for delivering the first treatment pattern to the target tissue to form a cataract incision therein that provides access to an eye chamber of the patient's eye and also for delivering the second treatment pattern to the target tissue to form a relaxation incision in the patient's eye to reduce astigmatism thereof; and the controller being operatively coupled to the light source and the scanner , and configured to: (a) control the scanner to scan the light beam in the first treatment pattern so that the cataract incision has a bevel feature and so that the light beam incises the cataract incision in the cornea or limbus; and (b) control the scanner to scan the light beam in the second treatment pattern so that the light beam incises into the limbus or the cornea of the patient's eye. a light source for generating a light beam , wherein the light source is an ultrafast laser; a controller a scanner for deflecting the light beam to form first and second treatment patterns of the light beam under the control of the controller; a delivery system for delivering the first treatment pattern to the target tissue to form a cataract incision therein that provides access to an eye chamber of the patient's eye and also for delivering the second treatment pattern to the target tissue to form a relaxation incision in the patient's eye to reduce astigmatism thereof; and the controller being operatively coupled to the light source and the scanner , and configured to: (a) control the scanner to scan the light beam in the first treatment pattern so that the cataract incision has a bevel feature and so that the light beam incises the cataract incision in the cornea or limbus; and (b) control the scanner to scan the light beam in the second treatment pattern so that the light beam incises into the limbus or the cornea of the patient's eye. (a) control the scanner to scan the light beam in the first treatment pattern so that the cataract incision has a bevel feature and so that the light beam incises the cataract incision in the cornea or limbus; and (b) control the scanner to scan the light beam in the second treatment pattern so that the light beam incises into the limbus or the cornea of the patient's eye.
A method for manufacturing a handle substrate , the method comprising the steps of: a) supplying a support substrate comprising a receiving face, b) depositing an anti-adhesive formulation comprising a first solvent on the receiving face of the support substrate so as to form a film , c) depositing a liquid formulation on one face of the film , before the complete evaporation of the first solvent, the liquid formulation being intended to form an adhesive layer , and d) evaporating the first solvent so as to obtain an anti-adhesive film from the film in order to obtain the handle substrate and to obtain a bonding energy between the anti-adhesive film and the adhesive layer lower than 1.2 J/m 2 . a) supplying a support substrate comprising a receiving face, b) depositing an anti-adhesive formulation comprising a first solvent on the receiving face of the support substrate so as to form a film , c) depositing a liquid formulation on one face of the film , before the complete evaporation of the first solvent, the liquid formulation being intended to form an adhesive layer , and d) evaporating the first solvent so as to obtain an anti-adhesive film from the film in order to obtain the handle substrate and to obtain a bonding energy between the anti-adhesive film and the adhesive layer lower than 1.2 J/m 2 .
A method of using non-codebook based channel state information feedback comprising: sending , by a network element to a user equipment, for providing a channel state information feedback, precoded reference signals corresponding to a plurality of logical antenna ports with one precoding codeword for each of the plurality of logical antenna ports; receiving , by the network element from the user equipment, a non-codebook based report comprising information on selected one or more of the plurality of logical antenna ports, the information comprising one or more of indices of the selected one or more of the plurality of logical antenna ports and corresponding one or more channel quality indicators for the selected one or more of the plurality of logical antenna ports, wherein the non-codebook based report does not comprise any precoding codeword; and sending data, by the network element to the user equipment, using the selected one or more of the plurality of logical antenna ports and the corresponding one precoding codeword for each of the selected one or more of the plurality of logical antenna ports. sending , by a network element to a user equipment, for providing a channel state information feedback, precoded reference signals corresponding to a plurality of logical antenna ports with one precoding codeword for each of the plurality of logical antenna ports; receiving , by the network element from the user equipment, a non-codebook based report comprising information on selected one or more of the plurality of logical antenna ports, the information comprising one or more of indices of the selected one or more of the plurality of logical antenna ports and corresponding one or more channel quality indicators for the selected one or more of the plurality of logical antenna ports, wherein the non-codebook based report does not comprise any precoding codeword; and sending data, by the network element to the user equipment, using the selected one or more of the plurality of logical antenna ports and the corresponding one precoding codeword for each of the selected one or more of the plurality of logical antenna ports.
A computer-implemented method , comprising: - obtaining multiple magnetic resonance imaging, MRI, images, wherein the multiple MRI images are obtained from frequency scout measurements associated with multiple frequency offsets from a reference frequency of a magnetization excitation pulse, - determining from the multiple MRI images at least one reference image based on spectrum information of each of the multiple MRI images, wherein the spectrum information pertains to spatial frequency components of the multiple MRI images, wherein from the multiple MRI images a subset including two or more MRI images based on the spectrum information of each of the multiple MRI images is determined, wherein the two or more MRI images included in the subset have a minimum high-frequency signal contribution, wherein the at least one reference image is determined based on the subset of the two or more MRI images, - determining , for each one of the multiple MRI images, a respective similarity measure based on a comparison between the at least one reference image and the respective MRI image, and - selecting , based on the similarity measures, a frequency offset for a subsequent MRI scan from the multiple frequency offsets. - obtaining multiple magnetic resonance imaging, MRI, images, wherein the multiple MRI images are obtained from frequency scout measurements associated with multiple frequency offsets from a reference frequency of a magnetization excitation pulse, - determining from the multiple MRI images at least one reference image based on spectrum information of each of the multiple MRI images, wherein the spectrum information pertains to spatial frequency components of the multiple MRI images, wherein from the multiple MRI images a subset including two or more MRI images based on the spectrum information of each of the multiple MRI images is determined, wherein the two or more MRI images included in the subset have a minimum high-frequency signal contribution, wherein the at least one reference image is determined based on the subset of the two or more MRI images, wherein from the multiple MRI images a subset including two or more MRI images based on the spectrum information of each of the multiple MRI images is determined, wherein the two or more MRI images included in the subset have a minimum high-frequency signal contribution, wherein the at least one reference image is determined based on the subset of the two or more MRI images, - determining , for each one of the multiple MRI images, a respective similarity measure based on a comparison between the at least one reference image and the respective MRI image, and - selecting , based on the similarity measures, a frequency offset for a subsequent MRI scan from the multiple frequency offsets.
A method for preparing a QD composite material, comprising: synthesizing a first compound at a predetermined position using cation precursors including a zinc precursor and a cadmium precursor, and anion precursors including a sulfur precursor and a selenium precursor to form Cd y Zn 1-y Se b S 1-b , where 0 < y ≤ 1, 0 < b ≤ 1; synthesizing a second compound on a surface of the first compound using cation precursors including a zinc precursor and a cadmium precursor and anion precursors including a sulfur precursor and a selenium precursor to form Cd z Zn 1-z Se c S 1-c , where 0 < z ≤ 1, 0 < c ≤ 1 and z is not equal to y, wherein the second compound and the first compound have different alloy compositions; and forming the QD composite material through a cation exchange reaction between the first compound and the second compound by a heating temperature in a range from 100 °C to 400 °C, preferably 310 °C, a heating time in a range from 2 seconds to 24 hours, a reaction time of preferably 5 minutes, and an injection rate preferably of 3 mL/h and 6 mL/h of the sulfur precursor and the selenium precursor, wherein a light-emission peak wavelength of the QD composite material experiences one or more of a blue-shift, a red-shift, and no-shift in accordance to an energy level width shift between a valence band and a conduction band of the QD composite material, wherein a gradient alloy composition distribution Cd x Zn 1-x Se a S 1-a , where 0 < x ≤ 1, 0 < a ≤ 1, is formed at the interface between Cd y Zn 1-y Se b S 1-b and Cd z Zn 1-z Se c S 1-c . synthesizing a first compound at a predetermined position using cation precursors including a zinc precursor and a cadmium precursor, and anion precursors including a sulfur precursor and a selenium precursor to form Cd y Zn 1-y Se b S 1-b , where 0 < y ≤ 1, 0 < b ≤ 1; synthesizing a second compound on a surface of the first compound using cation precursors including a zinc precursor and a cadmium precursor and anion precursors including a sulfur precursor and a selenium precursor to form Cd z Zn 1-z Se c S 1-c , where 0 < z ≤ 1, 0 < c ≤ 1 and z is not equal to y, wherein the second compound and the first compound have different alloy compositions; and forming the QD composite material through a cation exchange reaction between the first compound and the second compound by a heating temperature in a range from 100 °C to 400 °C, preferably 310 °C, a heating time in a range from 2 seconds to 24 hours, a reaction time of preferably 5 minutes, and an injection rate preferably of 3 mL/h and 6 mL/h of the sulfur precursor and the selenium precursor, wherein a light-emission peak wavelength of the QD composite material experiences one or more of a blue-shift, a red-shift, and no-shift in accordance to an energy level width shift between a valence band and a conduction band of the QD composite material, wherein a gradient alloy composition distribution Cd x Zn 1-x Se a S 1-a , where 0 < x ≤ 1, 0 < a ≤ 1, is formed at the interface between Cd y Zn 1-y Se b S 1-b and Cd z Zn 1-z Se c S 1-c .