mhurhangee/patent-ind-claim-en huggingface dataset:
A method for measuring light diffusion in the eyeball or in the ocular region, comprising performing the following steps: - projecting a punctiform light beam onto the retina of at least one eye of a patient; - performing a first ocular aberrations measurement of said at least one eye and using the obtained results for correcting low-order ocular aberrations of said eye; and - capturing and recording, once said low-order aberrations have been corrected, at least one image of a retinal plane formed after reflection of said punctiform light beam on the retina and a double passage through the ocular media of said eye; - performing, at the same time as said capturing and recording of said image of the retinal plane, a second ocular aberrations measurement, of high- and low-order, in a plane of the pupil of said eye; and - performing a light diffusion measurement, combining information obtained by means of said second high- and low- order ocular aberrations measurement with information of said image of the retinal plane. - projecting a punctiform light beam onto the retina of at least one eye of a patient; - performing a first ocular aberrations measurement of said at least one eye and using the obtained results for correcting low-order ocular aberrations of said eye; and - capturing and recording, once said low-order aberrations have been corrected, at least one image of a retinal plane formed after reflection of said punctiform light beam on the retina and a double passage through the ocular media of said eye; - performing, at the same time as said capturing and recording of said image of the retinal plane, a second ocular aberrations measurement, of high- and low-order, in a plane of the pupil of said eye; and - performing a light diffusion measurement, combining information obtained by means of said second high- and low- order ocular aberrations measurement with information of said image of the retinal plane.
A pharmaceutical composition for use in the alleviation or/and treatment of a viral disease, wherein the pharmaceutical composition consists of phillyrin, phillygeninin and a pharmaceutically acceptable carrier and the ratio of phillyrin to phillygeninin in parts by weight is 80-98:2-20.
A compound of Formula (Ia): or a pharmaceutically acceptable salt thereof, wherein: R 1 is hydrogen, halogen, -C 1 -C 4 -alkyl, -C 1 -C 4 -haloalkyl, -CN, -C 1 -C 4 -alkoxy, -C 1 -C 4 -haloalkoxy, or -C 3 -C 6 -cycloalkyl; R 2 is -C 1 -C 4 -haloalkoxy; x is an integer having a value of 1 or 2; each R 20 is independently hydrogen, halogen, -C 1 -C 4 -alkyl, -CN, or -C 1 -C 4 -alkoxy. R 1 is hydrogen, halogen, -C 1 -C 4 -alkyl, -C 1 -C 4 -haloalkyl, -CN, -C 1 -C 4 -alkoxy, -C 1 -C 4 -haloalkoxy, or -C 3 -C 6 -cycloalkyl; R 2 is -C 1 -C 4 -haloalkoxy; x is an integer having a value of 1 or 2; each R 20 is independently hydrogen, halogen, -C 1 -C 4 -alkyl, -CN, or -C 1 -C 4 -alkoxy.
A method for determining a navigation solution comprising: obtaining inertial navigation system, INS, information from one or more sources at a first epoch; storing said INS information obtained in the first epoch, wherein the stored INS information is not sufficient to compute a navigation solution; and obtaining at a second epoch subsequent to the first epoch a second portion of information, which enables to determine a starting location where the stored INS information was taken, the second portion of information comprising position information from one or more satellite positioning system, SPS, sources, wherein the obtaining is in response to a changed signal environment and/or a changed view to the one or more sources; correlating the starting location with a recorded time at which the INS measurements were taken; and extrapolating a position using the recorded time and said starting location where said INS information was taken, based, at least in part on the stored INS information. obtaining inertial navigation system, INS, information from one or more sources at a first epoch; storing said INS information obtained in the first epoch, wherein the stored INS information is not sufficient to compute a navigation solution; and obtaining at a second epoch subsequent to the first epoch a second portion of information, which enables to determine a starting location where the stored INS information was taken, the second portion of information comprising position information from one or more satellite positioning system, SPS, sources, wherein the obtaining is in response to a changed signal environment and/or a changed view to the one or more sources; correlating the starting location with a recorded time at which the INS measurements were taken; and extrapolating a position using the recorded time and said starting location where said INS information was taken, based, at least in part on the stored INS information.
Liquid circuit for use in a wind turbine having a nacelle, with a coolant, a cooling section for cooling a component of the wind turbine using the coolant, a cooler for cooling the coolant, a piping system for conveying the coolant, wherein the liquid circuit has an expansion tank which is arranged above the cooler and by using static pressure of a liquid column establishes a pressure for obtaining an operating pressure of the liquid circuit , characterized in that the expansion tank has an expansion valve which is configured such that: - above a predetermined overpressure, it vents pressure outward and - below a predetermined underpressure, it allows pressure in from outside. a coolant, a cooling section for cooling a component of the wind turbine using the coolant, a cooler for cooling the coolant, a piping system for conveying the coolant, wherein the liquid circuit has an expansion tank which is arranged above the cooler and by using static pressure of a liquid column establishes a pressure for obtaining an operating pressure of the liquid circuit , characterized in that the expansion tank has an expansion valve which is configured such that: - above a predetermined overpressure, it vents pressure outward and - below a predetermined underpressure, it allows pressure in from outside. - above a predetermined overpressure, it vents pressure outward and - below a predetermined underpressure, it allows pressure in from outside.
Expansion dowel , comprising a tubular body made of a plastic material having a first resistance to deformation, said tubular body comprising at least one pair of longitudinal sections diametrically opposite to each other and separated by longitudinal openings , which are correspondingly diametrically opposite to each other, wherein corresponding longitudinal inserts , made of a plastic material having a second resistance to deformation, are received in said longitudinal openings and are correspondingly diametrically opposite to each other, wherein said expansion dowel can pass from a first, non-deformed configuration, in which said diametrically opposite longitudinal inserts are substantially mutually parallel and said diametrically opposite longitudinal body sections are substantially mutually parallel, to a second, deformed configuration, in which said diametrically opposite longitudinal inserts move away from each other at their middle portion, and said diametrically opposite longitudinal body sections move away from each other at their middle portion, and wherein said body at a first end thereof ends with a head and at the second, opposite end thereof ends with a flange , and said longitudinal inserts are connected, at a first end close to said head of said tubular body, to a first annular collar and, at a second, opposite end close to said flange of said tubular body, to a second annular collar , characterized in that said longitudinal openings are through-openings and diametrically opposite longitudinal sections of said body alternate with corresponding longitudinal inserts , whereby the lateral surface of said dowel is formed by longitudinal inserts diametrically opposite two by two and alternating with longitudinal body sections diametrically opposite two by two and said longitudinal sections of said body form first expansion sectors diametrically opposite to each other and said longitudinal inserts form second expansion sectors diametrically opposite to each other, in the expansion region said first expansion sectors formed by said longitudinal sections of the body and said second expansion sectors formed by said longitudinal inserts being in no way constrained to one another, whereby the expansion of said first and second expansion sectors takes place independently, without one hindering the other.
A method of a first network node of a cellular communication network comprising at least a first network node and a second network node, wherein the first network node is adapted to transmit a first signal over a first frequency region using a first radio access technology, the second network node is adapted to transmit a second signal over a second frequency region using a second radio access technology, the first radio access technology is a single radio frequency carrier radio access technology, the first frequency region is partitioned into two or more sub-regions, the second frequency region is one of the sub-regions of the first frequency region, the first signal is a desired signal and the second signal is an interfering signal, the method comprising: determining that a wireless communication device residing in a cell served by the first network node is interfered by the second signal during signal reception over the first frequency region; wherein the determination comprises: receiving a capability indication of the wireless communication device; and determining that the wireless communication device is interfered by the second signal based on the capability indication; sending a first configuration message to the wireless communication device, wherein the first configuration message is adapted to cause the wireless communication device to report separate channel quality indicator values for each of the two or more sub-regions; receiving a channel quality indicator report indicative of the separate channel quality indicator values for each of the two or more sub-regions from the wireless communication device; and scheduling transmission of the first signal to the wireless communication device in one or more of the two or more sub-regions based on the received channel quality indicator report. receiving a capability indication of the wireless communication device; and determining that the wireless communication device is interfered by the second signal based on the capability indication; sending a first configuration message to the wireless communication device, wherein the first configuration message is adapted to cause the wireless communication device to report separate channel quality indicator values for each of the two or more sub-regions; receiving a channel quality indicator report indicative of the separate channel quality indicator values for each of the two or more sub-regions from the wireless communication device; and scheduling transmission of the first signal to the wireless communication device in one or more of the two or more sub-regions based on the received channel quality indicator report.
A fibre optic sensing device comprising a plurality of optical fibre portions , wherein each optical fibre portion is arranged to receive laser light from a common laser and reflect the laser light to a common detector , wherein each optical fibre portion comprises a first reflector spaced from a distal end of the optical fibre portion and a second reflector at the distal end , wherein each optical fibre portion comprises a sensor provided at the respective distal end of the optical fibre portion , the sensor comprising a third reflector , wherein a distance between the first and second reflectors is different for each of the optical fibre portions and wherein the sensor is configured such that a physical property between the second and third reflectors varies depending on a parameter being sensed.
An RNA virus vector comprising an RNA virus comprising a gene encoding the human DNA-dependent activator of interferon-regulatory factors (DAI) protein and a gene encoding the human receptor-interacting serine/threonine-protein kinase 3 (RIPK3) protein, wherein the RNA virus vector is a positive sense RNA virus, a negative sense RNA virus, or a retrovirus.
Device having a flow channel (K) for a fluid, wherein a nonreturn valve is arranged in the flow channel (K), said nonreturn valve allowing the fluid to flow through the flow channel (K) in a first direction and preventing it from flowing through the flow channel (K) in a direction counter to the first direction, wherein the device furthermore has a flow detector for detecting the flow of the fluid through the flow channel (K), wherein the flow detector detects a change in the nonreturn valve , wherein this detected change serves as an indicator for the flow of the fluid, wherein wherein the nonreturn valve has a valve diaphragm and wherein the flow detector detects a deflection of the valve diaphragm , characterized in that the flow detector has an optical detector for detecting the change in the nonreturn valve , that the nonreturn valve is provided with a lug , the position of which is detected by the flow detector , wherein the lug is arranged on the valve diaphragm , that the optical detector comprises a light emitter and a light detector , wherein the nonreturn valve is arranged, in the changed and/or in the unchanged state, in a light path (L) between the light emitter and the light detector and that the lug is arranged in the light path (L).
A high-pitched loudspeaker comprising a magnetic circuit system, a voice coil , and a diaphragm connected to the voice coil , wherein a first cavity is formed between the magnetic circuit system and the voice coil and the diaphragm , the high-pitched loudspeaker is characterized in that , the high-pitched speaker further comprises a back cover , the magnetic circuit system is arranged between the diaphragm and the back cover , and a second cavity is formed between the back cover and the magnetic circuit system, at least one through-hole is opened in the magnetic circuit system, and the first cavity and the second cavity are communicated with each other by the at least one through-hole to form an air gap cavity of the high-pitched loudspeaker, the high-pitched speaker further comprises a damping material arranged in the air gap cavity, the damping material is polyurethane foam or foamed rubber or felt, wherein the back cover encloses the second cavity on the back side of the magnetic system.
Lightweight seat for vehicles, in particular for rear seats for motor vehicles, consisting of a carrier part , wherein the carrier part is produced from a dimensionally stable material and has integrally therewith at least one seat shell for a seat user, wherein the at least one seat shell is designed as a depression which corresponds to a shape of the buttocks of a seat user, wherein the seat is delimited by a front side and a rear side as viewed in the vehicle longitudinal direction, and the depression has a rear seat shell portion which rises rearwardly towards the rear side , wherein the rear seat shell portion is adjoined by two seat shell portions which extend in the direction of the front side for receiving the thighs of a seat user, which seat shell portions rise in a transverse direction towards the respective edge of the seat shell and each have a concave shape, wherein an armrest is respectively formed by the carrier part on both sides adjacent to at least one seat shell , the side walls of which armrest naturally delimit the seat shell region and are designed to provide the seat user with lateral retention.
A hybrid polymer latex comprising: a) an organic fraction comprising a polymer wherein the total solid contents of constituent ingredients are at least 45% w/w of the hybrid polymer latex, b) a modified inorganic component comprising at least 50% of an inorganic fraction comprising a nanoparticulate dispersion of an oxide of a metalloid from Group 14 of the periodic table having four valence electrons in its p-orbital, and wherein the modified inorganic component in said hybrid polymer latex is in an amount of at least 0.4 parts per 100 parts by weight of the polymer, the hybrid polymer latex comprises homogenous integration and association of the modified inorganic component with the organic fraction, and c) polyfunctional amines including polyethyleneamine, polymerization products of aziridine or a combination thereof wherein said polyfunctional amines are present at an amount of at least 2 parts per 100 parts by weight of the polymer, wherein: said hybrid polymer latex having a glass transition temperature ranging from 15 degrees Celsius to 35 degrees Celsius. a) an organic fraction comprising a polymer wherein the total solid contents of constituent ingredients are at least 45% w/w of the hybrid polymer latex, b) a modified inorganic component comprising at least 50% of an inorganic fraction comprising a nanoparticulate dispersion of an oxide of a metalloid from Group 14 of the periodic table having four valence electrons in its p-orbital, and wherein the modified inorganic component in said hybrid polymer latex is in an amount of at least 0.4 parts per 100 parts by weight of the polymer, the hybrid polymer latex comprises homogenous integration and association of the modified inorganic component with the organic fraction, and c) polyfunctional amines including polyethyleneamine, polymerization products of aziridine or a combination thereof wherein said polyfunctional amines are present at an amount of at least 2 parts per 100 parts by weight of the polymer, wherein: said hybrid polymer latex having a glass transition temperature ranging from 15 degrees Celsius to 35 degrees Celsius.
A cell measurement method, comprising: sending , by a base station a measurement configuration message to a user equipment, UE, characterized in that wherein the measurement configuration message comprises a physical cell identity, channel state information-reference signal, CSI-RS, configuration information corresponding to each of a plurality of measured cells indicated by the physical cell identity, and a configuration index number of the CSI-RS configuration information; and receiving , by the base station from the UE, a CSI-RSRP and the configuration index number, wherein the CSI-RSRP is obtained from measuring on a CSI-RS corresponding to a first cell of the plurality of cells based on a resource of the first cell according to CSI-RS configuration information corresponding to the first cell. sending , by a base station a measurement configuration message to a user equipment, UE, characterized in that wherein the measurement configuration message comprises a physical cell identity, channel state information-reference signal, CSI-RS, configuration information corresponding to each of a plurality of measured cells indicated by the physical cell identity, and a configuration index number of the CSI-RS configuration information; and receiving , by the base station from the UE, a CSI-RSRP and the configuration index number, wherein the CSI-RSRP is obtained from measuring on a CSI-RS corresponding to a first cell of the plurality of cells based on a resource of the first cell according to CSI-RS configuration information corresponding to the first cell.
Process for producing high-purity silicon, which comprises the steps • provision of silicon-containing powder, • feeding of the silicon-containing powder into a gas stream, where the gas has a temperature which is sufficiently high to convert particles of metallic silicon from the solid state into the liquid and/or gaseous state, • collection and optionally condensation of the liquid and/or gaseous silicon formed and • cooling of the collected liquid and/or condensed silicon, preferably in a casting mould, so that a silicon block is produced again directly, wherein the silicon-containing powder is at least partly powder obtained during wire sawing of a silicon block. • provision of silicon-containing powder, • feeding of the silicon-containing powder into a gas stream, where the gas has a temperature which is sufficiently high to convert particles of metallic silicon from the solid state into the liquid and/or gaseous state, • collection and optionally condensation of the liquid and/or gaseous silicon formed and • cooling of the collected liquid and/or condensed silicon, preferably in a casting mould, so that a silicon block is produced again directly,
A method for producing a package assembly , said method comprising attaching a supplementary package to a secondary package , attaching said secondary package to a primary package , such that said supplementary package is arranged in a space formed between said secondary package and said primary package, wherein the step of attaching said supplementary package to said secondary package comprises attaching a first portion of said supplementary package to a removable cover of said secondary package , and, further comprising the step of attaching a second portion of said supplementary package to a portion of said secondary package different from said removable cover or to a portion of said primary package .
A flat-conductor ribbon cable having a first group of flat conductors that run parallel to each other and are spaced apart from each other, a second group of flat conductors that run parallel to each other and are spaced apart from each other, and outer films of an isolating material, wherein the flat conductors of the first and second groups are exposed on at least one front side of the flat-conductor ribbon cable, the exposed ends of the flat conductors of the first group are splayed out from the exposed ends of the flat conductors of the second group, whereby an offset (d 7 ) between the flat conductors of the first group and the flat conductors of the second group is formed on their exposed ends in the thickness direction of the flat-conductor ribbon cable, wherein the course of the exposed ends of the flat conductors of the second group is not subject to a change in the direction and for splaying out the exposed ends of the flat conductors of the first group from the exposed ends of the flat conductors of the second group only the exposed ends of the flat conductors of the first group are subject to one or more changes in the direction, wherein there is a change in the direction in a state where the exposed ends of the flat conductors are led out from the plane in which they run between the outer films , whereby the offset (d 7 ) is formed between the flat conductors of the first group and the flat conductors of the second group on their exposed ends; and wherein the outer films comprise a first outer film and a second outer film , wherein the flat conductors of the first group are arranged between the first outer film and a separating film and the flat conductors of the second group are arranged between the second outer film and the separating film , wherein the flat-conductor ribbon cable has at least one region at which the flat conductors of the first group and the second group are exposed and at which the separating film and the second outer film protrude beyond the first outer film with respect to the longitudinal direction (z) of the flat-conductor ribbon cable to form an offset .