mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus comprising: a display comprising: a first display panel (111-1), a lens array disposed on the first display panel (111-1), and a second display panel (111-2) disposed on the lens array ; and a processor configured to: based on a plurality of light field, "LF" images, obtain a left, "L" image and a right, "R" image to drive the display by time-multiplexing, correct a second L image to drive the second display panel (111-2) among L images based on a first R image to drive the first display panel (111-1) among R images, and correct a second R image to drive the second display panel (111-2) among the R images based on a first L image to drive the first display panel (111-1) among the L images, and display a stereoscopic image by driving the display by time-multiplexing based on the L image which comprises the corrected second L image and the R image which comprises the corrected second R image. a first display panel (111-1), a lens array disposed on the first display panel (111-1), and a second display panel (111-2) disposed on the lens array ; and a processor configured to: based on a plurality of light field, "LF" images, obtain a left, "L" image and a right, "R" image to drive the display by time-multiplexing, correct a second L image to drive the second display panel (111-2) among L images based on a first R image to drive the first display panel (111-1) among R images, and correct a second R image to drive the second display panel (111-2) among the R images based on a first L image to drive the first display panel (111-1) among the L images, and display a stereoscopic image by driving the display by time-multiplexing based on the L image which comprises the corrected second L image and the R image which comprises the corrected second R image. based on a plurality of light field, "LF" images, obtain a left, "L" image and a right, "R" image to drive the display by time-multiplexing, correct a second L image to drive the second display panel (111-2) among L images based on a first R image to drive the first display panel (111-1) among R images, and correct a second R image to drive the second display panel (111-2) among the R images based on a first L image to drive the first display panel (111-1) among the L images, and display a stereoscopic image by driving the display by time-multiplexing based on the L image which comprises the corrected second L image and the R image which comprises the corrected second R image.
A fat composition comprising at least one hydrogenated lauric oil selected from palm kernel oil, palm kernel oil fractions, coconut oil, coconut oil fractions and mixture thereof; at least one interesterified hydrogenated lauric oil selected from palm kernel oil, palm kernel oil fractions, coconut oil, coconut oil fractions and mixture thereof; and at least one non-lauric oil with iodine value lower than 15; wherein the fat composition comprises: from 48% to 58% by weight of lauric acid (C12:0); from 5% to 15% by weight palmitic acid (C16:0); and from 5% to 20% by weight stearic acid (C18:0); and having a weight ratio of stearic acid (C18:0) to palmitic acid (C16:0) of from 0.6:1 to 2.5:1; said percentages of acids referring to acids bound as acyl groups in glycerides in the fat composition and being based on the total weight of C8 to C24 fatty acids; and wherein the fat composition has: at least 40 solid fat content at 30°C; and at most 5 solid fat content at 40°C; measured on unstabilized fat according to ISO 8292-1. at least one interesterified hydrogenated lauric oil selected from palm kernel oil, palm kernel oil fractions, coconut oil, coconut oil fractions and mixture thereof; and at least one non-lauric oil with iodine value lower than 15; wherein the fat composition comprises: from 48% to 58% by weight of lauric acid (C12:0); from 5% to 15% by weight palmitic acid (C16:0); and from 5% to 20% by weight stearic acid (C18:0); and having a weight ratio of stearic acid (C18:0) to palmitic acid (C16:0) of from 0.6:1 to 2.5:1; said percentages of acids referring to acids bound as acyl groups in glycerides in the fat composition and being based on the total weight of C8 to C24 fatty acids; and wherein the fat composition has: at least 40 solid fat content at 30°C; and at most 5 solid fat content at 40°C; measured on unstabilized fat according to ISO 8292-1. from 48% to 58% by weight of lauric acid (C12:0); from 5% to 15% by weight palmitic acid (C16:0); and from 5% to 20% by weight stearic acid (C18:0); and having a weight ratio of stearic acid (C18:0) to palmitic acid (C16:0) of from 0.6:1 to 2.5:1; said percentages of acids referring to acids bound as acyl groups in glycerides in the fat composition and being based on the total weight of C8 to C24 fatty acids; and wherein the fat composition has: at least 40 solid fat content at 30°C; and at most 5 solid fat content at 40°C; measured on unstabilized fat according to ISO 8292-1. at least 40 solid fat content at 30°C; and at most 5 solid fat content at 40°C; measured on unstabilized fat according to ISO 8292-1.
An agricultural work vehicle configured to communicate via a transceiver with a host computer having a storage device storing past weather information, field information, work information, work machine information and farm product information, and configured to be operated by a remote control apparatus , the agricultural work vehicle has a position calculation means measuring a position of the vehicle by a satellite positioning system, a steering actuator operating a steering device, an engine controller , a speed change means , and a control device , characterized in that the control device is configured to receive from the host computer an optimum work speed value calculated from a comparison between the current and past weather information, the field information, the work information, the work machine information, and the farm product information , and- to control the position calculation means , the steering actuator , the engine controller and the speed change means so that the agricultural work vehicle works at the optimum work speed value along a set travel route (R).
A system for capturing intraoperative biometry and/or refractive measurements, comprising: a pressure sensor associated with the eye and configured to detect a pressure of the eye; and an intra-op diagnostics device comprising a control unit in communication with the pressure sensor characterized in that the control unit is arranged to actuate the intra-op diagnostics device to capture the intraoperative biometry and/or refractive measurements when the sensor detects that the intraocular pressure has decreased from an elevated pressure to a natural intraocular pressure and while the intraocular pressure is maintained at the natural intraocular pressure for a period of time, a plug , the pressure sensor being carried on the plug, and the plug being sized for implantation within the eye of the patient during the surgical procedure, the plug comprising a valve configured to open and close to increase and decrease drainage from the eye to affect the pressure in the eye. a pressure sensor associated with the eye and configured to detect a pressure of the eye; and an intra-op diagnostics device comprising a control unit in communication with the pressure sensor characterized in that the control unit is arranged to actuate the intra-op diagnostics device to capture the intraoperative biometry and/or refractive measurements when the sensor detects that the intraocular pressure has decreased from an elevated pressure to a natural intraocular pressure and while the intraocular pressure is maintained at the natural intraocular pressure for a period of time, a plug , the pressure sensor being carried on the plug, and the plug being sized for implantation within the eye of the patient during the surgical procedure, the plug comprising a valve configured to open and close to increase and decrease drainage from the eye to affect the pressure in the eye.
A receptacle for storage and retrieval of a plurality of coiled elongate medical instruments, the receptacle comprising: a reservoir for holding a liquid ; and a plurality of separators configured to be disposed within the reservoir , wherein each separator of the plurality of separators is configured to retain a coiled elongate medical instrument, and the plurality of separators is configured to maintain the plurality of coiled elongate medical instruments at least partially in contact with the liquid held by the reservoir and each separator of the plurality of separators is configured to separate a first coiled elongate medical instrument from a second coiled elongate medical instrument that is received and retained by an adjacent separator of the plurality of separators , characterised in that each separator is displaceable relative to the reservoir . a reservoir for holding a liquid ; and a plurality of separators configured to be disposed within the reservoir , wherein each separator of the plurality of separators is configured to retain a coiled elongate medical instrument, and the plurality of separators is configured to maintain the plurality of coiled elongate medical instruments at least partially in contact with the liquid held by the reservoir and each separator of the plurality of separators is configured to separate a first coiled elongate medical instrument from a second coiled elongate medical instrument that is received and retained by an adjacent separator of the plurality of separators ,
A process for preparing 1,1,1,2,2-pentafluoropropane and 2,3,3,3-tetrafluoropropene , the process comprising: gas phase catalytic dehydrochlorination of a composition comprising 1,1,1-trifluoro-2,3- dichloropropane to produce an intermediate composition comprising 3,3,3- trifluoro-2-chloro-prop-1-ene (CF 3 CCl=CH 2 , 1233xf), hydrogen chloride (HCl) and, optionally, air; and gas phase catalytic fluorination with hydrogen fluoride (HF) of the intermediate composition to produce a reactor product composition comprising 245cb, 1234yf, HF, HCl and air; wherein the process is carried out with a co-feed of air, wherein the amount of air co-fed to the process is from 0.1 to 500 mol% based on the amount of organics.
A floating vessel equipped with a power plant and comprising a hull and a process deck arranged on a portion of the hull above one or more compartments within the hull, the power plant comprising a fuel source, and at least one electrical power generator (G1) driven by a gas turbine ; the fuel source arranged for providing fuel to the gas turbine of the at least one power generator, wherein the fuel source is a fuel gas source comprising at least one LNG storage tank for storing LNG and a regasification unit coupled to the at least one LNG storage tank for producing a stream of regasified natural gas from stored LNG, and per one or more gas turbine , the floating vessel is equipped with a steam production unit coupled to an exhaust of the gas turbine for receiving heat to produce pressurized steam; per each steam production unit , the floating vessel is equipped with at least one secondary power generator (G2) driven by a steam turbine , which is coupled to the steam production unit for receiving produced steam; each gas turbine and steam production unit are positioned on or above the process deck , and each secondary power generator and steam turbine are positioned under the process deck in the one or more compartments, and characterized in that the floating vessel is a converted LNG carrier having a number of LNG storage tanks originally installed for storage of the fuel gas, in which a portion of the number of originally installed LNG storage tanks is removed at positions within the location of the process deck . the power plant comprising a fuel source, and at least one electrical power generator (G1) driven by a gas turbine ; the fuel source arranged for providing fuel to the gas turbine of the at least one power generator, wherein the fuel source is a fuel gas source comprising at least one LNG storage tank for storing LNG and a regasification unit coupled to the at least one LNG storage tank for producing a stream of regasified natural gas from stored LNG, and per one or more gas turbine , the floating vessel is equipped with a steam production unit coupled to an exhaust of the gas turbine for receiving heat to produce pressurized steam; per each steam production unit , the floating vessel is equipped with at least one secondary power generator (G2) driven by a steam turbine , which is coupled to the steam production unit for receiving produced steam; each gas turbine and steam production unit are positioned on or above the process deck , and each secondary power generator and steam turbine are positioned under the process deck in the one or more compartments, and characterized in that the floating vessel is a converted LNG carrier having a number of LNG storage tanks originally installed for storage of the fuel gas, in which a portion of the number of originally installed LNG storage tanks is removed at positions within the location of the process deck .
Process for preparing isocyanate containing alkoxysilane groups, in which, in the sequence of steps A) to D), A) alkoxysilanoalkylamine is reacted with urea in the presence of an alcohol, optionally in the presence of at least one catalyst, to give alkoxysilanoalkylurethane, B) simultaneously or successively - if used, the catalyst is removed and/or deactivated, and - low boilers, medium boilers and/or high boilers are removed, C) purified alkoxysilanoalkylurethane is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the bottoms material and collected, characterized in that, in step C), i) the bottoms material is wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step B) or C), is fed in again. A) alkoxysilanoalkylamine is reacted with urea in the presence of an alcohol, optionally in the presence of at least one catalyst, to give alkoxysilanoalkylurethane, B) simultaneously or successively - if used, the catalyst is removed and/or deactivated, and - low boilers, medium boilers and/or high boilers are removed, - if used, the catalyst is removed and/or deactivated, and - low boilers, medium boilers and/or high boilers are removed, C) purified alkoxysilanoalkylurethane is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the bottoms material and collected, i) the bottoms material is wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step B) or C), is fed in again.
Anti-corrosion composition comprising at least a first compound selected from a group consisting of a first polyisobutylene having an average relative molar mass M v ranging from 27,000 g/mole to 110,000 g/mole and a Staudinger index J 0 ranging from 13,5 cm 3 /g to 77 cm 3 /g and/or a first depolymerized butyl rubber with an apparent Brookfield viscosity at 66°C according to DIN EN ISO 2555 : 2000-01 ranging from 360,000 mPa · s to 2,200,000 mPa · s and an average molecular weight M w ranging from 18,000 to 66,000, and at least a second compound, selected from a group consisting of a second polyisobutylene having an average relative molar mass M v ranging from 810,000 g/mole to 7,150,000 g/mole and a Staudinger index J 0 ranging from 216 cm 3 /g to 990 cm 3 /g and/or one second partly cross-linked butyl rubber with a Mooney viscosity ML(1+3) at 127°C ranging from 58,5 MU to 110 MU according to ISO 289 : 2005, wherein the anti-corrosion composition comprises at least one first or at least one second polyisobutylene as well as at least one first or at least one second butyl rubber.
Frameless solar module having a substrate and a cover layer , between which a layer structure for forming solar cells is situated, wherein at least one module carrier for reinforcing and/or supporting mounting of the solar module is fastened on a substrate surface facing away from the layer structure , which module carrier has at least one adhesive surface which is adhesively bonded to the substrate surface by an adhesive layer made of a cured adhesive, wherein the adhesive layer includes one or a plurality of spacers , which are in each case implemented to maintain the adhesive surface at a pre-specifiable minimum distance from the substrate surface when the adhesive of the adhesive layer is not cured, characterized in that the spacers have mutually different dimensions for maintaining the distance between the adhesive surface of the module carrier and the substrate surface .
Method for producing a layer of self-adhesive composition at least partially foamed with microballoons and having a surface roughness R a , as determined in the Test Methods section, of less than 3 μm, wherein a foamable layer of self-adhesive composition comprising expandable microballoons and disposed between (i) two liners, (ii) a liner and a carrier, or (iii)a liner and a further layer of self-adhesive composition which (a) is not foamable or (b) is foamable and typically comprises expandable microballoons, is heat-treated by suitable energy input at a temperature suitable for foaming for a period such that after the subsequent cooling of the layer the desired degree of foaming is attained, characterized in that the foamable layer of self-adhesive composition is based on (i) an acrylate composition or (ii) a blend of acrylate and synthetic rubber such as, for example, vinylaromatic block copolymer, where, based on the entirety of 100 wt% of acrylate component and synthetic rubber component, the acrylate component is present in a fraction of 60 wt% to 90 wt% and the synthetic rubber component in a fraction of 10 wt% to 40 wt%, the two liners or the liner during the foaming remain or remains adhering completely on the respective surface of the foamable layer of self-adhesive composition on which they or it are or is disposed, where the two liners independently of one another or the liner during foaming are or is weight-stable, and more particularly lose or loses less than 2%, for example less than 1%, in weight, in the form of water, for example, where the shrinkage of the two liners independently of one another or of the liner during foaming both in transverse direction and in longitudinal direction is less than 2%, preferably less than 1%, and more preferably less than 0.5%, and more particularly no shrinkage of the liners or liner during foaming can be ascertained either in transverse direction or in longitudinal direction, and where the two liners independently of one another or the liner are or is (a) polyester liner(s) which is or are coated antiadhesively at least on one side, where the two liners or the liner have or has a thickness of 50 to 75 μm. (i) two liners, (ii) a liner and a carrier, or (iii)a liner and a further layer of self-adhesive composition which (a) is not foamable or (b) is foamable and typically comprises expandable microballoons, (i) an acrylate composition or (ii) a blend of acrylate and synthetic rubber such as, for example, vinylaromatic block copolymer, where, based on the entirety of 100 wt% of acrylate component and synthetic rubber component, the acrylate component is present in a fraction of 60 wt% to 90 wt% and the synthetic rubber component in a fraction of 10 wt% to 40 wt%,
Tyre comprising at least one composition based on neoprene as predominant elastomer, on a reinforcing filler and on a crosslinking system which is devoid of peroxide or which contains less than 0.1 part by weight thereof per hundred parts by weight of elastomer, phr, the crosslinking system comprising an acrylate derivative of formula (I): [X] p A (I) wherein: - [X]p corresponds to the formula (II): wherein: R 1 , R 2 and R 3 independently represent a hydrogen atom or a C 1 -C 8 hydrocarbon group selected from the group consisting of linear, branched or cyclic alkyl groups, alkylaryl groups, aryl groups and aralkyls, and which are optionally interrupted by one or more heteroatoms, it being possible for R 2 and R 3 together to form a nonaromatic ring, - A represents an atom belonging to the group consisting of alkaline earth metals and transition metals, a carbon atom or a C 1 -C 8 hydrocarbon group, A comprising p free valencies, p having a value ranging from 2 to 4, it being understood that, when p has a value from 2 to 4, the 2 to 4 X radicals are identical or different, the said composition being devoid of sulfur as vulcanization agent or contains less than 0.3 phr thereof. - [X]p corresponds to the formula (II): wherein: R 1 , R 2 and R 3 independently represent a hydrogen atom or a C 1 -C 8 hydrocarbon group selected from the group consisting of linear, branched or cyclic alkyl groups, alkylaryl groups, aryl groups and aralkyls, and which are optionally interrupted by one or more heteroatoms, it being possible for R 2 and R 3 together to form a nonaromatic ring, - A represents an atom belonging to the group consisting of alkaline earth metals and transition metals, a carbon atom or a C 1 -C 8 hydrocarbon group, A comprising p free valencies, p having a value ranging from 2 to 4,
A computing device , comprising: a processor ; and a memory holding instructions executable by the processor to: obtain a three-dimensional map comprising a plurality of three-dimensional points representing a physical environment; transform each three-dimensional point into a three-dimensional line that passes through the point to generate a three-dimensional line cloud ; receive a query image of the physical environment captured by a user computing device , the query image comprising a plurality of query features that correspond to at least a portion of the physical environment; and using the three-dimensional line cloud and the plurality of query features , estimate a pose of the user computing device with respect to the physical environment. a processor ; and a memory holding instructions executable by the processor to: obtain a three-dimensional map comprising a plurality of three-dimensional points representing a physical environment; transform each three-dimensional point into a three-dimensional line that passes through the point to generate a three-dimensional line cloud ; receive a query image of the physical environment captured by a user computing device , the query image comprising a plurality of query features that correspond to at least a portion of the physical environment; and using the three-dimensional line cloud and the plurality of query features , estimate a pose of the user computing device with respect to the physical environment. obtain a three-dimensional map comprising a plurality of three-dimensional points representing a physical environment; transform each three-dimensional point into a three-dimensional line that passes through the point to generate a three-dimensional line cloud ; receive a query image of the physical environment captured by a user computing device , the query image comprising a plurality of query features that correspond to at least a portion of the physical environment; and using the three-dimensional line cloud and the plurality of query features , estimate a pose of the user computing device with respect to the physical environment.