mhurhangee/patent-ind-claim-en huggingface dataset:
A nutritional composition for administering to a subject, composition, comprising: a repair system activator chosen from, nicotinamide adenine dinucleotide (NAD+), nicotinamide mononucleotide (NMN), nicotinamide riboside (NR), nicotinic acid adenine mononucleotide (NaMN), nicotinic acid adenine dinucleotide (NaAD), nicotinic acid riboside (NAR), 1-methylnicotinamide (MNM), cyclic adenosine monophosphate (cAMP), and any combination thereof; a methyl donor chosen from, S-5'-adenosyl-L-methionine (SAM), methionine, betaine, choline, folate, vitamin B12, and any combination thereof; and an antioxidant defense activator chosen from H 2 O 2 , H 2 S, NaSH, Na 2 S, metformin, curcumin, sulforaphane, quercetin, apigenin, pterostilbene, resveratrol, zinc, and any combination thereof; and optionally water. a repair system activator chosen from, nicotinamide adenine dinucleotide (NAD+), nicotinamide mononucleotide (NMN), nicotinamide riboside (NR), nicotinic acid adenine mononucleotide (NaMN), nicotinic acid adenine dinucleotide (NaAD), nicotinic acid riboside (NAR), 1-methylnicotinamide (MNM), cyclic adenosine monophosphate (cAMP), and any combination thereof; a methyl donor chosen from, S-5'-adenosyl-L-methionine (SAM), methionine, betaine, choline, folate, vitamin B12, and any combination thereof; and an antioxidant defense activator chosen from H 2 O 2 , H 2 S, NaSH, Na 2 S, metformin, curcumin, sulforaphane, quercetin, apigenin, pterostilbene, resveratrol, zinc, and any combination thereof; and optionally water.
Transparent hot-melt single component sealant composition, characterized in that it comprises from 70 % to 99 weight % of polyisobutylene, preferably from 73 % to 99 %, based on the total weight of the composition.
A passenger conveyance special loading system , comprising: a depth-sensing sensor for capturing depth map data of an object within a field of view; a processing module in communication with the depth-sensing sensor to receive the depth map data, the processing module being arranged to use the depth map data to calculate passenger data associated with the object to determine a special loading condition; and a passenger conveyance controller to receive the passenger data from the processing module , wherein the passenger conveyance controller controls a passenger conveyance dispatch control function in response to the special loading condition; characterized in that : when the special loading condition includes loading an object other than a human passenger that takes a longer than normal time to load, the passenger conveyance dispatch control function is operable to assign a passenger conveyance with sufficient free space to accommodate the special loading condition; and the passenger conveyance dispatch control function is operable to delay closing of the passenger conveyance doors in response to the special loading condition. a depth-sensing sensor for capturing depth map data of an object within a field of view; a processing module in communication with the depth-sensing sensor to receive the depth map data, the processing module being arranged to use the depth map data to calculate passenger data associated with the object to determine a special loading condition; and a passenger conveyance controller to receive the passenger data from the processing module , wherein the passenger conveyance controller controls a passenger conveyance dispatch control function in response to the special loading condition; characterized in that : when the special loading condition includes loading an object other than a human passenger that takes a longer than normal time to load, the passenger conveyance dispatch control function is operable to assign a passenger conveyance with sufficient free space to accommodate the special loading condition; and the passenger conveyance dispatch control function is operable to delay closing of the passenger conveyance doors in response to the special loading condition.
A method of monitoring an additive manufacturing apparatus comprising receiving sensor signals from the additive manufacturing apparatus, the sensor signals generated at different build times during a build of a workpiece, comparing one or more of the sensor signals generated at each build time or value derived therefrom to a corresponding acceptable process variation (PV 1 ,PV 2 ...PV n ; SV 1 ,SV 2 ...SV n ) of a plurality of acceptable process variations and generating a log based upon the comparisons, characterised in that each acceptable process variation (PV 1 ,PV 2 ...PV n ; SV 1 ,SV 2 ...SV n ) of the plurality of acceptable process variations is contained in a file together with an association associating the acceptable process variation (PV 1 ,PV 2 ...PV n ; SV 1 ,SV 2 ...SV n ) with at least one build time (t 1 ,t 2 ...t n ) from a set event in the build of the workpiece, and the method comprising determining a build time when the one or more sensor signals are generated and determining the corresponding acceptable process variation to which the one or more sensor signals are compared from the determined build time, wherein the corresponding acceptable process variation is the acceptable process variation (PV 1 ,PV 2 ...PV n ; SV 1 ,SV 2 ...SV n ) associated with the build time during the build when the one or more sensor signals are generated.
A bristle carrier clamping holder for receiving and positioning a bristle carrier that is part of a brush to be manufactured, the clamping holder, with the bristle carrier releasably attached thereto, being transported through processing stations, comprising a retainer for the bristle carrier , the retainer having a lower pretensioning device and a plurality of upper stops , wherein the pretensioning device presses the bristle carrier against the stops from below and the pretensioning device has a plurality of contact points locally spaced apart from each other, characterized in that the contact points are pretensioned separately in groups or each separately and press against the bristle carrier .
An atomizing assembly , comprising: a liquid absorbing unit configured to absorb and store liquid, the liquid absorbing unit forming an atomizing channel therein and comprising an atomizing surface on which the liquid is atomized and volatilized, and the atomizing surface defining a boundary of the atomizing channel ; and a heating unit configured to atomize the liquid, wherein the liquid absorbing unit comprises a hollow cylindrical tube , the atomizing channel extending in an axis direction of the liquid absorbing unit , characterized in that the atomizing surface comprises a plurality of concave unit surfaces and a plurality of convex unit surfaces , the concave unit surfaces being arranged spaced apart in a circumferential direction of the atomizing channel , each convex unit surface being connected to two adjacent concave unit surfaces , a radial distance from the concave unit surface to a central axis of the hollow cylindrical tube being greater than a radial distance from the convex unit surface to the central axis , the heating unit comprises a buried portion and an embedded portion connected to each other, wherein the embedded portion is embedded in the liquid absorbing unit and an edge of the embedded portion is internally tangent to the concave unit surface , and the buried portion is wrapped in the liquid absorbing unit , wherein a predetermined distance is designed between an edge of the buried portion and the convex unit surface in a radial direction of the atomizing channel . a liquid absorbing unit configured to absorb and store liquid, the liquid absorbing unit forming an atomizing channel therein and comprising an atomizing surface on which the liquid is atomized and volatilized, and the atomizing surface defining a boundary of the atomizing channel ; and a heating unit configured to atomize the liquid, wherein the liquid absorbing unit comprises a hollow cylindrical tube , the atomizing channel extending in an axis direction of the liquid absorbing unit , characterized in that the atomizing surface comprises a plurality of concave unit surfaces and a plurality of convex unit surfaces , the concave unit surfaces being arranged spaced apart in a circumferential direction of the atomizing channel , each convex unit surface being connected to two adjacent concave unit surfaces , a radial distance from the concave unit surface to a central axis of the hollow cylindrical tube being greater than a radial distance from the convex unit surface to the central axis , the heating unit comprises a buried portion and an embedded portion connected to each other, wherein the embedded portion is embedded in the liquid absorbing unit and an edge of the embedded portion is internally tangent to the concave unit surface , and the buried portion is wrapped in the liquid absorbing unit , wherein a predetermined distance is designed between an edge of the buried portion and the convex unit surface in a radial direction of the atomizing channel .
Method for determining and compensating for geometric imaging aberrations which arise when imaging an object by means of sequential multispot scanning by means of a microscopic imaging system, comprising the following method steps: - setting a reference object having a defined planar structure, - generating an electronic image data set of this structure, which data set is free of geometric imaging aberrations and in which data set the causal location of the object is assigned with one-to-one correspondence to each location of an image point, - storing and keeping the image data set available as a reference image data set, - generating at least one electronic actual image data set for each spot with the imaging system, in which the causal location of the object is in turn assigned to each location of an image point, - comparing the actual image data set with the reference image data set with respect to the locations of those image points which are assigned to the same locations of the object, - determining location deviations of the image points in the actual image data set vis-à-vis the corresponding image points in the reference image data set, - saving ascertained location deviations as correction data, - compensating for the geometric imaging aberrations for each individual spot by means of correcting the location deviations in the respective actual image data set, on the basis of the correction data. - setting a reference object having a defined planar structure, - generating an electronic image data set of this structure, which data set is free of geometric imaging aberrations and in which data set the causal location of the object is assigned with one-to-one correspondence to each location of an image point, - storing and keeping the image data set available as a reference image data set, - generating at least one electronic actual image data set for each spot with the imaging system, in which the causal location of the object is in turn assigned to each location of an image point, - comparing the actual image data set with the reference image data set with respect to the locations of those image points which are assigned to the same locations of the object, - determining location deviations of the image points in the actual image data set vis-à-vis the corresponding image points in the reference image data set, - saving ascertained location deviations as correction data, - compensating for the geometric imaging aberrations for each individual spot by means of correcting the location deviations in the respective actual image data set, on the basis of the correction data.
A heat exchanger comprising: a first pipe formed of resin and configured to allow liquid fluid to flow through the first pipe ; a second pipe formed of metal, provided in the first pipe , and configured to allow refrigerant to flow through the second pipe ; a resin element formed as an element separate from the first pipe and the second pipe , and provided in a region in space between an inner surface of the first pipe and an outer surface of the second pipe , characterised in that the first pipe and the second pipe include respective bent portions , wherein the resin element is provided at least between a refrigerant inlet provided at an end of the second pipe and a position which is separated from the refrigerant inlet by 5% of an entire length of the second pipe , and wherein the resin element is provided only on an outer peripheral side of the bent portion of the second pipe . a first pipe formed of resin and configured to allow liquid fluid to flow through the first pipe ; a second pipe formed of metal, provided in the first pipe , and configured to allow refrigerant to flow through the second pipe ; a resin element formed as an element separate from the first pipe and the second pipe , and provided in a region in space between an inner surface of the first pipe and an outer surface of the second pipe , characterised in that the first pipe and the second pipe include respective bent portions , wherein the resin element is provided at least between a refrigerant inlet provided at an end of the second pipe and a position which is separated from the refrigerant inlet by 5% of an entire length of the second pipe , and wherein the resin element is provided only on an outer peripheral side of the bent portion of the second pipe .
Device for locking a container flap on a payload container for a vehicle, wherein the payload container is tiltable about a tilting pin , the device having - at least one uplock hook which is configured so as to be pivotable about a hook swivel pin , and has a locking portion (7.1) which in a closed state of the uplock hook is configured to bear on the container flap , and in an opened state releases the container flap for pivoting; - a blocking element which in a blocking position blocks the uplock hook in the closed state thereof, and in an opened position releases the uplock hook for pivoting about the hook swivel pin , characterized by - a distance compensation element which connects the tilting pin and the uplock hook indirectly or directly in such a manner that, when tilting the payload container from a non-tilted position to a tilted position, and - with the blocking element situated in the opened position, a distance travelled by the tilting pin is transmitted to the uplock hook in such a manner that the latter opens, and - with the blocking element situated in the blocking position, the distance travelled by the tilting pin is compensated for by the distance compensation element . - at least one uplock hook which is configured so as to be pivotable about a hook swivel pin , and has a locking portion (7.1) which in a closed state of the uplock hook is configured to bear on the container flap , and in an opened state releases the container flap for pivoting; - a blocking element which in a blocking position blocks the uplock hook in the closed state thereof, and in an opened position releases the uplock hook for pivoting about the hook swivel pin , characterized by - a distance compensation element which connects the tilting pin and the uplock hook indirectly or directly in such a manner that, when tilting the payload container from a non-tilted position to a tilted position, and - with the blocking element situated in the opened position, a distance travelled by the tilting pin is transmitted to the uplock hook in such a manner that the latter opens, and - with the blocking element situated in the blocking position, the distance travelled by the tilting pin is compensated for by the distance compensation element . - with the blocking element situated in the opened position, a distance travelled by the tilting pin is transmitted to the uplock hook in such a manner that the latter opens, and - with the blocking element situated in the blocking position, the distance travelled by the tilting pin is compensated for by the distance compensation element .
A polishing composition comprising: ceria coated silica composite particles comprising silica particles with surfaces covered by ceria nanoparticles having a diameter of greater than 10 nm; an additive selected from a compound having a functional group selected from the group consisting of organic carboxylic acids, amino acids, amidocarboxylic acids, N-acylamino acids, and their salts thereof; organic sulfonic acids and salts thereof; organic phosphonic acids and salts thereof; polymeric carboxylic acids and salts thereof; polymeric sulfonic acids and salts thereof; polymeric phosphonic acids and salts thereof; arylamines, aminoalcohols, aliphatic amines, heterocyclic amines, hydroxamic acids, substituted phenols, sulfonamides, thiols, polyols having hydroxyl groups, and combinations thereof; a pH-adjusting agent selected from the group consisting of sodium hydroxide, potassium hydroxide, cesium hydroxide, ammonium hydroxide, quaternary organic ammonium hydroxide, and combinations thereof; and the remaining being water; wherein change of size distribution of composite particles under a disintegrative force is less than 10% as measured by Disc Centrifuge (DC) following ultrasonication treatment for 1⁄2 hour at 42KHZ and 100W; and the polishing composition has a pH of 2 to 12. ceria coated silica composite particles comprising silica particles with surfaces covered by ceria nanoparticles having a diameter of greater than 10 nm; an additive selected from a compound having a functional group selected from the group consisting of organic carboxylic acids, amino acids, amidocarboxylic acids, N-acylamino acids, and their salts thereof; organic sulfonic acids and salts thereof; organic phosphonic acids and salts thereof; polymeric carboxylic acids and salts thereof; polymeric sulfonic acids and salts thereof; polymeric phosphonic acids and salts thereof; arylamines, aminoalcohols, aliphatic amines, heterocyclic amines, hydroxamic acids, substituted phenols, sulfonamides, thiols, polyols having hydroxyl groups, and combinations thereof; a pH-adjusting agent selected from the group consisting of sodium hydroxide, potassium hydroxide, cesium hydroxide, ammonium hydroxide, quaternary organic ammonium hydroxide, and combinations thereof; and the remaining being water; wherein change of size distribution of composite particles under a disintegrative force is less than 10% as measured by Disc Centrifuge (DC) following ultrasonication treatment for 1⁄2 hour at 42KHZ and 100W; and the polishing composition has a pH of 2 to 12.
Polypropylene composition comprising a propylene homopolymer having at least 99.0 wt.-% of propylene units, the propylene homopolymer having a) a melt flow rate MFR 2 (230 °C/2.16 kg) measured according to ISO 1133 of ≥ 400 g/10min, and b) a melting temperature Tm of ≥ 150 °C, and c) 2,1 erythro regio-defects of equal or below 0.4 mol.-% determined by 13C-NMR spectroscopy, wherein the propylene homopolymer is free of phthalic acid esters as well as their respective decomposition products, and wherein the propylene homopolymer has been visbroken, and wherein the propylene homopolymer has been polymerized in the presence of a) a Ziegler-Natta catalyst (ZN-C) comprising compounds (TC) of a transition metal of Group 4 to 6 of IUPAC, a Group 2 metal compound (MC) and an internal donor (ID), wherein said internal donor (ID) is a non-phthalic acid ester; b) optionally a co-catalyst (Co), and c) optionally an external donor (ED). a) a melt flow rate MFR 2 (230 °C/2.16 kg) measured according to ISO 1133 of ≥ 400 g/10min, and b) a melting temperature Tm of ≥ 150 °C, and c) 2,1 erythro regio-defects of equal or below 0.4 mol.-% determined by 13C-NMR spectroscopy, wherein the propylene homopolymer is free of phthalic acid esters as well as their respective decomposition products, and wherein the propylene homopolymer has been visbroken, and wherein the propylene homopolymer has been polymerized in the presence of a) a Ziegler-Natta catalyst (ZN-C) comprising compounds (TC) of a transition metal of Group 4 to 6 of IUPAC, a Group 2 metal compound (MC) and an internal donor (ID), wherein said internal donor (ID) is a non-phthalic acid ester; b) optionally a co-catalyst (Co), and c) optionally an external donor (ED). a) a Ziegler-Natta catalyst (ZN-C) comprising compounds (TC) of a transition metal of Group 4 to 6 of IUPAC, a Group 2 metal compound (MC) and an internal donor (ID), wherein said internal donor (ID) is a non-phthalic acid ester; b) optionally a co-catalyst (Co), and c) optionally an external donor (ED).
Computer-implemented method for generating data for the production of at least one spectacle lens adapted to a spectacle frame of a pair of spectacles , the computer-implemented method comprising the following steps: (i) providing at least one first data set stored on a storage medium, the first data set comprising at least the following data values: - at least one centering value ; - a three-dimensional model of the spectacle frame ; (ii) creating at least one second data set stored on a storage medium using the at least one first data set, the second data set comprising at least the following data values: - at least one geometric value of at least one surface of the at least one spectacle lens ; characterized in that the method comprises the following step: (iii) creating at least one third data set stored on a storage medium for producing the at least one spectacle lens from at least one spectacle lens blank and for grinding and/or fitting the at least one spectacle lens into the spectacle frame using the at least one first data set and the at least one second data set, wherein the at least one third data set is a production data set, each data value of the at least one third data set comprising at least one piece of information relating to the production of the at least one spectacle lens or to grinding and/or fitting the at least one spectacle lens into the spectacle frame , wherein the information is used in a method for producing at least one pair of spectacles , wherein the data values of each data set have a spatial relationship with one another in that the data values of each data set are consistently specified in relation to a respective coordinate system, with all data values of each data set being specified in a coordinate system common to all data sets. (i) providing at least one first data set stored on a storage medium, the first data set comprising at least the following data values: - at least one centering value ; - a three-dimensional model of the spectacle frame ; - at least one centering value ; - a three-dimensional model of the spectacle frame ; (ii) creating at least one second data set stored on a storage medium using the at least one first data set, the second data set comprising at least the following data values: - at least one geometric value of at least one surface of the at least one spectacle lens ; - at least one geometric value of at least one surface of the at least one spectacle lens ;