mhurhangee/patent-ind-claim-en huggingface dataset:
A container for consumer goods, comprising: a housing comprising a box and a lid hingedly attached to the box, wherein the box comprises a front wall , a rear wall and the lid comprises a bottom edge ; an inner package disposed within the housing and at least partially defining an interior volume for housing consumer goods, the inner package comprising an access opening and a sealing flap , the inner package configured to open and close when the lid of the housing is opened and closed, the sealing flap comprising a tab , the tab comprising a bottom edge , wherein the bottom edge of the tab is positioned below the bottom edge of the lid and below the upper edge of the front wall when the lid is closed, and an information carrier coupled to the bottom edge of the tab . a housing comprising a box and a lid hingedly attached to the box, wherein the box comprises a front wall , a rear wall and the lid comprises a bottom edge ; an inner package disposed within the housing and at least partially defining an interior volume for housing consumer goods, the inner package comprising an access opening and a sealing flap , the inner package configured to open and close when the lid of the housing is opened and closed, the sealing flap comprising a tab , the tab comprising a bottom edge , wherein the bottom edge of the tab is positioned below the bottom edge of the lid and below the upper edge of the front wall when the lid is closed, and an information carrier coupled to the bottom edge of the tab .
Scraper element for a scraper of a conveyor belt , having a scraper blade and having a foot piece which can be inserted in the longitudinal extension of a mounting rail of the scraper , which extends straight and has along its foot end (4. 1) a preferably a central longitudinal groove with a groove width (b(l), b1, b2), characterized in that the groove width (b(l), b1, b2) of the longitudinal groove , as viewed from an end face (1.1, 1.2) of the scraper element , is reduced continuously at least in sections.
A method of transmitting an optical signal by a Free Space Optical, FSO, communication system, the method comprising: Transmitting, by an optical signal transmitter , a first optical signal towards a vehicle present within a volume of water , such that the optical signal covers a given search area in the volume of water ; and in response to not receiving an incident optical signal from the vehicle after transmitting the first optical signal; transmitting, by the optical signal transmitter , a second optical signal into the volume of water , the second optical signal having a reduced beam divergence than the first optical signal; and controlling, by a controller, the optical signal transmitter , to scan the volume of water using the second optical signal having the second beam divergence in a sequence of non-overlapping closed loops wherein each of the sequence of non-overlapping closed loops crosses itself at least once. Transmitting, by an optical signal transmitter , a first optical signal towards a vehicle present within a volume of water , such that the optical signal covers a given search area in the volume of water ; and in response to not receiving an incident optical signal from the vehicle after transmitting the first optical signal; transmitting, by the optical signal transmitter , a second optical signal into the volume of water , the second optical signal having a reduced beam divergence than the first optical signal; and controlling, by a controller, the optical signal transmitter , to scan the volume of water using the second optical signal having the second beam divergence in a sequence of non-overlapping closed loops wherein each of the sequence of non-overlapping closed loops crosses itself at least once.
A method for joining component parts, wherein: a) a holding device (1; 31) holds a first component part ; b) a positioning robot (2; 2, 5) positions a second component part in a joining position relative to the first component part and presses it against the first component part in the joining position; c) the component parts are tensed against each other in the joining position by contact between the component parts only; d) and the component parts are joined in the joining position which is determined only by the component parts' contact relative to each other, wherein e1) the first component part is provided with a first mark (11; 12; 13; 14) at a marking location, and the second component part is provided with a second mark (21; 22; 23; 24) at a marking location which is preferably formed congruently with the marking location of the first component part ; e2) the marks (11, 21; 12, 22; 13, 23; 14, 24) are detected by means of a sensor when positioning the component parts ; e3) the position which the first mark (11; 12; 13; 14) assumes relative to the second mark (21; 22; 23; 24) is ascertained; e4) the robot or robots (1; 1, 2; 2, 5) positions or position the component parts in the joining position in accordance with the ascertained relative position of the marks (11, 21; 12, 22; 13, 23; 14, 24), wherein e5) the marking locations are brought into contact with each other in the joining position, e6) and the position which the first mark (11; 12; 13; 14) assumes relative to the second mark (21; 22; 23; 24) is detected by sensor and ascertained while the marking locations are in contact. a) a holding device (1; 31) holds a first component part ; b) a positioning robot (2; 2, 5) positions a second component part in a joining position relative to the first component part and presses it against the first component part in the joining position; c) the component parts are tensed against each other in the joining position by contact between the component parts only; d) and the component parts are joined in the joining position which is determined only by the component parts' contact relative to each other, wherein e1) the first component part is provided with a first mark (11; 12; 13; 14) at a marking location, and the second component part is provided with a second mark (21; 22; 23; 24) at a marking location which is preferably formed congruently with the marking location of the first component part ; e2) the marks (11, 21; 12, 22; 13, 23; 14, 24) are detected by means of a sensor when positioning the component parts ; e3) the position which the first mark (11; 12; 13; 14) assumes relative to the second mark (21; 22; 23; 24) is ascertained; e4) the robot or robots (1; 1, 2; 2, 5) positions or position the component parts in the joining position in accordance with the ascertained relative position of the marks (11, 21; 12, 22; 13, 23; 14, 24), wherein e5) the marking locations are brought into contact with each other in the joining position, e6) and the position which the first mark (11; 12; 13; 14) assumes relative to the second mark (21; 22; 23; 24) is detected by sensor and ascertained while the marking locations are in contact.
A method of diesel reforming comprising: introducing a first diesel fuel feed to a combustor, wherein the combustor generates heat from combustion of the first diesel fuel feed; passing the heat to a liquid desulfurizer wherein the heat raises the temperature of the liquid desulfurizer to operating temperature; introducing a second diesel fuel feed to the liquid desulfurizer, wherein the liquid desulfurizer at operating temperature removes sulfur compounds to produce desulfurized diesel fuel; introducing the desulfurized diesel fuel, as well as air and steam to a diesel autothermal reformer to at least partially convert the desulfurized diesel fuel to a diesel reformate; and introducing the diesel reformate to a post-reformer disposed downstream of the diesel autothermal reformer, wherein the post-reformer selectively decomposes low carbon (C 2 -C 5 ) hydrocarbons in the diesel reformate into hydrogen and methane. introducing a first diesel fuel feed to a combustor, wherein the combustor generates heat from combustion of the first diesel fuel feed; passing the heat to a liquid desulfurizer wherein the heat raises the temperature of the liquid desulfurizer to operating temperature; introducing a second diesel fuel feed to the liquid desulfurizer, wherein the liquid desulfurizer at operating temperature removes sulfur compounds to produce desulfurized diesel fuel; introducing the desulfurized diesel fuel, as well as air and steam to a diesel autothermal reformer to at least partially convert the desulfurized diesel fuel to a diesel reformate; and introducing the diesel reformate to a post-reformer disposed downstream of the diesel autothermal reformer, wherein the post-reformer selectively decomposes low carbon (C 2 -C 5 ) hydrocarbons in the diesel reformate into hydrogen and methane.
Process for producing para-disubstituted benzonitriles of formula (IV) wherein R 1 , R 2 , R 3 and R 4 are each independently hydrogen, halogen, alkyl, alkoxy, alkenyl, alkynyl, alkylthio, alkylseleno, wherein R 1 and R 2 and/or R 3 and R 4 may combine to form a 3 to 5-membered saturated or unsaturated bridge optionally substituted with up to 2 heteroatoms and R 5 is linear C 5 to C 20 alkyl which is optionally substituted in any manner by halogen and/or C 1 to C 10 alkyl and/or C 1 to C 10 alkoxy and in which up to six carbon atoms may be replaced by oxygen, in which case at least two carbon atoms shall be present between two oxygen atoms and the R 5 moiety starts with at least two carbon atoms, wherein the terminal methyl group of the linear C 5 to C 20 alkyl moiety shall be unsubstituted and R 6 is methyl, ethyl or isomeric propyl, and A is a catalyst A, in a one-pot process wherein component (III) is used in excess, components (V), (III) and (IV) are distillatively removed in the stated order in three steps by adjusting the pressure and the temperature, and the difference in the boiling points of compounds (V) and (III) and in the boiling points of compounds (III) and (IV) is not less than 50°C in either case, wherein said catalyst A is a basic catalyst, a titanium(IV) or zirconium(IV) alkanoate, an alkoxytrialkyltin or a copper alkanoate/triphenylphosphane complex.
A method of cleaning dishware in a domestic dishwasher using a program comprising a cleaning cycle and a rinse cycle, the method comprising the steps of: a) placing the dishware in the dishwasher; b) delivering a cleaning composition comprising enzymes into the cleaning cycle to form a wash liquor and subjecting the dishware to the wash liquor; and c) delivering a rinse composition free of enzymes, wherein "free of" is herein meant that the composition comprises less than 0.1% by weight of the composition of enzymes, into the rinse cycle to form a rinse liquor having a pH of greater than 9 and subjecting the dishware to the rinse liquor. a) placing the dishware in the dishwasher; b) delivering a cleaning composition comprising enzymes into the cleaning cycle to form a wash liquor and subjecting the dishware to the wash liquor; and c) delivering a rinse composition free of enzymes, wherein "free of" is herein meant that the composition comprises less than 0.1% by weight of the composition of enzymes, into the rinse cycle to form a rinse liquor having a pH of greater than 9 and subjecting the dishware to the rinse liquor.
A method of virtually designing a post and core (21; 321; 721; 1006) restoration adapted for attachment in a damaged tooth (24; 301; 601; 701) of a patient, wherein the method comprises: - obtaining a 3D image comprising a first 3D scan wherein a scan pin (309; 709a, 709b; 809; 904; 905; 909; 1400; 1500) comprising an outer part and an inner part is arranged in the tooth during the 3D scanning, such that the outer part of the scan pin is located at least partly outside the tooth, and the inner part of the scan pin is located at least partly in the tooth, where the inner part of the scan pin corresponds to the post of the post and core, and where the first 3D scan comprises only at least part of the damaged tooth and the outer part of the scan pin; - providing a digital 3D shape (309'; 509') of the scan pin comprising the outer part and the inner part of the scan pin; - virtually matching the first 3D scan with the digital 3D shape of the scan pin, where the matching comprises matching the at least part of the scan pin of the first 3D scan with the at least part of the scan pin of the digital 3D shape, such that the inner part of the scan pin of the digital 3D shape is represented relative to the tooth in the first 3D scan; and - virtually designing the post and core based on the representation of the inner part of the scan pin relative to the tooth in the first 3D scan. - obtaining a 3D image comprising a first 3D scan wherein a scan pin (309; 709a, 709b; 809; 904; 905; 909; 1400; 1500) comprising an outer part and an inner part is arranged in the tooth during the 3D scanning, such that the outer part of the scan pin is located at least partly outside the tooth, and the inner part of the scan pin is located at least partly in the tooth, where the inner part of the scan pin corresponds to the post of the post and core, and where the first 3D scan comprises only at least part of the damaged tooth and the outer part of the scan pin; - providing a digital 3D shape (309'; 509') of the scan pin comprising the outer part and the inner part of the scan pin; - virtually matching the first 3D scan with the digital 3D shape of the scan pin, where the matching comprises matching the at least part of the scan pin of the first 3D scan with the at least part of the scan pin of the digital 3D shape, such that the inner part of the scan pin of the digital 3D shape is represented relative to the tooth in the first 3D scan; and - virtually designing the post and core based on the representation of the inner part of the scan pin relative to the tooth in the first 3D scan.
A positive electrode plate, characterized in that it includes a current collector , a first positive electrode active material layer and a second positive electrode active material layer , wherein the second positive electrode active material layer is arranged between the current collector and the first positive electrode active material layer , or the first positive electrode active material layer is arranged between the current collector and the second positive electrode active material layer ; the first positive electrode active material layer comprises a first positive electrode active material, a first binder and a first conductive agent, wherein the first positive electrode active material is selected from at least one of Li q CoO 2 , Li 1+x Co 1-y-z Ni y Mn z O 2 or carbon-coated Li β Fe α M (1-α) PO 4 , wherein 0 ≤ q ≤ 1, 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.95, 0 ≤ z ≤ 0.95, 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, and M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni and Sr; and the second positive electrode active material layer comprises a second positive electrode active material, a second binder and a second conductive agent, wherein the second positive electrode active material is selected from carbon-coated Li β Fe α M (1-α) PO 4 , where 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni, and Sr, and the second positive electrode active material has a diffraction peak A between 29° and 30° in the X-ray diffraction pattern, and a diffraction peak B between 25° and 26°, and the intensity ratio I A /I B of the diffraction peaks satisfies: 0.98 ≤ I A /I B ≤ 1.1, optionally 1.05 ≤ I A /I B ≤ 1.1, wherein the peak intensity ratio is determined using a copper target X-ray diffractometer. the first positive electrode active material layer comprises a first positive electrode active material, a first binder and a first conductive agent, wherein the first positive electrode active material is selected from at least one of Li q CoO 2 , Li 1+x Co 1-y-z Ni y Mn z O 2 or carbon-coated Li β Fe α M (1-α) PO 4 , wherein 0 ≤ q ≤ 1, 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.95, 0 ≤ z ≤ 0.95, 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, and M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni and Sr; and the second positive electrode active material layer comprises a second positive electrode active material, a second binder and a second conductive agent, wherein the second positive electrode active material is selected from carbon-coated Li β Fe α M (1-α) PO 4 , where 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni, and Sr, and the second positive electrode active material has a diffraction peak A between 29° and 30° in the X-ray diffraction pattern, and a diffraction peak B between 25° and 26°, and the intensity ratio I A /I B of the diffraction peaks satisfies: 0.98 ≤ I A /I B ≤ 1.1, optionally 1.05 ≤ I A /I B ≤ 1.1, wherein the peak intensity ratio is determined using a copper target X-ray diffractometer.
Process for the continuous polymerization of one or more α-olefin monomers of which at least one is ethylene or propylene comprising the steps of: (a) withdrawing fluids from a reactor (b) cooling fluids comprising the withdrawn fluids with a cooling unit (c) introducing the cooled fluids to a separator to separate at least part of the liquid from these fluids to form a liquid phase and a gas/liquid phase (d) introducing the gas/liquid phase below to the reactor below a distribution plate (e) introducing the liquid phase to a settling tank to separate liquid from fines that settle down in the settling tank (f) introducing liquid from the settling tank upstream of the cooling unit. (a) withdrawing fluids from a reactor (b) cooling fluids comprising the withdrawn fluids with a cooling unit (c) introducing the cooled fluids to a separator to separate at least part of the liquid from these fluids to form a liquid phase and a gas/liquid phase (d) introducing the gas/liquid phase below to the reactor below a distribution plate (e) introducing the liquid phase to a settling tank to separate liquid from fines that settle down in the settling tank (f) introducing liquid from the settling tank upstream of the cooling unit.
Rotor blade module for fastening on a rotor part for the purpose of forming a rotor blade ring in a steam turbine, the rotor blade module having: a root plate , a blade aerofoil which extends from one side of the root plate , and a fastening means which extends from the other side of the root plate , wherein a projection of the blade aerofoil onto a plane containing the root plate is completely covered by the root plate , wherein the fastening means has a plurality of tabs which are configured for fastening the rotor blade module on the rotor part for the purpose of forming the rotor blade ring, wherein the tabs have a through-bore which is configured for receiving a tapered pin, and wherein the through-bore runs centrally through each tab and parallel to an edge of the root plate, which edge is neither parallel nor perpendicular to an axis of rotation of the rotor blade ring. a root plate , a blade aerofoil which extends from one side of the root plate , and a fastening means which extends from the other side of the root plate , wherein a projection of the blade aerofoil onto a plane containing the root plate is completely covered by the root plate , wherein the fastening means has a plurality of tabs which are configured for fastening the rotor blade module on the rotor part for the purpose of forming the rotor blade ring, wherein the tabs have a through-bore which is configured for receiving a tapered pin, and wherein the through-bore runs centrally through each tab and parallel to an edge of the root plate, which edge is neither parallel nor perpendicular to an axis of rotation of the rotor blade ring.
A communications device , comprising: a memory including stored beacon transmitter information, said beacon transmitter information including for a first beacon signal, information indicating a location of a first beacon transmitter which is a virtual beacon transmitter, and a transmit power level of the first beacon signal; and a processor configured to: determine, based on a location of a wireless terminal and the indicated location of said first beacon transmitter, a beacon signal to be reported, wherein the beacon signal is a virtual beacon signal; and communicate a message indicating reception of the beacon signal to be reported to the wireless terminal or a component in said wireless terminal which acts upon information indicating the receipt of one or more beacon signals. a memory including stored beacon transmitter information, said beacon transmitter information including for a first beacon signal, information indicating a location of a first beacon transmitter which is a virtual beacon transmitter, and a transmit power level of the first beacon signal; and a processor configured to: determine, based on a location of a wireless terminal and the indicated location of said first beacon transmitter, a beacon signal to be reported, wherein the beacon signal is a virtual beacon signal; and communicate a message indicating reception of the beacon signal to be reported to the wireless terminal or a component in said wireless terminal which acts upon information indicating the receipt of one or more beacon signals. determine, based on a location of a wireless terminal and the indicated location of said first beacon transmitter, a beacon signal to be reported, wherein the beacon signal is a virtual beacon signal; and communicate a message indicating reception of the beacon signal to be reported to the wireless terminal or a component in said wireless terminal which acts upon information indicating the receipt of one or more beacon signals.
A coolant control valve unit , comprising: a rod at one side of a valve , the valve opening and closing a coolant passage; a cap at which a rod groove is provided into which one end of the rod is inserted; a cap elastic member inserted inside the rod groove to elastically support one end of the rod outwardly; a cam with one surface on which a driving axle is connected and another surface on which at least one pressing surface is provided in a rotational direction with respect to a rotational center portion; and a valve elastic member elastically supporting the valve on one side so that the cap contacts with the pressing surface , wherein a stopper is provided protruding from a side surface of the rod at an insertion portion of the rod groove , and wherein a stopper groove into which the stopper is inserted is provided at an inner circumference of the cap . a rod at one side of a valve , the valve opening and closing a coolant passage; a cap at which a rod groove is provided into which one end of the rod is inserted; a cap elastic member inserted inside the rod groove to elastically support one end of the rod outwardly; a cam with one surface on which a driving axle is connected and another surface on which at least one pressing surface is provided in a rotational direction with respect to a rotational center portion; and a valve elastic member elastically supporting the valve on one side so that the cap contacts with the pressing surface , wherein a stopper is provided protruding from a side surface of the rod at an insertion portion of the rod groove , and wherein a stopper groove into which the stopper is inserted is provided at an inner circumference of the cap .