mhurhangee/patent-ind-claim-en huggingface dataset:
Device for checking the authenticity of a planar data carrier (10; 100) having a zero-field nuclear magnetic resonance (NMR) feature (12; 14), in particular a nuclear quadrupole resonance (NQR) feature and/or an NMR feature in ferromagnetic substances, the device comprising: - one or more excitation coils (30, 30-A, 30-B, 30i) for producing excitation pulses for the zero-field NMR feature , - an array of a plurality of receiving coils (42, 42-A, 42-B; 44; 114) for the location-resolved detection of the signal response of the zero-field NMR feature (12; 14), which receiving coils are independent of the excitation coils (30, 30-A, 30-B, 30i) and are arranged at least partially adjacent to one another; wherein - the number (N) of receiving coils (42, 42-A, 42-B; 44; 114) of the receiving coil array is greater than the number (M) of excitation coils (30, 30-A, 30-B, 30i), - the receiving coils (42, 42-A, 42-B; 44; 114) of the receiving coil array (40, 40-i) each have a coil radius of 500 um or less, and - the area (F A ) covered by the excitation coils (30, 30-A, 30-B, 30i) at least partially overlaps with the area (F E ) covered by the receiving coils (42, 42-A, 42-B; 44) of the receiving coil array and exceeds the size of said area (F E ). - one or more excitation coils (30, 30-A, 30-B, 30i) for producing excitation pulses for the zero-field NMR feature , - an array of a plurality of receiving coils (42, 42-A, 42-B; 44; 114) for the location-resolved detection of the signal response of the zero-field NMR feature (12; 14), which receiving coils are independent of the excitation coils (30, 30-A, 30-B, 30i) and are arranged at least partially adjacent to one another; wherein - the number (N) of receiving coils (42, 42-A, 42-B; 44; 114) of the receiving coil array is greater than the number (M) of excitation coils (30, 30-A, 30-B, 30i), - the receiving coils (42, 42-A, 42-B; 44; 114) of the receiving coil array (40, 40-i) each have a coil radius of 500 um or less, and - the area (F A ) covered by the excitation coils (30, 30-A, 30-B, 30i) at least partially overlaps with the area (F E ) covered by the receiving coils (42, 42-A, 42-B; 44) of the receiving coil array and exceeds the size of said area (F E ).
A powder slush molded body of a polyvinyl chloride composition, the polyvinyl chloride composition comprising a polyvinyl chloride, a plasticizer, and an acrylic polymer, wherein the polyvinyl chloride composition comprises the plasticizer in an amount of 110 parts by mass or more and 150 parts by mass or less with respect to 100 parts by mass of the polyvinyl chloride, when a cross section of the powder slush molded body extending in parallel with a thickness direction is observed under an optical microscope using reflected light, irregular scale-like polyvinyl chloride particles having a long diameter, which is determined in accordance with the description, of 30 μm or more and 500 μm or less are continuous with one another via interfacial portions, and the number of aggregated particles of the acrylic polymer having a long diameter, which is determined in accordance with the description, of 30 μm or more and 100 μm or less is 10 particles/mm 2 or less, wherein the acrylic polymer contains a constitutional unit derived from a (meth)acrylic ester in an amount of 50 mass% or more, and the (meth)acrylic ester includes at least one (meth)acrylic ester selected from the group consisting of a (meth)acrylic ester of an aliphatic alcohol having two or more carbon atoms and a (meth)acrylic ester of an aromatic alcohol, and wherein the average particle diameter of the polyvinyl chloride determined in accordance with JIS K 7369:2009 is 50 μm or more and 500 μm or less, and the average degree of polymerization of the polyvinyl chloride determined in accordance with JIS K 6720-2:1999 is 1,350 or more. wherein the polyvinyl chloride composition comprises the plasticizer in an amount of 110 parts by mass or more and 150 parts by mass or less with respect to 100 parts by mass of the polyvinyl chloride, when a cross section of the powder slush molded body extending in parallel with a thickness direction is observed under an optical microscope using reflected light, irregular scale-like polyvinyl chloride particles having a long diameter, which is determined in accordance with the description, of 30 μm or more and 500 μm or less are continuous with one another via interfacial portions, and the number of aggregated particles of the acrylic polymer having a long diameter, which is determined in accordance with the description, of 30 μm or more and 100 μm or less is 10 particles/mm 2 or less, wherein the acrylic polymer contains a constitutional unit derived from a (meth)acrylic ester in an amount of 50 mass% or more, and the (meth)acrylic ester includes at least one (meth)acrylic ester selected from the group consisting of a (meth)acrylic ester of an aliphatic alcohol having two or more carbon atoms and a (meth)acrylic ester of an aromatic alcohol, and wherein the average particle diameter of the polyvinyl chloride determined in accordance with JIS K 7369:2009 is 50 μm or more and 500 μm or less, and the average degree of polymerization of the polyvinyl chloride determined in accordance with JIS K 6720-2:1999 is 1,350 or more.
A method for producing a solid electrolyte having Li 3 PS 4 , which comprises: a solution-making step in which a homogenous solution is prepared by mixing Li 2 S and P 2 S 5 into an organic solvent, wherein the organic solvent is selected from an ether-based solvent, an ester-based solvent, a hydrocarbon-based solvent, and a nitrile-based solvent; and a precipitation step in which Li 2 S is further added to and mixed in the homogenous solution to form a precipitate, wherein Li 2 S is further added to the homogenous solution so that the molar ratio of Li 2 S/P 2 S 5 becomes 2.7 to 3.3. a solution-making step in which a homogenous solution is prepared by mixing Li 2 S and P 2 S 5 into an organic solvent, wherein the organic solvent is selected from an ether-based solvent, an ester-based solvent, a hydrocarbon-based solvent, and a nitrile-based solvent; and a precipitation step in which Li 2 S is further added to and mixed in the homogenous solution to form a precipitate, wherein Li 2 S is further added to the homogenous solution so that the molar ratio of Li 2 S/P 2 S 5 becomes 2.7 to 3.3.
A packet processing method, wherein the method is applied to a Segment Routing, SR, network, and the method comprises: receiving , by an Ingress Label Switching Router, Ingress LSR, a first notification packet that is based on an Interior Gateway Protocol, IGP, and is flooded to the SR network by a first Egress Label Switching Router, Egress LSR, wherein the first notification packet is generated by the first Egress LSR, and the first notification packet comprises a first entropy label capability ELC flag; wherein the first ELC flag is used to indicate that the first Egress LSR has ELC, the Ingress LSR is an Ingress LSR of a first Multiprotocol Label Switching, MPLS, tunnel, and the first Egress LSR is an Egress LSR of the first MPLS tunnel; when the Ingress LSR learns from the first notification packet that the first Egress LSR has ELC, inserting , by the Ingress LSR, a label into a first packet that enters the first MPLS tunnel, to generate a second packet, wherein the label forms an MPLS label stack, the MPLS label stack comprises, from bottom to top, a first entropy label EL, a first Entropy Label Indicator, ELI, and a first tunnel label TL, and the first TL is a label that identifies the first MPLS tunnel, wherein the first TL uniquely identifies the first Egress LSR in the SR network ; and sending the second packet to the first Egress LSR through the first MPLS tunnel. receiving , by an Ingress Label Switching Router, Ingress LSR, a first notification packet that is based on an Interior Gateway Protocol, IGP, and is flooded to the SR network by a first Egress Label Switching Router, Egress LSR, wherein the first notification packet is generated by the first Egress LSR, and the first notification packet comprises a first entropy label capability ELC flag; wherein the first ELC flag is used to indicate that the first Egress LSR has ELC, the Ingress LSR is an Ingress LSR of a first Multiprotocol Label Switching, MPLS, tunnel, and the first Egress LSR is an Egress LSR of the first MPLS tunnel; when the Ingress LSR learns from the first notification packet that the first Egress LSR has ELC, inserting , by the Ingress LSR, a label into a first packet that enters the first MPLS tunnel, to generate a second packet, wherein the label forms an MPLS label stack, the MPLS label stack comprises, from bottom to top, a first entropy label EL, a first Entropy Label Indicator, ELI, and a first tunnel label TL, and the first TL is a label that identifies the first MPLS tunnel, wherein the first TL uniquely identifies the first Egress LSR in the SR network ; and sending the second packet to the first Egress LSR through the first MPLS tunnel.
A method for transmitting data in a wireless communication system, the method comprising: establishing, by a wireless device , a connection in an unlicensed band; and transmitting, by the wireless device , an extension signal during a silent duration in a specific subframe in the unlicensed band, wherein the silent duration is an orthogonal frequency division multiplexing, OFDM, symbol in which a cell-reference signal, CRS, is not transmitted if signals other than the CRS are not transmitted in the specific subframe, and wherein the extension signal is a signal that is transmitted to prevent other wireless devices from performing clear channel assessment, CCA, in the OFDM symbols in which the CRS is not transmitted. establishing, by a wireless device , a connection in an unlicensed band; and transmitting, by the wireless device , an extension signal during a silent duration in a specific subframe in the unlicensed band, wherein the silent duration is an orthogonal frequency division multiplexing, OFDM, symbol in which a cell-reference signal, CRS, is not transmitted if signals other than the CRS are not transmitted in the specific subframe, and wherein the extension signal is a signal that is transmitted to prevent other wireless devices from performing clear channel assessment, CCA, in the OFDM symbols in which the CRS is not transmitted.
A visual system for a vehicle , comprising a capturing unit for capturing a field of view ; a calculation unit adapted to generate image data to be displayed based on the captured image data, and to supply the same to an image display unit , wherein the image data to be displayed include the field of view captured by the capturing unit , the image display unit adapted to display the image data to be displayed such that they are visible for the driver of the vehicle , and the calculation unit adapted to superimpose at least one trajectory of a future track/driving curve of the vehicle on the image data displayed on the image display unit if a steering angle of the vehicle has a predetermined amount, characterized in that the vehicle comprises a tractor and a trailer pivotable to the tractor , and the calculation unit is adapted for precalculating at least a first trajectory of the tractor and at least a second trajectory of the trailer for future driving course of the tractor and the trailer , wherein the image displayed on the image display unit relates to side and rear areas and shows a first trajectory for the tractor and a second trajectory for the trailer.
A cleaning composition comprising: (a) from 1% to 10%, by total weight of the cleaning composition, of one or more branched, unalkoxylated C 6 -C 14 alkyl sulfate (BAS) surfactants; (b) from 2% to 20%, by total weight of the cleaning composition, of one or more linear, unalkoxylated C 6 -C 18 alkyl sulphate (MCAS) surfactants; and (c) one or more additional ingredients, wherein the weight ratio of said one or more BAS surfactants to said one or more MCAS surfactants ranges from 2:1 to 1:5, wherein the composition further comprises from 0.5% to 30% of one or more C 10 -C 20 linear alkylbenzene sulphonates (LAS), by total weight of said cleaning composition, and from 2% to 6% of one or more fatty acids or salts thereof, by total weight of said cleaning composition. (a) from 1% to 10%, by total weight of the cleaning composition, of one or more branched, unalkoxylated C 6 -C 14 alkyl sulfate (BAS) surfactants; (b) from 2% to 20%, by total weight of the cleaning composition, of one or more linear, unalkoxylated C 6 -C 18 alkyl sulphate (MCAS) surfactants; and (c) one or more additional ingredients, wherein the weight ratio of said one or more BAS surfactants to said one or more MCAS surfactants ranges from 2:1 to 1:5, wherein the composition further comprises from 0.5% to 30% of one or more C 10 -C 20 linear alkylbenzene sulphonates (LAS), by total weight of said cleaning composition, and from 2% to 6% of one or more fatty acids or salts thereof, by total weight of said cleaning composition.
A dual-sided electrode pad assembly configured to be placed upon a patient's skin, the dual-sided electrode pad assembly comprising: an upper conductive gel layer (B) having a volume resistivity greater than 100 ohm-cm; a middle conductive layer (C) having a surface resistivity less than 10 ohms; and a lower conductive gel layer having a volume resistivity greater than 100 ohm-cm; wherein the middle conductive layer (D) is disposed between the upper and lower conductive gel layers; and wherein the middle conductive layer comprises a conductive metallic foil or a gel layer with suspended conductive particles. an upper conductive gel layer (B) having a volume resistivity greater than 100 ohm-cm; a middle conductive layer (C) having a surface resistivity less than 10 ohms; and a lower conductive gel layer having a volume resistivity greater than 100 ohm-cm; wherein the middle conductive layer (D) is disposed between the upper and lower conductive gel layers; and wherein the middle conductive layer comprises a conductive metallic foil or a gel layer with suspended conductive particles.
A bed medium for a fluidized bed, which medium is configured to be introduced into a fluidized bed furnace for combusting or gasifying fuel comprising biomass material and/or coal material, and to be fluidized to form the fluidized bed within the furnace into which the fuel is to be fed, wherein: the bed medium is formed of artificially-produced spherical refractory particles having a chemical composition containing not less than 40% by weight of Al 2 O 3 and not more than 60% by weight of SiO 2 ; apparent porosity of the refractory particles is not more than 5%, such that a ratio by weight of agglomerated particles in the bed medium is not more than 20% after the bed medium has been subjected to a heat treatment test three times at a temperature of 900°C for 2 hours under coexistence with a biomass and/or coal material fuel. the bed medium is formed of artificially-produced spherical refractory particles having a chemical composition containing not less than 40% by weight of Al 2 O 3 and not more than 60% by weight of SiO 2 ; apparent porosity of the refractory particles is not more than 5%, such that a ratio by weight of agglomerated particles in the bed medium is not more than 20% after the bed medium has been subjected to a heat treatment test three times at a temperature of 900°C for 2 hours under coexistence with a biomass and/or coal material fuel.
A carton (200; 300) for holding a plurality of containers (C), the carton (200; 300) comprising: a top retainer (106; 206) comprising a top panel , a first top end flap (115, 117; 215, 217) and a second top end flap (115, 117; 215, 217) each foldably connected to the top panel , the top panel comprises at least one retaining portion having at least one receptacle for retaining at least one container (C) of the plurality of containers (C), and the at least one retaining portion is removable from the carton (200; 300); and a tray (264; 364) comprising a bottom panel and a first bottom end flap (275, 277; 375 377) and a second bottom end flap (275, 277; 375, 377) each foldably connected to the bottom panel , the first top end flap (115, 117; 215, 217) and the second top end flap (115, 117; 215, 217) are positioned in face-to-face contact with the respective first bottom end flap (275, 277; 375 377) and the second bottom end flap (275, 277; 375, 377) to form a respective first closed end and a second closed end of the carton (200; 300), the carton (200; 300) comprises a first handle (271a, 271b; 373a, 373b) in the first closed end and a second handle in the second closed end , characterized in that the first handle (271a, 271b; 373a, 373b) comprises a handle opening in the first bottom end flap (275, 277; 375, 377) and the second handle (271a, 271b; 373a, 373b) comprises a handle opening in the second bottom end flap . a top retainer (106; 206) comprising a top panel , a first top end flap (115, 117; 215, 217) and a second top end flap (115, 117; 215, 217) each foldably connected to the top panel , the top panel comprises at least one retaining portion having at least one receptacle for retaining at least one container (C) of the plurality of containers (C), and the at least one retaining portion is removable from the carton (200; 300); and a tray (264; 364) comprising a bottom panel and a first bottom end flap (275, 277; 375 377) and a second bottom end flap (275, 277; 375, 377) each foldably connected to the bottom panel , the first top end flap (115, 117; 215, 217) and the second top end flap (115, 117; 215, 217) are positioned in face-to-face contact with the respective first bottom end flap (275, 277; 375 377) and the second bottom end flap (275, 277; 375, 377) to form a respective first closed end and a second closed end of the carton (200; 300), the carton (200; 300) comprises a first handle (271a, 271b; 373a, 373b) in the first closed end and a second handle in the second closed end , characterized in that the first handle (271a, 271b; 373a, 373b) comprises a handle opening in the first bottom end flap (275, 277; 375, 377) and the second handle (271a, 271b; 373a, 373b) comprises a handle opening in the second bottom end flap .
Turbomachine, in particular a turbocompressor (TCO), comprising a rotor (R) which is at least partly arranged in a casing (CAS) and extends along a rotational axis (X), wherein the turbomachine has at least one radial bearing (RB) in which the rotor (R) is radially mounted at a radial bearing point (RBP), wherein the radial bearing (RB) is designed as an oil-lubricated slide bearing, wherein in the axial region of the radial bearing point (RBP), the rotor (R) has a cavity (CAV) which is annularly located in a circumferential direction (CDR) in the region of the outer 20% of the diameter of the radial bearing point (RBP) of the rotor (R) and which provides thermal insulation between a radially inner core region (COR) of the rotor (R) in the region of the radial bearing point (RBP) and the radially outer region of the rotor (R) in the region of the radial bearing point (RBP), characterized in that a first shaft end (RN1) of the rotor (R) protrudes from the axial center of the radial bearing point (RBP) by an overhang (OVH) over the radial bearing point (RBP), wherein a first quotient (QLO) of the overhang (OVH) to a total length (TLE) of the rotor (R) is QLO=OVH/TLE > 0.15, wherein a radial height (RHT) of the cavity (CAV) is less than 10% of the rotor diameter (RDM) at the radial bearing position (RBP).
A method of rendering a 2D planar representation from a 3D surface geometry of a 3D model having a hollow hull, the method comprising: generating the 3D model formed by the hollow hull; identifying a first surface section on the 3D surface geometry of the 3D model having a first feature of the hollow hull; selecting first and second points on the 3D surface geometry of the 3D model to form a cutting curve ; and at least partly unfolding the 3D surface geometry at the cutting curve by making an incision in the hollow hull and stretching the hollow hull at the incision, so that the edge of the incision forms the edge of the 2D planar representation, to render the 2D planar representation of the hollow hull; wherein the first and second points are selected to facilitate visualization of the first feature in the 2D planar representation, wherein in case of partly unfolding the 3D surface geometry only the first feature is shown in the 2D planar representation. generating the 3D model formed by the hollow hull; identifying a first surface section on the 3D surface geometry of the 3D model having a first feature of the hollow hull; selecting first and second points on the 3D surface geometry of the 3D model to form a cutting curve ; and at least partly unfolding the 3D surface geometry at the cutting curve by making an incision in the hollow hull and stretching the hollow hull at the incision, so that the edge of the incision forms the edge of the 2D planar representation, to render the 2D planar representation of the hollow hull; wherein the first and second points are selected to facilitate visualization of the first feature in the 2D planar representation, wherein in case of partly unfolding the 3D surface geometry only the first feature is shown in the 2D planar representation.
A composition exhibiting enhanced bioavailability comprising a tri-molecular complex of general formula I embedded in oleoresin matrix along with pharmaceutically or nutraceutically acceptable excipients: wherein, P is a natural compound wherein the natural compound is selected from curcuminoids, Gingerols, or natural compound containing component wherein the natural compound is curcuminoids or gingerol(s) present in respective oleoresin form; M n+ wherein n is 2 or 3 and M is a divalent or trivalent metal ion; and R is a phospholipid; wherein the composition comprises an organic acid or inorganic acid as a stabilizer; and wherein the composition exhibits sustained release profile for P. P is a natural compound wherein the natural compound is selected from curcuminoids, Gingerols, or natural compound containing component wherein the natural compound is curcuminoids or gingerol(s) present in respective oleoresin form; M n+ wherein n is 2 or 3 and M is a divalent or trivalent metal ion; and R is a phospholipid; wherein the composition comprises an organic acid or inorganic acid as a stabilizer; and wherein the composition exhibits sustained release profile for P.