mhurhangee/patent-ind-claim-en huggingface dataset:
A network node , comprising: processing circuitry configured to: select a first set and second set of reference signal resource elements in a subframe; and aggregate the first set and second set of reference signal resource elements in the subframe to form a code division multiplexing, CDM, configuration for a CDM-8 design for at least twenty four Channel System Information-Reference Signal, CSI-RS, antenna ports; wherein the first set and second set of reference signal resource elements in the subframe satisfy a temporal criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum time separation of six Orthogonal Frequency Division Multiplexing, OFDM, symbols; and wherein the first set and second set of reference signal resource elements in the subframe satisfy a frequency criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum frequency separation of six subcarriers. select a first set and second set of reference signal resource elements in a subframe; and aggregate the first set and second set of reference signal resource elements in the subframe to form a code division multiplexing, CDM, configuration for a CDM-8 design for at least twenty four Channel System Information-Reference Signal, CSI-RS, antenna ports; wherein the first set and second set of reference signal resource elements in the subframe satisfy a temporal criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum time separation of six Orthogonal Frequency Division Multiplexing, OFDM, symbols; and wherein the first set and second set of reference signal resource elements in the subframe satisfy a frequency criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum frequency separation of six subcarriers.
A modified Dickkopf-related (DKK)2 polypeptide comprising one or more additional glycosylation sites, compared to an amino acid sequence of a wild-type DKK2 polypeptide, wherein the glycosylation site is introduced by substituting asparagine (Asn, N) for aspartate (Asp, D) which is the 110th amino acid from the N-terminus in the amino acid sequence of SEQ ID NO: 3.
A gas turbine shroud comprising: a first portion including at least one of a stainless steel or an alloy steel; and a second portion joined with the first portion , the second portion including a nickel alloy, the second portion having a thermal expansion coefficient differing by up to 25 percent from a thermal expansion coefficient of the first portion ; and characterized in that : the second portion includes an arced pathway extending therethrough, wherein the arced pathway is located within the second portion to direct a portion of a coolant to a leakage area of the gas turbine shroud , the leakage area being located between the gas turbine shroud and a circumferentially adjacent gas turbine shroud. a first portion including at least one of a stainless steel or an alloy steel; and a second portion joined with the first portion , the second portion including a nickel alloy, the second portion having a thermal expansion coefficient differing by up to 25 percent from a thermal expansion coefficient of the first portion ; and characterized in that : the second portion includes an arced pathway extending therethrough, wherein the arced pathway is located within the second portion to direct a portion of a coolant to a leakage area of the gas turbine shroud , the leakage area being located between the gas turbine shroud and a circumferentially adjacent gas turbine shroud.
An airfoil for a gas turbine engine, comprising: a first cooling hole , having a first cooling passage arranged at a first angle relative to a chordwise axis (D); a second cooling hole , having a second cooling passage arranged at a second, different angle relative to said chordwise axis (D), wherein a radial projection of said first cooling passage intersects a radial projection of said second cooling passage ; wherein said first cooling passage defines a passage axis (G), and a second inlet of said second cooling hole is on an opposite side of said passage axis (G) from a second outlet of said second cooling hole ; characterized in that said first cooling hole is on a leading edge of said airfoil ; and wherein said first cooling hole has a first inlet and a first outlet , and said second cooling hole has a second inlet and a second outlet , and said second inlet is closer to said chordwise axis (D) than said first inlet , and said first outlet is closer to said chordwise axis (D) than said second outlet . a first cooling hole , having a first cooling passage arranged at a first angle relative to a chordwise axis (D); a second cooling hole , having a second cooling passage arranged at a second, different angle relative to said chordwise axis (D), wherein a radial projection of said first cooling passage intersects a radial projection of said second cooling passage ; wherein said first cooling passage defines a passage axis (G), and a second inlet of said second cooling hole is on an opposite side of said passage axis (G) from a second outlet of said second cooling hole ; characterized in that said first cooling hole is on a leading edge of said airfoil ; and wherein said first cooling hole has a first inlet and a first outlet , and said second cooling hole has a second inlet and a second outlet , and said second inlet is closer to said chordwise axis (D) than said first inlet , and said first outlet is closer to said chordwise axis (D) than said second outlet .
A polypeptide comprising or consisting of an amino acid sequence selected from the group consisting of: (a) any one of SEQ ID NOs: 1, 2, 3 and 5 from the α3 chain of collagen type VI; and (b) an amino acid sequence with at least 80% identity to a sequence according to any one of SEQ ID NOs: 1, 2, 3 and 5; wherein the polypeptide is between 20 and 200 amino acids in length; and wherein the polypeptide is capable of killing or attenuating the growth of microorganisms. (a) any one of SEQ ID NOs: 1, 2, 3 and 5 from the α3 chain of collagen type VI; and (b) an amino acid sequence with at least 80% identity to a sequence according to any one of SEQ ID NOs: 1, 2, 3 and 5; wherein the polypeptide is between 20 and 200 amino acids in length; and wherein the polypeptide is capable of killing or attenuating the growth of microorganisms.
A lactase solution comprising sugar in an amount of 0.1 to 50 mg/g on the basis of the total mass of the lactase solution, wherein the amount of reducing sugar contained in the lactase solution is 2.0 mg/g or less on the basis of the total mass of the lactase solution.
A capacitor unit comprising a capacitor ; and a capacitor plate in which a cavity is formed, wherein the cavity accommodates the capacitor , characterized in that the capacitor unit is connected to a parallel transmission line that comprises a pair of conductors extending parallel to each other and supplies power from a power supply apparatus to an electric power reception side in a contactless manner, in that the capacitor is connectable to the parallel transmission line , and in that the cavity accommodates a connection unit (C) that connects the capacitor and the parallel transmission line .
An isolated or purified antibody or an antigen-binding fragment thereof, wherein the antibody or fragment thereof specifically binds to the peptide: GLFGAIAGFIEGGW (SEQ ID NO:26), wherein the antibody or fragment thereof comprises: a) a light chain comprising a complementarity determining region (CDR) L1 of sequence QSLLNSRNQKNH (SEQ ID NO: 8), a CDR L2 of sequence WAS, and a CDR L3 of sequence QQYYTYRT (SEQ ID NO: 14); and a heavy chain comprising a CDR H1 of sequence GYSITSDYY (SEQ ID NO: 12), a CDR H2 of sequence IGYDGSK (SEQ ID NO: 15), and a CDR H3 of sequence TRDRANWDDYFDY (SEQ ID NO: 6); or b) a variable light (V L ) domain of sequence: and a variable heavy (V H ) domain of sequence: or c) SEQ ID NO: 36 a) a light chain comprising a complementarity determining region (CDR) L1 of sequence QSLLNSRNQKNH (SEQ ID NO: 8), a CDR L2 of sequence WAS, and a CDR L3 of sequence QQYYTYRT (SEQ ID NO: 14); and a heavy chain comprising a CDR H1 of sequence GYSITSDYY (SEQ ID NO: 12), a CDR H2 of sequence IGYDGSK (SEQ ID NO: 15), and a CDR H3 of sequence TRDRANWDDYFDY (SEQ ID NO: 6); or b) a variable light (V L ) domain of sequence: and a variable heavy (V H ) domain of sequence: or a variable light (V L ) domain of sequence: and a variable heavy (V H ) domain of sequence: or c) SEQ ID NO: 36
A method of determining a crosstalk correction value in a multiplex nucleic acid amplification, comprising: a calibration process comprising performing at least a series of single-plex nucleic acid amplification of a nucleic acid sample using a detection probe, wherein the nucleic acid amplification occurs over a plurality of interrogation periods; from the nucleic acid amplification, acquiring amplification data that indicates an amount of nucleic acid present for each of the plurality of interrogation periods; and based on the amplification data, determining a crosstalk correction value associated with a nearest spectral neighbor to the detection probe to reduce spectral crosstalk from the nearest spectral neighbor; wherein the determined crosstalk correction value is the ratio of a signal detected for the nearest spectral neighbor to the signal detected for the amplification data of the detection probe, wherein the nearest spectral neighbor is determined based on a distance from a fluorescence peak of the target dye of the detection probe to the fluorescence peak of a neighboring target dye, wherein the fluorescence peak of the target dye of the detection probe and the fluorescence peak of the target dye of the nearest spectral neighbor are separated by a distance less than a threshold distance. a calibration process comprising performing at least a series of single-plex nucleic acid amplification of a nucleic acid sample using a detection probe, wherein the nucleic acid amplification occurs over a plurality of interrogation periods; from the nucleic acid amplification, acquiring amplification data that indicates an amount of nucleic acid present for each of the plurality of interrogation periods; and based on the amplification data, determining a crosstalk correction value associated with a nearest spectral neighbor to the detection probe to reduce spectral crosstalk from the nearest spectral neighbor; wherein the determined crosstalk correction value is the ratio of a signal detected for the nearest spectral neighbor to the signal detected for the amplification data of the detection probe, wherein the nearest spectral neighbor is determined based on a distance from a fluorescence peak of the target dye of the detection probe to the fluorescence peak of a neighboring target dye, wherein the fluorescence peak of the target dye of the detection probe and the fluorescence peak of the target dye of the nearest spectral neighbor are separated by a distance less than a threshold distance.
An electronic vapour provision device comprising a battery assembly and a vaporiser , wherein the battery assembly comprises a power cell and a computer ; the vaporiser is releasably-attachable to the battery assembly ; the computer comprises a computer processor , a memory and an input-output means ; and the computer is configured in use to detect whether the vaporiser is connected to the battery assembly , wherein the device further comprises battery terminals for electrically connecting the battery assembly to the vaporiser , characterised in that the computer is configured to check whether the vaporiser is connected to the battery assembly by sending an electrical pulse to the battery terminals .
Use of at least one dithiopyrrolopyrrole derivative of the formula in a liquid-crystalline mixture, in which, in the formula , R 1 , R 2 , R 3 and R 4 , independently of one another, stand for linear or branched, optionally halogen-substituted alkyl groups having 1 to 20 carbon atoms or halogen; Q 1 and Q 2 each denote single bonds or stand, independently of one another, for O, OCF 2 , CF 2 , CF 2 CF 2 or CO; A 1 , A 2 , A 3 and A 4 each denote single bonds or stand, independently of one another, for a group formed by phenylene, pyridine, pyrimidine, pyridazine, naphthylene, thiophene, selenophene and thiazole, with the proviso that (i) at least A 3 and A 4 must represent aromatic ring structures and (ii) the aromatic ring structures are optionally substituted by halide; and Z 1 , Z 2 , Z 3 Z 4 , Z 5 and Z 6 each denote single bonds or stand, independently of one another, for a radical selected from the group formed by C≡C, CH=CH, CF=CF, CF=CH, CH 2 CH 2 , CF 2 -CF 2 and CF 2 O, with the proviso that (iii) at least Z 3 and Z 4 represent either single bonds or a π-conjugated group. R 1 , R 2 , R 3 and R 4 , independently of one another, stand for linear or branched, optionally halogen-substituted alkyl groups having 1 to 20 carbon atoms or halogen; Q 1 and Q 2 each denote single bonds or stand, independently of one another, for O, OCF 2 , CF 2 , CF 2 CF 2 or CO; A 1 , A 2 , A 3 and A 4 each denote single bonds or stand, independently of one another, for a group formed by phenylene, pyridine, pyrimidine, pyridazine, naphthylene, thiophene, selenophene and thiazole, with the proviso that (i) at least A 3 and A 4 must represent aromatic ring structures and (ii) the aromatic ring structures are optionally substituted by halide; and (i) at least A 3 and A 4 must represent aromatic ring structures and (ii) the aromatic ring structures are optionally substituted by halide; and Z 1 , Z 2 , Z 3 Z 4 , Z 5 and Z 6 each denote single bonds or stand, independently of one another, for a radical selected from the group formed by C≡C, CH=CH, CF=CF, CF=CH, CH 2 CH 2 , CF 2 -CF 2 and CF 2 O, with the proviso that (iii) at least Z 3 and Z 4 represent either single bonds or a π-conjugated group.
A physical downlink data channel transmission method, comprising: mapping (S101), by a base station , a physical downlink data channel to a time-frequency resource in at least one timeslot; and sending (S102, S503), by the base station , the physical downlink data channel to user equipment, UE ; wherein the time-frequency resource in each timeslot comprises at least one enhanced physical resource block pair, and the enhanced physical resource block pair comprises two consecutive physical resource blocks in a frequency domain in a same timeslot; characterized in that if a quantity of physical resource blocks comprised in system bandwidth or configuration bandwidth is an even number, the time-frequency resource in each timeslot comprises at least one enhanced physical resource block pair; if a quantity of physical resource blocks comprised in system bandwidth or configuration bandwidth is an odd number, the time-frequency resource in each timeslot comprises at least one enhanced physical resource block pair and one physical resource block, wherein the physical resource block is a physical resource block highest in the frequency domain in each timeslot, and the configuration bandwidth is bandwidth allocated to the UE . mapping (S101), by a base station , a physical downlink data channel to a time-frequency resource in at least one timeslot; and sending (S102, S503), by the base station , the physical downlink data channel to user equipment, UE ; wherein the time-frequency resource in each timeslot comprises at least one enhanced physical resource block pair, and the enhanced physical resource block pair comprises two consecutive physical resource blocks in a frequency domain in a same timeslot; characterized in that if a quantity of physical resource blocks comprised in system bandwidth or configuration bandwidth is an even number, the time-frequency resource in each timeslot comprises at least one enhanced physical resource block pair; if a quantity of physical resource blocks comprised in system bandwidth or configuration bandwidth is an odd number, the time-frequency resource in each timeslot comprises at least one enhanced physical resource block pair and one physical resource block, wherein the physical resource block is a physical resource block highest in the frequency domain in each timeslot, and the configuration bandwidth is bandwidth allocated to the UE .
An image providing method for an image providing device, comprising: selecting at least one image; selecting at least one event based on the user's input; generating a combined image by combining the selected image with an event image or an event information for the selected event; color-matching the combined image based on the skin tone of a print region; generating a printing image with the color-matched image; and transmitting the printing image to at least one external device, wherein the event image includes at least one image of an advertisement, a character, and a logo provided by a provider of the event and wherein the event information includes at least one of information related to payment, ticket, and authentication and scent information. selecting at least one image; selecting at least one event based on the user's input; generating a combined image by combining the selected image with an event image or an event information for the selected event; color-matching the combined image based on the skin tone of a print region; generating a printing image with the color-matched image; and transmitting the printing image to at least one external device, wherein the event image includes at least one image of an advertisement, a character, and a logo provided by a provider of the event and wherein the event information includes at least one of information related to payment, ticket, and authentication and scent information.
Grinding method for machining the surface of workpieces , in particular for machining outer surfaces of workpieces , comprising the following steps: a) providing a grinding machine with a grinding tool , - wherein the grinding tool is rotatably mounted about a grinding tool axis (X2), b) providing at least two workpieces to be machined, c) arranging the workpieces on one of at least two workpiece carriers (5, 5', 5") of a workpiece carrier unit , - wherein the workpieces are arranged on different workpiece carriers (5, 5' 5"), - wherein the at least two workpiece carriers (5, 5', 5") are each rotatably mounted about a workpiece carrier axis (X5), and - wherein the workpiece carrier unit is rotatably mounted about a workpiece carrier unit axis (X4), and d) grinding the workpiece surfaces of the workpieces , - wherein the grinding tool rotates about the grinding tool axis (X2), - wherein the at least two workpiece carriers (5, 5', 5") each rotate about a workpiece carrier axis (X5), and - wherein the workpiece surfaces of at least two workpieces arranged on different workpiece carriers (5, 5', 5") are simultaneously machined by the same grinding tool , characterised in that the workpiece carrier unit rotates completely about the workpiece carrier unit axis (X4) when grinding the workpieces . a) providing a grinding machine with a grinding tool , - wherein the grinding tool is rotatably mounted about a grinding tool axis (X2), - wherein the grinding tool is rotatably mounted about a grinding tool axis (X2), b) providing at least two workpieces to be machined, c) arranging the workpieces on one of at least two workpiece carriers (5, 5', 5") of a workpiece carrier unit , - wherein the workpieces are arranged on different workpiece carriers (5, 5' 5"), - wherein the at least two workpiece carriers (5, 5', 5") are each rotatably mounted about a workpiece carrier axis (X5), and - wherein the workpiece carrier unit is rotatably mounted about a workpiece carrier unit axis (X4), and - wherein the workpieces are arranged on different workpiece carriers (5, 5' 5"), - wherein the at least two workpiece carriers (5, 5', 5") are each rotatably mounted about a workpiece carrier axis (X5), and - wherein the workpiece carrier unit is rotatably mounted about a workpiece carrier unit axis (X4), d) grinding the workpiece surfaces of the workpieces , - wherein the grinding tool rotates about the grinding tool axis (X2), - wherein the at least two workpiece carriers (5, 5', 5") each rotate about a workpiece carrier axis (X5), and - wherein the workpiece surfaces of at least two workpieces arranged on different workpiece carriers (5, 5', 5") are simultaneously machined by the same grinding tool , - wherein the grinding tool rotates about the grinding tool axis (X2), - wherein the at least two workpiece carriers (5, 5', 5") each rotate about a workpiece carrier axis (X5), and - wherein the workpiece surfaces of at least two workpieces arranged on different workpiece carriers (5, 5', 5") are simultaneously machined by the same grinding tool ,
A balustrade glazing system , comprising: - an essentially horizontal handrail provided with an installation groove and having a span length of at least 3.0 m and fastened in a stationary manner only at the ends to support structures by means of a support structure fastening system ; - an essentially horizontal lower rail provided with an installation groove ; - balustrade glazing made of laminated glass and installed essentially in a floating manner on the span between the installation groove of the handrail and the installation groove of the lower rail, whereby the lower edge of the balustrade glazing rests on the bottom of the installation groove so that the lower edge of the balustrade glazing can essentially move in the installation groove with respect to the width direction of the installation groove ; and where: - the balustrade glazing supports the handrail at the middle area of the span so that the balustrade glazing is freely deflectable by the effect of the forces in the direction of the normal (F) of the balustrade glazing ; characterised in that - said balustrade glazing is made of unhardened and laminated glass; and - the lower rail and the handrail are arranged so that the forces in the direction of the normal (F) of the balustrade glazing directed to the balustrade glass are transmitted to the support structures only via the essentially horizontal rails . - an essentially horizontal handrail provided with an installation groove and having a span length of at least 3.0 m and fastened in a stationary manner only at the ends to support structures by means of a support structure fastening system ; - an essentially horizontal lower rail provided with an installation groove ; - balustrade glazing made of laminated glass and installed essentially in a floating manner on the span between the installation groove of the handrail and the installation groove of the lower rail, whereby the lower edge of the balustrade glazing rests on the bottom of the installation groove so that the lower edge of the balustrade glazing can essentially move in the installation groove with respect to the width direction of the installation groove ; - the balustrade glazing supports the handrail at the middle area of the span so that the balustrade glazing is freely deflectable by the effect of the forces in the direction of the normal (F) of the balustrade glazing ; - said balustrade glazing is made of unhardened and laminated glass; and - the lower rail and the handrail are arranged so that the forces in the direction of the normal (F) of the balustrade glazing directed to the balustrade glass are transmitted to the support structures only via the essentially horizontal rails .