mhurhangee/ep-ind-claims huggingface dataset:
A system for transmission of quantum information for quantum error correction, comprising: an ancilla qubit chip comprising a plurality of ancilla qubits (104, 106, 108); a data qubit chip spaced apart from said ancilla qubit chip, said data qubit chip comprising a plurality of data qubits (112, 114, 116); an interposer coupled to said ancilla qubit chip and said data qubit chip, said interposer comprising a dielectric material; and a plurality of superconducting resonators each comprising one of the plurality of superconducting structures (210, 212, 214, 216); wherein each respective superconducting structure of the plurality of superconducting structures (210, 212, 214, 216) forms a part of a respective superconducting resonator having a third frequency; wherein the respective superconducting structure (210, 212, 214, 216) extends from a respective data qubit, having a first frequency, of the plurality of data qubits (112, 114, 116) to a respective ancilla qubit, having a second frequency, of the plurality of ancilla qubits (104, 106, 108); wherein the third frequency is detuned from the first and second frequency to prevent real photon transfer between the respective data qubit (112, 114, 116) and the respective ancilla qubit (104, 106, 108); wherein the respective superconducting structure enables transmission of quantum information between the respective data qubit on said data qubit chip and the respective ancilla qubit on said ancilla qubit chip via virtual photons for quantum error correction. an ancilla qubit chip comprising a plurality of ancilla qubits (104, 106, 108); a data qubit chip spaced apart from said ancilla qubit chip, said data qubit chip comprising a plurality of data qubits (112, 114, 116); an interposer coupled to said ancilla qubit chip and said data qubit chip, said interposer comprising a dielectric material; and a plurality of superconducting resonators each comprising one of the plurality of superconducting structures (210, 212, 214, 216); wherein each respective superconducting structure of the plurality of superconducting structures (210, 212, 214, 216) forms a part of a respective superconducting resonator having a third frequency; wherein the respective superconducting structure (210, 212, 214, 216) extends from a respective data qubit, having a first frequency, of the plurality of data qubits (112, 114, 116) to a respective ancilla qubit, having a second frequency, of the plurality of ancilla qubits (104, 106, 108); wherein the third frequency is detuned from the first and second frequency to prevent real photon transfer between the respective data qubit (112, 114, 116) and the respective ancilla qubit (104, 106, 108); wherein the respective superconducting structure enables transmission of quantum information between the respective data qubit on said data qubit chip and the respective ancilla qubit on said ancilla qubit chip via virtual photons for quantum error correction.
A solid composition comprising: a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.0005 to 4 wt. % of non-crystalline bismuth, non-crystalline zinc or a combination thereof; and d) from 0.7 to 25 wt. % of water; wherein the organic acid has an average molecular mass of at most 500 Dalton, the molecular mass being based on the free acid equivalent. a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.0005 to 4 wt. % of non-crystalline bismuth, non-crystalline zinc or a combination thereof; and d) from 0.7 to 25 wt. % of water;
A compound of Formula or a tautomer or a stereoisomeric form thereof, wherein X 1 represents wherein 'a' and 'b' indicate how variable X 1 is attached to the remainder of the molecule; R 1 represents hydrogen or C 1-6 alkyl; X 2 represents which can be attached to the remainder of the molecule in both directions; R 2 represents hydrogen or C 1-6 alkyl; X represents -S- or -N(R x)-; R x represents hydrogen, methyl, C 2-6 alkyl, -C(=O)-C 1-6 alkyl, -S(=O) 2 -C 1-6 alkyl, C 3-6 cycloalkyl, -C(=O)-C 3-6 cycloalkyl, or -S(=O) 2 -C 3-6 cycloalkyl; wherein C 2-6 alkyl, -C(=O)-C 1-6 alkyl, -S(=O) 2 -C 1-6 alkyl, C 3-6 cycloalkyl, -C(=O)-C 3-6 cycloalkyl, and -S(=O) 2 -C 3-6 cycloalkyl are optionally substituted with one, two or three substituents selected from the group consisting of halo, C 1-4 alkyl and C 1-4 alkyl substituted with one, two or three halo atoms; or a pharmaceutically acceptable salt, or a solvate thereof. or a tautomer or a stereoisomeric form thereof, wherein X 1 represents wherein 'a' and 'b' indicate how variable X 1 is attached to the remainder of the molecule; R 1 represents hydrogen or C 1-6 alkyl; X 2 represents which can be attached to the remainder of the molecule in both directions; R 2 represents hydrogen or C 1-6 alkyl; X represents -S- or -N(R x)-; R x represents hydrogen, methyl, C 2-6 alkyl, -C(=O)-C 1-6 alkyl, -S(=O) 2 -C 1-6 alkyl, C 3-6 cycloalkyl, -C(=O)-C 3-6 cycloalkyl, or -S(=O) 2 -C 3-6 cycloalkyl; wherein C 2-6 alkyl, -C(=O)-C 1-6 alkyl, -S(=O) 2 -C 1-6 alkyl, C 3-6 cycloalkyl, -C(=O)-C 3-6 cycloalkyl, and -S(=O) 2 -C 3-6 cycloalkyl are optionally substituted with one, two or three substituents selected from the group consisting of halo, C 1-4 alkyl and C 1-4 alkyl substituted with one, two or three halo atoms; or a pharmaceutically acceptable salt, or a solvate thereof.
An application of carbon nanotube assemblies to the preparation of a nanocarbon impact-resistant material, characterized in that the carbon nanotube assembly is a macrostructure provided with at least one continuous surface, a plurality of carbon nanotubes are densely distributed in the continuous surface, at least partial segments of at least part of the multiple carbon nanotubes continuously extent in the continuous surface, the carbon nanotube assembly comprises a plurality of basic units which are distributed in an oriented mode, and each basic unit comprises a two-dimensional surface structure which is formed by a plurality of interwoven carbon nanotubes, the multiple basic units are densely distributed in at least one continuous surface in parallel, thus the carbon nanotube assembly is in a macro-ordered form, and the multiple carbon nanotubes in each basic unit are interwoven disorderly, thus the carbon nanotube assembly is in a micro-disordered form.
A composition comprising clopidogrel or a pharmaceutically acceptable salt thereof, an aqueous liquid carrier, and a sulfoalkyl ether cyclodextrin (SAE-CD); wherein the composition has a pH of 3.5 or greater, and wherein the molar ratio of the SAE-CD to clopidogrel is at least 6:1.
Device for converting the reciprocating motion of the piston into rotary movement of the shaft and vice versa, in axial-piston mechanical systems, the device's kinematic chain comprising an external and an internal rings connected with the piston, and with the output shaft, wherein a spatial sinusoidal groove with a 1/2 circular cross-section or spherical sockets is / are made on the inner surface of the external ring and reverse spherical sockets or spatial sinusoidal groove are / is formed on the outer surface of the inner ring, also comprises balls, lying in the spherical sockets and in the spatial, sinusoidal groove with a 1/2 circular cross-section, wherein the ring with sockets is both rotating and translational, characterized by the fact that a) the simultaneously rotating and translating ring consists of more than one segment (3N or 1N), each of which has at least one socket, the segments having axes parallel to the axis of the device and performing relative to one another irrespective reciprocating motion, synchronized by the closed, sinusoidal, spatial groove; b) each segment (3N or 1N) of the translating and at the same time rotating ring includes piston with basic (3.2) and front (3.1) parts, where the socket is carved on the front part; c) the device also includes pillars (3.4) lying in cylindrical grooves (3.6) located on the surface of the output shaft to transmit the torque to the output shaft created by the motion of the balls on the sinusoidal groove. a) the simultaneously rotating and translating ring consists of more than one segment (3N or 1N), each of which has at least one socket, the segments having axes parallel to the axis of the device and performing relative to one another irrespective reciprocating motion, synchronized by the closed, sinusoidal, spatial groove; b) each segment (3N or 1N) of the translating and at the same time rotating ring includes piston with basic (3.2) and front (3.1) parts, where the socket is carved on the front part; c) the device also includes pillars (3.4) lying in cylindrical grooves (3.6) located on the surface of the output shaft to transmit the torque to the output shaft created by the motion of the balls on the sinusoidal groove.
An automatic actuator system (16a-d), comprising: an input linkage (20a-d) that receives an input; an output linkage (24a-d) that controls a flight surface actuator (14a-d); a first strain wave gear (80, 512) including a first circular spline (88, 516) coupled to the input linkage (20a-d) such that an input to the input linkage (20a-d) rotates the first circular spline (88, 516) and a first flex spline meshingly engaged with the first circular spline (88, 516) such that a rotation of the first circular spline (88, 516) causes a rotation of the first flex spline; and a second strain wave gear (82, 514) including a second circular spline fixedly coupled to the first flex spline such that a rotation of the first flex spline causes a rotation of the second circular spline, the second strain wave gear (82, 514) including a second flex spline (132, 550), and the second flex spline (132, 550) is coupled to the output linkage (24a-d) by a shaft (143, 552) such that a movement of the second flex spline (132, 550) causes a movement of the output linkage (24a-d) and at least a portion of the input from the input linkage (20a-d) is transferred to the output linkage (24a-d) via the first strain wave gear (80, 512) and the second strain wave gear (82, 514). an input linkage (20a-d) that receives an input; an output linkage (24a-d) that controls a flight surface actuator (14a-d); a first strain wave gear (80, 512) including a first circular spline (88, 516) coupled to the input linkage (20a-d) such that an input to the input linkage (20a-d) rotates the first circular spline (88, 516) and a first flex spline meshingly engaged with the first circular spline (88, 516) such that a rotation of the first circular spline (88, 516) causes a rotation of the first flex spline; and a second strain wave gear (82, 514) including a second circular spline fixedly coupled to the first flex spline such that a rotation of the first flex spline causes a rotation of the second circular spline, the second strain wave gear (82, 514) including a second flex spline (132, 550), and the second flex spline (132, 550) is coupled to the output linkage (24a-d) by a shaft (143, 552) such that a movement of the second flex spline (132, 550) causes a movement of the output linkage (24a-d) and at least a portion of the input from the input linkage (20a-d) is transferred to the output linkage (24a-d) via the first strain wave gear (80, 512) and the second strain wave gear (82, 514).
Method for the combustion of hydrocarbon-containing fuel gases, in a burner, with the following measures: - at least part of the fuel gas is mixed in the supply line to a burner in a controlled way with steam and is subjected to plasma treatment by means of an electrical gas discharge plasma, - the plasma-treated fuel-gas/steam mixture is supplied to the burner, is mixed there with the remaining operating gases of the burner and is burnt, and - the electrical gas discharge being operated in a compact reactor which is in kinetically close contact with the combustion reaction such that the fuel-gas/steam mixture excited and heated by the interaction with the plasma is not in a thermodynamic equilibrium. - at least part of the fuel gas is mixed in the supply line to a burner in a controlled way with steam and is subjected to plasma treatment by means of an electrical gas discharge plasma, - the plasma-treated fuel-gas/steam mixture is supplied to the burner, is mixed there with the remaining operating gases of the burner and is burnt, and - the electrical gas discharge being operated in a compact reactor which is in kinetically close contact with the combustion reaction such that the fuel-gas/steam mixture excited and heated by the interaction with the plasma is not in a thermodynamic equilibrium.
Cabin filter having a filter medium and a frame for attaching the cabin filter at or in a filter housing, wherein the frame features at least one engagement member, which can be pivotally engaged with at least one receiving member of the filter housing for pivoting the cabin filter with respect to the filter housing around a swivel axis, and at least one snap-in hook which can engage with at least one detent of the filter housing for locking a pivoting movement of the cabin filter relative to the filter housing at least in a first direction around the swivel axis, wherein at least one groove is provided on the frame and arranged such that a web of the filter housing can engage therein.
A Single Cell Multicast Control Channel SC-MCCH sending method, comprising: generating, by a base station, SC-MCCH information for indicating configuration information of a Single Cell Point-to-Multipoint SC-PTM service; and sending, by the base station, the SC-MCCH information; wherein the SC-MCCH information comprises: a mapping relationship between a Temporary Mobile Group Identifier TMGI of the SC-PTM service and a Group Radio Network Temporary Identifier G-RNTI, and information of a time domain location where the SC-PTM service is, and wherein the information of the time domain location where the SC-PTM service is comprises: configuration information of a wireless frame and a wireless subframe where the SC-PTM service is. generating, by a base station, SC-MCCH information for indicating configuration information of a Single Cell Point-to-Multipoint SC-PTM service; and sending, by the base station, the SC-MCCH information; wherein the SC-MCCH information comprises: a mapping relationship between a Temporary Mobile Group Identifier TMGI of the SC-PTM service and a Group Radio Network Temporary Identifier G-RNTI, and information of a time domain location where the SC-PTM service is, and wherein the information of the time domain location where the SC-PTM service is comprises: configuration information of a wireless frame and a wireless subframe where the SC-PTM service is.
Use of a material M in cosmetic packaging, in particular in fluid delivery systems intended to form part of cosmetic packaging, the material M comprising or consisting of a polyketone, said polyketone being an aliphatic polyketone, wherein the polyketone has repeating units of the following formula I: wherein m and n is an integer greater than or equal to 1, R1 is an ethylene group and R2 is a propylene group, the sequence of the repeating units may be random or sequenced, the ratio n/m being less than or equal to 1/2. R1 is an ethylene group and R2 is a propylene group, the sequence of the repeating units may be random or sequenced, the ratio n/m being less than or equal to 1/2.
A semiconductor device, comprising: an inverter circuit that comprises first switching devices (Q1-Q4) in a full bridge configuration and is configured to convert a DC voltage into an AC voltage to be output, by turning the first switching devices (Q1-Q4) on and off; conductive paths (3a, 3b) that are formed of electrical conductors connected to output ends of the inverter circuit; and a clamping circuit that comprises second switching devices (Q5, Q6) and is connected to the conductive paths (3a, 3b) wherein the second switching devices (Q5, Q6) turn on, thereby conducting across the conductive paths (3a, 3b); the semiconductor device being characterized in that the inverter circuit, the conductive paths (3a, 3b) and the clamping circuit are housed in one package; in that reference electrical potential corresponding to a drive voltage of at least one first switching device of the first switching devices (Q1-Q4) and reference electrical potential corresponding to a drive voltage of at least one second switching device of the second switching devices (Q5, Q6) are connected via the conductive paths (3a, 3b), and in that when a common drive power supply is provided for the first switching devices (Q1-Q4) and the second switching devices (Q5, Q6), each of the conductive paths (3a, 3b) is set to a length such that each drive voltage for the first switching devices (Q1-Q4) and the second switching devices (Q5, Q6) is a predetermined maximum drive voltage or less and such that occurrence of losses in the conductive paths (3a, 3b) is suppressed at a switching frequency of the inverter circuit. an inverter circuit that comprises first switching devices (Q1-Q4) in a full bridge configuration and is configured to convert a DC voltage into an AC voltage to be output, by turning the first switching devices (Q1-Q4) on and off; conductive paths (3a, 3b) that are formed of electrical conductors connected to output ends of the inverter circuit; and a clamping circuit that comprises second switching devices (Q5, Q6) and is connected to the conductive paths (3a, 3b) wherein the second switching devices (Q5, Q6) turn on, thereby conducting across the conductive paths (3a, 3b); the semiconductor device being characterized in that the inverter circuit, the conductive paths (3a, 3b) and the clamping circuit are housed in one package; in that reference electrical potential corresponding to a drive voltage of at least one first switching device of the first switching devices (Q1-Q4) and reference electrical potential corresponding to a drive voltage of at least one second switching device of the second switching devices (Q5, Q6) are connected via the conductive paths (3a, 3b), and in that when a common drive power supply is provided for the first switching devices (Q1-Q4) and the second switching devices (Q5, Q6), each of the conductive paths (3a, 3b) is set to a length such that each drive voltage for the first switching devices (Q1-Q4) and the second switching devices (Q5, Q6) is a predetermined maximum drive voltage or less and such that occurrence of losses in the conductive paths (3a, 3b) is suppressed at a switching frequency of the inverter circuit.
A chill-tolerant maize plant or a portion thereof, comprising a first chromosomal interval from a donor on chromosome 4 between the marker positions ma59778s31 and ma59778119, which comprises an endogenous chill tolerance-conferring nucleic acid, wherein the chill tolerance-conferring nucleic acid comprises a nucleic acid sequence selected from the group consisting of a) a nucleic acid sequence with SEQ ID NO: 29, b) a nucleic acid sequence which has at least 98% identity with a sequence from a), c) a nucleic acid sequence which differs from a nucleic acid sequence according to a) in accordance with the degeneracy of the genetic code, d) a nucleic acid sequence which codes for a protein with SEQ ID NO 30, wherein a T is at the marker position ma59778s31, a T is at a marker position ma59778s32, a C is at the marker position ma59778119, an A is at a marker position ma52594s01 and a G is at a marker position ma20205s01, or wherein a C is at the marker position ma59778s31, a T is at a marker position ma59778s32, a C is at the marker position ma59778119 and an A is at a marker position ma52594s01; and wherein the marker positions with reference to the maize line B73 AGPv2 are as follows: ma59778s31 = 37263172 bp, ma59778s32 = 37296672 bp, ma59778119 = 37297901 bp, ma52594s01 = 58033711 bp and ma20205s01 = 156998152 bp. a) a nucleic acid sequence with SEQ ID NO: 29, b) a nucleic acid sequence which has at least 98% identity with a sequence from a), c) a nucleic acid sequence which differs from a nucleic acid sequence according to a) in accordance with the degeneracy of the genetic code, d) a nucleic acid sequence which codes for a protein with SEQ ID NO 30, wherein a T is at the marker position ma59778s31, a T is at a marker position ma59778s32, a C is at the marker position ma59778119, an A is at a marker position ma52594s01 and a G is at a marker position ma20205s01, or wherein a C is at the marker position ma59778s31, a T is at a marker position ma59778s32, a C is at the marker position ma59778119 and an A is at a marker position ma52594s01; and wherein the marker positions with reference to the maize line B73 AGPv2 are as follows: ma59778s31 = 37263172 bp, ma59778s32 = 37296672 bp, ma59778119 = 37297901 bp, ma52594s01 = 58033711 bp and ma20205s01 = 156998152 bp. wherein a T is at the marker position ma59778s31, a T is at a marker position ma59778s32, a C is at the marker position ma59778119, an A is at a marker position ma52594s01 and a G is at a marker position ma20205s01, or wherein a C is at the marker position ma59778s31, a T is at a marker position ma59778s32, a C is at the marker position ma59778119 and an A is at a marker position ma52594s01; and wherein the marker positions with reference to the maize line B73 AGPv2 are as follows: ma59778s31 = 37263172 bp, ma59778s32 = 37296672 bp, ma59778119 = 37297901 bp, ma52594s01 = 58033711 bp and ma20205s01 = 156998152 bp.
A pump head cooling system for a carbon dioxide chromatography system, comprising: a first pump head (101, 201, 301, 503) defining a first coolant passageway (105, 207, 305) and a second coolant passageway (107, 209,307), each passageway having an inlet into the first pump head (101, 201, 301, 503) and an outlet out of the first pump head (101, 201, 301,503); and a second pump head (103, 203, 303, 505) defining a third coolant passageway (109, 211, 309) and a fourth coolant passageway (111, 213, 311), each passageway having an inlet into the second pump head (103, 203, 303, 505) and an outlet out of the second pump head 103, 203, 303, 505); wherein the outlet of the first coolant passageway (105, 207, 305) is fluidly coupled to the inlet of the third coolant passageway (109, 211, 309), the outlet of the third coolant passageway (109, 211, 309) is fluidly coupled to the inlet of the fourth coolant passageway (111, 213, 311), and the outlet of the fourth coolant passageway (111, 213, 311) is fluidly coupled to the inlet of the second coolant passageway (107, 209, 307). a first pump head (101, 201, 301, 503) defining a first coolant passageway (105, 207, 305) and a second coolant passageway (107, 209,307), each passageway having an inlet into the first pump head (101, 201, 301, 503) and an outlet out of the first pump head (101, 201, 301,503); and a second pump head (103, 203, 303, 505) defining a third coolant passageway (109, 211, 309) and a fourth coolant passageway (111, 213, 311), each passageway having an inlet into the second pump head (103, 203, 303, 505) and an outlet out of the second pump head 103, 203, 303, 505); wherein the outlet of the first coolant passageway (105, 207, 305) is fluidly coupled to the inlet of the third coolant passageway (109, 211, 309), the outlet of the third coolant passageway (109, 211, 309) is fluidly coupled to the inlet of the fourth coolant passageway (111, 213, 311), and the outlet of the fourth coolant passageway (111, 213, 311) is fluidly coupled to the inlet of the second coolant passageway (107, 209, 307).