mhurhangee/patent-ind-claim-en huggingface dataset:
A high repetition rate gas discharge laser lithography light source comprising a bandwidth detector for measuring the bandwidths of an output laser beam, the bandwidth detector comprising: an optical spectrometer and a beam path leading to the optical spectrometer; the beam path comprising a beam homogenizer, whereby the beam homogenizer comprises in the following order a first lens , a second lens , a stationary diffractive diffuser , a third lens , a rotating diffuser , and an aperture , wherein the third lens focuses the diffused beam from the stationary diffractive diffuser at the front face of the rotating diffuser , and wherein the spectrometer comprises a fourth lens , an etalon , a fifth lens and a photo-diode array being adapted to integrate intensity values for measuring the fringes created by the etalon and to time average the speckle pattern of the laser. an optical spectrometer and a beam path leading to the optical spectrometer; the beam path comprising a beam homogenizer, whereby the beam homogenizer comprises in the following order a first lens , a second lens , a stationary diffractive diffuser , a third lens , a rotating diffuser , and an aperture , wherein the third lens focuses the diffused beam from the stationary diffractive diffuser at the front face of the rotating diffuser , and wherein the spectrometer comprises a fourth lens , an etalon , a fifth lens and a photo-diode array being adapted to integrate intensity values for measuring the fringes created by the etalon and to time average the speckle pattern of the laser.
A primer comprising from 5' to 3': a random nucleic acid non-complementary to a target sequence, having 5 to 50 nucleotides in length, wherein the random sequence is located at the 5' end of the primer; a restriction enzyme recognition sequence; and a nucleic acid sequence complementary to the target sequence, wherein the restriction enzyme recognition sequence comprises a modified dNTP in the restriction enzyme recognition sequence and the primer comprises one sequence selected from the group consisting of SEQ ID. NOs: 1, 3, 9, 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 74, 76, 78, 80, 82, 84, 86, 151, 153, 155, 156, 159, 161, 163, 164, 166, 168, 170, 204, 205, 207, 218, 220 and 222. a random nucleic acid non-complementary to a target sequence, having 5 to 50 nucleotides in length, wherein the random sequence is located at the 5' end of the primer; a restriction enzyme recognition sequence; and a nucleic acid sequence complementary to the target sequence, wherein the restriction enzyme recognition sequence comprises a modified dNTP in the restriction enzyme recognition sequence and the primer comprises one sequence selected from the group consisting of SEQ ID. NOs: 1, 3, 9, 11, 13, 15, 17, 19, 21, 23, 25, 27, 29, 31, 33, 74, 76, 78, 80, 82, 84, 86, 151, 153, 155, 156, 159, 161, 163, 164, 166, 168, 170, 204, 205, 207, 218, 220 and 222.
A method for detecting a propensity for developing eosinophilic esophagitis (EoE) in a subject in need thereof, the method comprising: detecting in genotype information, the presence of at least one EoE associated genetic alteration in a target gene identified in a biological sample from said subject, the presence of said genetic alteration indicating said patient has an increased risk for developing eosinophilic esophagitis, wherein said genetic alteration is present in a gene sequence from ANKRD27.
Method for producing a honeycomb structure comprising at least one at least partially structured metal foil , wherein, in subregions of the honeycomb structure , the metal foil is arranged spaced apart from an adjacently arranged metal foil so as to be electrically insulated by an air gap , at least comprising the following steps: a. providing the at least one metal foil ; b. providing a forming plate with a bearing surface and with at least one first web structure extending from the bearing surface in an axial direction , wherein the first web structure also extends in a plane parallel to the bearing surface and images the air gap to be produced in the honeycomb structure ; c. arranging the at least one metal foil on the bearing surface in the first web structure . a. providing the at least one metal foil ; b. providing a forming plate with a bearing surface and with at least one first web structure extending from the bearing surface in an axial direction , wherein the first web structure also extends in a plane parallel to the bearing surface and images the air gap to be produced in the honeycomb structure ; c. arranging the at least one metal foil on the bearing surface in the first web structure .
A compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, A is a sulfonyl group (-SO 2 -) or a carbonyl group (-CO-); R1 and R3 are fluorine, and R2, R4 and R5 are hydrogen; R6 and R7 are the same as or different from each other, and each independently hydrogen or a halogen group; R8 to R10 are the same as or different from each other, and each independently selected from the group consisting of hydrogen, -SO 3 H, -SO 3 - M + , -COOH, -COO - M + , -PO 3 H 2 , -PO 3 H - M + and - PO 3 2- 2M + ; at least one of R8 to R10 is selected from the group consisting of -SO 3 H, -SO 3 - M + , -COOH, -COO - M + , -PO 3 H 2 , -PO 3 H - M + and -PO 3 2- 2M + ; M is a group 1 element; a is an integer of 0 to 3; and when a is an integer of 2 or greater, a plurality of R6s and R7s are each independently the same as or different from each other. A is a sulfonyl group (-SO 2 -) or a carbonyl group (-CO-); R1 and R3 are fluorine, and R2, R4 and R5 are hydrogen; R6 and R7 are the same as or different from each other, and each independently hydrogen or a halogen group; R8 to R10 are the same as or different from each other, and each independently selected from the group consisting of hydrogen, -SO 3 H, -SO 3 - M + , -COOH, -COO - M + , -PO 3 H 2 , -PO 3 H - M + and - PO 3 2- 2M + ; at least one of R8 to R10 is selected from the group consisting of -SO 3 H, -SO 3 - M + , -COOH, -COO - M + , -PO 3 H 2 , -PO 3 H - M + and -PO 3 2- 2M + ; M is a group 1 element; a is an integer of 0 to 3; and
A method for composing a subchannel in a wireless communication system, the method comprising: determining a set of resources for a diversity subchannel by confirming, by a base station, on remaining one or more physical resource units, PRUs, after allocating for a region of a frequency reuse region N and a band selection subchannel of a region of a frequency reuse factor '1' of the subchannel; applying a first permutation to the set of resources, wherein the first permutation is based on a first unit, wherein the first unit comprises one or more physical resource units, PRUs; identifying first resources and second resources among the set of resources to which the first permutation is applied; applying a second permutation to the first resources, wherein the second permutation is based on a second unit, wherein the second unit comprises a tone-pair of adjacent tones; and composing a diversity subchannel in the region of the frequency reuse factor '1' using the first resources to which the second permutation is applied and the second resources, wherein the second unit is smaller than the first unit. determining a set of resources for a diversity subchannel by confirming, by a base station, on remaining one or more physical resource units, PRUs, after allocating for a region of a frequency reuse region N and a band selection subchannel of a region of a frequency reuse factor '1' of the subchannel; applying a first permutation to the set of resources, wherein the first permutation is based on a first unit, wherein the first unit comprises one or more physical resource units, PRUs; identifying first resources and second resources among the set of resources to which the first permutation is applied; applying a second permutation to the first resources, wherein the second permutation is based on a second unit, wherein the second unit comprises a tone-pair of adjacent tones; and composing a diversity subchannel in the region of the frequency reuse factor '1' using the first resources to which the second permutation is applied and the second resources, wherein the second unit is smaller than the first unit.
A method for operating a traffic splitter provided for a data packet flow flowing through a data plane in a mobile communications network, the method comprising: - receiving the data packet flow, - determining whether the data packet flow should be transmitted through an Evolved Packet Core, EPC, processing path comprising one or more gateways or through a Software Defined Network, SDN, processing path comprising or being implemented in a virtual software switch based on a traffic type of the data packet flow, - transmitting the data packet flow either through the EPC processing path or the SDN processing path based on the determination. - receiving the data packet flow, - determining whether the data packet flow should be transmitted through an Evolved Packet Core, EPC, processing path comprising one or more gateways or through a Software Defined Network, SDN, processing path comprising or being implemented in a virtual software switch based on a traffic type of the data packet flow, - transmitting the data packet flow either through the EPC processing path or the SDN processing path based on the determination.
An assembly for a gas turbine engine, comprising: an airfoil including a radial end, a first passageway having an outlet at the radial end, and a second passageway having an inlet at the radial end; characterised by a cover including at least one turning cavity configured to direct fluid expelled from the outlet of the first passageway into the inlet of the second passageway, wherein: the cover includes a first turning cavity and a second turning cavity; the airfoil includes a third passageway having an inlet at the radial end; the first turning cavity is configured to direct a first portion of the fluid expelled from the outlet of the first passageway into the inlet of the second passageway; and the second turning cavity is configured to direct a second portion of the fluid expelled from the outlet of the first passageway into the inlet of the third passageway; wherein the cover includes a flow divider between the first turning cavity and the second turning cavity, and wherein, when viewed from an interior of the cover, the flow divider is substantially convex and the first and second turning cavities are substantially concave, and wherein the first and second turning cavities are substantially semi-circular in cross-section; and wherein the cover is integrally formed as a single structure, and is formed separately from the airfoil . an airfoil including a radial end, a first passageway having an outlet at the radial end, and a second passageway having an inlet at the radial end; characterised by a cover including at least one turning cavity configured to direct fluid expelled from the outlet of the first passageway into the inlet of the second passageway, wherein: the cover includes a first turning cavity and a second turning cavity; the airfoil includes a third passageway having an inlet at the radial end; the first turning cavity is configured to direct a first portion of the fluid expelled from the outlet of the first passageway into the inlet of the second passageway; and the second turning cavity is configured to direct a second portion of the fluid expelled from the outlet of the first passageway into the inlet of the third passageway; the cover includes a first turning cavity and a second turning cavity; the airfoil includes a third passageway having an inlet at the radial end; the first turning cavity is configured to direct a first portion of the fluid expelled from the outlet of the first passageway into the inlet of the second passageway; and the second turning cavity is configured to direct a second portion of the fluid expelled from the outlet of the first passageway into the inlet of the third passageway; wherein the cover includes a flow divider between the first turning cavity and the second turning cavity, and wherein, when viewed from an interior of the cover, the flow divider is substantially convex and the first and second turning cavities are substantially concave, and wherein the first and second turning cavities are substantially semi-circular in cross-section; and wherein the cover is integrally formed as a single structure, and is formed separately from the airfoil .
A low-hydrogen coated electrode comprising a core wire and a covering material, wherein either the core wire or both of the core wire and the covering material consists of, as alloy components, C: from 0.01 to 0.15 mass%, Si: from 0.5 to 1.5 mass%, Mn: from 0.4 to 2.0 mass%, Cr: from 3.0 to 9.0 mass%, Mo: from 0.01 to 1.50 mass%, Fe: from 55 to 70 mass%, optionally Ni: 1.0 mass% or less, optionally Ti: 0.5 mass% or less, optionally V: 0.5 mass% or less, optionally Nb: 0.5 mass% or less, optionally N: 0.10 mass% or less, optionally Co: 2.0 mass% or less, and optionally W: 2.0 mass% or less, per total mass of the low-hydrogen coated electrode, and unavoidable impurities such as P and S, the covering material contains, as flux components, Ca carbonate: from 1 to 6 mass% in terms of CO 2 , a metal fluoride: from 1 to 4 mass% in terms of F and SiO 2 : from 5 to 15 mass%, per total mass of the low-hydrogen coated electrode, the covering material contains substantially no carbonate except for the Ca carbonate, and the low-hydrogen coated electrode satisfies both of a requirement that when a diameter of the low-hydrogen coated electrode is defined as a coating diameter and a diameter of the core wire is defined as a core wire diameter, a ratio of the coating diameter to the core wire diameter is from 1.50 to 1.80, and a requirement that the covering material has a density of from 0.200 to 0.260 g/cm 3 .
A method for manufacturing a protein comprising the step of producing the protein via perfusion cell culture of CHO (Chinese hamster ovary) cells in a feed medium comprising a total amino acid concentration in the range of 15 to 50 mM, wherein the protein is a TNFR (tumor necrosis factor receptor)-Fc fusion protein or an anti-TNF antibody.
An array antenna arrangement comprising at least two array antennas (21, 22; 32, 33, 34, 53, 54; 101, 103, 105; 201, 203, 205) that comprise a first array antenna and a second array antenna , and at least two amplifier arrangements (23, 24; 35, 36, 37; 107, 108, 109; 207, 208, 209) that comprise a first amplifier arrangement and a second amplifier arrangement , each array antenna (21, 22; 32, 33, 34, 53, 54; 101, 103, 105; 201, 203, 205) being consisted by at least one respective series-fed linear array and having a corresponding antenna aperture (25, 26; 38, 39, 40, 57, 58; 102, 104, 106; 202, 204, 206), and each amplifier arrangement (23, 24; 35, 36, 37; 107, 108, 109; 207, 208, 209) comprising a corresponding power amplifier (27, 28; 41, 42, 43; 110, 111, 112; 210, 211, 212) and a corresponding phase shifter device (29, 30; 44, 45, 46; 113, 114, 115; 213, 214, 215), where the first amplifier arrangement is connected to the first array antenna having a first antenna aperture , and the second amplifier arrangement is connected to the second array antenna having a second antenna aperture , characterized in that the first antenna aperture has a size that differs from a size of the second antenna aperture .
A method for communicating data underwater between at least one master node and a plurality of slave nodes, the master and slave nodes having synchronized clocks, comprising: defining time slots during which the master node will receive data from at least one slave node; a slave node calculating, using a processor having access to information regarding a distance between the slave node and the master node, a time to acoustically transmit data so that the acoustically transmitted data is received by the master node during a defined time slot; the slave node, at the calculated time, acoustically transmitting the data; and receiving the data transmitted by the slave node at the master node during the defined time slot, wherein the master node receives acoustic transmissions having at least first and second frequencies, the second frequency being higher than the first frequency, wherein the slave nodes communicate with the master node at the first frequency when a distance between the slave node and the master node is greater than a first threshold distance, and wherein the slave nodes communicate with the master node at the second frequency when the distance between the slave node and the master node is less than a second threshold distance, smaller than the first threshold distance. defining time slots during which the master node will receive data from at least one slave node; a slave node calculating, using a processor having access to information regarding a distance between the slave node and the master node, a time to acoustically transmit data so that the acoustically transmitted data is received by the master node during a defined time slot; the slave node, at the calculated time, acoustically transmitting the data; and receiving the data transmitted by the slave node at the master node during the defined time slot, wherein the master node receives acoustic transmissions having at least first and second frequencies, the second frequency being higher than the first frequency, wherein the slave nodes communicate with the master node at the first frequency when a distance between the slave node and the master node is greater than a first threshold distance, and wherein the slave nodes communicate with the master node at the second frequency when the distance between the slave node and the master node is less than a second threshold distance, smaller than the first threshold distance.
A system for interleaving substrate under food products, the system comprising: an interleaver assembly configured to interleave substrate with food products, and a programmable logic controller (PLC) including a sensor in communication with the interleaver assembly ; the sensor being configured to detect an identifier provided on each substrate stock of a plurality of substrate stocks, each identifier being associated with a predetermined interleaving profile, wherein the term interleaving profile generally refers to a stored profile including parameters regarding how to handle a specific substrate stock by the interleaving assembly ; wherein the interleaver assembly interleaves the substrate with the food product according to a specific interleaving profile in response to the sensor detecting the identifier on the substrate stock . an interleaver assembly configured to interleave substrate with food products, and a programmable logic controller (PLC) including a sensor in communication with the interleaver assembly ; the sensor being configured to detect an identifier provided on each substrate stock of a plurality of substrate stocks, each identifier being associated with a predetermined interleaving profile, wherein the term interleaving profile generally refers to a stored profile including parameters regarding how to handle a specific substrate stock by the interleaving assembly ; wherein the interleaver assembly interleaves the substrate with the food product according to a specific interleaving profile in response to the sensor detecting the identifier on the substrate stock .
A frame transmission method, comprising: obtaining an initial enhanced directional multi-gigabit header, EDMG Header, sequence, wherein the initial EDMG Header sequence comprises N control bits, and N is a positive integer; performing a padding operation on the initial EDMG Header sequence to obtain a padded sequence, wherein the padded sequence comprises N information bits and L padding bits, and the N information bits are the N control bits, or the N information bits are obtained by scrambling the N control bits; performing 1/2 low-density parity-check, LDPC, encoding on the padded sequence to obtain an encoded sequence, wherein the encoded sequence comprises the N information bits, the L padding bits, and N+L parity check bits generated through encoding, and L is a positive integer; constituting a first sequence by using the N information bits and all the parity check bits in the encoded sequence, and obtaining a second sequence based on the first sequence, wherein a length of the first sequence is the same as a length of the second sequence; modulating the first sequence to obtain a first modulated sequence, and modulating the second sequence to obtain a second modulated sequence; and inserting a guard interval, GI, between the first modulated sequence and the second modulated sequence, obtaining an encoded and modulated EDMG Header sequence based on a sequence obtained after the guard interval is inserted, combining the encoded and modulated EDMG Header sequence and to-be-sent data to obtain a frame, and transmitting the frame. obtaining an initial enhanced directional multi-gigabit header, EDMG Header, sequence, wherein the initial EDMG Header sequence comprises N control bits, and N is a positive integer; performing a padding operation on the initial EDMG Header sequence to obtain a padded sequence, wherein the padded sequence comprises N information bits and L padding bits, and the N information bits are the N control bits, or the N information bits are obtained by scrambling the N control bits; performing 1/2 low-density parity-check, LDPC, encoding on the padded sequence to obtain an encoded sequence, wherein the encoded sequence comprises the N information bits, the L padding bits, and N+L parity check bits generated through encoding, and L is a positive integer; constituting a first sequence by using the N information bits and all the parity check bits in the encoded sequence, and obtaining a second sequence based on the first sequence, wherein a length of the first sequence is the same as a length of the second sequence; modulating the first sequence to obtain a first modulated sequence, and modulating the second sequence to obtain a second modulated sequence; and inserting a guard interval, GI, between the first modulated sequence and the second modulated sequence, obtaining an encoded and modulated EDMG Header sequence based on a sequence obtained after the guard interval is inserted, combining the encoded and modulated EDMG Header sequence and to-be-sent data to obtain a frame, and transmitting the frame.
A surgical device , comprising: - a member comprising a first channel and a second channel , said second channel formed adjacent said first channel ; - an aperture arranged at a proximal end of the member, the aperture is arranged to communicate with said first channel , said aperture is sized to accommodate a cabled imaging component therethrough, and said cabled imaging component is translatable through said aperture into said first channel for communicating images of areas surrounding said surgical device , and characterized in that there is a viewing aperture through a channel wall of said member for viewing said areas surrounding said surgical device by said cabled imaging component . - a member comprising a first channel and a second channel , said second channel formed adjacent said first channel ; - an aperture arranged at a proximal end of the member, the aperture is arranged to communicate with said first channel , said aperture is sized to accommodate a cabled imaging component therethrough, and said cabled imaging component is translatable through said aperture into said first channel for communicating images of areas surrounding said surgical device , and