mhurhangee/patent-ind-claim-en huggingface dataset:
A flux-cored wire for self-shielded arc welding, which has a steel outer sheath filled with a flux, the flux-cored wire comprising, relative to a total mass of the wire: F: 0.10 mass% or more and 4.00 mass% or less; Li: 0.25 mass% or more and 2.30 mass% or less; acid-soluble Al: 1.00 mass% or more and 5.25 mass% or less; Mg: 0.80 mass% or more and 3.10 mass% or less; S: 0.0005 mass% or more and 0.2000 mass% or less; CO 2 : 0 mass% or more and 2.00 mass% or less; Ba: 0 mass% or more and 8.00 mass% or less; Ca: 0 mass% or more and 5.00 mass% or less; Sr: 0 mass% or more and 2.00 mass% or less; REM: 0 mass% or more and 1.50 mass% or less; P: 0.070 mass% or less; and one or more of C not derived from a carbonate: 0.65 mass% or less, Mn: 11.00 mass% or less, Ni: 11.00 mass% or less, and Cu: 1.50 mass% or less, and one or more of Ti and Zr in a total amount of these components of 0.01 mass% or more and 3.00 mass% or less, wherein the following Formulas to are satisfied: 0.60 ≤ 10 × C not derived from carbonate + Mn + Ni + Cu ≤ 15.00 7.5 × Li − acid − soluble Al + 10 × C not derived from carbonate + Mn + Ni + Cu ≥ 1.50 0.33 × F + acid − soluble Al + Li + Mg + CO 2 ≥ 3.00 Mn + Ba + Ca + Sr + REM − 20 × S ≥ − 0.60 wherein the term [component] in the above formulas is a content (mass%) of its component relative to the total mass of the wire. F: 0.10 mass% or more and 4.00 mass% or less; Li: 0.25 mass% or more and 2.30 mass% or less; acid-soluble Al: 1.00 mass% or more and 5.25 mass% or less; Mg: 0.80 mass% or more and 3.10 mass% or less; S: 0.0005 mass% or more and 0.2000 mass% or less; CO 2 : 0 mass% or more and 2.00 mass% or less; Ba: 0 mass% or more and 8.00 mass% or less; Ca: 0 mass% or more and 5.00 mass% or less; Sr: 0 mass% or more and 2.00 mass% or less; REM: 0 mass% or more and 1.50 mass% or less; P: 0.070 mass% or less; and one or more of C not derived from a carbonate: 0.65 mass% or less, Mn: 11.00 mass% or less, Ni: 11.00 mass% or less, and Cu: 1.50 mass% or less, and one or more of Ti and Zr in a total amount of these components of 0.01 mass% or more and 3.00 mass% or less, wherein the following Formulas to are satisfied: 0.60 ≤ 10 × C not derived from carbonate + Mn + Ni + Cu ≤ 15.00 7.5 × Li − acid − soluble Al + 10 × C not derived from carbonate + Mn + Ni + Cu ≥ 1.50 0.33 × F + acid − soluble Al + Li + Mg + CO 2 ≥ 3.00 Mn + Ba + Ca + Sr + REM − 20 × S ≥ − 0.60 wherein the term [component] in the above formulas is a content (mass%) of its component relative to the total mass of the wire.
A lap-fillet arc welding joint comprising two overlapped sheets and a weld bead , the weld bead being formed on an end portion of one sheet of the overlapped two sheets and a surface of the other sheet along the end portion , characterized in that the other sheet includes a projecting portion projecting from the surface at a side of a weld toe of at least one of a start portion and a termination portion of the weld bead , and the weld toe is located on a slope surface portion of the projecting portion at a side of the end portion of the one sheet .
Induction device, in particular an induction hob device, with at least one induction unit (12a-c), with at least one sensor unit (14a-c), which is provided to detect at least one sensor parameter, and with at least one control unit (16a-c), which is provided to analyse the sensor parameter, wherein in a mounted position the sensor unit (14a-c) is arranged above the induction unit (12a-c) and has a plurality of temperature sensor elements (26a-c) arranged in a distributed manner, which are provided to detect at least one sensor parameter in the form of a temperature parameter of at least one unit (28a-c), characterised in that the sensor unit (14a-c) has a plurality of presence sensor elements (18a-c) arranged in a distributed manner, which are provided to detect at least one sensor parameter in the form of a presence parameter of at least one object (20a-c), wherein at least one of the presence sensor elements and at least one of the temperature sensor elements are arranged on different layers of at least one substrate of the sensor unit .
A use of a compound of formula (I) as corrosion inhibitors for metal surfaces in aqueous environments: wherein each of X and Y is the same or different, and is selected from the group consisting of hydrogen, C 1 -C 16 alkyl, aryl, C 2 -C 16 alkenyl, C 2 -C 16 alkynyl, heteroaryl, C 3 -C 8 cycloalkyl, benzyl, alkylheteroaryl, halogen, halosubstituted alkyl, amino, aminoalkyl, cyano, alkoxy, hydroxyl, thiol, alkylthio, carbonyl, nitro, phosphoryl, phosphonyl, and sulfonyl; each of R 1 and R 2 is the same or different, and is selected from the group consisting of hydrogen, deuterium, C 1 -C 16 alkyl, aryl, C 2 -C 16 alkenyl, C 2 -C 16 alkynyl, heteroaryl, C 3 -C 8 cycloalkyl, benzyl, alkylheteroaryl, halogen, hydroxyl, and carbonyl; m is 1, 2, 3, or 4; and n is 1, 2, or 3; or a salt thereof. wherein each of X and Y is the same or different, and is selected from the group consisting of hydrogen, C 1 -C 16 alkyl, aryl, C 2 -C 16 alkenyl, C 2 -C 16 alkynyl, heteroaryl, C 3 -C 8 cycloalkyl, benzyl, alkylheteroaryl, halogen, halosubstituted alkyl, amino, aminoalkyl, cyano, alkoxy, hydroxyl, thiol, alkylthio, carbonyl, nitro, phosphoryl, phosphonyl, and sulfonyl; each of R 1 and R 2 is the same or different, and is selected from the group consisting of hydrogen, deuterium, C 1 -C 16 alkyl, aryl, C 2 -C 16 alkenyl, C 2 -C 16 alkynyl, heteroaryl, C 3 -C 8 cycloalkyl, benzyl, alkylheteroaryl, halogen, hydroxyl, and carbonyl; m is 1, 2, 3, or 4; and n is 1, 2, or 3; or a salt thereof.
An engineered polypeptide comprising an amino acid sequence with at least 80% sequence identity to a reference sequence of SEQ ID NO:2 and at least two substitutions at positions selected from X283, X198, X293, X239, X330, X168, X205, X206, X9, X12, X31, X33, X37, X39, X43, X44, X46, X48, X55, X56, X65, X82, X93, X98, X108, X137, X138, X141, X142, X143, X153, X154, X155, X156, X159, X166, X167, X173, X177, X178, X184, X185, X195, X197, X199, X200, X201, X203, X210, X213, X215, X216, X218, X220, X221, X223, X224, X226, X234, X242, X245, X251, X253, X256, X257, X259, X260, X261, X262, X263, X265, X266, X267, X268, X269, X272, X273, X274, X276, X277, X278, X279, X280, X281, X282, X284, X285, X289, X290, X291, X292, X294, X341, and X349, wherein the polypeptide has imine reductase activity as compared to SEQ ID NO:2 and wherein the amino acid sequence comprises at least one residue difference as compared to the reference sequence of SEQ ID NO:8, selected from: V283Y/W/T, A239Q, I330V, K168M, P205T/S/N/L/G/D/A, and T206V/Q/N/M/L/I/H/D.
An electrical stimulation lead comprising: a cuff (150; 305) comprising a cuff body having an exterior surface, an interior surface , and a circumference, a plurality of longitudinal electrodes disposed on the interior surface of the cuff body , wherein each of the longitudinal electrodes has an aspect ratio of length/width of at least 20, wherein the plurality of longitudinal electrodes is divided into at least one set with each set comprising at least sixteen of the longitudinal electrodes spaced apart from each other in a circumferential arrangement round the circumference of the cuff body , and a longitudinal slit extending through the cuff body and further extending along an entire length of the cuff body , the longitudinal slit operable to receive a portion of a target nerve from a region outside of the cuff to within the cuff body ; a lead body coupled to the cuff (150; 305); and a plurality of conductors extending through the lead body and the cuff (150; 305) with the plurality of conductors electrically coupled to the longitudinal electrodes . a cuff (150; 305) comprising a cuff body having an exterior surface, an interior surface , and a circumference, a plurality of longitudinal electrodes disposed on the interior surface of the cuff body , wherein each of the longitudinal electrodes has an aspect ratio of length/width of at least 20, wherein the plurality of longitudinal electrodes is divided into at least one set with each set comprising at least sixteen of the longitudinal electrodes spaced apart from each other in a circumferential arrangement round the circumference of the cuff body , and a longitudinal slit extending through the cuff body and further extending along an entire length of the cuff body , the longitudinal slit operable to receive a portion of a target nerve from a region outside of the cuff to within the cuff body ; a cuff body having an exterior surface, an interior surface , and a circumference, a plurality of longitudinal electrodes disposed on the interior surface of the cuff body , wherein each of the longitudinal electrodes has an aspect ratio of length/width of at least 20, wherein the plurality of longitudinal electrodes is divided into at least one set with each set comprising at least sixteen of the longitudinal electrodes spaced apart from each other in a circumferential arrangement round the circumference of the cuff body , and a longitudinal slit extending through the cuff body and further extending along an entire length of the cuff body , the longitudinal slit operable to receive a portion of a target nerve from a region outside of the cuff to within the cuff body ; a lead body coupled to the cuff (150; 305); and a plurality of conductors extending through the lead body and the cuff (150; 305) with the plurality of conductors electrically coupled to the longitudinal electrodes .
Emergency aid material unit , an emergency aid material unit comprising a compilation of a plurality of emergency aid materials which are assembled together, the unit comprising at least one accommodating compartment for accommodating emergency aid material, each accommodating compartment having a closed, openable accommodating space which is formed between two layers connected along a closed circumferential seam , characterized in that at least two accommodating compartments are provided, each of the accommodating compartments having at least one handle element and the at least one handle element being bow-shaped .
A method of manufacturing ceramic components , in particular ceramic components with recesses and/or cavities (21, 21'a, 21'b), characterized in that at least one sintered ceramic part is provided, comprising a carrier or carrier section with a flat side on which a plurality of ceramic components is arranged; and the carrier or carrier section is removed from the plurality of ceramic components, whereby the plurality of ceramic components are separated; wherein for the removal of the carrier or carrier section from the plurality of ceramic components - the plurality of ceramic components arranged on the flat side of the carrier or carrier section is embedded in a holding mass so that the holding mass encloses one or more of the ceramic components arranged on the flat side of the carrier or carrier section and the flat side of the carrier or carrier section is in contact as completely as possible with the holding mass; - the carrier or carrier section is completely removed from an underside of the carrier or carrier section opposite the flat side, so that the ceramic components enclosed by the holding mass remain; and - the ceramic components are separated by the removal of the holding mass. at least one sintered ceramic part is provided, comprising a carrier or carrier section with a flat side on which a plurality of ceramic components is arranged; and the carrier or carrier section is removed from the plurality of ceramic components, whereby the plurality of ceramic components are separated; wherein for the removal of the carrier or carrier section from the plurality of ceramic components - the plurality of ceramic components arranged on the flat side of the carrier or carrier section is embedded in a holding mass so that the holding mass encloses one or more of the ceramic components arranged on the flat side of the carrier or carrier section and the flat side of the carrier or carrier section is in contact as completely as possible with the holding mass; - the carrier or carrier section is completely removed from an underside of the carrier or carrier section opposite the flat side, so that the ceramic components enclosed by the holding mass remain; and - the ceramic components are separated by the removal of the holding mass. - the plurality of ceramic components arranged on the flat side of the carrier or carrier section is embedded in a holding mass so that the holding mass encloses one or more of the ceramic components arranged on the flat side of the carrier or carrier section and the flat side of the carrier or carrier section is in contact as completely as possible with the holding mass; - the carrier or carrier section is completely removed from an underside of the carrier or carrier section opposite the flat side, so that the ceramic components enclosed by the holding mass remain; and - the ceramic components are separated by the removal of the holding mass.
Laser pointing system for monitoring the stability of civil structures and historic buildings, comprising: - a laser emitter located at a single point of a structure; characterised in that said laser emitter is constituted by two or more independent laser sources (104, 105, ...) emitting laser beams adjustable towards their respective optical targets (102, 103, ...); each of said targets including a photocamera or camera, and being installed in a fixed position at a distance from the structure in their predetermined positions, in sight with respect to the laser beams; and wherein said laser emitter is composed by a connection element that allows, through the screwing of some bolts, to be hooked to the structure of which the displacement is to be measured, being fully in agreement to the measurement point; - processing means for each of said photocameras or cameras, used for processing the acquired images, for the detection and storage of coordinates of the laser beam detected in each image; - an electronic control unit which is configured through a means of communication to acquire the above coordinates acquired from each of the above photocameras or cameras and, through processing means to apply a formula to determine the displacements corresponding to the single point of the structure. - a laser emitter located at a single point of a structure; characterised in that said laser emitter is constituted by two or more independent laser sources (104, 105, ...) emitting laser beams adjustable towards their respective optical targets (102, 103, ...); each of said targets including a photocamera or camera, and being installed in a fixed position at a distance from the structure in their predetermined positions, in sight with respect to the laser beams; and wherein said laser emitter is composed by a connection element that allows, through the screwing of some bolts, to be hooked to the structure of which the displacement is to be measured, being fully in agreement to the measurement point; - processing means for each of said photocameras or cameras, used for processing the acquired images, for the detection and storage of coordinates of the laser beam detected in each image; - an electronic control unit which is configured through a means of communication to acquire the above coordinates acquired from each of the above photocameras or cameras and, through processing means to apply a formula to determine the displacements corresponding to the single point of the structure.
A lossless coding apparatus comprising: a coding method determiner configured to obtain an energy, in units of a band, from transform coefficients of an audio signal, and select one of a first coding method and a second coding method for a differential quantization index of the energy; and a lossless coder configured to code the differential quantization index by using the selected coding method, wherein the coding method determiner further configured to: select the first coding method when at least one differential quantization index of all bands excepting a first differential quantization index included in a current frame is not represented in [-32, 31] or when the first differential quantization index is not represented in [-46, 17]; and select a coding method where a smaller number of bits is consumed, from the first coding method and the second coding method, when the first coding method is not required, wherein the first coding method includes a pulse mode and a scale mode using Huffman coding, wherein the pulse mode is selected when no quantization index exceeds a range of [-4, 3]. a coding method determiner configured to obtain an energy, in units of a band, from transform coefficients of an audio signal, and select one of a first coding method and a second coding method for a differential quantization index of the energy; and a lossless coder configured to code the differential quantization index by using the selected coding method, wherein the coding method determiner further configured to: select the first coding method when at least one differential quantization index of all bands excepting a first differential quantization index included in a current frame is not represented in [-32, 31] or when the first differential quantization index is not represented in [-46, 17]; and select a coding method where a smaller number of bits is consumed, from the first coding method and the second coding method, when the first coding method is not required, wherein the first coding method includes a pulse mode and a scale mode using Huffman coding, wherein the pulse mode is selected when no quantization index exceeds a range of [-4, 3]. select the first coding method when at least one differential quantization index of all bands excepting a first differential quantization index included in a current frame is not represented in [-32, 31] or when the first differential quantization index is not represented in [-46, 17]; and select a coding method where a smaller number of bits is consumed, from the first coding method and the second coding method, when the first coding method is not required, wherein the first coding method includes a pulse mode and a scale mode using Huffman coding, wherein the pulse mode is selected when no quantization index exceeds a range of [-4, 3].
A method for controlling total average transmission power of a radio base station , the method being performed by a control device , the method comprising: performing (S102) control of total average transmission power 〈 P tot 〉( t ) of the radio base station according to a back-off power control loop, wherein, in the back-off power control loop, a setpoint value 〈 P tot 〉 ref of the total average transmission power is compared with a value of the total average transmission power 〈 P tot 〉( t ) , wherein the value of the total average transmission power 〈 P tot 〉( t ) is computed over an averaging time T , characterized in that : control parameters of the back-off power control loop are scaled proportionally to the inverse of the averaging time T , and in that the control parameters pertain to a response time of the back-off power control loop. performing (S102) control of total average transmission power 〈 P tot 〉( t ) of the radio base station according to a back-off power control loop, wherein, in the back-off power control loop, a setpoint value 〈 P tot 〉 ref of the total average transmission power is compared with a value of the total average transmission power 〈 P tot 〉( t ) , wherein the value of the total average transmission power 〈 P tot 〉( t ) is computed over an averaging time T , characterized in that : control parameters of the back-off power control loop are scaled proportionally to the inverse of the averaging time T , and in that the control parameters pertain to a response time of the back-off power control loop. control parameters of the back-off power control loop are scaled proportionally to the inverse of the averaging time T , and in that the control parameters pertain to a response time of the back-off power control loop.
A method for replacement of a part of a refrigeration cycle apparatus including a compressor that compresses a flammable refrigerant, a condenser that condenses the refrigerant by heat exchange, an expansion device that controls a pressure of the condensed refrigerant, and an evaporator that exchanges heat between the pressure-reduced refrigerant and air to evaporate the refrigerant, the compressor , the condenser, the expansion device , and the evaporator being connected by pipes to form a refrigerant circuit (A), the method comprising: a refrigerant recovery step of allowing the refrigerant to flow out of the refrigerant circuit (A) through a container connecting device; a pressure reduction step of connecting a pressure reducing device to the container connecting device to reduce a pressure in the refrigerant circuit (A) through the container connecting device such that the pressure in the refrigerant circuit (A) becomes equal to or less than a set pressure or until a time equal to or greater than a setting time elapses; and a part replacement step of removing the part from the refrigerant circuit (A) by heating to replace the part, wherein the set pressure is a pressure less than a value expressed by LFL × 1000 × R × T/M (Pa) where M (g/mol) denotes a molecular weight of the refrigerant, R (Pa × L/K × mol) denotes a gas constant, T (K) denotes a typical temperature of the refrigerant in the refrigerant circuit, and LFL (kg/m 3 ) denotes a lower flammability limit of the refrigerant. a refrigerant recovery step of allowing the refrigerant to flow out of the refrigerant circuit (A) through a container connecting device; a pressure reduction step of connecting a pressure reducing device to the container connecting device to reduce a pressure in the refrigerant circuit (A) through the container connecting device such that the pressure in the refrigerant circuit (A) becomes equal to or less than a set pressure or until a time equal to or greater than a setting time elapses; and a part replacement step of removing the part from the refrigerant circuit (A) by heating to replace the part, wherein the set pressure is a pressure less than a value expressed by LFL × 1000 × R × T/M (Pa) where M (g/mol) denotes a molecular weight of the refrigerant, R (Pa × L/K × mol) denotes a gas constant, T (K) denotes a typical temperature of the refrigerant in the refrigerant circuit, and LFL (kg/m 3 ) denotes a lower flammability limit of the refrigerant.