mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal chemical vapor deposition method , the method comprising: preparing a substrate in a chemical vapor deposition chamber; thermally decomposing dimethyl silane in the chemical vapor deposition chamber to form a coating , the thermal decomposition being performed in the absence of additional deposition energies such as plasma and microwave fields, and under the following conditions: - at a pressure of between 6.8948×10 -2 bar (1.0 p.s.i.a.) and 6.8948 bar (100 p.s.i.a.), preferably at a pressure of between 3.4474x10 -1 bar (5 p.s.i.a.) and about 2.7579 bar (40 p.s.i.a.); and - at a temperature between 300°C and 600°C; and - for a time of 30 minutes to 24 hours. preparing a substrate in a chemical vapor deposition chamber; thermally decomposing dimethyl silane in the chemical vapor deposition chamber to form a coating , the thermal decomposition being performed in the absence of additional deposition energies such as plasma and microwave fields, and under the following conditions: - at a pressure of between 6.8948×10 -2 bar (1.0 p.s.i.a.) and 6.8948 bar (100 p.s.i.a.), preferably at a pressure of between 3.4474x10 -1 bar (5 p.s.i.a.) and about 2.7579 bar (40 p.s.i.a.); and - at a temperature between 300°C and 600°C; and - for a time of 30 minutes to 24 hours. - at a pressure of between 6.8948×10 -2 bar (1.0 p.s.i.a.) and 6.8948 bar (100 p.s.i.a.), preferably at a pressure of between 3.4474x10 -1 bar (5 p.s.i.a.) and about 2.7579 bar (40 p.s.i.a.); and - at a temperature between 300°C and 600°C; and - for a time of 30 minutes to 24 hours.
Flat tube of a charge air heat exchanger, produced from at least one metal sheet that has been pressed to form at least one exchange plate , said pressing allowing a fluid inlet and a fluid outlet to be connected by a circuit through which a heat-transfer fluid circulates, said circuit comprising at least two rectilinear passes connected by a curved portion , characterized in that said circuit comprises at least one metal insert placed within it and made from a material that creates a potential difference of 30 mV or more with the material of the flat tube .
A method of joining an amorphous alloy material to a heterogeneous material, characterized by comprising steps of: placing a pre-formed piece made of the amorphous alloy material into a mold; heating the heterogeneous material to a predetermined temperature, and then casting the heterogeneous material into the mold to form a transition connection part, the transition connection part joining the amorphous alloy material to the heterogeneous material and having one of a fusion welded structure, a microstructure reinforcing connection structure and a composite connection structure, in which the fusion welded structure is formed by the amorphous alloy material and the heterogeneous material via fusion welding, the microstructure reinforcing connection structure is formed by a microstructure on a surface of the pre-formed piece and the heterogeneous material, and the composite connection structure comprises the fusion welded structure and the microstructure reinforcing connection structure; and cooling the amorphous alloy material and the heterogeneous material at a rate higher than a critical cooling rate of the amorphous alloy material to obtain a composite formed by the amorphous alloy material to the heterogeneous material joined via the transition connection part. placing a pre-formed piece made of the amorphous alloy material into a mold; heating the heterogeneous material to a predetermined temperature, and then casting the heterogeneous material into the mold to form a transition connection part, the transition connection part joining the amorphous alloy material to the heterogeneous material and having one of a fusion welded structure, a microstructure reinforcing connection structure and a composite connection structure, in which the fusion welded structure is formed by the amorphous alloy material and the heterogeneous material via fusion welding, the microstructure reinforcing connection structure is formed by a microstructure on a surface of the pre-formed piece and the heterogeneous material, and the composite connection structure comprises the fusion welded structure and the microstructure reinforcing connection structure; and cooling the amorphous alloy material and the heterogeneous material at a rate higher than a critical cooling rate of the amorphous alloy material to obtain a composite formed by the amorphous alloy material to the heterogeneous material joined via the transition connection part.
A hydraulic pumping method for use with a subterranean well, the method comprising: mounting a hydraulic actuator above a wellhead , the hydraulic actuator and the wellhead being axially aligned with each other and inclined relative to vertical, wherein the hydraulic actuator comprises a ferromagnetic outer wall having a thickness of at least 1.25 cm, whereby the hydraulic actuator is unsupported by any additional substructure or guy wires after the mounting; and reciprocating a rod string with the hydraulic actuator , the reciprocating comprising displacing the rod string in response to pressure applied to the hydraulic actuator by a hydraulic pressure source connected to the hydraulic actuator , the hydraulic pressure source comprising an accumulator , and automatically regulating pressure in the accumulator in response to measurements of the pressure applied to the hydraulic actuator , wherein the accumulator is arranged to receive nitrogen gas from a nitrogen concentrator assembly while a hydraulic fluid flows between the hydraulic pressure source and the hydraulic actuator . mounting a hydraulic actuator above a wellhead , the hydraulic actuator and the wellhead being axially aligned with each other and inclined relative to vertical, wherein the hydraulic actuator comprises a ferromagnetic outer wall having a thickness of at least 1.25 cm, whereby the hydraulic actuator is unsupported by any additional substructure or guy wires after the mounting; and reciprocating a rod string with the hydraulic actuator , the reciprocating comprising displacing the rod string in response to pressure applied to the hydraulic actuator by a hydraulic pressure source connected to the hydraulic actuator , the hydraulic pressure source comprising an accumulator , and automatically regulating pressure in the accumulator in response to measurements of the pressure applied to the hydraulic actuator , wherein the accumulator is arranged to receive nitrogen gas from a nitrogen concentrator assembly while a hydraulic fluid flows between the hydraulic pressure source and the hydraulic actuator .
Elevator system, comprising a car and a counterweight in a shaft and comprising a drive machine which drives the car and the counterweight by means of at least two drive means , the drive machine having a drive shaft , at least two mutually spaced drive zones and components such as a motor and a brake , and the support and drive means being arranged according to the distance between the drive zones , the drive zones being integrated in one piece into the drive shaft and being incorporated directly into said drive shaft, characterized in that the drive zones are arranged symmetrically, to the left and to the right of a horizontal (H) connecting car guides .
A computer-implemented method for obtaining a utility statistic, the method comprising a first computing device: encrypting a set of class labels based on a public key/private key pair generated by the first computing device to obtain a set of encrypted class labels; sending a public key and the set of encrypted class labels to a second computing device; receiving an encrypted value computed by the second computing device based on the public key and the set of encrypted class labels; decrypting the encrypted value based on a private key to obtain a decrypted value; sending a pair of encrypted values computed by the first computing device based on the decrypted value to the second computing device; receiving at the first computing device an encrypted utility statistic from the second computing device; decrypting the encrypted utility statistic to obtain a decrypted utility statistic; determining that the decrypted utility statistic exceeds a predetermined threshold; requesting a set of data from the second computing device; and applying the set of data to improve the classifier, such that the utility statistic is computed by the second computing device based on the pair of encrypted values and a feature vector of the second computing device. encrypting a set of class labels based on a public key/private key pair generated by the first computing device to obtain a set of encrypted class labels; sending a public key and the set of encrypted class labels to a second computing device; receiving an encrypted value computed by the second computing device based on the public key and the set of encrypted class labels; decrypting the encrypted value based on a private key to obtain a decrypted value; sending a pair of encrypted values computed by the first computing device based on the decrypted value to the second computing device; receiving at the first computing device an encrypted utility statistic from the second computing device; decrypting the encrypted utility statistic to obtain a decrypted utility statistic; determining that the decrypted utility statistic exceeds a predetermined threshold; requesting a set of data from the second computing device; and applying the set of data to improve the classifier, such that the utility statistic is computed by the second computing device based on the pair of encrypted values and a feature vector of the second computing device.
Method for obtaining one or more air products using an air separation plant comprising a first booster , a second booster , a first expansion machine and a rectification column system which has a high-pressure column operated at a first pressure level and a low-pressure column operated at a second pressure level below the first pressure level, - all of the air supplied to the rectification column system initially being compressed as a feed air amount to a third pressure level which is at least 3 bar above the first pressure level, - a first part of the feed air amount being fed at the third pressure level and a temperature level of -140 to -70°C to a first booster and being compressed to a fourth pressure level using the first booster , - a second part of the feed air amount or a portion of the first feed air amount, which was compressed to the fourth pressure level using the first booster , being fed to the first expansion turbine , which is used for driving the first booster , and being expanded to the first pressure level using the first expansion machine , - a portion of the first feed air amount which was compressed to the fourth pressure level using the first booster being fed to the second booster and compressed to a fifth pressure level using the second booster , and - the first part of the feed air amount being at the outlet of the first booster at a temperature level of -120 to -60°C, characterized in that - the portion of the first feed air amount which is compressed to the fifth pressure level using the second booster is heated to a temperature level of -20 to 40°C prior to compression thereof in the second booster . - all of the air supplied to the rectification column system initially being compressed as a feed air amount to a third pressure level which is at least 3 bar above the first pressure level, - a first part of the feed air amount being fed at the third pressure level and a temperature level of -140 to -70°C to a first booster and being compressed to a fourth pressure level using the first booster , - a second part of the feed air amount or a portion of the first feed air amount, which was compressed to the fourth pressure level using the first booster , being fed to the first expansion turbine , which is used for driving the first booster , and being expanded to the first pressure level using the first expansion machine , - a portion of the first feed air amount which was compressed to the fourth pressure level using the first booster being fed to the second booster and compressed to a fifth pressure level using the second booster , and - the first part of the feed air amount being at the outlet of the first booster at a temperature level of -120 to -60°C, characterized in that - the portion of the first feed air amount which is compressed to the fifth pressure level using the second booster is heated to a temperature level of -20 to 40°C prior to compression thereof in the second booster .
A method for detecting mutations or SNP variants or other variants in a target nucleic acid, comprising: a) providing a bead probe and a surface probe, wherein each probe is an oligonucleotide probe having a sequence complementary to a sequence of the target nucleic acid, optionally containing one or more base changes compared to the sequence of the target nucleic acid, and wherein the bead probe is attached to a magnetic bead, and wherein the surface probe is attached to a solid surface, b) providing a sample comprising the target nucleic acid, wherein the target nucleic acid may contain one or more mutations and/or variants as compared to the wild-type sequence of the target nucleic acid, c) contacting the sample with the bead probe and the surface probe, d) allowing the target nucleic acid to hybridize with the bead probe and the surface probe, forming a sandwich structure, optionally obtaining a first readout of the binding signal attached to the surface, e) applying stringency on the hybridization bond by magnetic force and temperature, f) determining the binding signal remaining in a sandwich structure attached to the surface, g) repeating steps e) and f) one or more times, and h) correlating the binding signal remaining in a sandwich structure attached to the surface to the presence and/or number of mutations, SNP variants, or other variants in the target nucleic acid, wherein magnetic fields of increasing voltages, and increasing temperatures are applied at the same time or sequentially and wherein said voltages and temperatures are controlled independently of each other. a) providing a bead probe and a surface probe, wherein each probe is an oligonucleotide probe having a sequence complementary to a sequence of the target nucleic acid, optionally containing one or more base changes compared to the sequence of the target nucleic acid, and wherein the bead probe is attached to a magnetic bead, and wherein the surface probe is attached to a solid surface, b) providing a sample comprising the target nucleic acid, wherein the target nucleic acid may contain one or more mutations and/or variants as compared to the wild-type sequence of the target nucleic acid, c) contacting the sample with the bead probe and the surface probe, d) allowing the target nucleic acid to hybridize with the bead probe and the surface probe, forming a sandwich structure, optionally obtaining a first readout of the binding signal attached to the surface, e) applying stringency on the hybridization bond by magnetic force and temperature, f) determining the binding signal remaining in a sandwich structure attached to the surface, g) repeating steps e) and f) one or more times, and h) correlating the binding signal remaining in a sandwich structure attached to the surface to the presence and/or number of mutations, SNP variants, or other variants in the target nucleic acid, wherein magnetic fields of increasing voltages, and increasing temperatures are applied at the same time or sequentially and wherein said voltages and temperatures are controlled independently of each other.
A pet bath comprising: an outer cabinet that forms an external appearance of the pet bath, the outer cabinet having an open front surface; an inner cabinet provided within the outer cabinet defining a bathing enclosure therein, the inner cabinet having an open front surface; a door configured to open and close the open front surfaces of the outer cabinet and the inner cabinet ; a water collection tank disposed under the inner cabinet and defining a space in which washing water is stored; a circulation pump configured to pump the washing water stored in the water collection tank ; a lower nozzle disposed at a lower portion of the bathing enclosure and configured to spray the washing water pumped by the circulation pump to the bathing enclosure ; an upper nozzle disposed above the lower nozzle and configured to spray the washing water pumped by the circulation pump to the bathing enclosure ; a stand disposed between the lower nozzle and the upper nozzle and configured to support a pet thereon, the stand being configured to drain washing water therethrough; a circulation water filter configured to filter washing water flowing from the bathing enclosure to the water collection tank ; an air blower disposed below the inner cabinet and configured to circulate air in the bathing enclosure ; and an air nozzle disposed on side surfaces of the inner cabinet and configured to discharge air from the air blower to an inside of the bathing enclosure , wherein inner exhaust holes configured to exhaust air flowing in the bathing enclosure are defined in an upper surface of the inner cabinet . an outer cabinet that forms an external appearance of the pet bath, the outer cabinet having an open front surface; an inner cabinet provided within the outer cabinet defining a bathing enclosure therein, the inner cabinet having an open front surface; a door configured to open and close the open front surfaces of the outer cabinet and the inner cabinet ; a water collection tank disposed under the inner cabinet and defining a space in which washing water is stored; a circulation pump configured to pump the washing water stored in the water collection tank ; a lower nozzle disposed at a lower portion of the bathing enclosure and configured to spray the washing water pumped by the circulation pump to the bathing enclosure ; an upper nozzle disposed above the lower nozzle and configured to spray the washing water pumped by the circulation pump to the bathing enclosure ; a stand disposed between the lower nozzle and the upper nozzle and configured to support a pet thereon, the stand being configured to drain washing water therethrough; a circulation water filter configured to filter washing water flowing from the bathing enclosure to the water collection tank ; an air blower disposed below the inner cabinet and configured to circulate air in the bathing enclosure ; and an air nozzle disposed on side surfaces of the inner cabinet and configured to discharge air from the air blower to an inside of the bathing enclosure , wherein inner exhaust holes configured to exhaust air flowing in the bathing enclosure are defined in an upper surface of the inner cabinet .
A system for secure data exchange, the system comprising: at least two data gates , wherein a first data gate of the at least two data gates is configured to encrypt original data with a key based on authentication data and to generate at least one virtual file comprising exclusively meta data of the original data , wherein the first data gate is further configured to separate the encrypted original data in a plurality of packets , wherein the first data gate is further configured to spread the plurality of packets over at least two public data storages , wherein a second data gate of the at least two data gates is configured to assemble and decrypt the encrypted original data with the key, and wherein the assembly and decryption of the encrypted original data is initiated by at least one user input with respect to the at least one virtual file . wherein a first data gate of the at least two data gates is configured to encrypt original data with a key based on authentication data and to generate at least one virtual file comprising exclusively meta data of the original data , wherein the first data gate is further configured to separate the encrypted original data in a plurality of packets , wherein the first data gate is further configured to spread the plurality of packets over at least two public data storages , wherein a second data gate of the at least two data gates is configured to assemble and decrypt the encrypted original data with the key, and wherein the assembly and decryption of the encrypted original data is initiated by at least one user input with respect to the at least one virtual file .
A compressor , comprising: a casing ; a driving unit disposed in the casing ; a compression unit , coupled to the driving unit , configured to compress a refrigerant; and a valve configured to control a flow of the refrigerant in the casing , wherein the valve includes: a valve chamber including a main flow path , in which the refrigerant is to flow, the main flow path including a refrigerant inlet and a refrigerant outlet , characterized in that a floating body disposed in the valve chamber to open or close the main flow path , and a bypass flow path , formed in the valve chamber , to be opened or closed by the floating body , and when the driving unit is stopped and the bypass flow path is opened by the floating body , to allow the refrigerant to be detoured to the bypass flow path . a casing ; a driving unit disposed in the casing ; a compression unit , coupled to the driving unit , configured to compress a refrigerant; and a valve configured to control a flow of the refrigerant in the casing , wherein the valve includes: a valve chamber including a main flow path , in which the refrigerant is to flow, the main flow path including a refrigerant inlet and a refrigerant outlet , characterized in that a valve chamber including a main flow path , in which the refrigerant is to flow, the main flow path including a refrigerant inlet and a refrigerant outlet , characterized in that a floating body disposed in the valve chamber to open or close the main flow path , and
Drive train , with a drive motor having a motor output shaft and a multi-speed gearbox arrangement having a drive shaft , wherein the motor output shaft and the drive shaft are connected to one another by a device for torque transmission, which is designed as a clutch with an integrated torsional compensation , characterised in that the clutch has an outer carrier and two inner carriers , wherein at least one inner carrier is relatively movable with respect to the outer carrier and/or the other inner carrier within a torsion angle range (α), wherein the outer carrier and the inner carriers are of hollow cylindrical design, wherein one inner carrier receives a free end of the motor output shaft and the other inner carrier receives an end of the drive shaft .