mhurhangee/ep-ind-claims huggingface dataset:
A launch system for a pressurized pipeline, the launch system including a cable feeder system, comprising: a housing attachable to the pipeline such that an inside of the housing is in fluid communication with an interior of the pipeline, the housing including a seal arrangement configured to engage a cable extending from outside the pipeline to inside the pipeline such that release of pressurized gas from inside the pipeline to an ambient environment outside the pipeline is inhibited; a first actuator arrangement disposed on one side of the seal arrangement and configured to receive a portion of the cable outside the housing, the first actuator arrangement being operable to pull the cable through the seal arrangement and out of the pipeline; charcterised in that it further comprises a second actuator arrangement disposed on another side of the seal arrangement and configured to receive a portion of the cable inside the housing, the second actuator arrangement being operable to pull the cable through the seal arrangement and into the pipeline. a housing attachable to the pipeline such that an inside of the housing is in fluid communication with an interior of the pipeline, the housing including a seal arrangement configured to engage a cable extending from outside the pipeline to inside the pipeline such that release of pressurized gas from inside the pipeline to an ambient environment outside the pipeline is inhibited; a first actuator arrangement disposed on one side of the seal arrangement and configured to receive a portion of the cable outside the housing, the first actuator arrangement being operable to pull the cable through the seal arrangement and out of the pipeline; charcterised in that it further comprises a second actuator arrangement disposed on another side of the seal arrangement and configured to receive a portion of the cable inside the housing, the second actuator arrangement being operable to pull the cable through the seal arrangement and into the pipeline.
A process for the recovery of components heavier than methane from natural gas, wherein the process comprises (a) cooling a natural gas feed to provide a cooled natural gas feed and introducing the cooled natural gas feed into an absorber column at a first location therein; (b) withdrawing from the absorber column a first overhead vapor stream depleted in components heavier than methane and a bottoms stream enriched in components heavier than methane; (c) introducing a methane-rich reflux stream at a second location in the absorber column above the first location; (d) separating the bottoms stream into a stream enriched in methane and one or more streams enriched in components heavier than ethane (47, 49, 51); and (e) introducing an absorber liquid comprising components heavier than ethane into the absorber column at a location between the first location and the second location, wherein the absorber liquid contains greater than 50 mole% of hydrocarbons containing three or more carbon atoms, wherein the absorber liquid comprises components obtained from any of the one or more streams enriched in components heavier than ethane (47, 49, 51) in (d), and further comprising cooling and partially condensing the first overhead vapor stream to form a two-phase stream, separating the two-phase stream to provide a second overhead vapor stream and the methane-rich reflux stream in (c), characterized in that the natural gas feed is at a pressure above 4.14 MPa (600 psia), and in that the process further comprises combining all or a portion of the stream enriched in methane in (d) with the first overhead vapor stream prior to separating the two-phase stream. (a) cooling a natural gas feed to provide a cooled natural gas feed and introducing the cooled natural gas feed into an absorber column at a first location therein; (b) withdrawing from the absorber column a first overhead vapor stream depleted in components heavier than methane and a bottoms stream enriched in components heavier than methane; (c) introducing a methane-rich reflux stream at a second location in the absorber column above the first location; (d) separating the bottoms stream into a stream enriched in methane and one or more streams enriched in components heavier than ethane (47, 49, 51); and (e) introducing an absorber liquid comprising components heavier than ethane into the absorber column at a location between the first location and the second location, wherein the absorber liquid contains greater than 50 mole% of hydrocarbons containing three or more carbon atoms,
A method of producing a purified optically active 4-amino-3-(substituted phenyl)butanoic acid compound which is charaterized by comprising a step of making a crude optically active 4-amino-3-(substituted phenyl)butanoic acid compound contact an organic acid in the presence of water.
A method of transparently creating a virtual private network including an encrypted communication link between a client and a target host, the method being performed at a domain name server that is separate from the client, the method comprising: receiving, from the client, a domain name service request that requests an IP address associated with the target host; determining whether the received domain name service request is requesting access to a secure target host; and automatically initiating the virtual private network between the client and the target host in response to determining that the domain name service request is requesting access to a secure target host, wherein the step of automatically initiating the virtual private network comprises establishing the virtual private network by creating an IP address hopping scheme between the client and the target host. receiving, from the client, a domain name service request that requests an IP address associated with the target host; determining whether the received domain name service request is requesting access to a secure target host; and automatically initiating the virtual private network between the client and the target host in response to determining that the domain name service request is requesting access to a secure target host, wherein the step of automatically initiating the virtual private network comprises establishing the virtual private network by creating an IP address hopping scheme between the client and the target host.
A power production system comprising: a working fluid circuit through which a working fluid is cycled between a higher pressure and a lower pressure; a power generating turbine fluidly connected to the working fluid circuit so as to receive working fluid at the higher pressure, expand the working fluid, and output the working fluid from an outlet thereof at the lower pressure; a first compression component downstream of the power generating turbine and in fluid connection therewith; a second compression component downstream of the first compression component and in fluid connection therewith; a storage tank in fluid communication with the working fluid circuit; a controller configured to transfer working fluid between the storage tank and one or more positions in the working fluid circuit; characterized in that the power production system further comprises at least one line (44a; 44b) configured for passage of working fluid between the storage tank and the working fluid circuit, wherein the at least one line (44a; 44b) is configured to remove working fluid from the working fluid circuit downstream from the first compression component and upstream from the second compression component a working fluid circuit through which a working fluid is cycled between a higher pressure and a lower pressure; a power generating turbine fluidly connected to the working fluid circuit so as to receive working fluid at the higher pressure, expand the working fluid, and output the working fluid from an outlet thereof at the lower pressure; a first compression component downstream of the power generating turbine and in fluid connection therewith; a second compression component downstream of the first compression component and in fluid connection therewith; a storage tank in fluid communication with the working fluid circuit; a controller configured to transfer working fluid between the storage tank and one or more positions in the working fluid circuit; characterized in that the power production system further comprises at least one line (44a; 44b) configured for passage of working fluid between the storage tank and the working fluid circuit, wherein the at least one line (44a; 44b) is configured to remove working fluid from the working fluid circuit downstream from the first compression component and upstream from the second compression component
Method for selectively activating a thermostable hydrolase at a temperature above T1, said method comprising the following steps: a) providing, at a temperature below T1, wherein said temperature T1 is at least 60°C, a composition comprising the thermostable hydrolase and a temperature sensitive inhibitor, wherein said hydrolase is Aqualysin I and is resistant to irreversible inactivation at a temperature above T1, wherein said inhibitor is a trypsin inhibitor from corn, oats, rye, rice or soybean or a recombinant, semi-synthetic, or synthetic variant thereof and wherein the inhibitor becomes irreversibly inactivated at a temperature of T1 or higher, and wherein said thermostable hydrolase and said temperature sensitive inhibitor form a hydrolase-inhibitor complex at a temperature below T1, wherein said inhibitor inhibits the activity of said hydrolase in said complex at a temperature below T1 and dissociates from said complex at a temperature of T1, and; b) elevating the temperature of said composition to a temperature above T1, thereby activating the hydrolase. a) providing, at a temperature below T1, wherein said temperature T1 is at least 60°C, a composition comprising the thermostable hydrolase and a temperature sensitive inhibitor, wherein said hydrolase is Aqualysin I and is resistant to irreversible inactivation at a temperature above T1, wherein said inhibitor is a trypsin inhibitor from corn, oats, rye, rice or soybean or a recombinant, semi-synthetic, or synthetic variant thereof and wherein the inhibitor becomes irreversibly inactivated at a temperature of T1 or higher, and wherein said thermostable hydrolase and said temperature sensitive inhibitor form a hydrolase-inhibitor complex at a temperature below T1, wherein said inhibitor inhibits the activity of said hydrolase in said complex at a temperature below T1 and dissociates from said complex at a temperature of T1, and; b) elevating the temperature of said composition to a temperature above T1, thereby activating the hydrolase.
An electric motor system, comprising: a motor housing; a stator core disposed within the motor housing and including a back iron heat exchanger configured to pass fluid therethrough; a fluid inlet disposed at a first portion of the back iron heat exchanger that is at least partially in fluid communication with a liquid coolant source and is configured to accept a cooling mixture; a fluid outlet disposed at a second portion of the back iron heat exchanger configured to outlet a gas coolant from the back iron heat exchanger such that liquid coolant is convertible to the gas coolant in the back iron heat exchanger by receiving energy from the stator core allowing the gas coolant exit through the outlet and thereby removing heat from the stator core; wherein the fluid inlet is defined in the motor housing and characterized in that the fluid inlet includes a plurality of introducers for spraying the cooling mixture into the back iron heat exchanger a motor housing; a stator core disposed within the motor housing and including a back iron heat exchanger configured to pass fluid therethrough; a fluid inlet disposed at a first portion of the back iron heat exchanger that is at least partially in fluid communication with a liquid coolant source and is configured to accept a cooling mixture; a fluid outlet disposed at a second portion of the back iron heat exchanger configured to outlet a gas coolant from the back iron heat exchanger such that liquid coolant is convertible to the gas coolant in the back iron heat exchanger by receiving energy from the stator core allowing the gas coolant exit through the outlet and thereby removing heat from the stator core; wherein the fluid inlet is defined in the motor housing and characterized in that the fluid inlet includes a plurality of introducers for spraying the cooling mixture into the back iron heat exchanger
A method for producing a rare earth-cobalt-based composite magnetic material, comprising the steps of: melting and casting the rare earth-cobalt-based composite material into ingots, hydrogen decrepitation and addition of rare earth oxides, jet milling, blending, orientation and molding, cold isostatic pressing and heat treatment, the rare earth-cobalt-based composite magnetic material comprising a rare earth-cobalt-based composite material and rare earth oxides; the mass percent of the rare earth-cobalt-based composite material being 40wt%-98.55wt%; characterised in that the rare earth-cobalt-based composite magnetic material also comprises Sn, wherein the content of Sn in the rare earth-cobalt-based composite material does not exceed 10wt%; and the rare earth-cobalt-based composite material is melted and casted into ingots, the ingots include main alloy ingots A and auxiliary alloy ingots B, the stoichiometric equation of chemical atoms of the main alloy ingots is (SmR 1)(CoM 1)z, wherein R 1 is one or more of Y, La, Ce, Pr, Nd, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu, M1is one or more of Fe, Cu, Zr, Mn, Ni, Ti, V, Cr, Zn, Nb, Mo, Hf, W and Sn, and z is 4.0-9.0; the stoichiometric equation of chemical atoms of the auxiliary alloy ingots is (SmR 2)(CoM 2)y, wherein R 2 is one or more of Y, La, Ce, Pr, Nd, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu, M2 is one or more of Fe, Cu, Zr, Mn, Ni, Ti, V, Cr, Zn, Nb, Mo, Hf, W and Sn, and y is 0.3-1.
A metal-ceramic substrate comprising - an isolation layer comprising a ceramic and having a first thickness, and - a metallization layer bonded to the isolation layer and having a second thickness, wherein the metallization layer is bonded to the isolation layer by means of a DCB process or DAB process, wherein the first thickness is less than 200 μm and the second thickness is greater than 200 μm and wherein the first thickness and the second thickness are dimensioned such that a ratio of -- an amount of the difference between a thermal expansion coefficient of the metallization layer and a thermal expansion coefficient of the metal-ceramic substrate to -- the thermal expansion coefficient of the metal-ceramic substrate has a value less than 0.25, preferably less than 0.2 and more preferably less than 0.15 or even less than 0.1. - an isolation layer comprising a ceramic and having a first thickness, and - a metallization layer bonded to the isolation layer and having a second thickness, -- an amount of the difference between a thermal expansion coefficient of the metallization layer and a thermal expansion coefficient of the metal-ceramic substrate to -- the thermal expansion coefficient of the metal-ceramic substrate has a value less than 0.25, preferably less than 0.2 and more preferably less than 0.15 or even less than 0.1.
A thermal insulation cover, comprising: an aerogel insulation material having a first surface and a second surface that is oppositely-disposed from the first surface; a backing covering the second surface of the aerogel insulation material; a skin layer covering the first surface of the aerogel insulation material and wrapping around an end of the aerogel insulation material and a portion of the backing and a portion of the second surface; and adhesive located between at least a portion of the skin layer and the backing; characterized in that: the thermal insulation cover further comprises an integral fastener having a head and a screw portion; wherein the head of the integral fastener is located within the adhesive between the skin layer and the backing. an aerogel insulation material having a first surface and a second surface that is oppositely-disposed from the first surface; a backing covering the second surface of the aerogel insulation material; a skin layer covering the first surface of the aerogel insulation material and wrapping around an end of the aerogel insulation material and a portion of the backing and a portion of the second surface; and adhesive located between at least a portion of the skin layer and the backing; characterized in that: the thermal insulation cover further comprises an integral fastener having a head and a screw portion; wherein the head of the integral fastener is located within the adhesive between the skin layer and the backing.
A rapid clamping system, comprising: a chuck with a base plate configured to be assembled with a flange (86, 91) which is positionable in a force-controlled manner by means of a manipulator (80, 90) or a linear actuator, a tool holder configured to be assembled with a machine tool, wherein the tool holder has an assembly plate which rests against the base plate in a locked state; two or more pins configured to align the assembly plate with the base plate in an assembled state and to prevent a movement of the assembly plate relative to the base plate in a plane parallel to the base plate; at least one elastic member, comprising a disc made of elastic material interposed between the base plate and the assembly plate; and a clamping lock (13, 32) configured to lock the tool holder to the base plate of the chuck, wherein the elastic member is deformed in the locked state and causes a biasing force between the base plate and the assembly plate. a chuck with a base plate configured to be assembled with a flange (86, 91) which is positionable in a force-controlled manner by means of a manipulator (80, 90) or a linear actuator, a tool holder configured to be assembled with a machine tool, wherein the tool holder has an assembly plate which rests against the base plate in a locked state; two or more pins configured to align the assembly plate with the base plate in an assembled state and to prevent a movement of the assembly plate relative to the base plate in a plane parallel to the base plate; at least one elastic member, comprising a disc made of elastic material interposed between the base plate and the assembly plate; and a clamping lock (13, 32) configured to lock the tool holder to the base plate of the chuck, wherein the elastic member is deformed in the locked state and causes a biasing force between the base plate and the assembly plate.
Device for determining a personal tinnitus frequency consisting of an audio signal generator and an assigned audio signal earphone, which provides a first audio signal which can be continuously adjusted in frequency, characterised in that the audio signal earphone is designed as an in-ear earphone and a heating arrangement for heating an area of the ear is arranged on the audio signal earphone, wherein on the device an adjusting means is arranged for adjusting a temperature of the audio signal earphone.
An enclosed drone apparatus, comprising: (a) an elastic enclosure assembly including a plurality of intersecting enclosure members with a plurality of enclosure openings therein; and (b) an air vehicle assembly securely positioned within said enclosure assembly, said air vehicle assembly comprising a plurality of propeller couples (P-1/P-3 and P-2/P-4), wherein said drone apparatus is configured to operate in a plurality of modes, said plurality of modes including a flight mode and a ground mode, wherein said ground mode includes a rolling mode where a first of said propeller couples (P-1/P-3) rotate to cause air movement in a first upward direction and a second of said propeller couples (P-2/P-4) rotate to cause air movement in a second downward direction opposing said first upward direction, wherein in said flight mode said multiple propeller sets (P-1/P-3 and P-2/P-4) all rotate to cause air movement in said second downward direction, and characterised in that magnitude differences in the airflows between said propellers of said plurality of propeller couples steer said drone apparatus when in said rolling mode. (a) an elastic enclosure assembly including a plurality of intersecting enclosure members with a plurality of enclosure openings therein; and (b) an air vehicle assembly securely positioned within said enclosure assembly, said air vehicle assembly comprising a plurality of propeller couples (P-1/P-3 and P-2/P-4),
A method for making an oil-in-water nanoemulsion comprising the steps of mixing: (a) oil as an internal phase; (b) water as an aqueous phase; and (c) a fatty phase comprising C 8 to C 22 neutralized fatty acid, neutralized fatty acid and neutralizer, fatty acid and a neutralizer, or a combination thereof, the phases being mixed to produce a macroemulsion and the macroemulsion is homogenized in a single pass at a process pressure of 4.1 to 48.3 MPa (600 to 7000 psi) to produce the nanoemulsion having a particle size from 70 to 550 nm, wherein 10 to 100% of the fatty acid is neutralized and wherein a water miscible liquid is not used in the aqueous phase. (a) oil as an internal phase; (b) water as an aqueous phase; and (c) a fatty phase comprising C 8 to C 22 neutralized fatty acid, neutralized fatty acid and neutralizer, fatty acid and a neutralizer, or a combination thereof, the phases being mixed to produce a macroemulsion and the macroemulsion is homogenized in a single pass at a process pressure of 4.1 to 48.3 MPa (600 to 7000 psi) to produce the nanoemulsion having a particle size from 70 to 550 nm, wherein 10 to 100% of the fatty acid is neutralized and wherein a water miscible liquid is not used in the aqueous phase.
A battery pack for installing in a vehicle, comprising: a rechargeable battery module (16,16A,16B); a battery management system (17,17A,17B); a case which accommodates the rechargeable battery module (16,16A,16B) and the battery management system (17,17A,17B); and wherein, in a state where the battery pack (7,7A,7B) is installed in the vehicle, the battery management system (17,17A,17B) is configured to perform information communication with another battery management system (17,17A,17B) which is also installed in the vehicle, and further wherein either the battery management system (17,17A,17B) is configured to be controlled as a master and configured to communicate with said another battery management system (17,17A,17B) which is a slave, or the battery management system (17,17A,17B) is configured to be controlled as a slave and configured to communicate with said another battery management system (17,17A,17B) which is a master, and wherein, in a state where the battery pack (7,7A,7B) is detached from the vehicle, the battery management system (17,17A,17B) is configured to control a charging state independently performed with respect to the rechargeable battery module (16,16A,16B). a rechargeable battery module (16,16A,16B); a battery management system (17,17A,17B); a case which accommodates the rechargeable battery module (16,16A,16B) and the battery management system (17,17A,17B); and wherein, in a state where the battery pack (7,7A,7B) is installed in the vehicle, the battery management system (17,17A,17B) is configured to perform information communication with another battery management system (17,17A,17B) which is also installed in the vehicle, and further wherein either the battery management system (17,17A,17B) is configured to be controlled as a master and configured to communicate with said another battery management system (17,17A,17B) which is a slave, or the battery management system (17,17A,17B) is configured to be controlled as a slave and configured to communicate with said another battery management system (17,17A,17B) which is a master, and