mhurhangee/ep-ind-claims huggingface dataset:
A method for the discontinuous use of a permanently installed system for subsea sampling and analysis for determining salinity of produced water from a single subsea well, the method comprising the steps of: - integrating the system into a replaceable equipment module for a choke valve of said single subsea well, the system comprising an analysis circuit with a separation-and-analysis receptacle equipped with an electrostatic coalescer and two instruments (4E, 4F) for measuring salinity of separated water, the instruments of which are placed in a restricted lower part of the separation receptacle; - filling the analysing circuit from a well flow by opening two gate valves (5A, 6A) of the system and allowing a differential pressure across the choke valve, as measured with a differential-pressure transmitter, to set up and direct a part of the well flow into the analysis circuit, thereby filling the separation- and-analysis receptacle with a representative sample from the production of the well; - separating the contents of the separation-and-analysis receptacle into fractions of condensate, crude oil and water using the electrostatic coalescer; - measuring the salinity of the separated water using the instruments (4E, 4F) and transmitting these data to above the sea surface via electronic communication; and - upon having completed the analysis, circulating hydrocarbons and water out of the separation-and-analysis receptacle and replacing them with Mono Ethylene Glycol. - integrating the system into a replaceable equipment module for a choke valve of said single subsea well, the system comprising an analysis circuit with a separation-and-analysis receptacle equipped with an electrostatic coalescer and two instruments (4E, 4F) for measuring salinity of separated water, the instruments of which are placed in a restricted lower part of the separation receptacle; - filling the analysing circuit from a well flow by opening two gate valves (5A, 6A) of the system and allowing a differential pressure across the choke valve, as measured with a differential-pressure transmitter, to set up and direct a part of the well flow into the analysis circuit, thereby filling the separation- and-analysis receptacle with a representative sample from the production of the well; - separating the contents of the separation-and-analysis receptacle into fractions of condensate, crude oil and water using the electrostatic coalescer; - measuring the salinity of the separated water using the instruments (4E, 4F) and transmitting these data to above the sea surface via electronic communication; and - upon having completed the analysis, circulating hydrocarbons and water out of the separation-and-analysis receptacle and replacing them with Mono Ethylene Glycol.
A motorcycle tire comprising: a tread portion configured to be curved into an arc shape that projects outward in a tire radial direction; a carcass having a toroidal shape; and a tread reinforcing layer disposed outward of the carcass in the tire radial direction and inward of the tread portion in the tire radial direction, wherein the tread reinforcing layer includes a crown region (Cr) and a pair of shoulder regions (Sh) on both outer sides of the crown region (Cr), characterized in that the tread reinforcing layer is formed by a rubber-coated cord strip being helically wound, the rubber-coated cord strip is formed by a plurality of reinforcing cords aligned with each other being covered with topping rubber, a distance (Ws) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in each of the shoulder regions (Sh) is less than a distance (Wc) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in the crown region (Cr), and shoulder ends (Es) that are the number of the reinforcing cords per unit periphery length in each of the shoulder regions (Sh) are less than crown ends (Ec) that are the number of reinforcing cords per unit periphery length in the crown region (Cr). a tread portion configured to be curved into an arc shape that projects outward in a tire radial direction; a carcass having a toroidal shape; and a tread reinforcing layer disposed outward of the carcass in the tire radial direction and inward of the tread portion in the tire radial direction, wherein the tread reinforcing layer includes a crown region (Cr) and a pair of shoulder regions (Sh) on both outer sides of the crown region (Cr), characterized in that the tread reinforcing layer is formed by a rubber-coated cord strip being helically wound, the rubber-coated cord strip is formed by a plurality of reinforcing cords aligned with each other being covered with topping rubber, a distance (Ws) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in each of the shoulder regions (Sh) is less than a distance (Wc) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in the crown region (Cr), and shoulder ends (Es) that are the number of the reinforcing cords per unit periphery length in each of the shoulder regions (Sh) are less than crown ends (Ec) that are the number of reinforcing cords per unit periphery length in the crown region (Cr).
Method of resetting a safety brake (20, 20'), which is released for braking, of a travel body (2, 3) of a lift installation with a preferably electromechanical retaining device which in a deactivated state releases the safety brake (20, 20') for braking, the method comprising at least the resetting steps of: - activating the retaining device of the safety brake (20, 20') in order to prepare it for holding the safety brake in a readiness setting, - moving the travel body (2, 3) in a first travel direction in order to at least partly tighten or re-tighten the safety brake (20, 20') and - moving the travel body (2, 3) in a second travel direction opposite the first travel direction in order to bring the safety brake (20, 20') into the readiness setting where it is held by the activated retaining device, wherein the retaining device is activated before movement of the travel body (2, 3) in the second travel direction. - activating the retaining device of the safety brake (20, 20') in order to prepare it for holding the safety brake in a readiness setting, - moving the travel body (2, 3) in a first travel direction in order to at least partly tighten or re-tighten the safety brake (20, 20') and - moving the travel body (2, 3) in a second travel direction opposite the first travel direction in order to bring the safety brake (20, 20') into the readiness setting where it is held by the activated retaining device,
A melt-processible polymer composition comprising: a non-fluorinated melt-processible polymer; and a fluorine-containing polymer derived from the polymerization of a monomer and a sulfinate-containing molecule, wherein the sulfinate-containing molecule is selected from the group consisting of: (a) CX 1 X 3 =CX 2 - p -CZ 1 Z 2 -SO 2 M Formula (b) and (c) combinations thereof, wherein X 1, X 2, and X 3 are each independently selected from H, F, Cl, a C 1 to C 4 alkyl group, and a C 1 to C 4 fluorinated alkyl group; R is a linking group; Z 1 and Z 2 are independently selected from F, CF 3, and a perfluoroalkyl group; R 1 and R 2 are end-groups; p is 0 or 1; m is at least 2; and M is a cation. a non-fluorinated melt-processible polymer; and a fluorine-containing polymer derived from the polymerization of a monomer and a sulfinate-containing molecule, wherein the sulfinate-containing molecule is selected from the group consisting of: (a) CX 1 X 3 =CX 2 - p -CZ 1 Z 2 -SO 2 M Formula (b) and (c) combinations thereof, (a) CX 1 X 3 =CX 2 - p -CZ 1 Z 2 -SO 2 M Formula (b) and (c) combinations thereof,
Method for preparing precipitated silica, of the type comprising reacting a silicate with an acidifying agent for obtaining a suspension of precipitated silica, and separating and drying this suspension, characterized in that the precipitation is carried out as follows: (i) silicate and acidifying agent are added simultaneously to a fast blender, preferably in continuous mode, the pH of the reaction medium (pH 1) being between 2 and 5.5, in particular between 2 and 5, the residence time through the fast blender being shorter than 1 second, in particular shorter than 0.5 second, for example not longer than 0.3 second, (ii) the reaction medium issuing from step (i) is introduced into at least one stirred reactor, in particular in semi-continuous mode, the pH of the reaction medium (pH 2) in the reactor being regulated between 2 and 5.5, in particular between 2 and 5, preferably with pH 2 ≥ pH 1, (iii) silicate is added to the reaction medium obtained at the end of step (ii), in the stirred reactor, until the pH value of the reaction mixture obtained is between 7 and 10, in particular between 7.5 and 9.5, (iv) silicate and acidifying agent are added simultaneously to the reaction medium obtained at the end of step (iii), in the stirred reactor, so that the pH of the reaction medium is maintained between 7 and 10, in particular between 7.5 and 9.5. (v) the silicate addition is interrupted while continuing to add acidifying agent to the reaction medium of the stirred reactor until the pH value of the reaction medium obtained in the stirred reactor is lower than 6, preferably between 3 and 5.5, for example between 3 and 5, and in that the entire precipitation is carried out between 70 and 95°C. (i) silicate and acidifying agent are added simultaneously to a fast blender, preferably in continuous mode, the pH of the reaction medium (pH 1) being between 2 and 5.5, in particular between 2 and 5, the residence time through the fast blender being shorter than 1 second, in particular shorter than 0.5 second, for example not longer than 0.3 second, (ii) the reaction medium issuing from step (i) is introduced into at least one stirred reactor, in particular in semi-continuous mode, the pH of the reaction medium (pH 2) in the reactor being regulated between 2 and 5.5, in particular between 2 and 5, preferably with pH 2 ≥ pH 1, (iii) silicate is added to the reaction medium obtained at the end of step (ii), in the stirred reactor, until the pH value of the reaction mixture obtained is between 7 and 10, in particular between 7.5 and 9.5, (iv) silicate and acidifying agent are added simultaneously to the reaction medium obtained at the end of step (iii), in the stirred reactor, so that the pH of the reaction medium is maintained between 7 and 10, in particular between 7.5 and 9.5. (v) the silicate addition is interrupted while continuing to add acidifying agent to the reaction medium of the stirred reactor until the pH value of the reaction medium obtained in the stirred reactor is lower than 6, preferably between 3 and 5.5, for example between 3 and 5, and in that the entire precipitation is carried out between 70 and 95°C.
DMC catalyst comprising a) one or more double metal cyanide compounds and b) one or more polyether siloxanes, wherein the polyether siloxane of component b) is a polyether siloxane of the formula M d M' d1 D e D' e1 D'' e2 T f Q g (formula IV) where M = (R 1 3 Si O 1/2) M' = (R 2 R 1 2 Si O 1/2) D = (R 1 2 Si O 2/2) D' = (R 2 R 1 Si O 2/2) D" = (R 4 R 1 Si O 2/2) T = (R 3 Si O 3/2) Q = (Si O 4/2) d = 0 to 20; d1 = 0 to 20; e = 0 to 300; e1 = 0 to 25; e2 = 0 to 10; f = 0 to 10; g = 0 to 10; with the proviso that the sum total of d1 and e1 is greater than 0, preferably greater than or equal to 1; and R 1 is independently hydrogen or identical or different linear or branched hydrocarbyl radicals having 1 to 30 carbon atoms or aromatic hydrocarbyl radicals having 6 to 30 carbon atoms; R 2 is independently identical or different polyethers, where the polyethers may have side chains which may optionally also be substituted by further heteroatoms, R 3 is independently identical or different R 1 or R 2 radicals, R 4 is independently identical or different organic radicals having 4 to 30 carbon atoms, with the proviso that R 4 is different from R 2, and wherein the DMC catalyst is obtainable by reacting water-soluble metal salts with water-soluble metal cyanide salts to give double metal cyanide compounds of component a), wherein the reaction is effected in the presence of at least one polyether siloxane of component b). a) one or more double metal cyanide compounds and b) one or more polyether siloxanes, M = (R 1 3 Si O 1/2) M' = (R 2 R 1 2 Si O 1/2) D = (R 1 2 Si O 2/2) D' = (R 2 R 1 Si O 2/2) D" = (R 4 R 1 Si O 2/2) T = (R 3 Si O 3/2) Q = (Si O 4/2) d = 0 to 20; d1 = 0 to 20; e = 0 to 300; e1 = 0 to 25; e2 = 0 to 10; f = 0 to 10; g = 0 to 10; R 1 is independently hydrogen or identical or different linear or branched hydrocarbyl radicals having 1 to 30 carbon atoms or aromatic hydrocarbyl radicals having 6 to 30 carbon atoms; R 2 is independently identical or different polyethers, where the polyethers may have side chains which may optionally also be substituted by further heteroatoms, R 3 is independently identical or different R 1 or R 2 radicals, R 4 is independently identical or different organic radicals having 4 to 30 carbon atoms, with the proviso that R 4 is different from R 2,
Bioreactor apparatus characterized by being mainly composed of a central part, which comprises several culture/perfusion chambers radially disposed, machined into one single cylindrical block of polycarbonate between two distributor/collector chambers, for construct enclosure and two lids that are attached to the central part through the use of a screw mechanism enabled by the presence of screw threads in both lids and in the central part; said lids delineate two distributor/collector chambers for culture/perfusion medium that will be equally distributed by the culture/perfusion chambers, said medium entering through a single inlet in the center of the distributor chamber lid and exiting through a single outlet in the center of the collector chamber lid allowing for an inter-sample homogenous culture; the central ports connect the perfusion medium chambers to a screw threaded tube that allows the connection of outer tubes for medium circulation; the design of the lids also allows for the bioreactor apparatus to fit on a specially designed cradle.
Diagnostic method for the detection of the manipulation of muscle growth in a domestic animal, comprising the steps of: a) providing a tissue or body fluid sample obtained from a domestic animal, b) quantifying the amount of anti-myostatin antibodies in the sample of step a), c) comparing the amount of the anti-myostatin antibodies measured in step b) to the amount of anti-myostatin antibodies present in at least one non-manipulated reference animal, wherein an increased amount of the anti-myostatin antibodies present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal, wherein the method further comprises the steps of: d) quantifying the amount of at least one additional myostatin pathway biomarker in the said sample, the said additional myostatin pathway biomarker being selected from the group consisting of myostatin propeptide, leptin, activin receptor IIB, members of the SMAD family of proteins, Alk type 1 co-receptor, Pax 3, MYOD1, MYOG, CDKN1A, CDK2 Myf-5, p-AKT, FOXO, MuRF1, FBXO32 and combinations of two or more thereof, e) comparing the amount of the at least one additional myostatin pathway biomarker measured in step d) to the amount of the said at least one additional myostatin pathway biomarker present in at least one non-manipulated reference animal, wherein an altered amount of the said additional myostatin pathway biomarker present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal. a) providing a tissue or body fluid sample obtained from a domestic animal, b) quantifying the amount of anti-myostatin antibodies in the sample of step a), c) comparing the amount of the anti-myostatin antibodies measured in step b) to the amount of anti-myostatin antibodies present in at least one non-manipulated reference animal, wherein an increased amount of the anti-myostatin antibodies present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal, wherein the method further comprises the steps of: d) quantifying the amount of at least one additional myostatin pathway biomarker in the said sample, the said additional myostatin pathway biomarker being selected from the group consisting of myostatin propeptide, leptin, activin receptor IIB, members of the SMAD family of proteins, Alk type 1 co-receptor, Pax 3, MYOD1, MYOG, CDKN1A, CDK2 Myf-5, p-AKT, FOXO, MuRF1, FBXO32 and combinations of two or more thereof, e) comparing the amount of the at least one additional myostatin pathway biomarker measured in step d) to the amount of the said at least one additional myostatin pathway biomarker present in at least one non-manipulated reference animal, wherein an altered amount of the said additional myostatin pathway biomarker present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal.
A method comprising: receiving, in a server, a long polling HTTP request from a client; receiving, in the server, a file offer from the client via HTTP, wherein the file offer indicates one or more files that are available for transfer from the client, issuing, from the server, a file request in response to the long polling HTTP request, wherein the file request requests at least one of the one or more files that are available for transfer; and receiving, in the server, the at least one of the one or more files from the client via FTP. receiving, in a server, a long polling HTTP request from a client; receiving, in the server, a file offer from the client via HTTP, wherein the file offer indicates one or more files that are available for transfer from the client, issuing, from the server, a file request in response to the long polling HTTP request, wherein the file request requests at least one of the one or more files that are available for transfer; and receiving, in the server, the at least one of the one or more files from the client via FTP.
A system, comprising: hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations, comprising: intercepting a sequence of instructions of an executing application; providing the sequence of instructions to a machine learning model; receiving, from the machine learning model based on the provided sequence of instructions, an indication of a modification to the executing application; and performing the indicated modification, wherein the machine learning model is configured to apply a reinforcement learning algorithm, the machine learning model trained to generate a modification that results in successful execution of the executing application. hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations, comprising: intercepting a sequence of instructions of an executing application; providing the sequence of instructions to a machine learning model; receiving, from the machine learning model based on the provided sequence of instructions, an indication of a modification to the executing application; and performing the indicated modification, wherein the machine learning model is configured to apply a reinforcement learning algorithm, the machine learning model trained to generate a modification that results in successful execution of the executing application. intercepting a sequence of instructions of an executing application; providing the sequence of instructions to a machine learning model; receiving, from the machine learning model based on the provided sequence of instructions, an indication of a modification to the executing application; and performing the indicated modification, wherein the machine learning model is configured to apply a reinforcement learning algorithm, the machine learning model trained to generate a modification that results in successful execution of the executing application.
A counter-rotating fan, comprising: two impellers (30, 40) axially spaced apart from each other and divided into a first stage impeller and a second stage impeller, wherein when the counter-rotating fan operates, airflow is blown in a direction from the first stage impeller toward the second stage impeller, at least one impeller of the two impellers (30, 40) is provided with multiple annular arrays of blades arranged in a radial direction of the impeller, a plurality of blades in each array are disposed around a hub of the impeller and spaced apart from each other, and a spacer ring is arranged between two adjacent arrays of blades to connect the two adjacent arrays with each other; and at least one motor configured for driving the two impellers (30, 40) into rotation; characterised in that a thickness of the spacer ring is less than or equal to a maximum thickness of each of the plurality of blades. two impellers (30, 40) axially spaced apart from each other and divided into a first stage impeller and a second stage impeller, wherein when the counter-rotating fan operates, airflow is blown in a direction from the first stage impeller toward the second stage impeller, at least one impeller of the two impellers (30, 40) is provided with multiple annular arrays of blades arranged in a radial direction of the impeller, a plurality of blades in each array are disposed around a hub of the impeller and spaced apart from each other, and a spacer ring is arranged between two adjacent arrays of blades to connect the two adjacent arrays with each other; and at least one motor configured for driving the two impellers (30, 40) into rotation; characterised in that a thickness of the spacer ring is less than or equal to a maximum thickness of each of the plurality of blades.
A process for preparing a chocolate drink containing at least 2% of cocoa, with a coffee machine operating by percolation under pressure comprising the following stages: (i) inserting, into a coffee machine operating by percolation under pressure of a dose of coffee, a capsule containing a concentrate of an instant chocolate drink comprising cocoa powder and a cocoa taste enhancer which is produced by a process of solid/liquid extraction from roasted cocoa beans, as raw material, this extraction step being followed by a filtration step with separation of solid and liquid phases, a concentration and a drying of the resulting concentrated syrup, (ii) injecting water to solubilize the concentrate, and (iii) recovering the chocolate drink. (i) inserting, into a coffee machine operating by percolation under pressure of a dose of coffee, a capsule containing a concentrate of an instant chocolate drink comprising cocoa powder and a cocoa taste enhancer which is produced by a process of solid/liquid extraction from roasted cocoa beans, as raw material, this extraction step being followed by a filtration step with separation of solid and liquid phases, a concentration and a drying of the resulting concentrated syrup, (ii) injecting water to solubilize the concentrate, and (iii) recovering the chocolate drink.