mhurhangee/ep-ind-claims huggingface dataset:
A process for producing succinic acid crystals from a fermentation medium containing succinic acid, comprising the steps of: a) bringing the fermentation medium to a pH of between 1.0 and 4.0, b) crystallizing the succinic acid from the fermentation medium resulting from step a) so as to form succinic acid crystals, then separating the succinic acid crystals from the crystallization mother liquors and then washing the obtained crystals with water, c) dissolving the succinic acid crystals obtained following step b) in water at a temperature between 30 °C and 70 °C so as to obtain a solution containing dissolved succinic acid, d) purifying the succinic acid solution obtained in step c) using a treatment on activated carbon and on ion exchange resin, e) crystallizing the succinic acid contained in the solution obtained in step d) so as to form succinic acid crystals, subsequently separating the succinic acid crystals from the crystallization mother liquors and then washing the obtained crystals with water, f) drying the succinic acid crystals to a moisture content of less than 0.5% and cooling them to a temperature below 30 °C, characterized in that at least one surfactant is introduced before and/or during step b), preferentially during step b). a) bringing the fermentation medium to a pH of between 1.0 and 4.0, b) crystallizing the succinic acid from the fermentation medium resulting from step a) so as to form succinic acid crystals, then separating the succinic acid crystals from the crystallization mother liquors and then washing the obtained crystals with water, c) dissolving the succinic acid crystals obtained following step b) in water at a temperature between 30 °C and 70 °C so as to obtain a solution containing dissolved succinic acid, d) purifying the succinic acid solution obtained in step c) using a treatment on activated carbon and on ion exchange resin, e) crystallizing the succinic acid contained in the solution obtained in step d) so as to form succinic acid crystals, subsequently separating the succinic acid crystals from the crystallization mother liquors and then washing the obtained crystals with water, f) drying the succinic acid crystals to a moisture content of less than 0.5% and cooling them to a temperature below 30 °C,
A process for manufacturing galling-resistant threaded tubular components, the manufacturing process steps comprising: providing a pin having an external threaded portion and a box having an internal threaded portion; applying a lubricant on the threaded portion (12, 22) of at least one of the pin and box (10, 20); making up a threaded connection by threadably engaging the pin threaded portion to the box threaded portion to a recommended make-up torque for the threaded connection according to the American Petroleum Institute Recommended Practice 7G - API RP 7G, in effect July 6, 2015, and breaking out the threaded connection, wherein the making up and breaking out step with lubricant applied on the threaded portion (12,22) of at least one of the pin and box (10, 20) is performed a plurality of times inducing plastic deformation; and case hardening the threaded portion (12, 22) of at least one of the pin and box (10, 20) after performing the step of making up and breaking out a plurality of times. providing a pin having an external threaded portion and a box having an internal threaded portion; applying a lubricant on the threaded portion (12, 22) of at least one of the pin and box (10, 20); making up a threaded connection by threadably engaging the pin threaded portion to the box threaded portion to a recommended make-up torque for the threaded connection according to the American Petroleum Institute Recommended Practice 7G - API RP 7G, in effect July 6, 2015, and breaking out the threaded connection, wherein the making up and breaking out step with lubricant applied on the threaded portion (12,22) of at least one of the pin and box (10, 20) is performed a plurality of times inducing plastic deformation; and case hardening the threaded portion (12, 22) of at least one of the pin and box (10, 20) after performing the step of making up and breaking out a plurality of times.
A housing for a computer system, the housing comprising: an upper portion configured to hold an input device of the computer system; a lower portion comprising a foot of the housing for the computer system; a pressure drop reducing mechanism configured to increase an airflow between the upper portion and the lower portion by moving the lower portion away from the upper portion, wherein the pressure drop reducing mechanism is coupled to a display housing for the computer system, wherein the pressure drop reducing mechanism is configured to increase the airflow when the display housing is folded away from the upper portion of the housing; and a blower, wherein the pressure drop reducing mechanism is further configured to tilt the blower within the housing when moving the lower portion away from the upper portion, wherein the blower is tilted relative to both the upper portion and the lower portion. an upper portion configured to hold an input device of the computer system; a lower portion comprising a foot of the housing for the computer system; a pressure drop reducing mechanism configured to increase an airflow between the upper portion and the lower portion by moving the lower portion away from the upper portion, wherein the pressure drop reducing mechanism is coupled to a display housing for the computer system, wherein the pressure drop reducing mechanism is configured to increase the airflow when the display housing is folded away from the upper portion of the housing; and a blower, wherein the pressure drop reducing mechanism is further configured to tilt the blower within the housing when moving the lower portion away from the upper portion, wherein the blower is tilted relative to both the upper portion and the lower portion.
A tubular isolation valve comprising: an outer tubular body adapted to attach to a work string, the outer tubular body having an axial through bore; and an inner sleeve, located within the bore of the outer tubular body; wherein the inner sleeve is selectively moveable within the bore relative to the outer tubular body between a closed position, in which there is no flowpath through the bore of the outer tubular body, and an open position, in which the tubular isolation valve provides a flowpath through the bore of the outer tubular body, wherein said inner sleeve is moveable at a predetermined pressure, and wherein the inner sleeve has a blind bore such that the inner sleeve is closed axially at one end and at least one radial outlet is located in the vicinity of the closed one end. an outer tubular body adapted to attach to a work string, the outer tubular body having an axial through bore; and an inner sleeve, located within the bore of the outer tubular body; wherein the inner sleeve is selectively moveable within the bore relative to the outer tubular body between a closed position, in which there is no flowpath through the bore of the outer tubular body, and an open position, in which the tubular isolation valve provides a flowpath through the bore of the outer tubular body, wherein said inner sleeve is moveable at a predetermined pressure, and wherein the inner sleeve has a blind bore such that the inner sleeve is closed axially at one end and at least one radial outlet is located in the vicinity of the closed one end.
A composition comprising a compound, a second antifungal drug, and a pharmaceutically acceptable diluent, excipient, or carrier; wherein the compound is: or a pharmaceutically acceptable salt or solvate thereof.
An exhaust gas purification catalyst having a composition comprising oxides of titanium (Ti), molybdenum (Mo) and/or tungsten, vanadium, and bismuth (Bi), wherein the atomic ratio of Ti: (Mo and/or W): V is 75 to 98.9: 1 to 15: 0.1 to 10, and the atomic ratio of Bi/(Mo and/or W) is 0.1 to 0.8, wherein the catalyst further comprises phosphorous oxide and the content of the phosphorus oxide as P 2 O 5 in the composition is more than 0 and up to 20% by weight.
A method for producing a camera for an advanced driver assistance system comprising: positioning a lens and an image sensor along multiple axes using a target located at a first distance from the lens to establish a first alignment between the lens and the image sensor, modifying a distance between the lens and the image sensor by a predetermined amount for an object located a second distance from the lens larger than the first distance, to obtain alignment of the lens and the image sensor at the second distance, and fixing the relative position of the lens and the image sensor after modifying the first relative positioning between the lens and the image sensor by the predetermined amount; wherein the method comprises detecting a center of radial distortion associated with the lens and positioning the lens and the image sensor so that the center of radial distortion coincides with a specified point associated with the image sensor. positioning a lens and an image sensor along multiple axes using a target located at a first distance from the lens to establish a first alignment between the lens and the image sensor, modifying a distance between the lens and the image sensor by a predetermined amount for an object located a second distance from the lens larger than the first distance, to obtain alignment of the lens and the image sensor at the second distance, and fixing the relative position of the lens and the image sensor after modifying the first relative positioning between the lens and the image sensor by the predetermined amount; wherein the method comprises detecting a center of radial distortion associated with the lens and positioning the lens and the image sensor so that the center of radial distortion coincides with a specified point associated with the image sensor.
Induction device for inductively heating a component, comprising a component placement unit for the component, an induction coil by means of which the component can be inductively heated at least in regions, an electrical supply line for the induction coil, and a positioning unit (4, 5) on which the induction coil is arranged such that it can be brought into different relative arrangements with respect to the component placement unit by the positioning unit (4, 5), wherein the electrical supply line is guided over a contact which is formed by bearing surfaces (23, 24) that abut one another and are slid relative to one another into a position in which they contact one another when the induction coil is shifted into the different relative arrangements by means of the positioning unit (4, 5).
A method for preparing a graft copolymer, the method comprising: polymerizing a conjugated diene-based monomer to prepare a small-size conjugated diene-based polymer; enlarging the small-size conjugated diene-based polymer to prepare a large-size conjugated diene-based polymer; and polymerizing the small-size conjugated diene-based polymer, the large-size conjugated diene-based polymer, an aromatic vinyl-based monomer and a vinyl cyan-based monomer to prepare a graft copolymer, wherein a weight ratio of the small-size conjugated diene-based polymer and the large-size conjugated diene-based polymer is 10:90 to 35:65 in preparing the graft copolymer. polymerizing a conjugated diene-based monomer to prepare a small-size conjugated diene-based polymer; enlarging the small-size conjugated diene-based polymer to prepare a large-size conjugated diene-based polymer; and polymerizing the small-size conjugated diene-based polymer, the large-size conjugated diene-based polymer, an aromatic vinyl-based monomer and a vinyl cyan-based monomer to prepare a graft copolymer, wherein a weight ratio of the small-size conjugated diene-based polymer and the large-size conjugated diene-based polymer is 10:90 to 35:65 in preparing the graft copolymer.
Composition including a physiologically acceptable medium containing at least one vinyl polymer having at least one carbosiloxane dendrimer-derived unit and one or more monoalcohol(s) containing 2 to 8 carbon atoms, in which the amount of monoalcohol(s) ranges from 10% to 40%, in particular 10% to 20%, more particularly 10% to 15%, and preferably 11% to 15%, by weight with respect to the total weight of said composition.
A respiratory system comprising a dual outlet blower, wherein one of a first and a second outlet of the blower (11, 12) provides a flow of gases to one of a pair of pneumatically separated nasal outlets (21, 22) of a nasal interface and the other one of the first and second outlets provides a flow of gases to the other one of the pair of nasal outlets of the nasal interface, or wherein one of the first and second outlets provides a flow of gases to a nasal outlet of an oro-nasal interface and the other one of the first and second outlets provides a flow of gases to an oral outlet of the oro-nasal interface, and wherein the blower comprises an impeller, and a housing comprising an impeller chamber in which the impeller rotates, and with rotation of the impeller in a first direction of rotation, a flow of gases from the first outlet is greater than a flow of gases from a second outlet, and with rotation of the impeller in the second direction of rotation, a flow of gases from the second outlet is greater than a flow of gases from the first outlet.
A print apparatus (100, 200) comprising: an intermediate transfer member to receive thermoplastic print agent (106, 504) from a photoconductive surface; a rotatably mounted endless cleaning surface (108, 208), to receive a layer of thermoplastic print agent (106, 504) from the intermediate transfer member; and a heater, to heat the endless cleaning surface (108, 208), characterised in that the endless cleaning surface (108, 208) is to engage with the intermediate transfer member when heated to a temperature between 70°C and 150°C, to transfer residue from the intermediate transfer member to the layer of thermoplastic print agent (106, 504) on the endless cleaning surface (108, 208). an intermediate transfer member to receive thermoplastic print agent (106, 504) from a photoconductive surface; a rotatably mounted endless cleaning surface (108, 208), to receive a layer of thermoplastic print agent (106, 504) from the intermediate transfer member; and a heater, to heat the endless cleaning surface (108, 208), characterised in that the endless cleaning surface (108, 208) is to engage with the intermediate transfer member when heated to a temperature between 70°C and 150°C, to transfer residue from the intermediate transfer member to the layer of thermoplastic print agent (106, 504) on the endless cleaning surface (108, 208).
7β-HSDH which catalyzes at least the stereospecific enzymatic reduction of a 7-ketosteroid to the corresponding 7-hydroxysteroid, wherein the enzyme has at least one mutation in the sequence motif VMVGRRE according to position 36 to 42 of SEQ ID NO:2 and at least 80% sequence identity to SEQ ID NO:2.
A method of wireless communication, comprising: determining, at an access terminal, a list comprising identifiers of nodes where the access terminal wishes to be paged by, wherein the identifiers comprise at least one cell identifier and at least one zone identifier and wherein the list is determined based on how frequently the access terminal is paged by the respective nodes; and providing the list in conjunction with registering the access terminal. determining, at an access terminal, a list comprising identifiers of nodes where the access terminal wishes to be paged by, wherein the identifiers comprise at least one cell identifier and at least one zone identifier and wherein the list is determined based on how frequently the access terminal is paged by the respective nodes; and providing the list in conjunction with registering the access terminal.
A humidity control device that dehumidifies one of outdoor air and indoor air, and humidifies the other in adsorption heat exchangers (31, 32) each carrying an adsorbent to adsorb moisture of air, and then supplies the outdoor air to an inside of a room, and exhausts the indoor air to an outside of the room, the device comprising: casings (11A, 11B); a refrigerant circuit having the adsorption heat exchangers (31, 32), a compressor that circulates a refrigerant, a switching mechanism that switches a circulation direction of the refrigerant, and refrigerant pipes that connect the adsorption heat exchangers (31, 32), the compressor, and the switching mechanism; fans (34, 35) that respectively take the outdoor air and the indoor air into one of the casings (11A, 11B); and an electric component unit including control parts of the humidity control device, characterized in that the casings (11A, 11B) include: a first casing in which the fans (34, 35), the switching mechanism, and the electric component unit are arranged; and a second casing in which the adsorption heat exchangers (31, 32) are arranged, and the first casing and the second casing are mutually connected through ducts (D5, D6). casings (11A, 11B); a refrigerant circuit having the adsorption heat exchangers (31, 32), a compressor that circulates a refrigerant, a switching mechanism that switches a circulation direction of the refrigerant, and refrigerant pipes that connect the adsorption heat exchangers (31, 32), the compressor, and the switching mechanism; fans (34, 35) that respectively take the outdoor air and the indoor air into one of the casings (11A, 11B); and an electric component unit including control parts of the humidity control device, characterized in that the casings (11A, 11B) include: a first casing in which the fans (34, 35), the switching mechanism, and the electric component unit are arranged; and a second casing in which the adsorption heat exchangers (31, 32) are arranged, and the first casing and the second casing are mutually connected through ducts (D5, D6). a first casing in which the fans (34, 35), the switching mechanism, and the electric component unit are arranged; and a second casing in which the adsorption heat exchangers (31, 32) are arranged, and the first casing and the second casing are mutually connected through ducts (D5, D6).
A bubble lift system for lifting a solid substance or liquid substance on a water bottom or under the water bottom through a riser pipe to a vicinity of a water surface, the bubble lift system including said riser pipe being configured to inject a gas into a lower side portion of the riser pipe to cause the gas in a bubble form to rise, and, by making use of an effect that the bubbles produce by reducing the pressure of a fluid column inside the rise pipe, to suck a to-be-lifted substance into the riser pipe at a lower end portion of the riser pipe and lift the to-be-lifted substance to a place above the water surface, wherein a pressurized chamber is adopted to apply a pressure to an upper portion inside the riser pipe to thereby suppress an increase in a volume ratio of the bubbles to a fluid mixture rising inside the riser pipe in a shallow water region, said pressurized chamber being provided at an upper end portion of the riser pipe, characterized by a deaerator provided at the portion of the riser pipe below the upper end of the riser pipe and below the pressurized chamber, and a pressure regulation mechanism adopted to set the pressure of the pressurized chamber within such a preset pressure range such that a flow velocity of the fluid mixture is kept within a predetermined range even when only surrounding water is sucked, and that even when only a to-be-lifted substance is sucked, a design upper limit of specific gravity is still higher than the specific gravity of the sucked substance such that an injection volume of the gas injected into the lower side portion of the riser pipe has no need to be controlled dynamically according to a sucking condition.
Optical display (5, 6) having a housing (10, 11) and at least one display element (30, 31), wherein internal conductors (20, 21) are connected in an electrically conducting manner to the display element (30, 31), wherein the housing (10, 11) at least partially forms the internal conductor (20, 21) and the display element (30, 31) has a liquid crystal display or an electrochrome display, wherein the housing (10, 11) further has an adapter (40, 60), wherein the adapter (40, 60) is provided to electrically connect at least one external conductor (55, 56) to at least one of the internal conductors (20, 21), wherein the adapter (40, 60) is at least partially integrated into the housing (10, 11), characterised in that the internal conductors (20, 21) are at least partially a conductive plastic.
A method for detecting fault direction of a transmission line of an AC power system, including: sampling current values and voltage values at one end of the transmission line for a series of time points; computing instantaneous voltage values at a compensated point (q) on the transmission line from the current value samples and the voltage value samples based on a time domain lumped parameter differential equation for the transmission line for the series of time points; recording the current value samples and the computed instantaneous voltage values at the compensated point; computing at least one voltage fault component each using the recorded computed instantaneous voltage values for at least two of the series of time points; computing at least one current fault component each using the recorded current value samples for the at least two of the series of time points; identifying the fault direction in consideration of the at least one computed voltage fault component and the at least one computed current fault component; and generating a fault direction signal indicating the identified fault direction. sampling current values and voltage values at one end of the transmission line for a series of time points; computing instantaneous voltage values at a compensated point (q) on the transmission line from the current value samples and the voltage value samples based on a time domain lumped parameter differential equation for the transmission line for the series of time points; recording the current value samples and the computed instantaneous voltage values at the compensated point; computing at least one voltage fault component each using the recorded computed instantaneous voltage values for at least two of the series of time points; computing at least one current fault component each using the recorded current value samples for the at least two of the series of time points; identifying the fault direction in consideration of the at least one computed voltage fault component and the at least one computed current fault component; and generating a fault direction signal indicating the identified fault direction.
A method to prepare a fruit ferment containing propionic acid and/or a salt thereof comprising: i) obtaining a liquid fruit preparation having a sugar level of from 1.5 to 10% (w/w) and an initial pH of from 4.5 to 7; ii) fermenting the liquid fruit preparation with a propionic acid-producing bacterial strain whilst maintaining the pH between 4.5 and 7 by the addition of a base selected from sodium hydroxide, potassium hydroxide, magnesium hydroxide, calcium hydroxide, ammonium hydroxide, calcium carbonate and ammonium carbonate; and, iii) optionally further processing the fermentation product, to obtain the fruit ferment, wherein fruit for use in said method does not include nuts and cereal grains and wherein the propionic acid-producing bacterial strain used in said fermenting is supplemented with one or more strains of lactic acid producing bacteria. i) obtaining a liquid fruit preparation having a sugar level of from 1.5 to 10% (w/w) and an initial pH of from 4.5 to 7; ii) fermenting the liquid fruit preparation with a propionic acid-producing bacterial strain whilst maintaining the pH between 4.5 and 7 by the addition of a base selected from sodium hydroxide, potassium hydroxide, magnesium hydroxide, calcium hydroxide, ammonium hydroxide, calcium carbonate and ammonium carbonate; and, iii) optionally further processing the fermentation product, to obtain the fruit ferment,