mhurhangee/patent-ind-claim-en huggingface dataset:
A partial knockout mutant allele of an IND gene, wherein the IND gene comprises a nucleic acid molecule selected from the group consisting of: (a) a nucleic acid molecule which comprises at least 90% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3 from the nucleotide at position 46 to the nucleotide at position 633, SEQ ID NO: 3, SEQ ID NO: 5, or SEQ ID NO: 7; (b) a nucleic acid molecule encoding an amino acid sequence comprising at least 90% sequence identity to SEQ ID NO: 2, SEQ ID NO: 4 from the amino acid at position 16 to the amino acid at position 210, or SEQ ID NO: 4, wherein said partial knockout mutant allele comprises one or more mis-sense mutations in the nucleic acid sequence of said IND gene which results in the production of an IND protein wherein at least one amino acid selected from the amino acid at a position corresponding to position 124 of SEQ ID NO: 2, the amino acid at a position corresponding to position 146 of SEQ ID NO: 2, the amino acid at a position corresponding to position 159 of SEQ ID NO: 2, the amino acid at a position corresponding to position 136 of SEQ ID NO: 4, the amino acid at a position corresponding to position 139 of SEQ ID NO: 4, or the amino acid at a position corresponding to position 142 of SEQ ID NO: 4, is substituted with another amino acid. (a) a nucleic acid molecule which comprises at least 90% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3 from the nucleotide at position 46 to the nucleotide at position 633, SEQ ID NO: 3, SEQ ID NO: 5, or SEQ ID NO: 7; (b) a nucleic acid molecule encoding an amino acid sequence comprising at least 90% sequence identity to SEQ ID NO: 2, SEQ ID NO: 4 from the amino acid at position 16 to the amino acid at position 210, or SEQ ID NO: 4,
A heat exchanger for a vehicular air conditioning system, comprising: a heat exchanger body , provided with an air-inlet side and an air-outlet side , wherein the air-inlet side is configured to enable an external air flow to enter the heat exchanger body , so that the air flow conducts heat exchange with a refrigerant in the heat exchanger body , and the air-outlet side is configured to exhaust the air flow completing heat exchange with the refrigerant; a water storage tank , arranged below the heat exchanger body and configured to store condensate water formed on the heat exchanger body ; characterised by a condensate water circulating device, configured to transport cold water in the water storage tank to the air-inlet side of the heat exchanger body for heat exchange with the heat exchanger body . a heat exchanger body , provided with an air-inlet side and an air-outlet side , wherein the air-inlet side is configured to enable an external air flow to enter the heat exchanger body , so that the air flow conducts heat exchange with a refrigerant in the heat exchanger body , and the air-outlet side is configured to exhaust the air flow completing heat exchange with the refrigerant; a water storage tank , arranged below the heat exchanger body and configured to store condensate water formed on the heat exchanger body ; characterised by a condensate water circulating device, configured to transport cold water in the water storage tank to the air-inlet side of the heat exchanger body for heat exchange with the heat exchanger body .
A method of preparing a gypsum wallboard using a process having a mixing temperature range, the method comprising: selecting a cold water-insoluble hydroxyethyl substituted starch having a degree of substitution of between 1.5 and 6 wt% and having a degree of polymerization or a hydroxypropyl substituted starch having a degree of substitution of between 2.1 and 6 wt% and having a degree of polymerization such that the substituted starch is insoluble in water in the mixing temperature range; mixing the substituted starch, an inorganic phase comprising stucco and water in a continuous process at a temperature within the mixing temperature range; forming a wet gypsum wallboard; hydrating at least a portion of the inorganic phase; raising the temperature above the mixing temperature range, wherein the substituted starch at least partially gelatinizes and dissolves in the water; and setting and drying the composite article such that the gelatinized substituted starch forms a continuous polymeric film within the composite article. selecting a cold water-insoluble hydroxyethyl substituted starch having a degree of substitution of between 1.5 and 6 wt% and having a degree of polymerization or a hydroxypropyl substituted starch having a degree of substitution of between 2.1 and 6 wt% and having a degree of polymerization such that the substituted starch is insoluble in water in the mixing temperature range; mixing the substituted starch, an inorganic phase comprising stucco and water in a continuous process at a temperature within the mixing temperature range; forming a wet gypsum wallboard; hydrating at least a portion of the inorganic phase; raising the temperature above the mixing temperature range, wherein the substituted starch at least partially gelatinizes and dissolves in the water; and setting and drying the composite article such that the gelatinized substituted starch forms a continuous polymeric film within the composite article.
Signal and/or detection device (S) in traffic environments, comprising: a) at least one signal light point and/or a detection unit; b) a visual element coupled to the signal light point and/or the detection unit, which has an outer surface directed toward the environment; c) detection means arranged on the inner surface of the visual element , which are sensitive to detecting particles accumulating on the outer surface ; d) a processing device , which is coupled to the detection means , and which monitors the signals received by the detection means for the violation of a predefined limit value for occupancy of the outer surface with particles , characterised in that the processing device receives location-related weather data and correlates this with the signals obtained by the detection means and that the processing device displaces a warning message which takes into account the violation of the limit value and the correlated weather data. a) at least one signal light point and/or a detection unit; b) a visual element coupled to the signal light point and/or the detection unit, which has an outer surface directed toward the environment; c) detection means arranged on the inner surface of the visual element , which are sensitive to detecting particles accumulating on the outer surface ; d) a processing device , which is coupled to the detection means , and which monitors the signals received by the detection means for the violation of a predefined limit value for occupancy of the outer surface with particles ,
System for measuring flow of air in building ventilation flow ducts, which system comprises at least one ventilation flow duct , which ventilation flow duct comprises at least two transducers , which transducers generate at least one beam of ultrasound in the ventilation flow duct , which transducers are connected to a transmitter circuit and to a receiver circuit , wherein the air flow is measured by said at least two transducers and calibrated using calibrations data representing the actual placement of the transducers in relation to the actual ventilation flow duct , the transducers are mounted and fixed in relation to the ventilation flow duct , which transmitter circuit is permanently connected to the transducers , characterized in that said system further comprises a handheld device , wherein receiver circuit is placed in the handheld device , which handheld device is communicating with the transmitter circuit , wherein the transmitter circuit communicates said measured data and said calibrations data by every connection to the receiver circuit placed in the handheld device .
A decorative high pressure laminate (HPL) panel, comprising an outermost décor layer and a core layer, wherein the outermost décor layer comprises a décor manufactured according to a method of fabricating a decor, comprising: i) providing a substrate; ii) apply a first liquid curable coating onto said substrate of i); iii) placing an element having a structured surface onto said liquid coating of ii); iv) curing the first liquid curable coating resin while contacting the element with the liquid curable coating such that an intermediate product is produced, wherein the cured coating of the produced intermediate product has a surface texture that is embossed with the structured surface of the element; v) removing the element having the structured surface; vi) apply a second liquid curable coating onto the surface texture of the intermediate product; vii) curing the product of vi) such that the surface texture obtained in iv) is embedded in the cured second coating. i) providing a substrate; ii) apply a first liquid curable coating onto said substrate of i); iii) placing an element having a structured surface onto said liquid coating of ii); iv) curing the first liquid curable coating resin while contacting the element with the liquid curable coating such that an intermediate product is produced, wherein the cured coating of the produced intermediate product has a surface texture that is embossed with the structured surface of the element; v) removing the element having the structured surface; vi) apply a second liquid curable coating onto the surface texture of the intermediate product; vii) curing the product of vi) such that the surface texture obtained in iv) is embedded in the cured second coating.
A one-component coating composition comprising: (i) at least one alkoxy or silanol functional polysiloxane; (ii) at least one silane; (iii) zinc particles; and (iv) an organic solvent. (i) at least one alkoxy or silanol functional polysiloxane; (ii) at least one silane; (iii) zinc particles; and (iv) an organic solvent.
A tangentially fired boiler , comprising: a combustion chamber ; and an overfire air system positioned about the combustion chamber ; the overfire air system comprising a plurality of overfire air windboxes ; the plurality of overfire air windboxes comprising a horizontal orientation , wherein the combustion chamber comprises a wall with a plurality of tubes therein , wherein the plurality of tubes comprises a spiral configuration , wherein the spiral configuration extends to a spiral to vertical transition line , wherein the plurality of tubes comprises a vertical configuration above the spiral to vertical transition line , wherein the overfire air system is positioned above the spiral to vertical transition line . a combustion chamber ; and an overfire air system positioned about the combustion chamber ; the overfire air system comprising a plurality of overfire air windboxes ; the plurality of overfire air windboxes comprising a horizontal orientation , wherein the combustion chamber comprises a wall with a plurality of tubes therein , wherein the plurality of tubes comprises a spiral configuration , wherein the spiral configuration extends to a spiral to vertical transition line , wherein the plurality of tubes comprises a vertical configuration above the spiral to vertical transition line , wherein the overfire air system is positioned above the spiral to vertical transition line .
A method of error correction of a two-dimensional, 2D, symbol , the method comprising: reading, by a hardware processor , a plurality of codewords in the 2D symbol ; identifying, by the hardware processor , any optically ambiguous codeword of the plurality of codewords in the 2D symbol , wherein the optically ambiguous codeword corresponds to a codeword with minimum interior contrast level below a predefined minimum interior contrast level; flagging, by the hardware processor , a specified number of codewords , as optically ambiguous, from the plurality of codewords based on the minimum interior contrast level associated with the plurality of codewords ; and correcting, by the hardware processor , errors in the specified number of optically ambiguous codewords based on a location of the optically ambiguous codewords and an erroneous decoded value associated with the optically ambiguous codewords. reading, by a hardware processor , a plurality of codewords in the 2D symbol ; identifying, by the hardware processor , any optically ambiguous codeword of the plurality of codewords in the 2D symbol , wherein the optically ambiguous codeword corresponds to a codeword with minimum interior contrast level below a predefined minimum interior contrast level; flagging, by the hardware processor , a specified number of codewords , as optically ambiguous, from the plurality of codewords based on the minimum interior contrast level associated with the plurality of codewords ; and correcting, by the hardware processor , errors in the specified number of optically ambiguous codewords based on a location of the optically ambiguous codewords and an erroneous decoded value associated with the optically ambiguous codewords.
A system for integrating energy storage into a modular power converter , the system comprising: at least one energy storage unit coupled to a first converter for converting a first direct current (DC) voltage of the at least one energy storage unit into a first high frequency alternating current (AC) voltage; at least three phase legs for the modular power converter for generating three phase AC voltages, each phase leg comprising: a plurality of switching modules connected in series, each switching module includes: a plurality of fully controllable semiconductor switches, an energy storage device , a second converter coupled to the respective energy storage device for converting a second DC voltage of the energy storage device into a second high frequency AC voltage, wherein three similarly positioned switching modules of the three phase legs form one power unit ; a high frequency transformer having at least one primary winding connected to the first converter and at least three secondary windings , each connected to the second converter of each of the three similarly positioned switching modules ; and a controller configured to regulate at least one electrical parameter of the modular power converter . at least one energy storage unit coupled to a first converter for converting a first direct current (DC) voltage of the at least one energy storage unit into a first high frequency alternating current (AC) voltage; at least three phase legs for the modular power converter for generating three phase AC voltages, each phase leg comprising: a plurality of switching modules connected in series, each switching module includes: a plurality of fully controllable semiconductor switches, an energy storage device , a second converter coupled to the respective energy storage device for converting a second DC voltage of the energy storage device into a second high frequency AC voltage, wherein three similarly positioned switching modules of the three phase legs form one power unit ; a plurality of fully controllable semiconductor switches, an energy storage device , a second converter coupled to the respective energy storage device for converting a second DC voltage of the energy storage device into a second high frequency AC voltage, a high frequency transformer having at least one primary winding connected to the first converter and at least three secondary windings , each connected to the second converter of each of the three similarly positioned switching modules ; and a controller configured to regulate at least one electrical parameter of the modular power converter .
A method of imaging a sample container and/or a specimen in a sample container , comprising: enclosing at least a portion of a sample container with a single-piece moveable hood , the single-piece moveable hood having a wall (321 or 329) with one or more openings (404A - 404C) extending between an interior of the single-piece moveable hood and an exterior of the single-piece moveable hood ; and generating image data of the sample container using one or more imaging devices (350A-350C) positioned external to the single-piece moveable hood , the one or more imaging devices (350A-350C) having a line of sight to the sample container through the one or more openings (404A - 404C), the method being characterized by enclosing at least a portion of the sample container with the single-piece moveable hood , wherein the single-piece moveable hood has a closed state wherein it is configured to at least partially enclose the sample container and an open state wherein it is configured not to at least partially enclose a sample container , and wherein enclosing at least a portion of the sample container with the single-piece moveable hood comprises moving the single-piece moveable hood along an arcuate path . enclosing at least a portion of a sample container with a single-piece moveable hood , the single-piece moveable hood having a wall (321 or 329) with one or more openings (404A - 404C) extending between an interior of the single-piece moveable hood and an exterior of the single-piece moveable hood ; and generating image data of the sample container using one or more imaging devices (350A-350C) positioned external to the single-piece moveable hood , the one or more imaging devices (350A-350C) having a line of sight to the sample container through the one or more openings (404A - 404C), the method being characterized by enclosing at least a portion of the sample container with the single-piece moveable hood , wherein the single-piece moveable hood has a closed state wherein it is configured to at least partially enclose the sample container and an open state wherein it is configured not to at least partially enclose a sample container , and wherein enclosing at least a portion of the sample container with the single-piece moveable hood comprises moving the single-piece moveable hood along an arcuate path .
A hemodialysis system, comprising: a blood flow path through which untreated blood is drawn from a patient, passed through a dialyzer , and returned to the patient; one or more dialysate flow paths through which dialysate flows from a dialysate supply through the dialyzer, the dialyzer permitting dialysate to pass from the one or more dialysate flow paths to the blood flow path; characterised by : a gas supply in fluidic communication with the one or more dialysate flow paths, and a valve interposed between the gas supply and the one or more dialysate flow paths, wherein the system is configured to allow the valve to open upon loss of electrical power to the system to introduce a gas supplied by the gas supply into the system to displace dialysate in the one or more dialysate flow paths through the dialyzer and into the blood flow path to_urge blood in the blood flow path back to the patient. a blood flow path through which untreated blood is drawn from a patient, passed through a dialyzer , and returned to the patient; one or more dialysate flow paths through which dialysate flows from a dialysate supply through the dialyzer, the dialyzer permitting dialysate to pass from the one or more dialysate flow paths to the blood flow path; a gas supply in fluidic communication with the one or more dialysate flow paths, and a valve interposed between the gas supply and the one or more dialysate flow paths, wherein the system is configured to allow the valve to open upon loss of electrical power to the system to introduce a gas supplied by the gas supply into the system to displace dialysate in the one or more dialysate flow paths through the dialyzer and into the blood flow path to_urge blood in the blood flow path back to the patient.
A method of de-bonding an adhesive from an aircraft ice protection assembly comprising: providing an aircraft ice protection assembly comprising an aircraft component having a surface , an adhesive on the surface of the aircraft component , and a de-icer attached to the aircraft component by the adhesive , wherein the adhesive comprises a pressure sensitive adhesive compound and a plurality of vertically aligned carbon nanotubes (Z-CNT) loaded into the pressure sensitive adhesive compound; electrically connecting the adhesive to a power source; running voltage through the adhesive so that the vertically aligned carbon nanotubes (Z-CNT) in the adhesive heat and soften the adhesive ; and removing the softened adhesive from the surface of the aircraft component to separate the de-icer from the aircraft component . providing an aircraft ice protection assembly comprising an aircraft component having a surface , an adhesive on the surface of the aircraft component , and a de-icer attached to the aircraft component by the adhesive , wherein the adhesive comprises a pressure sensitive adhesive compound and a plurality of vertically aligned carbon nanotubes (Z-CNT) loaded into the pressure sensitive adhesive compound; electrically connecting the adhesive to a power source; running voltage through the adhesive so that the vertically aligned carbon nanotubes (Z-CNT) in the adhesive heat and soften the adhesive ; and removing the softened adhesive from the surface of the aircraft component to separate the de-icer from the aircraft component .
A leaning vehicle comprising a driving assist control device for obstacles, which is mounted on a leaning vehicle body frame leaning rightward in a vehicle left-right direction when turning right and leaning leftward in the vehicle left-right direction when turning left, and is configured to control assisting braking force based on at least one of a front wheel brake operation amount of a front wheel brake operator or a rear wheel brake operation amount of a rear wheel brake operator and a margin obtained based on the relationship between an obstacle and the leaning vehicle , the driving assist control device for obstacles being characterised in that it is configured to control the assisting braking force so as to establish at least one of: a relationship 1 in which, in a state in which braking force including the assisting braking force is generated by both a front wheel brake and a rear wheel brake or by only the front wheel brake, based on at least the front wheel brake operation amount and the margin obtained based on the relationship between the obstacle and the leaning vehicle , at least the front wheel braking force generated by the front wheel brake is decreased in response to the decrease in the front wheel brake operation amount; or a relationship 2 in which, in a state in which braking force including the assisting braking force is generated by both the front wheel brake and the rear wheel brake or by only the rear wheel brake, based on at least the rear wheel brake operation amount and the margin obtained based on the relationship between the obstacle and the leaning vehicle , at least the rear wheel braking force generated by the rear wheel brake is decreased in response to the decrease in the rear wheel brake operation amount. the driving assist control device for obstacles being characterised in that it is configured to control the assisting braking force so as to establish at least one of: a relationship 1 in which, in a state in which braking force including the assisting braking force is generated by both a front wheel brake and a rear wheel brake or by only the front wheel brake, based on at least the front wheel brake operation amount and the margin obtained based on the relationship between the obstacle and the leaning vehicle , at least the front wheel braking force generated by the front wheel brake is decreased in response to the decrease in the front wheel brake operation amount; or a relationship 2 in which, in a state in which braking force including the assisting braking force is generated by both the front wheel brake and the rear wheel brake or by only the rear wheel brake, based on at least the rear wheel brake operation amount and the margin obtained based on the relationship between the obstacle and the leaning vehicle , at least the rear wheel braking force generated by the rear wheel brake is decreased in response to the decrease in the rear wheel brake operation amount.