mhurhangee/patent-ind-claim-en huggingface dataset:
A system (20 for depositing a substantially uniform coating, the system comprising: a first detector and a second detector , wherein the first detector is configured to detect at least one condition parameter; and the second detector is configured to detect at least one substrate parameter, wherein said at least one substrate parameter comprises an angle of deposition of a coating material relative to a substrate surface ; a controller ; at least one memory , said memory containing a collection of at least one of: at least one condition parameter, or at least one substrate parameter, said memory being in communication with said controller; and a coating material applicator being in communication with the controller and being configured to be operated automatically; and wherein said system is configured to detect that the angle of deposition of the coating material relative to the substrate surface has changed and is not within a predetermined range of values, wherein said system is configured to alter the deposition rate of the coating material being released from the coating material applicator in response to the angle of deposition of the coating material relative to the substrate surface not being within the predetermined range of values wherein said system is configured to terminate the release of coating material from the coating material applicator , if the change of the angle of deposition cannot be corrected through alteration of a coating material release rate. a first detector and a second detector , wherein the first detector is configured to detect at least one condition parameter; and the second detector is configured to detect at least one substrate parameter, wherein said at least one substrate parameter comprises an angle of deposition of a coating material relative to a substrate surface ; a controller ; at least one memory , said memory containing a collection of at least one of: at least one condition parameter, or at least one substrate parameter, said memory being in communication with said controller; and a coating material applicator being in communication with the controller and being configured to be operated automatically; and wherein said system is configured to detect that the angle of deposition of the coating material relative to the substrate surface has changed and is not within a predetermined range of values, wherein said system is configured to alter the deposition rate of the coating material being released from the coating material applicator in response to the angle of deposition of the coating material relative to the substrate surface not being within the predetermined range of values wherein said system is configured to terminate the release of coating material from the coating material applicator , if the change of the angle of deposition cannot be corrected through alteration of a coating material release rate.
A method for producing a genetic modification into a target site of a plant genome without introducing an exogenous selectable marker into said plant genome, the method comprising providing a first guide polynucleotide, a polynucleotide modification template, a second guide polynucleotide, and a Cas endonuclease to a plant cell comprising a first endogenous gene selected from the group consisting of an acetolactate synthase (ALS) gene, a glutamine synthase gene and an enolpyruvylshikimate-3-phosphate synthase (EPSPS) gene, wherein said first guide polynucleotide and Cas endonuclease are capable of forming a first complex that enables the Cas endonuclease to introduce a double strand break at a first target site, located in or near said first endogenous gene in the genome of said plant cell, wherein said second guide polynucleotide and Cas endonuclease are capable of forming a second complex that enables the Cas endonuclease to introduce a double strand break at a second target site in the genome of said plant cell, wherein said polynucleotide modification template comprises at least one nucleotide alteration when compared to the first endogenous gene and said first endogenous gene is modified to confer herbicide resistance to a plant cell, wherein the first target site and the second target site are located at two different genomic loci.
A method for determining wake losses of a wind farm , the wind farm having a plurality of wind turbines , the method comprising: operating the wind farm in a first operational mode ; collecting turbine-level data from at least one upstream wind turbines in the wind farm during the first operational mode; estimating a freestream farm-level power output for the wind farm during first operational mode based, at least in part, on the collected turbine-level data; measuring an actual farm-level power output for the wind farm for the first operational mode; and, determining the wake losses of the wind farm for the first operational mode as a function of the measured actual farm-level power output and the estimated freestream farm-level power output; operating the wind farm in a second operational mode, the second operational mode being characterized by at least one of one or more of the wind turbines being provided with an upgrade including at least one of: a revised pitch, yaw angle, or tip speed ratio, a software upgrade, and a control upgrade, collecting turbine-level data from two or more upstream wind turbines in the wind farm during the second operational mode, estimating a freestream farm-level power output for the wind farm during the first operational mode based, at least in part, on the collected turbine-level data, measuring an actual farm-level power output for the second operational mode, and determining the wake losses of the wind farm for the second operational mode as a function of the measured actual farm-level power output and the estimated freestream farm-level power output. operating the wind farm in a first operational mode ; collecting turbine-level data from at least one upstream wind turbines in the wind farm during the first operational mode; estimating a freestream farm-level power output for the wind farm during first operational mode based, at least in part, on the collected turbine-level data; measuring an actual farm-level power output for the wind farm for the first operational mode; and, determining the wake losses of the wind farm for the first operational mode as a function of the measured actual farm-level power output and the estimated freestream farm-level power output; operating the wind farm in a second operational mode, the second operational mode being characterized by at least one of one or more of the wind turbines being provided with an upgrade including at least one of: a revised pitch, yaw angle, or tip speed ratio, a software upgrade, and a control upgrade, collecting turbine-level data from two or more upstream wind turbines in the wind farm during the second operational mode, estimating a freestream farm-level power output for the wind farm during the first operational mode based, at least in part, on the collected turbine-level data, measuring an actual farm-level power output for the second operational mode, and determining the wake losses of the wind farm for the second operational mode as a function of the measured actual farm-level power output and the estimated freestream farm-level power output.
A composition comprising a therapeutically effective amount of a C50 carotenoid compound for use in a method for the treatment of nausea and/or vomiting in a subject or the reduction of food aversion in a subject, wherein the subject is a cancer patient receiving treatment with chemotherapy or radiation or a surgical patient and wherein the nausea and/or vomiting or food aversion are induced by the cancer treatment or surgery.
A portable apparatus for transport and incubation of a medical sample in a blood culture flask , the apparatus comprising: a blood culture flask for holding the medical sample; a sealable container having a thermally insulated compartment for receiving the blood culture flask ; a heater (4;11) for heating the medical sample to a temperature suitable for pre-culturing of the sample; and an agitator for mechanically agitating the blood culture flask .
A guide apparatus for parts which can be moved along a guide apparatus , especially for a sliding door fitting, comprising a first bar-shaped adapter and at least one additional second bar-shaped adapter which can be mounted in extension of the first bar-shaped adapter , whereby at least one continuous guide element is fixed to the first adapter and the second adapter , characterized in that the guide element is made of a flexible material and that the flexible guide element is formed as a lamella or bar profile.
Method for time-stamping a document (A,B) the state of which changes over time, which document (A,B) is in the form of a moving image comprising several image frames captured by a camera , characterised in that the method comprises the following steps: a) capturing a first of said image frames at a certain point in time; b) creating a digital signature, where the signature is created so that it is constituted by, comprises or is calculated based upon an output value of a signature one-way function, where an input value to the signature one-way function (#) is at least a part of said image frame; c) embedding or incorporating the said signature, or a value calculated based upon the signature, into a different image frame of the same document (A,B), captured at a point in time which is later than the certain point in time, in such a way so that the embedded or incorporated signature or value is directly or indirectly readable from said different frame at the said later point in time; and d) repeating from a) at the said later point in time, wherein the signature embedded or incorporated in step c) affects the signature calculated in a later performed step b); and in that , for at least one of the created signatures, the signature in question, or a value which has been calculated based upon the signature in question, is publically published over at least one publication channel, which channel provides the possibility for third parties to, at a later point in time, verify a publication time of said signature or value based on a publication time provided by the publication channel in question. a) capturing a first of said image frames at a certain point in time; b) creating a digital signature, where the signature is created so that it is constituted by, comprises or is calculated based upon an output value of a signature one-way function, where an input value to the signature one-way function (#) is at least a part of said image frame; c) embedding or incorporating the said signature, or a value calculated based upon the signature, into a different image frame of the same document (A,B), captured at a point in time which is later than the certain point in time, in such a way so that the embedded or incorporated signature or value is directly or indirectly readable from said different frame at the said later point in time; and d) repeating from a) at the said later point in time, wherein the signature embedded or incorporated in step c) affects the signature calculated in a later performed step b);
Method for handling wind turbine blades aboard a wind turbine installation vessel , said method comprising: - providing on said vessel a blade rack arrangement configured to accommodate more than one blade , said rack arrangement comprising at least a root rack and a tip rack , each said root and tip rack being comprised of root or tip frame elements , respectively, each frame element being configured to support a respective root or tip portion of a single blade - each said root and tip rack comprising multiple stacked frame elements in a column, - wherein said root rack and said tip rack between them define a blade support plane , and - loading wind turbine blades onto said vessel ; - providing a jack assembly acting between said vessel and one of said root or tip rack ; and - raising or lowering one of said root or tip rack aboard said vessel by means of said jack assembly to thereby move said blade support plane through an elevation angle ( θ ), thereby changing the elevation angle ( θ ) of the blade support plane such that the blade tips are raised. - providing on said vessel a blade rack arrangement configured to accommodate more than one blade , said rack arrangement comprising at least a root rack and a tip rack , each said root and tip rack being comprised of root or tip frame elements , respectively, each frame element being configured to support a respective root or tip portion of a single blade - each said root and tip rack comprising multiple stacked frame elements in a column, - wherein said root rack and said tip rack between them define a blade support plane , and - loading wind turbine blades onto said vessel ; - providing a jack assembly acting between said vessel and one of said root or tip rack ; and - raising or lowering one of said root or tip rack aboard said vessel by means of said jack assembly to thereby move said blade support plane through an elevation angle ( θ ), thereby changing the elevation angle ( θ ) of the blade support plane such that the blade tips are raised.
A tubular slip device for supporting a tubular member, comprising: a plurality of slip segments (102, 102-1, 102-2, 102-3, 1002) connected to form a slip opening adapted for the tubular member, each slip segment comprising a slip body (104, 104-1, 1004), the slip body comprising: a top end and a bottom end ; an outer face having an arcuate shape; and an inner face having an arcuate shape at least partially surrounding the slip opening; and the device further comprises a plurality of inserts (112, 1012-1, 1012-2, 1012-3) attached to and constructed to fit into the inner face of the slip body in an attached position, and each insert comprises a front side adapted to grip the tubular member characterised in that : the slip body is made of a non-metallic material or a composite material. a top end and a bottom end ; an outer face having an arcuate shape; and an inner face having an arcuate shape at least partially surrounding the slip opening;
A peptide compound having anti-cell proliferative activity comprising (d-Bpa)(d-Ser)(d-Trp)(d-Ser)(d-Phe-2,3,4,5,6-F)(d-Cha) (SEQ ID NO:1), wherein the peptide compound further comprises a cell penetrating peptide attached or conjugated thereto, or a pharmaceutically acceptable salt of the peptide compound, for use in the prophylaxis or treatment of a cell proliferative disorder in a mammal, wherein the mammal has a white blood cell count of less than 11,000 white blood cells per microliter (wbc/μl) of blood.
A method for receiving data transmitted over a plurality of multiple input multiple output, MIMO, channels using open loop precoder cycling, comprising: filtering received symbol vectors with a filter which is computed based on a precoder selected from an open loop precoder cycling codebook; and decoding the filtered received symbol vectors into a plurality of transmitted bit streams; wherein the open loop precoder cycling codebook corresponds to a subset of a set of codebook indices from a closed loop precoding codebook, wherein each codebook index is associated with one precoder for each transmission rank, and wherein transmission rank corresponds to the number of data streams being transmitted in parallel over each MIMO channel, and wherein the precoders within each open loop precoder cycling codebook set are separated with respect to a plurality of distance measures and wherein the subset of cycling precoders comprises the minimum number of precoders, of transmission rank one, required to excite all dimensions of the transmit antennas. filtering received symbol vectors with a filter which is computed based on a precoder selected from an open loop precoder cycling codebook; and decoding the filtered received symbol vectors into a plurality of transmitted bit streams; wherein the open loop precoder cycling codebook corresponds to a subset of a set of codebook indices from a closed loop precoding codebook, wherein each codebook index is associated with one precoder for each transmission rank, and wherein transmission rank corresponds to the number of data streams being transmitted in parallel over each MIMO channel, and wherein the precoders within each open loop precoder cycling codebook set are separated with respect to a plurality of distance measures and wherein the subset of cycling precoders comprises the minimum number of precoders, of transmission rank one, required to excite all dimensions of the transmit antennas.
An air cycle machine , comprising: an input conduit for receiving compressed air; a primary heat exchanger connected to the input conduit; a compressor in fluid communication with the input conduit through the primary heat exchanger to receive the compressed air and in fluid communication with an output conduit ; a first turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; a second turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; and a valve coupling the compressor with the output conduit, wherein the valve has an open position and a closed position, the first turbine and the second turbine fluidly connected in parallel between the compressor and the output conduit in the open position, the first turbine fluidly connected in series with the second turbine between the compressor and the output conduit in the closed position; wherein the valve is a first valve and further comprising a second valve , the first valve connecting the first turbine to the output conduit, the second valve connecting the compressor to the second turbine, the system further comprising: a check valve coupling the first turbine to the second turbine an input conduit for receiving compressed air; a primary heat exchanger connected to the input conduit; a compressor in fluid communication with the input conduit through the primary heat exchanger to receive the compressed air and in fluid communication with an output conduit ; a first turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; a second turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; and a valve coupling the compressor with the output conduit, wherein the valve has an open position and a closed position, the first turbine and the second turbine fluidly connected in parallel between the compressor and the output conduit in the open position, the first turbine fluidly connected in series with the second turbine between the compressor and the output conduit in the closed position; wherein the valve is a first valve and further comprising a second valve , the first valve connecting the first turbine to the output conduit, the second valve connecting the compressor to the second turbine, the system further comprising: a check valve coupling the first turbine to the second turbine
An alkylation reaction apparatus, which is characterized by comprising n reactor(s), in said n reactor(s), there is/are m reactor(s) including the first reactor that are those having three reaction zones as defined below; according to the flow direction order of alkylation reaction streams, said three reaction zones are an x reaction zone, a y reaction zone and a z reaction zone respectively; wherein the reactor provided with three reaction zones has the inner diameters Rx reaction zone for the x reaction zone, Ry reaction zone for the y reaction zone and Rz reaction zone for the z reaction zone respectively, wherein Rz reaction zone > Rx reaction zone > Ry reaction zone, and internal flow disturbance component(s) is/are provided in the x reaction zone, the y reaction zone, and/or the z reaction zone, so that based on the mixing intensity, the mixing intensity of the y reaction zone>the mixing intensity of the x reaction zone>the mixing intensity of the z reaction zone, wherein n≥1 and n≥m.
A method for determining variations of a solenoid fluid control valve response within a temperature range, the method comprising: performing a current sweep that comprises running a current through a coil of the solenoid fluid control valve and measuring a control pressure as a function of the current, wherein the current sweep is performed at a first temperature; choosing a first and second characterization control pressure for characterizing the solenoid fluid control valve; determining a first current corresponding to the first characterization control pressure based on the current sweep ; characterized in that the method further comprises the steps of: assigning a first metric to the solenoid fluid control valve based on the first current ; determining a second current corresponding to the second characterization control pressure based on the current sweep ; assigning a second metric to the solenoid fluid control valve based on the second current ; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first and second metrics . performing a current sweep that comprises running a current through a coil of the solenoid fluid control valve and measuring a control pressure as a function of the current, wherein the current sweep is performed at a first temperature; choosing a first and second characterization control pressure for characterizing the solenoid fluid control valve; determining a first current corresponding to the first characterization control pressure based on the current sweep ; characterized in that the method further comprises the steps of: assigning a first metric to the solenoid fluid control valve based on the first current ; determining a second current corresponding to the second characterization control pressure based on the current sweep ; assigning a second metric to the solenoid fluid control valve based on the second current ; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first and second metrics . assigning a first metric to the solenoid fluid control valve based on the first current ; determining a second current corresponding to the second characterization control pressure based on the current sweep ; assigning a second metric to the solenoid fluid control valve based on the second current ; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first and second metrics .
Method of testing the alignment, balancing and symmetry of a patient's face , the said Method consisting in the positioning, in front of the patient, a device containing a light source projecting a vertical line of light onto the patient's face, materializing the intersection of the face with a sagittal plane, and a horizontal line of light materializing the intersection of the face with a transversal plane, said source of light being mounted on supporting means with a capability of translation in directions parallel to the projected lines of light , and a capability of pivoting about an axis parallel to the projected horizontal line of light to display, on the patient's face, the median sagittal plan while adjusting the position of the vertical line of light by a horizontal translation of the light source and even the bi-pupillary line by adjusting the position of the horizontal line of light by a vertical translation of the light source, or by the occlusion plane while adjusting the position of the horizontal line of light by the vertical translation of the light source and, if necessary, by pivoting the said source of light about the axis.