mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting antigen-specific antibodies in a biological sample from an organism, wherein the antigen-specific antibodies specifically bind to a target antigen, the method comprising: (i) removing material from a biotinylated sample that is smaller than 100 KDa, wherein the biotinylated biological sample has been provided from an organism that is suspected of containing antibodies specific for the target antigen, wherein biotinylation labels antibodies that are present in the biological sample with biotin; (ii) contacting target antigen-bound microparticles with the biotinylated biological sample, wherein the target antigen bound-microparticles bind antigen-specific antibodies to form biotin-labeled microparticle complexes if the antigen-specific antibodies are present in the biological sample; (iii) contacting the biotin-labeled microparticle complexes with a biotin binding partner conjugated to a detectable label; and (iv) detecting the biotin-labeled microparticle complexes, wherein detection of the labeled microparticle complexes comprises detecting a signal from the detectable label if the antigen-specific antibodies are present in the biological sample; and (v) comparing the detected level of the labeled microparticle complexes to a reference control standard of microparticle complexes, wherein an increase in detection of the labeled microparticle complexes relative to the reference control standard indicates the biological sample contains antigen-specific antibodies. (i) removing material from a biotinylated sample that is smaller than 100 KDa, wherein the biotinylated biological sample has been provided from an organism that is suspected of containing antibodies specific for the target antigen, wherein biotinylation labels antibodies that are present in the biological sample with biotin; (ii) contacting target antigen-bound microparticles with the biotinylated biological sample, wherein the target antigen bound-microparticles bind antigen-specific antibodies to form biotin-labeled microparticle complexes if the antigen-specific antibodies are present in the biological sample; (iii) contacting the biotin-labeled microparticle complexes with a biotin binding partner conjugated to a detectable label; and (iv) detecting the biotin-labeled microparticle complexes, wherein detection of the labeled microparticle complexes comprises detecting a signal from the detectable label if the antigen-specific antibodies are present in the biological sample; and (v) comparing the detected level of the labeled microparticle complexes to a reference control standard of microparticle complexes, wherein an increase in detection of the labeled microparticle complexes relative to the reference control standard indicates the biological sample contains antigen-specific antibodies.
A method for operating an electronic delivery platform for distributing a plurality of software components to a user device, the method comprising: receiving the plurality of software components from one or more authorized software developers, each software component of the plurality of software components configured to execute only in a controlled execution environment; receiving a selection, from the user device, for a particular one software component of the plurality of software components; transmitting the particular one software component to the user device for execution in the controlled execution environment; receiving a request from the particular one software component for data from a specified data provider; in response to receiving the request for data from the specified data provider, determining that the particular one software component may access the data from the specified data provider if the specified data provider is operated by a party that operates the electronic delivery platform; and in response to determining that the particular one software component may access the data from the specified data provider, transmitting the data from the electronic deliver platform to the particular one software component executing on the user device, wherein the particular one software component uses the transmitted data. receiving the plurality of software components from one or more authorized software developers, each software component of the plurality of software components configured to execute only in a controlled execution environment; receiving a selection, from the user device, for a particular one software component of the plurality of software components; transmitting the particular one software component to the user device for execution in the controlled execution environment; receiving a request from the particular one software component for data from a specified data provider; in response to receiving the request for data from the specified data provider, determining that the particular one software component may access the data from the specified data provider if the specified data provider is operated by a party that operates the electronic delivery platform; and in response to determining that the particular one software component may access the data from the specified data provider, transmitting the data from the electronic deliver platform to the particular one software component executing on the user device, wherein the particular one software component uses the transmitted data.
Monoclonal antibody specific for alpha-toxin of S. aureus, wherein the variable region of the light chain of the antibody comprises SEQ ID NO:1 in the CDR1 region, SEQ ID NO:2 in the CDR2 region and SEQ ID NO:3 in the CDR3 region, and wherein the variable region of the heavy chain of the antibody comprises SEQ ID NO:4 in the CDR1 region, SEQ ID NO:5 in the CDR2 region and SEQ ID NO:6 in the CDR3 region, or a fragment or mutein thereof capable of binding alpha-toxin of S. aureus, wherein the fragment is a Fab or F(ab') 2 fragment or a mixture thereof; and wherein the mutein has not more than 5 conservative substitutions, wherein a conservative substitution is the replacement of an amino acid belonging to a particular physico-chemical group with an amino acid belonging to the same physico-chemical group, wherein the antibody, fragment or mutein thereof is capable of preventing abscess formation caused by an S,aureus infection.
A drive train bearing of a wind turbine with a rotor, a rotor shaft aligned substantially horizontally, a planetary gear and a mainframe, comprising a rotor-side rotor bearing opposite the planetary gear, a planetary carrier bearing for a rotor-side planetary carrier of the planetary gear, and at least one lateral torque support (160, 160') that is connected with the planetary gear at one side of the planetary gear, wherein the rotor bearing is designed as a fixed bearing for accommodating axial loads, characterized in that a radial bearing is provided for accommodating flexural loads of the rotor shaft that comprises a ring-shaped elastomer which is arranged in a plane of the planetary carrier bearing and is mounted in a fastening structure of the mainframe.
A method of dyeing a plastic lens, characterized by comprising the steps of: applying a sublimation dye to a dyeing substrate; holding the dyeing substrate on a holding member; holding a plastic lens on the holding member at a position above the dyeing substrate; evacuating a vacuum vessel which accommodates the holding member; transferring the dyeing substrate from the holding member to a heating device provided in the vacuum vessel and separating the dyeing substrate from the holding member, so that the dyeing substrate is held to be heatable by the heating device, by vertically moving at least one of the holding member and the heating device; bringing the plastic lens in close proximity to the dyeing substrate by vertically moving at least one of the holding member and the heating device which holds the dyeing substrate; and dyeing a target surface of the plastic lens with the sublimation dye by sublimating the sublimation dye by heating the dyeing substrate using the heating device. applying a sublimation dye to a dyeing substrate; holding the dyeing substrate on a holding member; holding a plastic lens on the holding member at a position above the dyeing substrate; evacuating a vacuum vessel which accommodates the holding member; transferring the dyeing substrate from the holding member to a heating device provided in the vacuum vessel and separating the dyeing substrate from the holding member, so that the dyeing substrate is held to be heatable by the heating device, by vertically moving at least one of the holding member and the heating device; bringing the plastic lens in close proximity to the dyeing substrate by vertically moving at least one of the holding member and the heating device which holds the dyeing substrate; and dyeing a target surface of the plastic lens with the sublimation dye by sublimating the sublimation dye by heating the dyeing substrate using the heating device.
A method of sequestering carbon dioxide in aqueous environments comprising: a) assessing an area of said aqueous environment to determine whether said area is capable of supporting addition of OHTL, wherein said assessing comprises determining whether said area is within physical, chemical and biological tolerance limits of said OHTL; b) adding OHTL to said area to produce particulate matter, wherein said production of particulate matter is sufficient to increase carbon dioxide sequestration above the current level of carbon dioxide sequestration in said area; and c) quantifying said increase in carbon dioxide sequestration in said area. a) assessing an area of said aqueous environment to determine whether said area is capable of supporting addition of OHTL, wherein said assessing comprises determining whether said area is within physical, chemical and biological tolerance limits of said OHTL; b) adding OHTL to said area to produce particulate matter, wherein said production of particulate matter is sufficient to increase carbon dioxide sequestration above the current level of carbon dioxide sequestration in said area; and c) quantifying said increase in carbon dioxide sequestration in said area.
A connector system for transferring power from a backplane to a module mounted on the backplane comprising: a first magnetic E-core having a center leg and first and second outer legs, the center leg and the outer legs being joined at a first end thereof and being mounted with a second end thereof extending into openings (22, 24) in the backplane, the backplane having a printed coil encircling at least one of the three legs; a second magnetic E-core having a center leg and first and second outer legs, the center leg and the outer legs being joined at one end thereof and being mounted with a second end thereof mounted adjacent an end of the module, the module having at least one wound coil encircling at least one of the three legs; the backplane and the module being configured so that the second end of each leg of the magnetic E-core on the backplane is aligned with the corresponding leg of the magnetic E-core in the module when the module is mounted to the backplane, wherein the second ends of the magnetic E-core in the backplane do not protrude from the module side of the backplane and the magnetic E-core in the module is spring mounted to provide a spring force between the magnetic E-core in the module and the magnetic E-core in the backplane when the module is mounted to the backplane. a first magnetic E-core having a center leg and first and second outer legs, the center leg and the outer legs being joined at a first end thereof and being mounted with a second end thereof extending into openings (22, 24) in the backplane, the backplane having a printed coil encircling at least one of the three legs; a second magnetic E-core having a center leg and first and second outer legs, the center leg and the outer legs being joined at one end thereof and being mounted with a second end thereof mounted adjacent an end of the module, the module having at least one wound coil encircling at least one of the three legs; the backplane and the module being configured so that the second end of each leg of the magnetic E-core on the backplane is aligned with the corresponding leg of the magnetic E-core in the module when the module is mounted to the backplane, wherein the second ends of the magnetic E-core in the backplane do not protrude from the module side of the backplane and the magnetic E-core in the module is spring mounted to provide a spring force between the magnetic E-core in the module and the magnetic E-core in the backplane when the module is mounted to the backplane.
Method for testing at least one pressurised pipeline, in which - a measuring device with at least one measuring sensor and a wireless data transmission unit is attached to one end of the pressurised pipeline, - a filling device (40, 42) is attached to the other end of the pressurised pipeline, and - the pressurised pipeline is filled with a fluid and pressurised, - wherein at least one pressure in the pressurised pipeline is detected by the measuring device and measurement data recorded continuously or at predetermined times is transmitted wirelessly to a central computer unit located at a distance, characterised in that - the measuring device is already inserted when the pressurised pipeline is inserted into a ground. - a measuring device with at least one measuring sensor and a wireless data transmission unit is attached to one end of the pressurised pipeline, - a filling device (40, 42) is attached to the other end of the pressurised pipeline, and - the pressurised pipeline is filled with a fluid and pressurised, - wherein at least one pressure in the pressurised pipeline is detected by the measuring device and measurement data recorded continuously or at predetermined times is transmitted wirelessly to a central computer unit located at a distance, characterised in that - the measuring device is already inserted when the pressurised pipeline is inserted into a ground.
Method for automatically configuring an external control system for the open-loop and/or closed-loop control of a robot system, having the following steps of: - providing an external control system and a robot system which has at least one manipulator and a robot controller, - setting up a connection for interchanging data between the robot system and the external control system, - transmitting description data from the robot system to the external control system, wherein the description data contain information for setting up communication between the external control system and the robot controller and data relating to the manipulator of the robot system, wherein the data relating to the manipulator comprise information relating to one or more of the following features: kinematics, axes, DH parameters, masses, mass inertia, centres of gravity, jerking, torques, motor data, static and/or dynamic fiction, gear ratio, - automatically creating a mathematical robot model, which is used to calculate the movement of the manipulator and to correctly actuate the manipulator, by means of the external control system on the basis of the received description data, and - automatically setting up the communication between the external control system and the robot controller on the basis of the received description data, - the external control system automatically assuming the open-loop and/or closed-loop sovereignty over the robot system. - providing an external control system and a robot system which has at least one manipulator and a robot controller, - setting up a connection for interchanging data between the robot system and the external control system, - transmitting description data from the robot system to the external control system, wherein the description data contain information for setting up communication between the external control system and the robot controller and data relating to the manipulator of the robot system, wherein the data relating to the manipulator comprise information relating to one or more of the following features: kinematics, axes, DH parameters, masses, mass inertia, centres of gravity, jerking, torques, motor data, static and/or dynamic fiction, gear ratio, - automatically creating a mathematical robot model, which is used to calculate the movement of the manipulator and to correctly actuate the manipulator, by means of the external control system on the basis of the received description data, and - automatically setting up the communication between the external control system and the robot controller on the basis of the received description data, - the external control system automatically assuming the open-loop and/or closed-loop sovereignty over the robot system.
Method for operating an internal combustion engine (3, 3a, 3b, 3c) with a first, also exclusively operated main engine with a first crankshaft part (6, 6a, 6b, 6c) and a second supplementary engine which can be coupled to the former by means of a synchronizer clutch (8, 8a, 8b, 8c) with a second crankshaft part (7, 7a, 7b, 7c), the synchronizer clutch (8, 8a, 8b, 8c) being formed from a friction clutch (9, 9a, 9b, 9c), which sets a predefined slip speed between the crankshaft parts (6, 6a, 6b, 6c, 7, 7a, 7b, 7c), and a positively locking clutch (10, 10a, 10b, 10c) which, during setting of the slip speed, sets or releases a positively locking connection of coupled crankshaft parts (6, 6a, 6b, 6c, 7, 7a, 7b, 7c) at a synchronizing position with an exact rotary angle position of a predefined ignition sequence of the internal combustion engine (3, 3a, 3b, 3c) with the said coupled crankshaft parts (6, 6a, 6b, 6c, 7, 7a 7b, 7c), a clutch moment (M) which is transmitted via the friction clutch (9, 9a, 9b, 9c) being regulated to the predefined slip speed between the crankshaft parts (6, 6a, 6b, 6c, 7, 7a, 7b, 7c) during a synchronizing operation of the two crankshaft parts (6, 6a, 6b, 6c, 7, 7a, 7b, 7c) in the case of the supplementary engine being at a standstill and the synchronizer clutch (8, 8a, 8b, 8c) being initially open, the supplementary engine being started, and the synchronizing position being moved to by way of acceleration of the crankshaft part (7, 7a, 7b, 7c) of the supplementary engine, and the positively locking clutch (10, 10a, 10b, 10c) being closed, characterized in that the rotational speed of the supplementary engine is limited during the synchronizing operation.
A mechanical cardiopulmonary resuscitation ("CPR") device, comprising: a piston; a driver coupled to the piston configured to extend and retract the piston; and a controller configured to cause the driver during a session to at least: position the piston at a reference position; extend the piston from the reference position to a compression position to compress a chest of a patient; return the piston from the compression position to the reference position; retract the piston from the reference position to a retreat position, the retreat position including the piston at a distance away from the reference position whereby the patient's chest can expand without active decompression of the patient's chest, the piston retracted to the retreat position at least once before the end of the session; and return the piston from the retreat position to the reference position. a piston; a driver coupled to the piston configured to extend and retract the piston; and a controller configured to cause the driver during a session to at least: position the piston at a reference position; extend the piston from the reference position to a compression position to compress a chest of a patient; return the piston from the compression position to the reference position; retract the piston from the reference position to a retreat position, the retreat position including the piston at a distance away from the reference position whereby the patient's chest can expand without active decompression of the patient's chest, the piston retracted to the retreat position at least once before the end of the session; and return the piston from the retreat position to the reference position. position the piston at a reference position; extend the piston from the reference position to a compression position to compress a chest of a patient; return the piston from the compression position to the reference position; retract the piston from the reference position to a retreat position, the retreat position including the piston at a distance away from the reference position whereby the patient's chest can expand without active decompression of the patient's chest, the piston retracted to the retreat position at least once before the end of the session; and return the piston from the retreat position to the reference position.
A mammography device comprising: a generator configured to irradiate an X-ray; a detector configured to face the generator; a pressing pad configured to move between the generator and the detector to press an object to be inspected; a biological index input unit configured to input, and/or a biological index sensing unit configured to sense and measure, a biological index of a subject; and a controller configured to control a movement distance of the pressing pad on the basis of said biological index, wherein the controller is further configured to control a pressing velocity of the pressing pad on the basis of said biological index. a generator configured to irradiate an X-ray; a detector configured to face the generator; a pressing pad configured to move between the generator and the detector to press an object to be inspected; a biological index input unit configured to input, and/or a biological index sensing unit configured to sense and measure, a biological index of a subject; and a controller configured to control a movement distance of the pressing pad on the basis of said biological index, wherein the controller is further configured to control a pressing velocity of the pressing pad on the basis of said biological index.