mhurhangee/ep-ind-claims huggingface dataset:
A thermionic valve tester comprising: at least one valve socket having a plurality of valve electrode terminals adapted for connection with the electrodes of a thermionic valve; a power supply terminal adapted for connection to an external power supply; a first voltage regulator having a switchable connection (S1, S2) with at least one valve electrode terminal (108, 109) of the valve socket, the voltage regulator being adapted to supply at least two different predetermined valve electrode voltages; a controller for controlling connection of the first voltage regulator with at least one of the valve electrode terminals (108, 109) and for monitoring current flow in a thermionic valve mounted in the valve socket; and a display (13a, 13b) in communication with the controller for displaying the test results for a thermionic valve, characterised in that the power supply terminal is a single power supply terminal adapted for connection to an external low voltage DC power supply; and the controller is adapted to calculate a condition value and to cause the condition value to be displayed by the display (13a, 13b), the condition value being based upon the performance of a valve in response to one or more tests and the condition value being representative of matched valves where valves of the same type have the same condition value. at least one valve socket having a plurality of valve electrode terminals adapted for connection with the electrodes of a thermionic valve; a power supply terminal adapted for connection to an external power supply; a first voltage regulator having a switchable connection (S1, S2) with at least one valve electrode terminal (108, 109) of the valve socket, the voltage regulator being adapted to supply at least two different predetermined valve electrode voltages; a controller for controlling connection of the first voltage regulator with at least one of the valve electrode terminals (108, 109) and for monitoring current flow in a thermionic valve mounted in the valve socket; and a display (13a, 13b) in communication with the controller for displaying the test results for a thermionic valve, characterised in that the power supply terminal is a single power supply terminal adapted for connection to an external low voltage DC power supply; and the controller is adapted to calculate a condition value and to cause the condition value to be displayed by the display (13a, 13b), the condition value being based upon the performance of a valve in response to one or more tests and the condition value being representative of matched valves where valves of the same type have the same condition value.
Method for controlling an excitation polyphase synchronous rotating electric machine (1, 12, 14) of the type comprising a control step in which currents of the phases in phase windings (u, v, w; u1, v1, w1, u2, v2, w2) of a stator of said machine (1, 12, 14) are driven in full-wave mode, said machine being connected to an on-board electrical network (2, 15) supplied with power by a battery under a predetermined nominal voltage (Ubat) for motor operation of said machine (1, 12, 14), characterized in that said control step is preceded by a step (PreMag) of premagnetizing said stator in an open circuit, in which step a peak electromotive force between phases that is substantially equal to said nominal voltage (Ubat) is created by a rotor excitation current (Ir) for a rotor of said machine (1, 12, 14), said premagnetization step comprising determining a reference value of said rotor excitation current (Ir) according to an electrical angular frequency of said machine (1, 12, 14).
A method of forming a metal container comprising: A) curling outward a top edge of the metal container to form a curl; and B) expanding a diameter of a first section of the metal container to form a first expanded section; wherein at least part of the first expanded section is below the curl, wherein the curling step and the expanding step are performed simultaneously, or wherein the expanding step is performed after the curling step, and wherein the method further comprises the step of removing the curl from the top edge of the metal container. A) curling outward a top edge of the metal container to form a curl; and B) expanding a diameter of a first section of the metal container to form a first expanded section;
A method for identifying a Gram-negative bacterial infection in a peritoneal sample, which method comprises: (a) examining said peritoneal sample from an individual in order to determine the amount of Vδ2 + T cells within the total T cell population of said sample and the amount of IL-10 in said sample; and (b) where the amount of Vδ2 + T cells within the total T cell population is increased relative to the amount of Vδ2 + T cells within the total T cell population in a control sample from an individual not having a Gram-negative bacterial infection and the amount of IL-10 is increased relative to the amount of IL-10 in a control sample from an individual not having a Gram-negative bacterial infection; (c) concluding that the individual from whom the peritoneal sample has been taken has a Gram-negative bacterial infection. (a) examining said peritoneal sample from an individual in order to determine the amount of Vδ2 + T cells within the total T cell population of said sample and the amount of IL-10 in said sample; and (b) where the amount of Vδ2 + T cells within the total T cell population is increased relative to the amount of Vδ2 + T cells within the total T cell population in a control sample from an individual not having a Gram-negative bacterial infection and the amount of IL-10 is increased relative to the amount of IL-10 in a control sample from an individual not having a Gram-negative bacterial infection; (c) concluding that the individual from whom the peritoneal sample has been taken has a Gram-negative bacterial infection.
A switch mode power converter comprising: a pair of input terminals (In, GND) to receive input power with a high voltage potential (In) and a reference voltage potential; a pair of output terminals (LED+, LED-) to provide output power; an energy storage component; a main power switch connected to the high voltage potential (In) and the energy storage component and adapted to alternately couple and decouple the energy storage component to and from the high voltage potential; a current sensing resistor (Rs) to detect a converted current; a current setting circuit having an input for receiving a current setting control signal referred to the reference voltage potential, the current setting circuit being configured to generate an output signal which depends on the current setting control signal; a biasing resistor having a first end connected to a node (N1, N2) between the main power switch and the energy storage component; a current source circuit coupled between the second end of the biasing resistor and the reference voltage potential configured to drive a current, which depends on the output signal of the current setting circuit, through the biasing resistor to the reference voltage potential; and a control circuit configured to sense a voltage across a series connection of the current sensing resistor (Rs) and the biasing resistor and to control the power switch accordingly, wherein said control circuit has a high ground terminal (HGND) connected to a low potential end of the series connection, which corresponds to the second end of the biasing resistor. a pair of input terminals (In, GND) to receive input power with a high voltage potential (In) and a reference voltage potential; a pair of output terminals (LED+, LED-) to provide output power; an energy storage component; a main power switch connected to the high voltage potential (In) and the energy storage component and adapted to alternately couple and decouple the energy storage component to and from the high voltage potential; a current sensing resistor (Rs) to detect a converted current; a current setting circuit having an input for receiving a current setting control signal referred to the reference voltage potential, the current setting circuit being configured to generate an output signal which depends on the current setting control signal; a biasing resistor having a first end connected to a node (N1, N2) between the main power switch and the energy storage component; a current source circuit coupled between the second end of the biasing resistor and the reference voltage potential configured to drive a current, which depends on the output signal of the current setting circuit, through the biasing resistor to the reference voltage potential; and a control circuit configured to sense a voltage across a series connection of the current sensing resistor (Rs) and the biasing resistor and to control the power switch accordingly, wherein said control circuit has a high ground terminal (HGND) connected to a low potential end of the series connection, which corresponds to the second end of the biasing resistor.
Method for monitoring and measuring a gas content in a liquid, wherein - at least one sub-quantity of the liquid is conveyed into a measurement cell, - a vacuum is then created in the measurement cell, - pressure (p m) and temperature (T m) are measured in the measurement cell and - the gas content in the liquid is determined on the basis of Henry's law as a function of the measured pressure and temperature, characterised in that - the sub-quantity is irradiated with a wavelike measurement signal, - the measurement signal is measured after contact with the sub-quantity, - the turbidity of the liquid is detected and compared with a threshold value, while the vacuum is being created, and - the gas content in the liquid is determined on the basis of Henry's law, if the turbidity reaches or exceeds the threshold value without the boiling point of the liquid having been reached. - at least one sub-quantity of the liquid is conveyed into a measurement cell, - a vacuum is then created in the measurement cell, - pressure (p m) and temperature (T m) are measured in the measurement cell and - the gas content in the liquid is determined on the basis of Henry's law as a function of the measured pressure and temperature, - the sub-quantity is irradiated with a wavelike measurement signal, - the measurement signal is measured after contact with the sub-quantity, - the turbidity of the liquid is detected and compared with a threshold value, while the vacuum is being created, and - the gas content in the liquid is determined on the basis of Henry's law, if the turbidity reaches or exceeds the threshold value without the boiling point of the liquid having been reached.
A conjugate comprising a mutant human IL-11 (mIL-11) and a biocompatible polymer; wherein the amino acid sequence of said mIL-11 consists of (i) SEQ ID NO:2, except for five or fewer amino acid substitutions, provided, however, that the amino acid residue corresponding to position 1 of SEQ ID NO:2 is alanine and the amino acid residue corresponding to position 125 of SEQ ID NO:2 is asparagine; or (ii) an amino acid sequence at least 95% identical to the amino acid sequence of SEQ ID NO:2, provided, however, that the amino acid residue corresponding to position 1 of SEQ ID NO:2 is alanine and the amino acid residue corresponding to position 125 of SEQ ID NO:2 is asparagine; and wherein the level of cell proliferation activity in vitro of said conjugate is decreased by no more than 5% as compared to the level of cell proliferation activity of an unconjugated reference mIL-11, where the amino acid sequences of the mIL-11 in the conjugated mIL-11 and in the unconjugated reference mIL-11 are identical; and wherein said cell proliferation activity is determined by contacting said conjugate or said unconjugated reference mIL-11 to cells responsive to IL-11 by virtue of expression of an IL-11 receptor α-chain and glycoprotein 130, cultivating said cells in vitro, and measuring the resulting cell proliferation. (i) SEQ ID NO:2, except for five or fewer amino acid substitutions, provided, however, that the amino acid residue corresponding to position 1 of SEQ ID NO:2 is alanine and the amino acid residue corresponding to position 125 of SEQ ID NO:2 is asparagine; or (ii) an amino acid sequence at least 95% identical to the amino acid sequence of SEQ ID NO:2, provided, however, that the amino acid residue corresponding to position 1 of SEQ ID NO:2 is alanine and the amino acid residue corresponding to position 125 of SEQ ID NO:2 is asparagine; and
A cooling apparatus comprising: a housing; a first liquid and a second liquid located within the housing, a heat exchanging apparatus to transfer heat to the first liquid to evaporate a quantity of the first liquid to form a first liquid vapour; and a plurality of independent energy dissipating members that extend through the housing, characterized in that the first liquid has a higher density and lower boiling point than the second liquid; and wherein the independent energy dissipating members move ir response to a fluid flow created by the interaction of the first liquid vapour and the second liquid and transfer heat to a volume external to the housing. a housing; a first liquid and a second liquid located within the housing, a heat exchanging apparatus to transfer heat to the first liquid to evaporate a quantity of the first liquid to form a first liquid vapour; and a plurality of independent energy dissipating members that extend through the housing, characterized in that the first liquid has a higher density and lower boiling point than the second liquid; and wherein the independent energy dissipating members move ir response to a fluid flow created by the interaction of the first liquid vapour and the second liquid and transfer heat to a volume external to the housing.
A loom comprising: a driving shaft to which a main shaft of the loom is connected and to which a swing shaft for driving a reed to swing is connected via a swing mechanism; a driving motor to which the driving shaft is connected via a driving-force transmission mechanism to rotationally drive the driving shaft; an opening device that is driven by the driving motor; a braking device that applies a brake to the main shaft for stopping rotation of the main shaft; characterized in that a side frame that accommodates the driving shaft and the swing shaft in an orientation in which each axial direction of the driving shaft and the swing shaft matches with a width direction, wherein the driving-force transmission mechanism includes: a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame, where the driving-force transmission shaft is connected to the driving motor, and where the driving-force transmission shaft is connected to the opening device; and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft, and the braking device is connected to the driving-force transmission shaft so as to directly apply a brake to the driving-force transmission shaft. a driving shaft to which a main shaft of the loom is connected and to which a swing shaft for driving a reed to swing is connected via a swing mechanism; a driving motor to which the driving shaft is connected via a driving-force transmission mechanism to rotationally drive the driving shaft; an opening device that is driven by the driving motor; a braking device that applies a brake to the main shaft for stopping rotation of the main shaft; characterized in that a side frame that accommodates the driving shaft and the swing shaft in an orientation in which each axial direction of the driving shaft and the swing shaft matches with a width direction, wherein the driving-force transmission mechanism includes: a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame, where the driving-force transmission shaft is connected to the driving motor, and where the driving-force transmission shaft is connected to the opening device; and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft, and a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame, where the driving-force transmission shaft is connected to the driving motor, and where the driving-force transmission shaft is connected to the opening device; and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft, and the braking device is connected to the driving-force transmission shaft so as to directly apply a brake to the driving-force transmission shaft.
A computer-implemented method of controlling an excavation task by an autonomous excavation vehicle comprising a scanning device and an inertial navigation system, where a desired result of the excavation task being described by a target map, the method comprising: a) operating the scanning device for repeatedly scanning an area surrounding the autonomous excavation vehicle and repeatedly updating based on data obtained by the scanning, a map representing at least a part of the area, the map being relative to a location of the vehicle and comprises cells, each is classified to a certain class and is characterized by a size equal or larger than an accumulated drift value of the INS over a predefined distance; receiving from the INS, INS data indicative of a current location and orientation of the vehicle relative to a previous location and orientation; and updating a location of the vehicle relative to the cells in the map based on the INS data; b) executing an excavation sequence, comprising: moving a digging implement equipped with a sensor for executing an excavation operation; receiving data indicative of current terrain topography from the sensor; updating the map according to the data indicative of current terrain topography; calculating an excavation operation according to a difference between the map and the target map; and executing the excavation operation. a) operating the scanning device for repeatedly scanning an area surrounding the autonomous excavation vehicle and repeatedly updating based on data obtained by the scanning, a map representing at least a part of the area, the map being relative to a location of the vehicle and comprises cells, each is classified to a certain class and is characterized by a size equal or larger than an accumulated drift value of the INS over a predefined distance; receiving from the INS, INS data indicative of a current location and orientation of the vehicle relative to a previous location and orientation; and updating a location of the vehicle relative to the cells in the map based on the INS data; receiving from the INS, INS data indicative of a current location and orientation of the vehicle relative to a previous location and orientation; and updating a location of the vehicle relative to the cells in the map based on the INS data; b) executing an excavation sequence, comprising: moving a digging implement equipped with a sensor for executing an excavation operation; receiving data indicative of current terrain topography from the sensor; updating the map according to the data indicative of current terrain topography; calculating an excavation operation according to a difference between the map and the target map; and executing the excavation operation. moving a digging implement equipped with a sensor for executing an excavation operation; receiving data indicative of current terrain topography from the sensor; updating the map according to the data indicative of current terrain topography; calculating an excavation operation according to a difference between the map and the target map; and executing the excavation operation.
A method for controlling execution of malicious behavior in a production network to test a security system of the production network, the method comprising: (a) receiving, by a first controller on a first node in a production network with a security system, instructions to operate as an attacker and data for executing a predetermined malicious behavior on the production network; (b) receiving, by a second controller on a second node in the production network, instructions to operate as a target of the predetermined malicious behavior by the attacker; (c) establishing a connection between the first controller and the second controller; (d) transmitting, responsive to the instructions by the first controller via the connection to the second controller via at least a portion of the security system of the production network, network traffic comprising the predetermined malicious behavior and generated using the data; (e) receiving, by the first controller via the connection from the second controller, one or more responses to the network traffic; and (f) determining, by the first controller, whether the one or more responses from the second controller are as expected. (a) receiving, by a first controller on a first node in a production network with a security system, instructions to operate as an attacker and data for executing a predetermined malicious behavior on the production network; (b) receiving, by a second controller on a second node in the production network, instructions to operate as a target of the predetermined malicious behavior by the attacker; (c) establishing a connection between the first controller and the second controller; (d) transmitting, responsive to the instructions by the first controller via the connection to the second controller via at least a portion of the security system of the production network, network traffic comprising the predetermined malicious behavior and generated using the data; (e) receiving, by the first controller via the connection from the second controller, one or more responses to the network traffic; and (f) determining, by the first controller, whether the one or more responses from the second controller are as expected.