mhurhangee/ep-ind-claims huggingface dataset:
An ultra capacitor module comprising: a base terminal formed at one side of an ultra capacitor body; a polar terminal disposed on the base terminal and having a screw thread formed on an outer peripheral surface; a printed circuit board having, at a center, a hole through which the polar terminal and the base terminal are inserted and penetrate; a nut having a screw hole corresponding to the screw thread on an inner peripheral surface and coupled with the polar terminal; an elastic member having, at a center, a hole through which the polar terminal and the base terminal are inserted and penetrate and disposed between the ultra capacitor body and the PCB; characterized in that a busbar is disposed between the nut and the PCB, said busbar having, at a center, a hole through which the polar terminal is inserted and penetrates; and a metal member is disposed between the busbar and the PCB to separate the busbar from the PCB. a base terminal formed at one side of an ultra capacitor body; a polar terminal disposed on the base terminal and having a screw thread formed on an outer peripheral surface; a printed circuit board having, at a center, a hole through which the polar terminal and the base terminal are inserted and penetrate; a nut having a screw hole corresponding to the screw thread on an inner peripheral surface and coupled with the polar terminal; an elastic member having, at a center, a hole through which the polar terminal and the base terminal are inserted and penetrate and disposed between the ultra capacitor body and the PCB; characterized in that a busbar is disposed between the nut and the PCB, said busbar having, at a center, a hole through which the polar terminal is inserted and penetrates; and a metal member is disposed between the busbar and the PCB to separate the busbar from the PCB.
An inertial particle separator comprising: a body with an outer wall, an inlet disposed on an upstream end of the body; an outlet disposed on a downstream end of the body; an inner nozzle disposed radially inward from the outer wall, the inner nozzle forming a primary flow passage; a settling chamber disposed in the body and extending between the outer wall and the inner nozzle, the settling chamber forming a secondary flow passage, wherein the settling chamber is fluidly connected to the inlet and the outlet; a serpentine channel disposed radially between the outer wall of the body and the inner nozzle, wherein the serpentine channel fluidly connects the inlet and the settling chamber; an ejector disposed on a downstream end of the inner nozzle, wherein the ejector forms an annular passageway that fluidly connects the secondary flow passage with the primary flow passage; and characterized by a filter element disposed in the settling chamber. a body with an outer wall, an inlet disposed on an upstream end of the body; an outlet disposed on a downstream end of the body; an inner nozzle disposed radially inward from the outer wall, the inner nozzle forming a primary flow passage; a settling chamber disposed in the body and extending between the outer wall and the inner nozzle, the settling chamber forming a secondary flow passage, wherein the settling chamber is fluidly connected to the inlet and the outlet; a serpentine channel disposed radially between the outer wall of the body and the inner nozzle, wherein the serpentine channel fluidly connects the inlet and the settling chamber; an ejector disposed on a downstream end of the inner nozzle, wherein the ejector forms an annular passageway that fluidly connects the secondary flow passage with the primary flow passage; and characterized by a filter element disposed in the settling chamber.
Binary geothermal system comprising: - at least an organic Rankine cycle provided with at least a supply pump (PUMP) for supplying an organic working fluid, in liquid phase, to at least a heat exchanger for heating the organic working fluid up to its transformation in vapor phase and to its possible overheating, an expansion turbine for expanding the organic working fluid in a vapor phase, a condenser which bring back the organic working fluid in a liquid phase, - a geothermal source comprising the geothermal liquid and the geothermal vapor wherein the organic fluid is vaporized directly or indirectly through a flow of geothermal vapor in the heat exchanger and is preheated by a geothermal liquid flow in a first pre-heater, characterized in that the organic working fluid is also pre-heated in a second pre-heater that uses the thermal energy contained in a flow, constituted by the mixture of gas and by the fraction of geothermal vapor not condensed exiting from a separator positioned downstream of the heat exchanger or from a further heat exchanger positioned downstream of the separator. - at least an organic Rankine cycle provided with at least a supply pump (PUMP) for supplying an organic working fluid, in liquid phase, to at least a heat exchanger for heating the organic working fluid up to its transformation in vapor phase and to its possible overheating, an expansion turbine for expanding the organic working fluid in a vapor phase, a condenser which bring back the organic working fluid in a liquid phase, - a geothermal source comprising the geothermal liquid and the geothermal vapor wherein the organic fluid is vaporized directly or indirectly through a flow of geothermal vapor in the heat exchanger and is preheated by a geothermal liquid flow in a first pre-heater, characterized in that the organic working fluid is also pre-heated in a second pre-heater that uses the thermal energy contained in a flow, constituted by the mixture of gas and by the fraction of geothermal vapor not condensed exiting from a separator positioned downstream of the heat exchanger or from a further heat exchanger positioned downstream of the separator.
A light emitting device comprising: at least one LED filament adapted for, in operation, emitting LED filament light, the at least one LED filament comprising a carrier and a plurality of LEDs arranged on the carrier and adapted for, in operation, emitting LED light, and a heat sink element, the at least one LED filament being arranged extending spiraling around a vertical center axis LA of the light emitting device, wherein the heat sink element further is arranged extending spiraling around the vertical center axis of the light emitting device, characterised in that the heat sink element is arranged extending from the at least one LED filament towards the vertical center axis of the light emitting device. at least one LED filament adapted for, in operation, emitting LED filament light, the at least one LED filament comprising a carrier and a plurality of LEDs arranged on the carrier and adapted for, in operation, emitting LED light, and a heat sink element, the at least one LED filament being arranged extending spiraling around a vertical center axis LA of the light emitting device, wherein the heat sink element further is arranged extending spiraling around the vertical center axis of the light emitting device, characterised in that the heat sink element is arranged extending from the at least one LED filament towards the vertical center axis of the light emitting device.
A method for controlling the reactions of a robot having a left hand and a right hand, able to carry out different movement behaviours, which respectively are composed of a plurality of degree-of-freedoms, in response to a dynamic environment, the method comprising the following steps: - defining, as a task, a grasping a movable target for a behaviour to a selector unit, - the selector unit generating at least two behaviour commands for each hand respectively adapted to reach the defined target, such that the target is achieved, - for each alternative command, internally simulating the corresponding resulting movement(s) of the mechanical system by a computing unit which is integral part of the mechanical system, - assessing the fitness of each of the simulated resulting movements with respect to at least one objective and using a cost function, wherein a wheighted least squares distance of the arms' joints from their center positions define a discomfort penalty is incorporated as one criteria into the fitness function, and - sending the command resulting in the simulated movement with the highest fitness value to physical actuators of the mechanical system, wherein, while attempting to reach the defined target, the internal simulation iteratively continues to compute the best behaviour alternative in view of the current status of the execution of the task. - defining, as a task, a grasping a movable target for a behaviour to a selector unit, - the selector unit generating at least two behaviour commands for each hand respectively adapted to reach the defined target, such that the target is achieved, - for each alternative command, internally simulating the corresponding resulting movement(s) of the mechanical system by a computing unit which is integral part of the mechanical system, - assessing the fitness of each of the simulated resulting movements with respect to at least one objective and using a cost function, wherein a wheighted least squares distance of the arms' joints from their center positions define a discomfort penalty is incorporated as one criteria into the fitness function, and - sending the command resulting in the simulated movement with the highest fitness value to physical actuators of the mechanical system, wherein,
A control device for controlling a motor used in an electric automobile having the motor for driving a vehicle wheel, which automobile comprises: • an ECU, which is an electric control unit configured to control the automobile in its entirety; • an inverter device having a power circuit unit including an inverter to convert a direct current power of a battery into an alternating current used in driving the motor, • a motor control unit configured to control at least the power circuit unit in accordance with a control of the ECU, and • a temperature sensor (Sa) provided to detect the temperature Tc of the inverter, • a plurality of threshold values being set up for the temperature Tc detected; and • an inverter restricting unit configured to apply a restriction to an electric current command to the inverter, while electric current restricting conditions different from each other are set up for respective temperature regions sorted out by each threshold value, in dependence on the electric current restricting condition of the temperature region to which the detected temperature Tc belongs, characterized in that, the inverter restricting unit is configured to change a permissible upper limit of the time dependent change dTc/dt of the inverter temperature, in which the temperature Tc is differentiated by time t, in dependence on each sorted temperature region when the time dependent change dTc/dt of the inverter temperature is positive. • an ECU, which is an electric control unit configured to control the automobile in its entirety; • an inverter device having a power circuit unit including an inverter to convert a direct current power of a battery into an alternating current used in driving the motor, • a motor control unit configured to control at least the power circuit unit in accordance with a control of the ECU, and • a temperature sensor (Sa) provided to detect the temperature Tc of the inverter, • a plurality of threshold values being set up for the temperature Tc detected; and • an inverter restricting unit configured to apply a restriction to an electric current command to the inverter, while electric current restricting conditions different from each other are set up for respective temperature regions sorted out by each threshold value, in dependence on the electric current restricting condition of the temperature region to which the detected temperature Tc belongs,
A sealing assembly (102, 400, 900, 1000, 1100, 1200, 1300, 1400) for forming an at least partial seal with a ground surface under a vehicle, the sealing assembly comprising: a frame (118, 402, 902, 1102, 1202, 1402); and a plurality of seal elements (136, 404, 904, 1004, 1104, 1204, 1302, 1404) mounted adjacent to one another on the frame to form a sealing strip, wherein each of the plurality of seal elements is arranged to contact the ground surface and slide along the ground surface; characterised in that the frame has a greater flexibility in a direction normal to the ground surface compared to each of the plurality of seal elements, such that the frame is more easily bendable in the direction normal to the ground surface compared to each of the plurality of seal elements. a frame (118, 402, 902, 1102, 1202, 1402); and a plurality of seal elements (136, 404, 904, 1004, 1104, 1204, 1302, 1404) mounted adjacent to one another on the frame to form a sealing strip, wherein each of the plurality of seal elements is arranged to contact the ground surface and slide along the ground surface; characterised in that the frame has a greater flexibility in a direction normal to the ground surface compared to each of the plurality of seal elements, such that the frame is more easily bendable in the direction normal to the ground surface compared to each of the plurality of seal elements.
An antenna element for a base station antenna, the antenna element comprising: a support structure; and a radiating structure arranged on or within the support structure, the radiating structure comprising: a radiating element having a resonant frequency inside an operating frequency band of the antenna element; wherein the radiating element is a dipole comprising two dipole arms (732a, 732b) provided on a top surface of the support structure; and a filter configured to filter out harmonics of the operating frequency band, characterized in that the support structure comprises a conductive layer, wherein the conductive layer comprises two corresponding parasitic arms (760a, 760b) provided on a bottom surface of the substrate of the support structure; wherein the filter is a capacitive filter and comprises two filtering units, wherein each filtering unit of the two filtering units is constituted by one parasitic arm of the two parasitic arms (760a, 760b) of the conductive layer and the corresponding one dipole arm of the two dipole arms (732a, 732b) of the radiating element, the radiating element is, in a stacking direction of the support structure, above the conductive layer, and the conductive layer is arranged so that the conductive layer and the radiating element overlap in the stacking direction of the support structure, wherein each dipole arm of the two dipole arms (732a, 732b) and each parasitic arm of the two parasitic arms (760a, 760b) is grounded. a support structure; and a radiating structure arranged on or within the support structure, the radiating structure comprising: a radiating element having a resonant frequency inside an operating frequency band of the antenna element; wherein the radiating element is a dipole comprising two dipole arms (732a, 732b) provided on a top surface of the support structure; and a filter configured to filter out harmonics of the operating frequency band, a radiating element having a resonant frequency inside an operating frequency band of the antenna element; wherein the radiating element is a dipole comprising two dipole arms (732a, 732b) provided on a top surface of the support structure; and a filter configured to filter out harmonics of the operating frequency band, the support structure comprises a conductive layer, wherein the conductive layer comprises two corresponding parasitic arms (760a, 760b) provided on a bottom surface of the substrate of the support structure; wherein the filter is a capacitive filter and comprises two filtering units, wherein each filtering unit of the two filtering units is constituted by one parasitic arm of the two parasitic arms (760a, 760b) of the conductive layer and the corresponding one dipole arm of the two dipole arms (732a, 732b) of the radiating element, the radiating element is, in a stacking direction of the support structure, above the conductive layer, and the conductive layer is arranged so that the conductive layer and the radiating element overlap in the stacking direction of the support structure, wherein each dipole arm of the two dipole arms (732a, 732b) and each parasitic arm of the two parasitic arms (760a, 760b) is grounded.
An apparatus for monitoring a nerve, comprising: a Foley type catheter having an exterior surface; and first and second pairs of ring electrodes (202, 202) formed on the exterior surface of the Foley catheter, wherein each of the first and second pairs of ring electrodes is configured to perform at least one of stimulating the nerve and recording nerve activity; wherein the first and second pairs of ring electrodes each comprise an anode ring electrode and a cathode ring electrode; wherein the second pair of ring electrodes is configured to deliver bipolar nerve stimulation, and the first pair of ring electrodes is configured to provide bipolar recording of nerve activity; the apparatus further comprising a monitor including a stimulation module, a response module and a user interface, wherein (a) the stimulation module is configured to apply a stimulation signal to a nerve via the second pair of ring electrodes, (b) the response module is adapted to measure a response signal at the nerve with the first pair of ring electrodes and (c) the apparatus is adapted to communicate the response signal to a surgeon via the user interface. a Foley type catheter having an exterior surface; and first and second pairs of ring electrodes (202, 202) formed on the exterior surface of the Foley catheter, wherein each of the first and second pairs of ring electrodes is configured to perform at least one of stimulating the nerve and recording nerve activity; wherein the first and second pairs of ring electrodes each comprise an anode ring electrode and a cathode ring electrode; wherein the second pair of ring electrodes is configured to deliver bipolar nerve stimulation, and the first pair of ring electrodes is configured to provide bipolar recording of nerve activity; the apparatus further comprising a monitor including a stimulation module, a response module and a user interface,
A pulse real-time monitoring circuit for a tumor therapy instrument, comprising a capacitor bank, a pulse generator connected to a positive electrode of the capacitor bank, and a discharge panel connected between the pulse generator and a negative electrode of the capacitor bank; and further comprising: a current detection module, wherein a first detection terminal of the current detection module is provided between the pulse generator and the positive electrode of the capacitor bank, and a second detection terminal of the current detection module is provided between the negative electrode of the capacitor bank and the discharge panel, the current detection module is configured to detect a pulse signal outputted by the capacitor bank and obtain a first analog pulse signal; a voltage detection module, wherein a first detection terminal of the voltage detection module is connected to one end of the discharge panel, and a second detection terminal of the voltage detection module is connected to the other end of the discharge panel; the voltage detection module is configured to detect the pulse signal and obtain a second analog pulse signal; a controller, wherein the controller is connected to an output terminal of the current detection module and an output terminal of the voltage detection module respectively, the controller is configured to acquire and process the first analog pulse signal and the second analog pulse signal to obtain a pulse current corresponding to the first analog pulse signal and a pulse voltage corresponding to the second analog pulse signal, and transmit the pulse current and pulse voltage to a computer. a current detection module, wherein a first detection terminal of the current detection module is provided between the pulse generator and the positive electrode of the capacitor bank, and a second detection terminal of the current detection module is provided between the negative electrode of the capacitor bank and the discharge panel, the current detection module is configured to detect a pulse signal outputted by the capacitor bank and obtain a first analog pulse signal; a voltage detection module, wherein a first detection terminal of the voltage detection module is connected to one end of the discharge panel, and a second detection terminal of the voltage detection module is connected to the other end of the discharge panel; the voltage detection module is configured to detect the pulse signal and obtain a second analog pulse signal; a controller, wherein the controller is connected to an output terminal of the current detection module and an output terminal of the voltage detection module respectively, the controller is configured to acquire and process the first analog pulse signal and the second analog pulse signal to obtain a pulse current corresponding to the first analog pulse signal and a pulse voltage corresponding to the second analog pulse signal, and transmit the pulse current and pulse voltage to a computer.
A method of adaptive power control for a wireless communication device, comprising: receiving control information for incoming data in a transmission frame while in a first power mode of the device, the control information including a modulation and coding scheme, MCS, value; and adaptively switching to a second power mode of the device during the transmission frame, wherein the switching is based at least in part on the received MCS value. receiving control information for incoming data in a transmission frame while in a first power mode of the device, the control information including a modulation and coding scheme, MCS, value; and adaptively switching to a second power mode of the device during the transmission frame, wherein the switching is based at least in part on the received MCS value.
Hardener composition comprising 3-aminomethyl-3,5,5-trimethylcyclohexane, at least one further cycloaliphatic amine which is reactive to epoxy groups, and at least one salt, the salt being selected from the group consisting of salts of nitric acid, salts of nitrous acid, salts of halogens, salts of trifluoromethanesulfonic acid, and combinations thereof, characterized in that 3-aminomethyl-3,5,5-trimethylcyclohexane is contained in the hardener composition in a proportion of at least 10 wt.%, based on the total weight of all amines which are reactive to epoxy groups. the salt being selected from the group consisting of salts of nitric acid, salts of nitrous acid, salts of halogens, salts of trifluoromethanesulfonic acid, and combinations thereof, characterized in that 3-aminomethyl-3,5,5-trimethylcyclohexane is contained in the hardener composition in a proportion of at least 10 wt.%, based on the total weight of all amines which are reactive to epoxy groups.