mhurhangee/ep-ind-claims huggingface dataset:
Self-erecting tower comprising: • a structure comprising a set of cylindrical arches or voussoirs (2.1); • a rail (2.2) comprising a set of sections of rail, each one of them disposed in a side of each one of the cylindrical arches or voussoirs (2.1); • a platform configured to move along such rail (2.2); • a hoisting tool (3.7) disposed on the platform to carry out the hoisting of at least one cylindrical arch or voussoir (2.1) of the structure of the tower; characterized in that the rail (2.2) is a helical rail (2.2) comprising a set of sections of helical rail, each one of them disposed in an inner side of each one of the cylindrical arches or voussoirs (2.1). • a structure comprising a set of cylindrical arches or voussoirs (2.1); • a rail (2.2) comprising a set of sections of rail, each one of them disposed in a side of each one of the cylindrical arches or voussoirs (2.1); • a platform configured to move along such rail (2.2); • a hoisting tool (3.7) disposed on the platform to carry out the hoisting of at least one cylindrical arch or voussoir (2.1) of the structure of the tower;
A surge protection circuit, comprising a bridgeless boost sub-circuit and a surge protection sub-circuit, wherein, the bridgeless boost sub-circuit comprises a first connection end and a second connection end of an alternating current power source, an inductor 1, an inductor 2, a switching tube 1 with a damping diode, a switching tube 2 with a damping diode, a capacitor 1, a diode 5, and a diode 6; one end of the inductor 1 is connected to the first connection end of the alternating current power source, another end of the inductor 1 is connected to a positive pole of the diode 5 and a negative pole of the switching tube 1 with the damping diode, one end of the inductor 2 is connected to the second connection end of the alternating current power source, another end of the inductor 2 is connected to a positive pole of the diode 6 and a negative pole of the switching tube 2 with the damping diode, one end of the capacitor 1 is connected to a negative pole of the diode 5 and a negative pole of the diode 6, and another end of the capacitor 1 is connected to a positive pole of the switching tube 1 with the damping diode and a positive pole of the switching tube 2 with the damping diode; the surge protection sub-circuit comprises a first connection end and a second connection end of an alternating current power source, a diode 1, a diode 2, a transistor 3 and a transistor 4; a positive pole of the diode 1 is connected to the first connection end of the alternating current power source, a positive pole of the diode 2 is connected to a second connection end of the alternating current power source, a negative pole of the transistor 3 is connected to the first connection end of the alternating current power source, and a negative pole of the transistor 4 is connected to the second connection end of the alternating current power source; and characterized in that, the surge protection sub-circuit further comprises a surge buffer device, one end of the surge buffer device is connected to a negative pole of the diode 1 and a negative pole of the diode 2, and another end of the surge buffer device is connected to a positive pole of the transistor 3 and a positive pole of the transistor 4; wherein, the surge buffer device is a capacitor 2 and a resistance 2 which are parallel.
A winglet attach fitting configured to attach a split winglet to a wing, comprising: a wing attachment portion; an upper winglet attachment portion coupled to the wing attachment portion and configured to support an upper winglet; and a lower winglet attachment portion coupled to the wing attachment portion and configured to support a lower winglet; the wing attachment portion being removably attachable to a wing tip. a wing attachment portion; an upper winglet attachment portion coupled to the wing attachment portion and configured to support an upper winglet; and a lower winglet attachment portion coupled to the wing attachment portion and configured to support a lower winglet; the wing attachment portion being removably attachable to a wing tip.
A yaw-rate forecasting system for a vehicle, the system comprising: a yaw rate sensor configured to detect a yaw rate of the vehicle and generate a signal indicative of the detected yaw rate; an electronic control unit coupled to the yaw rate sensor, the electronic control unit configured to receive the signal indicative of the yaw rate of the vehicle from the yaw rate sensor, forecast a future yaw rate, determine a stability of the vehicle using the forecasted yaw rate, and generate a signal to control actuation of a vehicle brake, characterized in that the electronic control unit forecasts the future yaw rate by generating a model of a future yaw rate using the detected yaw rates, testing the model for adequacy and modifying the model if the model is found to be inadequate, and determining the future yaw rate for a moment in the future based on the model. a yaw rate sensor configured to detect a yaw rate of the vehicle and generate a signal indicative of the detected yaw rate; an electronic control unit coupled to the yaw rate sensor, the electronic control unit configured to receive the signal indicative of the yaw rate of the vehicle from the yaw rate sensor, forecast a future yaw rate, determine a stability of the vehicle using the forecasted yaw rate, and generate a signal to control actuation of a vehicle brake, characterized in that the electronic control unit forecasts the future yaw rate by generating a model of a future yaw rate using the detected yaw rates, testing the model for adequacy and modifying the model if the model is found to be inadequate, and determining the future yaw rate for a moment in the future based on the model.
A resilient and shock absorbing element which may be arranged in or adjacent to a shoe, comprising first magnets including a first fixing element for fixing said first magnets to a first part of the shoe, second magnets including a second fixing element for fixing said second magnets to a second part of the shoe or in an area adjacent to the shoe, at least one first magnet being displaceable in relation to at least one second magnet, characterized in that the first magnets and the second magnets are arranged according to a Halbach array.
Inertial system for a vehicle door handle, comprising: - an inertial mass, driven by inertia from a rest position in which the opening of the door is authorized, to a blocking position in which the opening of the door is blocked, - blocking means configured to prevent opening of the door when the inertial mass is in blocking position, - elastic means, being in a minimal tensile stress state when the inertial mass is in rest position, and configured to apply a force or torque on the inertial mass to bring said inertial mass from the blocking position back in rest position, characterized in that it further comprises a preloading organ intended to cooperate with the elastic means, and configured so that it comprises at least two possible preloading states enabling the elastic means to have different minimal tensile stress states. - an inertial mass, driven by inertia from a rest position in which the opening of the door is authorized, to a blocking position in which the opening of the door is blocked, - blocking means configured to prevent opening of the door when the inertial mass is in blocking position, - elastic means, being in a minimal tensile stress state when the inertial mass is in rest position, and configured to apply a force or torque on the inertial mass to bring said inertial mass from the blocking position back in rest position,
An uninterruptible power supply system comprising: at least one energy-storage-device connection configured to be coupled to an energy-storage device; a first output connection configured to be coupled to a main power source providing main power; a second output connection configured to be coupled to at least one load (106, 116); a first power converter coupled to the at least one energy-storage-device connection; a second power converter coupled to the at least one energy-storage-device connection; and at least one controller coupled to the first power converter and the second power converter, the at least one controller being configured to control the UPS system to connect the first power converter and the second power converter to the first output connection and the second output connection, control the UPS system to disconnect the first power converter from the second output connection responsive to detecting a fault in the main power, control the first power converter to provide power to the first output connection responsive to detecting the fault in the main power, and control the UPS system to disconnect the second power converter from the first output connection responsive to detecting the fault in the main power. at least one energy-storage-device connection configured to be coupled to an energy-storage device; a first output connection configured to be coupled to a main power source providing main power; a second output connection configured to be coupled to at least one load (106, 116); a first power converter coupled to the at least one energy-storage-device connection; a second power converter coupled to the at least one energy-storage-device connection; and at least one controller coupled to the first power converter and the second power converter, the at least one controller being configured to control the UPS system to connect the first power converter and the second power converter to the first output connection and the second output connection, control the UPS system to disconnect the first power converter from the second output connection responsive to detecting a fault in the main power, control the first power converter to provide power to the first output connection responsive to detecting the fault in the main power, and control the UPS system to disconnect the second power converter from the first output connection responsive to detecting the fault in the main power. control the UPS system to connect the first power converter and the second power converter to the first output connection and the second output connection, control the UPS system to disconnect the first power converter from the second output connection responsive to detecting a fault in the main power, control the first power converter to provide power to the first output connection responsive to detecting the fault in the main power, and control the UPS system to disconnect the second power converter from the first output connection responsive to detecting the fault in the main power.
Motor vehicle, comprising - at least one lighting device comprising at least one LED, - an actuation device for the lighting device comprising at least one LED, wherein the actuation device has an inverter and a control unit to actuate the inverter as a function of a control signal supplied to the control unit, wherein the control unit is configured to set the brightness of the lighting device by a pulse width modulated actuation of the inverter to emit a pulse width modulated output signal for the lighting device as a function of a duty cycle of the control signal supplied and - a lighting control device which is connected to the actuation device via a control line for the control signal supplied, characterised in that a characteristic curve is stored in the control unit which shows the duty cycle of the control signal supplied on a duty cycle of the pulse width modulated actuation of the inverter, wherein at least one range of the duty cycle of the control signal supplied located below a threshold value is shown on a duty cycle of the pulse width modulate actuation of the inverter of zero. - at least one lighting device comprising at least one LED, - an actuation device for the lighting device comprising at least one LED, wherein the actuation device has an inverter and a control unit to actuate the inverter as a function of a control signal supplied to the control unit, wherein the control unit is configured to set the brightness of the lighting device by a pulse width modulated actuation of the inverter to emit a pulse width modulated output signal for the lighting device as a function of a duty cycle of the control signal supplied and - a lighting control device which is connected to the actuation device via a control line for the control signal supplied,
Metal detector comprising a metallic enclosure with an entrance aperture and an exit aperture, further comprising a coil system arranged inside the enclosure, said coil system comprising at least one transmitter coil, at least one first receiver coil and at least one second receiver coil (24, 25) bounding a detection zone which extends between the entrance and exit apertures (30, 31) and through which objects under inspection move along a travel direction, entering the metal detector through the entrance aperture and leaving the metal detector through the exit aperture, wherein the at least one transmitter coil, when energized by an alternating electric current, generates a primary electromagnetic field which, in turn, induces a first voltage in the at least one first receiver coil and a second voltage in the at least one second receiver coil, wherein the metal detector further comprises at least one of a first cancelling means and a second cancelling means, the first cancelling means arranged at the entrance aperture to cancel the primary field beyond a first distance (d) from the coil system and the second cancelling means arranged at the exit aperture to cancel the primary field beyond a second distance (e) from the coil system, and wherein in case of presence of both the first cancelling means and the second cancelling means said first and second cancelling means (26, 27) are different from each other and the first distance (d) and the second distance (e) are likewise different from each other, the metal detector being characterized in that the first and second receiver coils (24, 25) are arranged in asymmetric positions relative to the transmitter coil and are connected in series with each other, but their windings are wired with the opposite sense of rotation relative to each other, wherein relative to the travel direction the first receiver coil is positioned at a first coil distance (a) ahead of the transmitter coil and the second receiver coil is positioned at a second, different coil distance (b) after the transmitter coil such that the first voltage and the second voltage are in a balanced state with each other when there is no metal present in said objects under inspection.
A polyfunctional urethane (meth)acrylate oligomer represented by formula 1: [Chemical Formula 1] XCH 2 -(C(CH 2 X) 2)n-CH 2 -O NH-A1-NH -O[-A2-O- NH-A3-NH]l-O-CH 2 -(C(CH 2 X) 2)m-CH 2 X (Formula 1) in formula 1, X represents a (meth)acryloyloxy group, A1 and A3 each represent the deisocyanated residue of a cycloaliphatic diisocyanate, provided that at least one of them is the deisocyanated residue of norbornane diisocyanate, A2 represents the dehydroxylated residue of metaxylylene glycol, and n, m and 1 are each a natural number.
A method of operating a network node of a communication network, the method comprising: receiving, by a first decoder of the network node, a first upstream-processed signal associated with an original signal; receiving, by a second decoder of the network node, a second upstream-processed signal, associated with the original signal; determining, by the first decoder of the network node, a first downstream-processed signal based on the first upstream-processed signal; responsive to determining the first downstream-processed signal, outputting, by the first decoder, the first downstream-processed signal; responsive to the first decoder outputting the first downstream-processed signal, determining, by the second decoder of the network node, a second downstream-processed signal based on the second upstream-processed signal and the first downstream-processed signal; responsive to determining the second downstream-processed signal, outputting, by the second decoder, the second downstream-processed signal; responsive to the second decoder outputting the second downstream-processed signal, determining, by the first decoder, a first revised downstream-processed signal based on the first downstream-processed signal and second downstream-processed signal; responsive to determining the first revised downstream-processed signal, outputting, by the first decoder, the first revised downstream-processed signal; and determining a decoded received signal based on outputs from the first decoder and the second decoder. receiving, by a first decoder of the network node, a first upstream-processed signal associated with an original signal; receiving, by a second decoder of the network node, a second upstream-processed signal, associated with the original signal; determining, by the first decoder of the network node, a first downstream-processed signal based on the first upstream-processed signal; responsive to determining the first downstream-processed signal, outputting, by the first decoder, the first downstream-processed signal; responsive to the first decoder outputting the first downstream-processed signal, determining, by the second decoder of the network node, a second downstream-processed signal based on the second upstream-processed signal and the first downstream-processed signal; responsive to determining the second downstream-processed signal, outputting, by the second decoder, the second downstream-processed signal; responsive to the second decoder outputting the second downstream-processed signal, determining, by the first decoder, a first revised downstream-processed signal based on the first downstream-processed signal and second downstream-processed signal; responsive to determining the first revised downstream-processed signal, outputting, by the first decoder, the first revised downstream-processed signal; and determining a decoded received signal based on outputs from the first decoder and the second decoder.
A face seal for a gas turbine engine comprising: a seal body, wherein the seal body is annular about an axis and is defined between an inner diameter and an outer diameter, the seal body having tapered sides and a seal face defining a contact area disposed between the tapered sides, wherein the seal face comprises an annular contact surface for engaging a rotating surface, the seal body defining an axial width between a back surface of the seal body and the seal face including a radial width (82; 88; 92), wherein a decrease (86;90) in the axial width from wear increases the contact area; characterised in that: the tapered sides are disposed at an angle relative to the seal face and wherein the seal face is centered between the inner diameter and the outer diameter of the seal body.
A device for providing video interpolation, the device comprising: an image sensor configured to obtain a time sequence of frames including a first frame and a second frame obtained after the first frame; an event sensor configured to obtain a time sequence of events, wherein one or more events are obtained between the first frame and the second frame; wherein the image sensor and the event sensor are temporally synchronized and cover the same field of view; and a processor configured to combine a warping-based interpolation and a synthesis-based interpolation to compute an intermediate frame referring to a point in time between the first frame and the second frame, wherein the intermediate frame is based on the first frame, the second frame and the one or more events obtained between the first frame and the second frame. an image sensor configured to obtain a time sequence of frames including a first frame and a second frame obtained after the first frame; an event sensor configured to obtain a time sequence of events, wherein one or more events are obtained between the first frame and the second frame; wherein the image sensor and the event sensor are temporally synchronized and cover the same field of view; and a processor configured to combine a warping-based interpolation and a synthesis-based interpolation to compute an intermediate frame referring to a point in time between the first frame and the second frame, wherein the intermediate frame is based on the first frame, the second frame and the one or more events obtained between the first frame and the second frame.
A method for wireless communication, comprising: receiving signals from a plurality of terminals in at least one frame, each frame comprising a plurality of resource blocks formed with multiple subcarrier sets in multiple time intervals, each terminal transmitting on different resource blocks in different frames, the different resource blocks being selected based on a hopping function; determining a set of terminals from among the plurality of terminals based on the hopping function and information on current time, signals from the set of terminals being expected to be received on resource blocks in a future time interval; measuring received power levels of signals received from the set of terminals in at least one prior time interval; determining a predicted received power level for the set of terminals in the future time interval based on the measured received power levels of the signals received from the set of terminals; determining a receiver gain setting for the future time interval based on the determined predicted received power level; and using the receiver gain setting to receive signals from the set of terminals in the future time interval. receiving signals from a plurality of terminals in at least one frame, each frame comprising a plurality of resource blocks formed with multiple subcarrier sets in multiple time intervals, each terminal transmitting on different resource blocks in different frames, the different resource blocks being selected based on a hopping function; determining a set of terminals from among the plurality of terminals based on the hopping function and information on current time, signals from the set of terminals being expected to be received on resource blocks in a future time interval; measuring received power levels of signals received from the set of terminals in at least one prior time interval; determining a predicted received power level for the set of terminals in the future time interval based on the measured received power levels of the signals received from the set of terminals; determining a receiver gain setting for the future time interval based on the determined predicted received power level; and using the receiver gain setting to receive signals from the set of terminals in the future time interval.
A process for recycling a multi-compartment water-soluble pouch comprising a phosphate-free bleach-containing cleaning composition and an enveloping material said pouch comprising at least two compartments, a first compartment comprising a solid composition and a second compartment comprising a liquid composition, the process comprising the steps of: a. releasing the compositions from their respective compartments by preferably cutting open the enveloping material; b. mixing the compositions; c. adding a moisture sink to the mixture; and d. optionally drying the mixture. a. releasing the compositions from their respective compartments by preferably cutting open the enveloping material; b. mixing the compositions; c. adding a moisture sink to the mixture; and d. optionally drying the mixture.