mhurhangee/ep-ind-claims huggingface dataset:
A self oscillating modulator circuit comprising: - at least first and second class D self oscillating loop modules (100, 101), each comprising an hysteresis comparator (102, 103), and each module being configured for receiving a respective input signal (E1, E2) and outputting a respective two-level signal (S1, S2), - coupling means comprising a voltage divider connected between the respective inputs of the hysteresis comparator of the first and second self class D oscillating loop modules, respectively, ahead of the hysteresis comparator of each of said first and second class D self oscillating modules, arranged for synchronizing said class D self oscillating loop modules, and - summing means arranged for summing the respective output signals of each of first and second class D self oscillating loop modules and for outputting a multi level modulated output signal. - at least first and second class D self oscillating loop modules (100, 101), each comprising an hysteresis comparator (102, 103), and each module being configured for receiving a respective input signal (E1, E2) and outputting a respective two-level signal (S1, S2), - coupling means comprising a voltage divider connected between the respective inputs of the hysteresis comparator of the first and second self class D oscillating loop modules, respectively, ahead of the hysteresis comparator of each of said first and second class D self oscillating modules, arranged for synchronizing said class D self oscillating loop modules, and - summing means arranged for summing the respective output signals of each of first and second class D self oscillating loop modules and for outputting a multi level modulated output signal.
An in vitro method for analyzing a sample, comprising: (a) contacting an oligonucleotide or a conjugate comprising the same with a planar biological sample that is a tissue section under conditions by which the oligonucleotide or conjugate specifically binds to sites in or on the tissue section; (b) performing one or more steps to release and/or extend the oligonucleotide in situ, to produce a reporter probe; (c) transferring all or a part of the reporter probe from the tissue section to a planar support that does not comprise oligonucleotides, wherein the transferring is done by placing the tissue section on the support and transferring the reporter probes onto the surface of the support by diffusion such that the spatial relationship of the reporter probe in the tissue section is preserved, wherein the planar support is glass; and (d) detecting the reporter probe on the glass support by microscopy, wherein step (d) comprises hybridizing one or more labeled oligonucleotides, directly or indirectly, to the reporter probe and then detecting the binding pattern of the labeled oligonucleotides by microscopy, and wherein the method is free of any nucleic acid amplification. (a) contacting an oligonucleotide or a conjugate comprising the same with a planar biological sample that is a tissue section under conditions by which the oligonucleotide or conjugate specifically binds to sites in or on the tissue section; (b) performing one or more steps to release and/or extend the oligonucleotide in situ, to produce a reporter probe; (c) transferring all or a part of the reporter probe from the tissue section to a planar support that does not comprise oligonucleotides, wherein the transferring is done by placing the tissue section on the support and transferring the reporter probes onto the surface of the support by diffusion such that the spatial relationship of the reporter probe in the tissue section is preserved, wherein the planar support is glass; and (d) detecting the reporter probe on the glass support by microscopy, wherein step (d) comprises hybridizing one or more labeled oligonucleotides, directly or indirectly, to the reporter probe and then detecting the binding pattern of the labeled oligonucleotides by microscopy, and wherein the method is free of any nucleic acid amplification.
A method performed by a user equipment, UE, for requesting a target system information block, SIB, associated with a target service, the method comprising: receiving and storing at least one SIB segment of a plurality of SIB segments associated with the target SIB on a first active downlink Bandwidth Part, BWP; switching from the first active downlink BWP to a second active downlink BWP; initiating a dedicated SIB request procedure to send, to a serving cell, a request for the target SIB after determining that the second active downlink BWP is not configured with any common search space for receiving system information, the dedicated SIB request procedure initiated while the UE has stored the at least one SIB segment of the plurality of SIB segments associated with the target SIB, and before the target SIB is successfully assembled based on the plurality of SIB segments; transmitting, to the serving cell, the request for the target SIB; and starting a timer upon transmitting the request to the serving cell, wherein a second dedicated SIB request procedure is not initiated while the timer is running. receiving and storing at least one SIB segment of a plurality of SIB segments associated with the target SIB on a first active downlink Bandwidth Part, BWP; switching from the first active downlink BWP to a second active downlink BWP; initiating a dedicated SIB request procedure to send, to a serving cell, a request for the target SIB after determining that the second active downlink BWP is not configured with any common search space for receiving system information, the dedicated SIB request procedure initiated while the UE has stored the at least one SIB segment of the plurality of SIB segments associated with the target SIB, and before the target SIB is successfully assembled based on the plurality of SIB segments; transmitting, to the serving cell, the request for the target SIB; and starting a timer upon transmitting the request to the serving cell, wherein a second dedicated SIB request procedure is not initiated while the timer is running.
An engine start controller for a hybrid vehicle, the hybrid vehicle having, as drive sources of said hybrid vehicle, an engine and a motor that are mutually coupled via a clutch, and a crank angle sensor that detects and outputs a crank angle of the crank shaft in the engine, characterized in that the engine start controller for the hybrid vehicle comprises a target engine speed value setting section that sets, at the time of starting the engine using the motor via the clutch, a target engine speed value based on a stop crank position of the engine detected by using a signal from the crank angle sensor; a clutch transmission torque control section that controls the clutch via a hydraulic pressure control circuit to control transmission torque of the clutch on the basis of the target engine speed value; and a feedback correction section that calculates, after initiation of start control for the engine, a feedback correction amount on the basis of a difference between the target engine speed value and a measured value of an engine speed and calculates a loss torque on the basis of advancement of the crank angle, and adds the feedback correction amount and the loss torque together to subject the transmission torque of the clutch controlled by the clutch transmission torque control section to feedback correction. as drive sources of said hybrid vehicle, an engine and a motor that are mutually coupled via a clutch, and a crank angle sensor that detects and outputs a crank angle of the crank shaft in the engine, characterized in that the engine start controller for the hybrid vehicle comprises a target engine speed value setting section that sets, at the time of starting the engine using the motor via the clutch, a target engine speed value based on a stop crank position of the engine detected by using a signal from the crank angle sensor; a clutch transmission torque control section that controls the clutch via a hydraulic pressure control circuit to control transmission torque of the clutch on the basis of the target engine speed value; and a feedback correction section that calculates, after initiation of start control for the engine, a feedback correction amount on the basis of a difference between the target engine speed value and a measured value of an engine speed and calculates a loss torque on the basis of advancement of the crank angle, and adds the feedback correction amount and the loss torque together to subject the transmission torque of the clutch controlled by the clutch transmission torque control section to feedback correction. calculates, after initiation of start control for the engine, a feedback correction amount on the basis of a difference between the target engine speed value and a measured value of an engine speed and calculates a loss torque on the basis of advancement of the crank angle, and adds the feedback correction amount and the loss torque together to subject the transmission torque of the clutch controlled by the clutch transmission torque control section to feedback correction.
Device for closing or opening the opening of a materials bunker arranged above the throat of a blast furnace, having a movable flap dish, which can be moved into a position in which the opening is open and back again into a position in which the opening is closed and characterised in that the flap dish is connected to a linkage system in such a way that the flap dish can be moved in a linear movement in the vicinity of the opening vertically in relation to the opening plane and distally from the opening in a swivelling movement.
A separation method comprising the steps: (a) detecting in a fluid having a surface, and containing a plurality of localized volumes having a different acoustic impedance than the fluid, a single localized volume located sufficiently near the surface for ejection by virtue of reflection of acoustic energy directed to a focal point within the fluid, the amount of energy being insufficient to eject fluid; (b) determining whether the single localized volume meets one or more criteria for ejection; (c) selecting the single localized volume for ejection from the fluid based on the determination in step (b); and (d) ejecting the single localized volume from the fluid by use of focused acoustic energy, the amount of energy being sufficient to eject a volume of fluid substantially corresponding to the selected single localized volume. (a) detecting in a fluid having a surface, and containing a plurality of localized volumes having a different acoustic impedance than the fluid, a single localized volume located sufficiently near the surface for ejection by virtue of reflection of acoustic energy directed to a focal point within the fluid, the amount of energy being insufficient to eject fluid; (b) determining whether the single localized volume meets one or more criteria for ejection; (c) selecting the single localized volume for ejection from the fluid based on the determination in step (b); and (d) ejecting the single localized volume from the fluid by use of focused acoustic energy, the amount of energy being sufficient to eject a volume of fluid substantially corresponding to the selected single localized volume.
A data transmission method, comprising: sending (S101, S405), by a macro base station, a configuration request message to an access node, wherein the configuration request message comprises a bearer configuration parameter that carries a radio bearer, RB, identifier, wherein the bearer configuration parameter comprises a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, tunnel parameter, wherein the GTP tunnel parameter is a parameter of a GTP tunnel established by the macro base station for each bearer between the macro base station and the access node, and the GTP tunnel is used to carry data transmitted between the macro base station and the access node, and the GTP tunnel parameter is used to identify an address of each GTP tunnel on the macro base station side; receiving (S102, S407), by the macro base station, a configuration success message from the access node, wherein the configuration success message carries at least physical layer parameter configuration information that is configured by the access node for a user equipment; and sending (S103, S408), by the macro base station, a reconfiguration message to the user equipment, wherein the reconfiguration message comprises at least an identifier of an RB and/or a logical channel that is reconfigured to transmit on the access node and the physical layer parameter configuration information of the access node. sending (S101, S405), by a macro base station, a configuration request message to an access node, wherein the configuration request message comprises a bearer configuration parameter that carries a radio bearer, RB, identifier, wherein the bearer configuration parameter comprises a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, tunnel parameter, wherein the GTP tunnel parameter is a parameter of a GTP tunnel established by the macro base station for each bearer between the macro base station and the access node, and the GTP tunnel is used to carry data transmitted between the macro base station and the access node, and the GTP tunnel parameter is used to identify an address of each GTP tunnel on the macro base station side; receiving (S102, S407), by the macro base station, a configuration success message from the access node, wherein the configuration success message carries at least physical layer parameter configuration information that is configured by the access node for a user equipment; and sending (S103, S408), by the macro base station, a reconfiguration message to the user equipment, wherein the reconfiguration message comprises at least an identifier of an RB and/or a logical channel that is reconfigured to transmit on the access node and the physical layer parameter configuration information of the access node.
A fluid distribution device for applying a fluid onto a transfer roller, the device comprising an elongated chamber extending in an axial direction, at least one inlet for letting a fluid into the chamber, a longitudinal opening extending in the axial direction and adapted to face a transfer roller when the device is in use so as to allow fluid to exit the chamber and contact the transfer roller, and a wiper blade extending along at least a portion of the longitudinal opening, in the axial direction, the chamber having two axial ends; wherein the chamber comprises, at each of the two axial ends of the chamber, a wall separating the chamber from a cavity, wherein the wall has a wall surface arranged to face the transfer roller when the device is in use, the wall being dimensioned so that the wall surface will be distanced from the transfer roller when the device is in use, so as to allow fluid to be present in a gap between the wall surface and the transfer roller, whereby no friction seal elements arranged to contact the transfer roller are provided to close the chamber at the axial ends thereof, characterised in that the device comprises only one wiper blade.
A system for piloting a drone in immersion, comprising a drone provided with imaging means and a ground station communicating with the drone through a wireless link, the ground station comprising: - a console provided with a directional antenna adapted to be directed towards the drone to maintain the quality of the wireless link, - virtual reality glasses rendering images taken by means of the imaging means and transmitted from the drone through the wireless link, as well as visual indications included in the rendered images, - means for determining a direction of the drone, and - means for including in the visual indications an indication related to the direction of the drone, the system being characterized in that: • the means for determining a direction of the drone comprise means (15, 38, 39, 410-450) for determining a defined angular coordinate (γ) between a heading direction of the console and said direction of the drone, • the means for including an indication in the visual indications are means sensitive to said determination means, and • the indication related to the direction of the drone is an indication of misalignment (C, Ce, G, Id) of the drone with respect to the console heading, and is function of the determined angular coordinate (γ), so as to allow a user of the console to perform a corrective action of reorientation of the console towards a reduction of said angular coordinate (γ). - a console provided with a directional antenna adapted to be directed towards the drone to maintain the quality of the wireless link, - virtual reality glasses rendering images taken by means of the imaging means and transmitted from the drone through the wireless link, as well as visual indications included in the rendered images, - means for determining a direction of the drone, and - means for including in the visual indications an indication related to the direction of the drone, • the means for determining a direction of the drone comprise means (15, 38, 39, 410-450) for determining a defined angular coordinate (γ) between a heading direction of the console and said direction of the drone, • the means for including an indication in the visual indications are means sensitive to said determination means, and • the indication related to the direction of the drone is an indication of misalignment (C, Ce, G, Id) of the drone with respect to the console heading, and is function of the determined angular coordinate (γ),
A driver assistance system in a motor vehicle, comprising a detection system for identifying upcoming events which permit an increase in current speed as a result of a lifting of a currently valid speed restriction, a functional unit for determining an acceleration strategy for increasing the speed, and comprising a notification system for outputting a request notification to the driver to allow automatic implementation of the acceleration strategy, wherein the functional unit initiates the automatic implementation of the acceleration strategy upon confirmation of the request notification by the driver, wherein the request notification (Ah) can be output to the driver at a defined time before the upcoming event (vE) lifting the current speed restriction, and characterised in that the functional unit initiates an acceleration strategy, which is formed as a two-stage acceleration strategy, in the case that the request notification (Ah) is confirmed (z) before the upcoming event (vE) lifting the current speed restriction is reached.
A method of power factor correction in which an input voltage (V in) is applied to an inductor which is cyclically discharged through a diode by the operation of a switch, the switch being controlled by a controller which varies the on period of the switch, during which the inductor is charged, for adjusting an output voltage (V bus) towards a target value (V bus_target), the method including obtaining an indication of the inductor reaching a discharged state in response to the switch being in an off state, and the controller monitoring at least one of the switch on period (T on) and the switch off period (T off) to identify whether the input voltage (V in) is an alternating voltage, characterized in that the controller monitors the ratio of the switch off period (T off) to the switch on period (T on) to identify whether the input voltage (V in) is an alternating voltage, wherein the controller determines that the input voltage (V in) is an alternating voltage if the ratio of the switch off period (T off) to the switch on period (T on) exceeds an upper threshold (T off_high) within a predetermined time period or if the ratio of the switch off period (T off) to the switch on period (T on) is less than a lower threshold (T off_low) within a predetermined time period.
A machine for closing the tail end of a log of web material, comprising: a log advancing path; along the log advancing path, a tail end unwinding, positioning and sealing station, comprising an aperture that extends downwards from an inlet under the log advancing path, characterized in that at least a first Coanda effect nozzle is placed at the inlet of the aperture, to generate a flow of air that is adapted to draw into the aperture the tail end of a log that is in the tail end unwinding, positioning and sealing station. a log advancing path; along the log advancing path, a tail end unwinding, positioning and sealing station, comprising an aperture that extends downwards from an inlet under the log advancing path, characterized in that at least a first Coanda effect nozzle is placed at the inlet of the aperture, to generate a flow of air that is adapted to draw into the aperture the tail end of a log that is in the tail end unwinding, positioning and sealing station.
A method, performed by a first device, for managing a transmission power parameter indicating power for Device-To-Device, D2D, transmission to be sent on at least one D2D link between the first device and a second device, wherein the method comprises: determining a load based on one or more metric of a D2D communication between at least the first and second devices (111, 112), wherein the load corresponds to a usage of D2D communication resources; and determining the transmission power parameter based on the determined load, wherein the determining of the transmission power parameter comprises determining the transmission power parameter based on the load in an at least partly inverse manner while not exceeding a maximum transmit power of the first device. determining a load based on one or more metric of a D2D communication between at least the first and second devices (111, 112), wherein the load corresponds to a usage of D2D communication resources; and determining the transmission power parameter based on the determined load, wherein the determining of the transmission power parameter comprises determining the transmission power parameter based on the load in an at least partly inverse manner while not exceeding a maximum transmit power of the first device.
A method for communication by a receiver user equipment, LTE, the method comprising: receiving, from a sender LTE, a scheduling assignment including a first part of a destination ID and a first part of a source ID, wherein the source ID identifies the sender UE; filtering packets obtained at a physical layer of the receiver UE which is a destination of data, using the first part of the destination ID; receiving, from the sender LTE, a medium access control, MAC, protocol data unit, PDU, including a MAC header including a second part of the destination ID and a second part of the source ID; and filtering packets obtained at a MAC layer of the receiver UE which is the destination of data, using the second part of the destination ID and the second part of the source ID, wherein the first part of the destination ID comprises of n least significant bits, LSBs, of the destination ID, and the second part of the destination ID comprises of remaining most significant bits, MSBs, of the destination ID. receiving, from a sender LTE, a scheduling assignment including a first part of a destination ID and a first part of a source ID, wherein the source ID identifies the sender UE; filtering packets obtained at a physical layer of the receiver UE which is a destination of data, using the first part of the destination ID; receiving, from the sender LTE, a medium access control, MAC, protocol data unit, PDU, including a MAC header including a second part of the destination ID and a second part of the source ID; and filtering packets obtained at a MAC layer of the receiver UE which is the destination of data, using the second part of the destination ID and the second part of the source ID, wherein the first part of the destination ID comprises of n least significant bits, LSBs, of the destination ID, and the second part of the destination ID comprises of remaining most significant bits, MSBs, of the destination ID.