mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for a mobile transceiver for a heterogeneous mobile communication system, wherein the mobile transceiver is operable to receive radio signals from two or more base station transceivers (200;210), the apparatus comprising means for receiving radio signals from the two or more base station transceivers, the means for receiving further having a receive sensitivity determining a capability to decode data from a radio signal of one of the two or more base station transceivers when also receiving radio signals from the other of the two or more base station transceivers; and means for providing sensitivity information on the receive sensitivity to an associated base station transceiver, wherein the means for receiving is operable to receive configuration information on a measurement configuration from a base station transceiver, wherein the configuration information comprises configuration information on a signal quality measurement at the mobile transceiver on radio signals received from another base station transceiver, wherein the configuration information comprises bias information for biasing the signal quality measurement, the bias information being based on the sensitivity information.
Transformation unit for transforming a food product by absorption of a quantity of liquid with a view to obtaining a transformed food product, said transformation unit comprising a container defining an internal volume in which a fixed quantity of food product is packaged, said transformation unit being able to be immersed in said liquid and to allow the liquid to pass into the container, said container having a sufficient rigidity so that the pressure force that it exerts on said fixed quantity of transformed food product makes it possible to mould said transformed food product in a shape that is substantially identical to that of the total internal volume of said container, said unit comprising at least one opening zone designed to allow said fixed quantity of food product to be introduced into said container and a closing means designed to close the opening zone so as to keep the food product inside said transformation unit during the transformation, and a gripping means and being characterized in that the internal volume occupied by said fixed quantity of food product is substantially smaller than the total internal volume of said container so that the food product present in the container does not occupy all the free internal space of said container, that is to say that, prior to the transformation of the food product, an unoccupied free space still remains in the container, the ratio between the volume of the fixed quantity of food product prior to the transformation thereof and the total internal volume of the container being between substantially 1.9 and 2.8, the container is designed so that its total internal volume corresponds substantially to the volume of the fixed quantity of transformed food product after absorption of the quantity of liquid necessary for the transformation thereof, and in that the gripping means is directly borne by the closing means and is strong enough to support the weight of the transformation unit after transformation of the food product.
Method for regulating a gas turbine, wherein measurement signal values (M n1, M n2) are measured at different points in time (n1, n2), namely at at least a first point in time and a second point in time, wherein the first point in time is located before the second point in time and wherein attenuated signal values (S n1, S n2) are generated from the measurement signal values (M n1, M n2), in that the measured measurement signal values (M n1, M n2) undergo a smoothing with an attenuation factor (λ), wherein the smoothing is an exponential smoothing, characterised in that - depending on the difference between the measurement signal value (M n2) at the second point in time and the attenuated signal value (S n1) at the first point in time, a different attenuation factor (λ) is used for regulation. - depending on the difference between the measurement signal value (M n2) at the second point in time and the attenuated signal value (S n1) at the first point in time, a different attenuation factor (λ) is used for regulation.
A method for indicating, by a user equipment, UE, usage of a multicast-broadcast single-frequency network, MBSFN, area in a wireless communication system, the method comprising: receiving system information including an identifier indicating usage of an MBSFN area; and determining whether to read a multicast control channel, MCCH, corresponding to the MBSFN area according to the received identifier, characterized in that, the usage of the MBSFN area includes at least one of low complexity/cost UE, or a category 0 UE, or at least one of machine-type communication, MTC, device-to-device, D2D, discovery/communication, group communication system enablers, GCSE, or public safety. receiving system information including an identifier indicating usage of an MBSFN area; and determining whether to read a multicast control channel, MCCH, corresponding to the MBSFN area according to the received identifier,
An axle (10a, 10b) mounted on a chassis of a vehicle, the axle (10a, 10b) comprising a central box, a first support arm connected to a first wheel of the vehicle and slidingly mounted inside the central box, and a second support arm connected to a second wheel of the vehicle, the second support arm being longitudinally translatable inside the first support arm, characterized in that the axle (10a, 10b) also includes a guide box fastened to the central box, the guide box comprising a rectangular tube and defining an outer annular volume (Ve) comprised between the central box and the tube, and an inner volume (Vi) comprised inside the tube, the first support arm being received inside the outer annular volume (Ve) and being able to be guided by the guide box along a first longitudinal translation path, the second support arm being received inside the inner volume (Vi) and being able to be guided by the guide box along a second longitudinal translation path.
A method for determining scope of services for an infrastructure device operating in a multi-site communication system having a central controller coupled to a plurality of sites, the method comprising: at the infrastructure device: receiving an overlap status for at least one neighboring infrastructure device, which indicates an amount of overlap in coverage area between the infrastructure device and the at least one neighboring infrastructure device; detecting (208, 210) that the infrastructure device has switched from a wide mode of operation, wherein the infrastructure device is communicatively connected to the central controller, to a local mode of operation, wherein the infrastructure device is communicatively disconnected from the central controller, and selecting, while in the local mode of operation, one of a plurality of local mode operating states of the infrastructure device, based on the received overlap status, the selected local mode operating state determining a scope of call services offered by the infrastructure device while in the local mode of operation. at the infrastructure device: receiving an overlap status for at least one neighboring infrastructure device, which indicates an amount of overlap in coverage area between the infrastructure device and the at least one neighboring infrastructure device; detecting (208, 210) that the infrastructure device has switched from a wide mode of operation, wherein the infrastructure device is communicatively connected to the central controller, to a local mode of operation, wherein the infrastructure device is communicatively disconnected from the central controller, and selecting, while in the local mode of operation, one of a plurality of local mode operating states of the infrastructure device, based on the received overlap status, the selected local mode operating state determining a scope of call services offered by the infrastructure device while in the local mode of operation. receiving an overlap status for at least one neighboring infrastructure device, which indicates an amount of overlap in coverage area between the infrastructure device and the at least one neighboring infrastructure device; detecting (208, 210) that the infrastructure device has switched from a wide mode of operation, wherein the infrastructure device is communicatively connected to the central controller, to a local mode of operation, wherein the infrastructure device is communicatively disconnected from the central controller, and selecting, while in the local mode of operation, one of a plurality of local mode operating states of the infrastructure device, based on the received overlap status, the selected local mode operating state determining a scope of call services offered by the infrastructure device while in the local mode of operation.
Method for determining the remaining life (t R) of a battery of an electronic device, in particular of a measuring device having a varying power consumption, wherein the remaining life (t R) is determined on the basis of a retrievable capacity (c eb) of the battery, a predefined period of time (a), a self-discharge (S a) of the battery per predefined period of time (a) and a mean discharge current (I m) of the battery as follows: t R = C eb I m ⋅ 1 − S a t R a where C eb = retrievable capacity, S a = self-discharge per predefined period of time, for example one year, a = predefined period of time (for example one year or one month), I m = mean discharge current, t R = remaining life, wherein the mean discharge current (I m) of the battery is determined on the basis of a frequency distribution of a number of operating states (B n). the remaining life (t R) is determined on the basis of a retrievable capacity (c eb) of the battery, a predefined period of time (a), a self-discharge (S a) of the battery per predefined period of time (a) and a mean discharge current (I m) of the battery as follows: t R = C eb I m ⋅ 1 − S a t R a where C eb = retrievable capacity, S a = self-discharge per predefined period of time, for example one year, a = predefined period of time (for example one year or one month), I m = mean discharge current, t R = remaining life, wherein the mean discharge current (I m) of the battery is determined on the basis of a frequency distribution of a number of operating states (B n).
Apparatus for magnetizing at least one permanent magnet, wherein the apparatus comprises a first field guide element and a second field guide element, wherein more than one exciter magnet is arranged between the first and the second field guide element (101, 102), wherein the more than one exciter magnet is magnetized in the radial direction, wherein the second field guide element consists of parts in the form of circular ring segments which do not touch and are arranged adjacent to one another with respect to the circumferential direction, and wherein the second field guide element comprises a holder for a magnet blank to be magnetized, wherein the more than one exciter magnet is movable relative to the field guide elements (101, 102) and the magnet blank is movable on a circular path around the magnet blank, so that, in a magnetization position, a magnetic field from the exciter magnet magnetizes the magnet blank to form the permanent magnet.
A method for detecting an audio input module, comprising: acquiring audio input signals received by at least two input signal channels of the audio input module; for each of the audio input signals, filtering (S 102) the audio input signal according to a preset audio output signal of an electronic device where the audio input module is located, to obtain a respective target signal; for each of the audio input signals, determining a comparison parameter value according to the target signal and the audio input signal, characterized in that the comparison parameter value comprises at least one of an attenuation factor or an echo return loss enhancement, ERLE; the attenuation factor comprises a ratio of the audio input signal to the target signal; and the ERLE comprises a logarithmic value of a square ratio of the audio input signal to the target signal; and determining (S 104) a performance state of the audio input module according to the comparison parameter values. acquiring audio input signals received by at least two input signal channels of the audio input module; for each of the audio input signals, filtering (S 102) the audio input signal according to a preset audio output signal of an electronic device where the audio input module is located, to obtain a respective target signal; for each of the audio input signals, determining a comparison parameter value according to the target signal and the audio input signal, characterized in that the comparison parameter value comprises at least one of an attenuation factor or an echo return loss enhancement, ERLE; the attenuation factor comprises a ratio of the audio input signal to the target signal; and the ERLE comprises a logarithmic value of a square ratio of the audio input signal to the target signal; and determining (S 104) a performance state of the audio input module according to the comparison parameter values.
An apparatus for evacuating at least a portion of a sample, comprising: A sheet provided with a smooth surface, in which smooth surface at least one hole is created in which to place the sample; the dimensions of the hole are such that the sample to be evacuated fits entirely within the hole; A sole plate that is slidable with respect to the smooth surface, the sole plate can fully cover the hole, as a result of which the entire sample is evacuated irrespective of its form, provided the dimensions of the sample are such that it completely fits within the hole; which sole plate presents a through-hole in such a manner that one end of the through-hole penetrates the sealing surface and the other end of the through-hole is connected to the inside of a vacuum column, characterized in that the sole plate demonstrates a sealing surface with respect to the smooth surface; said smooth surface of the sheet demonstrating, in combination with the sealing surface of the sole plate, a vacuum seal; and the sheet and the sole plate are in intimate contact, as a result of which any movement of the sheet with respect to the sole plate is counter-acted by the frictional force occurring between the smooth surface of the sheet and the smooth surface of the sole plate. A sheet provided with a smooth surface, in which smooth surface at least one hole is created in which to place the sample; the dimensions of the hole are such that the sample to be evacuated fits entirely within the hole; A sole plate that is slidable with respect to the smooth surface, the sole plate can fully cover the hole, as a result of which the entire sample is evacuated irrespective of its form, provided the dimensions of the sample are such that it completely fits within the hole; which sole plate presents a through-hole in such a manner that one end of the through-hole penetrates the sealing surface and the other end of the through-hole is connected to the inside of a vacuum column, characterized in that the sole plate demonstrates a sealing surface with respect to the smooth surface; said smooth surface of the sheet demonstrating, in combination with the sealing surface of the sole plate, a vacuum seal; and the sheet and the sole plate are in intimate contact, as a result of which any movement of the sheet with respect to the sole plate is counter-acted by the frictional force occurring between the smooth surface of the sheet and the smooth surface of the sole plate.
A proppant for hydraulically fracturing a subterranean formation, said proppant comprising: A. a particle present in an amount of from 90 to 99.5 percent by weight based on the total weight of said proppant; and B. a polyurethane coating disposed about said particle and present in an amount of from 0.5 to 10 percent by weight based on the total weight of said proppant, said polyurethane coating comprising the reaction product of; an isocyanate component, and an isocyanate-reactive component comprising a polydiene polyol. A. a particle present in an amount of from 90 to 99.5 percent by weight based on the total weight of said proppant; and B. a polyurethane coating disposed about said particle and present in an amount of from 0.5 to 10 percent by weight based on the total weight of said proppant, said polyurethane coating comprising the reaction product of; an isocyanate component, and an isocyanate-reactive component comprising a polydiene polyol.
Device for the single or multiple dosing of cleaners of at least one cleaner (50, 54, 58) in a cleaning unit, the at least one cleaner (50, 54, 58) being in the form of a powder, granules, a tablet, in the form of a block, a liquid or a gel, the at least one cleaner (50, 54, 58) being held in a cartridge, which has at least one seal (52, 56, 60), after the opening of which the at least one cleaner (50, 54, 58) arrives in a dissolving chamber and/or a solubilizing/dissolving area, which is in connection with a treatment agent reservoir, characterized in that not only the dissolving chamber or the solubilizing/dissolving area but also the treatment agent reservoir are connected to a device for fluid circulation, by way of which the treatment agent produced in the dissolving chamber or solubilizing/dissolving area and the medium contained in the treatment agent reservoir are circulated.
An implantable material comprising a first material having a microstructure including a multiplicity of fibrils and having an average fibril length, wherein at least a portion of said fibrils are length constrained by a second material that is not the same material as the first material, wherein the second material is a fracturable coating, and wherein during normal use of the article, upon the application of a force to the article in a direction that is substantially parallel to the length of the fibrils, said average fibril length is significantly increased and remains significantly increased following removal of the force.
A method comprising: determining, by a control system, one or more operational parameters of a motor for a winch of an aerial vehicle (200, 400), wherein the winch comprises a tether and a spool; detecting, by the control system, in the one or more operational parameters, an operational pattern of the motor that is indicative of an external force applied to the tether; and operating, by the control system, the motor in accordance with a motor response process that is determined by the control system based on the detected operational pattern of the motor. determining, by a control system, one or more operational parameters of a motor for a winch of an aerial vehicle (200, 400), wherein the winch comprises a tether and a spool; detecting, by the control system, in the one or more operational parameters, an operational pattern of the motor that is indicative of an external force applied to the tether; and operating, by the control system, the motor in accordance with a motor response process that is determined by the control system based on the detected operational pattern of the motor.
An apparatus comprising: an optical transmitter configured to generate and inject a modulated optical signal into an optical fiber having a plurality of optical reflectors (S n) distributed along the optical fiber, the optical transmitter comprising: a laser source, an optical coupler, a code generator, and a modulator configured to modulate a portion of an optical signal whereby to generate the modulated optical signal, the optical signal modulated on the basis of a binary code sequence generated by the code generator and comprising a code, the code modulated onto each of the horizontal and vertical polarization components of a portion of a polarized laser signal generated by the laser source, a dual-polarization coherent optical receiver configured to receive and process a reflected optical signal corresponding to reflections of the modulated optical signal from the optical reflectors to generate monitoring data corresponding to one or more selected locations along the optical fiber, the one or more selected locations corresponding to one or more of the optical reflectors; and an electronic controller configured to (i) determine the selected locations for the optical receiver and (ii) process the monitoring data to detect at least a first fiber event in the optical fiber at a detected location, wherein the electronic controller is further configured to change the selected locations for the optical receiver in response to at least the first fiber event. a laser source, an optical coupler, a code generator, and a modulator configured to modulate a portion of an optical signal whereby to generate the modulated optical signal, the optical signal modulated on the basis of a binary code sequence generated by the code generator and comprising a code, the code modulated onto each of the horizontal and vertical polarization components of a portion of a polarized laser signal generated by the laser source, a dual-polarization coherent optical receiver configured to receive and process a reflected optical signal corresponding to reflections of the modulated optical signal from the optical reflectors to generate monitoring data corresponding to one or more selected locations along the optical fiber, the one or more selected locations corresponding to one or more of the optical reflectors; and an electronic controller configured to (i) determine the selected locations for the optical receiver and (ii) process the monitoring data to detect at least a first fiber event in the optical fiber at a detected location, wherein the electronic controller is further configured to change the selected locations for the optical receiver in response to at least the first fiber event.
A method for mapping a source location by an electronic device, comprising: obtaining sensor data that comprises a voice signal from a source location; determining an orientation of the electronic device based on the sensor data; mapping the source location to electronic device coordinates based on the sensor data; mapping the source location from the electronic device coordinates to physical coordinates based on the orientation of the electronic device, the physical coordinates being coordinates that correspond to a physical space that is independent of the orientation of the electronic device; and performing an operation based on a mapping. obtaining sensor data that comprises a voice signal from a source location; determining an orientation of the electronic device based on the sensor data; mapping the source location to electronic device coordinates based on the sensor data; mapping the source location from the electronic device coordinates to physical coordinates based on the orientation of the electronic device, the physical coordinates being coordinates that correspond to a physical space that is independent of the orientation of the electronic device; and performing an operation based on a mapping.