mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving one or more parameters from a base station regarding performance of a device in a wireless communication network; determining an interference to the device based at least in part on the one or more parameters, wherein determining the interference to the device includes computing an improvement to the one or more parameters regarding the performance of the device due to blanking transmission over a subset of resources; and blanking transmission over the subset of resources utilized by the device to communicate with the base station based on the determined improvement, to mitigate the interference to the device on the subset of resources. receiving one or more parameters from a base station regarding performance of a device in a wireless communication network; determining an interference to the device based at least in part on the one or more parameters, wherein determining the interference to the device includes computing an improvement to the one or more parameters regarding the performance of the device due to blanking transmission over a subset of resources; and blanking transmission over the subset of resources utilized by the device to communicate with the base station based on the determined improvement, to mitigate the interference to the device on the subset of resources.
A system for detecting terahertz radiation comprising: an input configured for receiving the terahertz radiation, a metallic layer arranged for receiving the terahertz radiation from the input and wherein the metallic layer comprises an arrangement of metallic structures or apertures in a metallic film, the metallic layer being configured to provide electromagnetic field enhancement of the terahertz radiation and thus emitting an optical signal in response to the terahertz radiation via a three-step process which involves terahertz-induced field emission of electrons from the metal, acceleration of the electrons in the THz field, and collision of the electrons either with gas molecules in the atmosphere above the metal or collision between the electrons and the metal surface when the electrons return to the metal after the acceleration period, wherein UV-VIS-NIR light is emitted as a result of subsequent deexcitation of the gas molecules or deexcitation of localized surface plasmons of the metal surface, and an optical sensor arranged to detect the emitted optical signal and to provide a signal indicating a property of the terahertz radiation. an input configured for receiving the terahertz radiation, a metallic layer arranged for receiving the terahertz radiation from the input and wherein the metallic layer comprises an arrangement of metallic structures or apertures in a metallic film, the metallic layer being configured to provide electromagnetic field enhancement of the terahertz radiation and thus emitting an optical signal in response to the terahertz radiation via a three-step process which involves terahertz-induced field emission of electrons from the metal, acceleration of the electrons in the THz field, and collision of the electrons either with gas molecules in the atmosphere above the metal or collision between the electrons and the metal surface when the electrons return to the metal after the acceleration period, wherein UV-VIS-NIR light is emitted as a result of subsequent deexcitation of the gas molecules or deexcitation of localized surface plasmons of the metal surface, and an optical sensor arranged to detect the emitted optical signal and to provide a signal indicating a property of the terahertz radiation.
Method for the remote provisioning of an access subscription of a user to a wireless communication network, wherein at least one network operator provides communication services to mobile communication devices provided with a user Universal Integrated Circuit Card, UICC, card, wherein said UICC contains data defining an initial subscription, said initial subscription being owned by an entity (EP, OR2) not intended to be a final network service provider, and said data comprising initial keys keys 1, characterized in that the method comprises sending a subscription provisioning request to a first network operator through the entity (EP, OR2), sending the initial keys keys 1 forming part of said initial subscription to said first network operator, generating data of a new temporary subscription (Sn) in the first network operator and sending through the entity (EP, OR2) at least part of the data of the new temporary subscription (Sn) to the UICC card requiring provisioning, wherein the data of the new temporary subscription (Sn) comprise data of the first operator to identify the subscription (DSn), a key-generating seed (SGCn) and a key-generating algorithm (ALGn) for performing user authentication in the first operator, generating the definitive keys of a definitive subscription from the key-generating algorithm (ALGn) and the initial keys keys 1 using the key-generating seed (SGCn) in the first network operator and in the UICC card, wherein said definitive subscription is valid for the access of the UICC card to the services provided by the first network operator.
An inspection apparatus for a sheet (W, Wa) subjected to a process to impart a translucent property, wherein the inspection apparatus comprises: a light source (41a, 41b) configured to irradiate the sheet (W, Wa) with light containing ultraviolet rays; imaging means for imaging the sheet (W, Wa); characterized in that the inspection apparatus further comprises: a support member in which a surface facing the sheet (W, Wa) is processed with a material to produce luminescence in a visible light range upon irradiation of the ultraviolet rays; an ultraviolet filter configured to eliminate the ultraviolet rays in the light emitted from the light source (41a, 41b) and reflected off the sheet (W, Wa) and the support member, and to make only the light having wavelengths longer than wavelengths of the ultraviolet rays incident on the imaging means; and a control device configured to determine appropriateness of the process to impart a translucent property performed on the sheet (W, Wa) on the basis of the luminescence in the visible light range produced by the support member and made incident on the imaging means. a light source (41a, 41b) configured to irradiate the sheet (W, Wa) with light containing ultraviolet rays; imaging means for imaging the sheet (W, Wa); a support member in which a surface facing the sheet (W, Wa) is processed with a material to produce luminescence in a visible light range upon irradiation of the ultraviolet rays; an ultraviolet filter configured to eliminate the ultraviolet rays in the light emitted from the light source (41a, 41b) and reflected off the sheet (W, Wa) and the support member, and to make only the light having wavelengths longer than wavelengths of the ultraviolet rays incident on the imaging means; and a control device configured to determine appropriateness of the process to impart a translucent property performed on the sheet (W, Wa) on the basis of the luminescence in the visible light range produced by the support member and made incident on the imaging means.
A loudspeaker system comprising: a speaker set including two or more speaker units; a camera that photographs an acoustic space of said speaker set, and has a predetermined relative positional relationship with said speaker set; camera image display means adapted to display a camera image photographed by said camera; target position designation means adapted to, on a basis of a user operation, designate one or more than one target position on said camera image; directional control angle calculation means adapted to, on a basis of said target position, obtain one or more than one directional control angle with respect to a front direction of said speaker set; and directional control means adapted to, on a basis of said directional control angle, perform directional control of said speaker set. a speaker set including two or more speaker units; a camera that photographs an acoustic space of said speaker set, and has a predetermined relative positional relationship with said speaker set; camera image display means adapted to display a camera image photographed by said camera; target position designation means adapted to, on a basis of a user operation, designate one or more than one target position on said camera image; directional control angle calculation means adapted to, on a basis of said target position, obtain one or more than one directional control angle with respect to a front direction of said speaker set; and directional control means adapted to, on a basis of said directional control angle, perform directional control of said speaker set.
Heat exchanger, in particular for a motor vehicle, said exchanger comprising a heat-exchange bundle with a plurality of heat-exchange tubes defining circulation ducts for a fluid: - the heat-exchange bundle comprising a plurality of first frames for receiving the heat-exchange tubes, and in that - the first frames for receiving the heat-exchange tubes respectively comprising at least one stress-absorption region arranged on at least one edge (13A, 13B) opposite an end of a heat-exchange tube and able to withstand the mechanical stresses, the heat exchanger being characterized in that the stress-absorption regions are produced by a predetermined number of stress-absorption legs formed on at least one edge (13A, 14B) of a first receiving frame opposite an end of a heat-exchange tube and extending in the direction of the end of the heat-exchange tube. - the heat-exchange bundle comprising a plurality of first frames for receiving the heat-exchange tubes, and in that - the first frames for receiving the heat-exchange tubes respectively comprising at least one stress-absorption region arranged on at least one edge (13A, 13B) opposite an end of a heat-exchange tube and able to withstand the mechanical stresses, the heat exchanger being characterized in that the stress-absorption regions are produced by a predetermined number of stress-absorption legs formed on at least one edge (13A, 14B) of a first receiving frame opposite an end of a heat-exchange tube and extending in the direction of the end of the heat-exchange tube.
A method of discharging a battery, characterized in that the method comprises: a monitoring step, monitoring a remaining capacity of the battery in each discharging process; a calculation step, calculating a cumulative remaining capacity and a capacity decay rate of the battery within a specified quantity of discharging times; and a deep discharge step, deeply discharging the battery in a next discharging process when the cumulative remaining capacity is greater than or equal to a first preset threshold or the capacity decay rate is greater than or equal to a second preset threshold, which is 50%, wherein the capacity decay rate is obtained through the following steps: monitoring a first discharge capacity of the battery in the m th discharging process, wherein m is an integer greater than 0; monitoring a second discharge capacity of the battery in the (m+N) th discharging process, wherein N is an integer greater than or equal to 1; and calculating the capacity decay rate k, wherein k = (first discharge capacity - second discharge capacity) / rated capacity × 100%. a monitoring step, monitoring a remaining capacity of the battery in each discharging process; a calculation step, calculating a cumulative remaining capacity and a capacity decay rate of the battery within a specified quantity of discharging times; and a deep discharge step, deeply discharging the battery in a next discharging process when the cumulative remaining capacity is greater than or equal to a first preset threshold or the capacity decay rate is greater than or equal to a second preset threshold, which is 50%, wherein the capacity decay rate is obtained through the following steps: monitoring a first discharge capacity of the battery in the m th discharging process, wherein m is an integer greater than 0; monitoring a second discharge capacity of the battery in the (m+N) th discharging process, wherein N is an integer greater than or equal to 1; and calculating the capacity decay rate k, wherein k = (first discharge capacity - second discharge capacity) / rated capacity × 100%. monitoring a first discharge capacity of the battery in the m th discharging process, wherein m is an integer greater than 0; monitoring a second discharge capacity of the battery in the (m+N) th discharging process, wherein N is an integer greater than or equal to 1; and calculating the capacity decay rate k, wherein k = (first discharge capacity - second discharge capacity) / rated capacity × 100%.
A method for locating a mobile terminal device in a network system comprising at least a first access network (104a; 104b) that falls under a first mobile phone standard having several cells that are combined to form one or more tracking areas (200a; 200b), whereby one or more tracking areas (200a; 200b) of at least the first access network (104a; 104b) are combined to form an equivalent area, and whereby, when the mobile terminal device enters an equivalent area, it transmits a locating message to the first access network (104a; 104b) and/or it transmits locating messages to the first access network (104a,b) at prescribed time intervals, whereby the locating messages indicate a sub-area of an equivalent area in which the mobile terminal device is located during transmissions of a locating message, in that at least the sub-area indicated in the most recently received locating message is stored by the network, and in that at least a first terminal device tracking call is transmitted by the network within the stored sub-area in order to locate the mobile terminal device, whereby at least a second terminal device tracking call within an additional sub-area of the equivalent area in which the stored sub-area is located is transmitted if the mobile terminal device does not respond to the first terminal device tracking call within a prescribed period of time, characterized in that the additional sub-area comprises at least one sub-area - spatially overlapping with and/or spatially adjacent to the stored sub-area - of a second access network (104a; 104b) that falls under a second mobile phone standard, whereby the second mobile phone standard differs from the first mobile phone standard, and whereby the second access network (104a; 104b) differs from the first access network (104a; 104b) to which the stored sub-area belongs, whereby the first and the second access networks (104a; 104b) are connected to a core network, and the first and second access networks (104a; 104b) are each associated with a plurality of base stations that are equipped in accordance with access technology of the first or second access network (104a; 104b).
An amplifier for generating an amplified output signal (340; E out), said amplifier comprising: an interleaved PWM amplifier section (305; 405) having a transfer characteristic G N and adapted to receive a modified input signal (325; 420) and to generate the amplified output signal (340; E out) based on a first set of one or more carrier signals represented by a first set of one or more phasing vectors and on the modified input signal (325; 420), said modified input signal (325; 420) being based on an input signal (360; E in) to be amplified; and a signal attenuator adapted to generate an attenuated output signal corresponding to the amplified output signal (340; E out); characterized by an interleaved PWM section (370; 425) having a transfer characteristic G L and adapted to receive the modified input signal (325; 420) and to generate a first set of interleaved PWM pulse signals based on a second set of one or more carrier signals represented by a second set of one or more phasing vectors and on the modified input signal (325; 420); a delay circuit (375; 510) adapted to receive the first set of interleaved PWM pulse signals and to generate a delayed output signal (385; 520) corresponding to the first set of interleaved PWM pulse signals; and one or more combiner circuits (525, 545) adapted to generate the modified input signal (325; 420) based on the delayed output signal (385; 520), the attenuated output signal, and the input signal (360; E in) to be amplified. an interleaved PWM amplifier section (305; 405) having a transfer characteristic G N and adapted to receive a modified input signal (325; 420) and to generate the amplified output signal (340; E out) based on a first set of one or more carrier signals represented by a first set of one or more phasing vectors and on the modified input signal (325; 420), said modified input signal (325; 420) being based on an input signal (360; E in) to be amplified; and a signal attenuator adapted to generate an attenuated output signal corresponding to the amplified output signal (340; E out); characterized by an interleaved PWM section (370; 425) having a transfer characteristic G L and adapted to receive the modified input signal (325; 420) and to generate a first set of interleaved PWM pulse signals based on a second set of one or more carrier signals represented by a second set of one or more phasing vectors and on the modified input signal (325; 420); a delay circuit (375; 510) adapted to receive the first set of interleaved PWM pulse signals and to generate a delayed output signal (385; 520) corresponding to the first set of interleaved PWM pulse signals; and one or more combiner circuits (525, 545) adapted to generate the modified input signal (325; 420) based on the delayed output signal (385; 520), the attenuated output signal, and the input signal (360; E in) to be amplified.
A cryoablation device, comprising: an annular mapping catheter; and a cryoballoon catheter, wherein the annular mapping catheter is adapted to be used with the cryoballoon catheter; wherein the annular mapping catheter comprises a catheter body, wherein the catheter body has a distal end and a proximal end, a distal assembly is disposed at the distal end of the catheter body, and a handle is disposed at the proximal end of the catheter body; the distal assembly is composed of a head tube having a shape memory function, and the distal assembly presents a predetermined bend comprising an annular portion and a vertical portion in a free state, and the vertical portion connects the annular portion to the catheter body; and the distal assembly is provided with electrodes; characterized in that two groups of electrodes are distributed on the distal assembly, wherein the annular portion of the distal assembly is provided with one group of electrodes, and the vertical portion of the distal assembly is provided with the other group of electrodes; and that the predetermined bend is formed such that, in a free state, the vertical portion extends toward the distal end at least partially beyond the annular portion. an annular mapping catheter; and a cryoballoon catheter, wherein the annular mapping catheter is adapted to be used with the cryoballoon catheter; wherein the annular mapping catheter comprises a catheter body, wherein the catheter body has a distal end and a proximal end, a distal assembly is disposed at the distal end of the catheter body, and a handle is disposed at the proximal end of the catheter body; the distal assembly is composed of a head tube having a shape memory function, and the distal assembly presents a predetermined bend comprising an annular portion and a vertical portion in a free state, and the vertical portion connects the annular portion to the catheter body; and the distal assembly is provided with electrodes; characterized in that two groups of electrodes are distributed on the distal assembly, wherein the annular portion of the distal assembly is provided with one group of electrodes, and the vertical portion of the distal assembly is provided with the other group of electrodes; and that the predetermined bend is formed such that, in a free state, the vertical portion extends toward the distal end at least partially beyond the annular portion.
A camera module, the camera module comprising: an auto focusing module vertically moving a lens; a handshake compensation module wrapping the auto focusing module, and tilting the auto focusing module to compensate handshake; a circuit board electrically connected to the handshake compensation module; a bottom case supporting the circuit board and coupled to the auto focusing module; a main circuit board fixed to bottom case and electrically connected to an image sensor module and the circuit board; wherein the main circuit board includes a body unit and a flat spring unit, wherein the flat spring unit is arranged about the body unit to elastically support the main circuit board and is having a symmetrical opening having thereinside a gap (g) spaced apart at a predetermined distance, wherein the spring unit includes a first spring unit arranged at an outmost periphery and having a first width, a second spring unit arranged at a body of the main circuit board and having a second width; and a pair of openings formed at a space interposed between the first and second spring units (821, 822), and wherein the second width has a value smaller than that of the first width, and the first and second spring units (821, 822) are formed in one body. an auto focusing module vertically moving a lens; a handshake compensation module wrapping the auto focusing module, and tilting the auto focusing module to compensate handshake; a circuit board electrically connected to the handshake compensation module; a bottom case supporting the circuit board and coupled to the auto focusing module; a main circuit board fixed to bottom case and electrically connected to an image sensor module and the circuit board; wherein the main circuit board includes a body unit and a flat spring unit, wherein the flat spring unit is arranged about the body unit to elastically support the main circuit board and is having a symmetrical opening having thereinside a gap (g) spaced apart at a predetermined distance, wherein the spring unit includes a first spring unit arranged at an outmost periphery and having a first width, a second spring unit arranged at a body of the main circuit board and having a second width; and a pair of openings formed at a space interposed between the first and second spring units (821, 822), and wherein the second width has a value smaller than that of the first width, and the first and second spring units (821, 822) are formed in one body.
An electric power steering apparatus of a vector control system that converts dq-axes current command values calculated based on at least a steering torque into 3-phase voltage command values, converts said 3-phase voltage command values into duty command values, driving-controls a 3-phase brushless motor by an inverter of a pulse width modulation control, and applies an assist torque to a steering system of a vehicle, characterized in that 3-phase detection voltages are estimated based on 3-phase motor terminal voltages, wherein loss voltages due to a dead time of said inverter are estimated from differences between 3-phase command voltages calculated from said duty command values and said 3-phase detection voltages, and wherein a dead time compensation of said inverter is performed by feeding-back dead time compensation values obtained by compensating said loss voltages to said 3-phase voltage command values.