mhurhangee/ep-ind-claims huggingface dataset:
A method for load balancing between cells in a communications network, the network comprising a first Radio Base Station, RBS-A, serving a first cell, Cell-A, and a second Radio Base Station, RBS-B, serving a second cell, Cell-B, both cells at least partly overlapping, the RBS-A serving at least one User Equipment, UE, (150, 152, 154, 156), RBS-A and RBS-B communicatively connected via a link (116, 126, 136), wherein the method comprises the steps of: - selecting by RBS-A at least one of the served UEs for measuring and reporting a performance value in Cell-A and a performance value in Cell-B; - measuring by selected UEs (150, 152, 154) present in the overlap, the measured performance value in Cell-A and the measured performance value in Cell-B, and reporting to RBS-A; - determining and selecting (306, 308) the UEs for a relocation by RBS-A, based on the received measured performance value and an estimated performance value for Cell-B; - initializing a relocation by RBS-A of the one or more selected UEs for relocation from Cell-A to Cell-B, characterised in that the method comprises the further steps of - submitting an indication to RBS-B to respond with a perceived performance value measured by the one or more relocated UEs; - measuring by the one or more relocated UEs a perceived performance value in Cell-B, and reporting to RBS-B, and - providing (313, 314) by RBS-B, with the value based on the perceived performance by the relocated UE, to RBS-A for updating the estimated performance value for Cell-B, wherein the estimated performance value for Cell-B is derived from a value mapped to a function of the load of Cell-B and the measured performance value of Cell-B by the UE being served by RBS-A. - selecting by RBS-A at least one of the served UEs for measuring and reporting a performance value in Cell-A and a performance value in Cell-B; - measuring by selected UEs (150, 152, 154) present in the overlap, the measured performance value in Cell-A and the measured performance value in Cell-B, and reporting to RBS-A; - determining and selecting (306, 308) the UEs for a relocation by RBS-A, based on the received measured performance value and an estimated performance value for Cell-B; - initializing a relocation by RBS-A of the one or more selected UEs for relocation from Cell-A to Cell-B, characterised in that the method comprises the further steps of - submitting an indication to RBS-B to respond with a perceived performance value measured by the one or more relocated UEs; - measuring by the one or more relocated UEs a perceived performance value in Cell-B, and reporting to RBS-B, and - providing (313, 314) by RBS-B, with the value based on the perceived performance by the relocated UE, to RBS-A for updating the estimated performance value for Cell-B, wherein the estimated performance value for Cell-B is derived from a value mapped to a function of the load of Cell-B and the measured performance value of Cell-B by the UE being served by RBS-A.
An electric device, comprising: a first antenna including a radiating element that is formed of a conductor and that is configured to radiate electromagnetic waves when supplied with electrical power, and a parasitic element that is formed of a conductor and provided near the radiating element and that is configured to be electromagnetically coupled with the radiating element, the parasitic element being provided in a first plane and the radiating element being included in a second plane, wherein an angle between the first plane and the second plane being no less than 70 degrees and no more than 110 degrees, and wherein the parasitic element has a C-shape and is provided in an orientation that positions end portions of the C-shape at a greater distance than a center portion of the C-shape from the radiating element; and a housing having a front surface which a user faces and a side surface surrounding the front surface, wherein at least a portion of each of the radiating element and the parasitic element is provided farther outward from the housing than the side surface in a front view of the housing and behind the front surface in a side view of the housing, and the parasitic element is provided closer to the front surface than the radiating element. a first antenna including a radiating element that is formed of a conductor and that is configured to radiate electromagnetic waves when supplied with electrical power, and a parasitic element that is formed of a conductor and provided near the radiating element and that is configured to be electromagnetically coupled with the radiating element, the parasitic element being provided in a first plane and the radiating element being included in a second plane, wherein an angle between the first plane and the second plane being no less than 70 degrees and no more than 110 degrees, and wherein the parasitic element has a C-shape and is provided in an orientation that positions end portions of the C-shape at a greater distance than a center portion of the C-shape from the radiating element; and a housing having a front surface which a user faces and a side surface surrounding the front surface, wherein at least a portion of each of the radiating element and the parasitic element is provided farther outward from the housing than the side surface in a front view of the housing and behind the front surface in a side view of the housing, and the parasitic element is provided closer to the front surface than the radiating element.
A communication control method which is performed in a communication system which includes a terminal, a base station, a processing server that performs a process associated with the terminal, one or more serving gateways, and one or more packet data network gateways and in which a plurality of bearers are set up between the terminal and the one or more packet data network gateways via the base station and the one or more serving gateways, the communication control method comprising: a step of causing the packet data network gateway to measure an idle time which is a duration time of an idle state of a bearer for each bearer; a step of causing the packet data network gateway to determine whether or not the measured idle time has reached an idle timer threshold value which is determined in advance for each of the plurality of bearers as an idle timer threshold value that is used to determine that a bearer is in an idle state for each bearer; a step of causing the packet data network gateway to request the processing server to release one bearer when it is determined that the idle time for the bearer has reached the idle timer threshold value; and a step of causing the processing server to perform a process of releasing the bearer in response to the request from the packet data network gateway, wherein the idle timer threshold values are stored in correlation with the bearers by the packet data network gateway; and wherein the processing server is a slice management function. a step of causing the packet data network gateway to measure an idle time which is a duration time of an idle state of a bearer for each bearer; a step of causing the packet data network gateway to determine whether or not the measured idle time has reached an idle timer threshold value which is determined in advance for each of the plurality of bearers as an idle timer threshold value that is used to determine that a bearer is in an idle state for each bearer; a step of causing the packet data network gateway to request the processing server to release one bearer when it is determined that the idle time for the bearer has reached the idle timer threshold value; and a step of causing the processing server to perform a process of releasing the bearer in response to the request from the packet data network gateway, wherein the idle timer threshold values are stored in correlation with the bearers by the packet data network gateway; and wherein the processing server is a slice management function.
A robotic surgical system (70, 120, 140, 160) comprising: a support structure; a surgical manipulator; a set-up linkage (78, 80) coupling the surgical manipulator to the support structure, the set-up linkage (78, 80) including a joint (84, 108, 500); a drive or brake system operatively coupled to the set-up linkage (78, 80); and a computing unit coupled to the drive or brake system, the computing unit configured to: detect that the joint (84, 108, 500) is in a range of motion limit envelope (510, 514) between a software defined range of motion limit for the joint (84, 108, 500) and a physical range of motion limit for the joint (84, 108, 500), the software defined range of motion limit being spaced a distance from the physical range of motion limit; and characterized in that the computing unit is further configured to delay, for a duration of time, application of driving or braking by the drive or brake system in response to detecting that the joint (84, 108, 500) is in the range of motion limit envelope (510, 514). a support structure; a surgical manipulator; a set-up linkage (78, 80) coupling the surgical manipulator to the support structure, the set-up linkage (78, 80) including a joint (84, 108, 500); a drive or brake system operatively coupled to the set-up linkage (78, 80); and a computing unit coupled to the drive or brake system, the computing unit configured to: detect that the joint (84, 108, 500) is in a range of motion limit envelope (510, 514) between a software defined range of motion limit for the joint (84, 108, 500) and a physical range of motion limit for the joint (84, 108, 500), the software defined range of motion limit being spaced a distance from the physical range of motion limit; and characterized in that the computing unit is further configured to delay, for a duration of time, application of driving or braking by the drive or brake system in response to detecting that the joint (84, 108, 500) is in the range of motion limit envelope (510, 514). detect that the joint (84, 108, 500) is in a range of motion limit envelope (510, 514) between a software defined range of motion limit for the joint (84, 108, 500) and a physical range of motion limit for the joint (84, 108, 500), the software defined range of motion limit being spaced a distance from the physical range of motion limit; and characterized in that the computing unit is further configured to delay, for a duration of time, application of driving or braking by the drive or brake system in response to detecting that the joint (84, 108, 500) is in the range of motion limit envelope (510, 514).
Support device for a casement a window, a door or the like which is pivotable with respect to a frame and with a rotary bearing for movement of the casement from a closed position in which the casement bears against the frame, into a rotated position wherein the casement is rotated away from the frame about a vertical axis, wherein the support device is able to support the forces of the casement lying in the frame and acting perpendicular to the plane of the casement in the axial direction of the rotary bearing, wherein the support device comprises a support element fastened to the frame or the casement, and wherein a counter support of the support device which supports the support element in the closed position may be fastened to the respective opposing part of the frame or the casement, wherein the counter support comprises a holding part and a pivot part with a pressing arm which is mounted in the holding part to pivot in the axial direction of the rotary bearing, wherein the pressing arm engages behind an inclined edge of the support element in the closed position, characterized in that the counter support additionally consists of an actuating arm separate from the holding part and protruding from the pivot part in the direction of the support element and which is picked up by the support element upon the pivoting inwards of the casement in the frame, wherein the actuating arm and the pressing arm are so arranged on the pivot part that the support element also presses against the actuating arm in the closed position and holds the pressing arm in the position where it engages behind the inclined edge of the support element in the closed position.
A method for manufacturing microbeads having conjugate acid and conjugate base adsorbed onto Si-OH groups present on a surface of the microbeads by electrostatic interaction, the method comprising the steps of: immersing microbeads in a buffer solution containing conjugate acid and conjugate base to cause the conjugate acid and conjugate base components to be adsorbed onto microbeads, wherein the microbeads are silica-based glass microbeads; and volatilizing the solvent to prepare microbeads with controlled pH, wherein the volatilizing the solvent is performed in an inert gas atmosphere at 40 to 70 °C. immersing microbeads in a buffer solution containing conjugate acid and conjugate base to cause the conjugate acid and conjugate base components to be adsorbed onto microbeads, wherein the microbeads are silica-based glass microbeads; and volatilizing the solvent to prepare microbeads with controlled pH, wherein the volatilizing the solvent is performed in an inert gas atmosphere at 40 to 70 °C.
A method of executing battery power conservation procedure between an access terminal AT and an access network AN in a wireless communication system, the method comprising: - transmitting a notification message to the AN, wherein the notification message includes at least one of a first field and a third field, wherein the first field is used to indicate amount of leftover battery power at the access terminal and the third field is used to request a power-saving mode; - receiving a confirmation message from the AN, wherein the confirmation message includes a determined power saving mode, which is based on the at least one of battery life information and the power-saving mode request; and - entering the power-saving mode according to the determined power saving mode, wherein the notification message further includes at least one of a second field and a fourth field, - wherein the second field indicates that there is a subsequent first field and the fourth field indicates that there is a subsequent third field. - transmitting a notification message to the AN, wherein the notification message includes at least one of a first field and a third field, wherein the first field is used to indicate amount of leftover battery power at the access terminal and the third field is used to request a power-saving mode; - receiving a confirmation message from the AN, wherein the confirmation message includes a determined power saving mode, which is based on the at least one of battery life information and the power-saving mode request; and - entering the power-saving mode according to the determined power saving mode, wherein the notification message further includes at least one of a second field and a fourth field, - wherein the second field indicates that there is a subsequent first field and the fourth field indicates that there is a subsequent third field.
An electrode plate comprising a current collector, an electrode active material layer and a safety coating disposed between the current collector and the electrode active material layer, wherein the safety coating consists essentially of a polymer matrix, a conductive material and an inorganic filler, wherein the amount of other materials or components is less than or equal to 3wt%; and wherein the polymer matrix is fluorinated polyolefin and/or chlorinated polyolefin polymer matrix, wherein based on the total weight of the safety coating, the weight percentage of the polymer matrix is from 35 wt% to 75 wt%; the weight percentage of the conductive material is from 5 wt% to 25 wt%; and the weight percentage of the inorganic filler is from 10 wt% to 60 wt%; and the average particle diameter D of the inorganic filler is 100 nm≤D≤10 μm.
A multilayer window for passing millimeter-wave radiation, comprising: first and second thermally conductive plates coupled together forming multiple layers, each of the first and second thermally conductive plates perforated by a group of holes arranged in a periodic lattice network configured to substantially transmit millimeter-wave radiation within a predetermined frequency bandwidth; a dielectric spacer (104, 302) disposed between the first and second thermally conductive plates to form the multilayer window; and a mounting device coupling the first and second thermally conductive plates to the dielectric spacer and adapted to mount the coupled plates to a separate structure, wherein the mounting device comprises a retaining ring configured to maintain close contact between the dielectric spacer (104, 302) and the first and second thermally conductive plates, wherein: the holes of the first thermally conductive plate align with the holes of the second thermally conductive plate relative to the passing millimeter wave radiation; the dielectric spacer (104, 302) forms a seal between the first and second thermally conductive plates and is substantially transparent to said radiation; and the first and second thermally conductive plates directly contact the dielectric spacer (104, 302). first and second thermally conductive plates coupled together forming multiple layers, each of the first and second thermally conductive plates perforated by a group of holes arranged in a periodic lattice network configured to substantially transmit millimeter-wave radiation within a predetermined frequency bandwidth; a dielectric spacer (104, 302) disposed between the first and second thermally conductive plates to form the multilayer window; and a mounting device coupling the first and second thermally conductive plates to the dielectric spacer and adapted to mount the coupled plates to a separate structure, wherein the mounting device comprises a retaining ring configured to maintain close contact between the dielectric spacer (104, 302) and the first and second thermally conductive plates, wherein: the holes of the first thermally conductive plate align with the holes of the second thermally conductive plate relative to the passing millimeter wave radiation; the dielectric spacer (104, 302) forms a seal between the first and second thermally conductive plates and is substantially transparent to said radiation; and the first and second thermally conductive plates directly contact the dielectric spacer (104, 302). the holes of the first thermally conductive plate align with the holes of the second thermally conductive plate relative to the passing millimeter wave radiation; the dielectric spacer (104, 302) forms a seal between the first and second thermally conductive plates and is substantially transparent to said radiation; and the first and second thermally conductive plates directly contact the dielectric spacer (104, 302).
A connection connector that is arranged at an end section of a flat cable including a plurality of conductors, the connection connector comprising: a busbar including a connection terminal section configured to be connected to another terminal; and a holder configured to hold the busbar, wherein the busbar includes a conductor connection section to be electrically connected to a conductor of the plurality of conductors and a coupling section coupling the connection terminal section with the conductor connection section, and the coupling section includes an electronic component arrangement section in which an electronic component is able to be arranged, characterized in that the coupling section further includes a selective detachment section configured to be selectively detached depending on an arrangement of the electronic component in the electronic component arrangement section and electrically separate the connection terminal section and the conductor connection section. a busbar including a connection terminal section configured to be connected to another terminal; and a holder configured to hold the busbar, wherein the busbar includes a conductor connection section to be electrically connected to a conductor of the plurality of conductors and a coupling section coupling the connection terminal section with the conductor connection section, and a conductor connection section to be electrically connected to a conductor of the plurality of conductors and a coupling section coupling the connection terminal section with the conductor connection section, and the coupling section includes an electronic component arrangement section in which an electronic component is able to be arranged, characterized in that the coupling section further includes a selective detachment section configured to be selectively detached depending on an arrangement of the electronic component in the electronic component arrangement section and electrically separate the connection terminal section and the conductor connection section.
A III-nitride semiconductor LED comprising: a plurality of multiple quantum well sets stacked on a substrate, the plurality of multiple quantum well sets including a first, a second, and a top multiple quantum well set, each multiple quantum well set comprising one or more quantum well layers; characterized in that the first multiple quantum well set being adjacent the substrate and having a low indium concentration; each multiple quantum well set above the first multiple quantum well set having a progressively increased indium concentration; the top multiple quantum well set having a highest indium concentration selected to emit light in the amber-to-red visible spectra region; and adjacent multiple quantum well sets being separated by an Al x Ga 1-x N (0<x≤1) intermediate strain compensation layer, each Al x Ga 1-x N (0<x≤1) intermediate strain compensation layer having a barrier layer above and below the respective Al x Ga 1-x N (0<x≤1) intermediate strain compensation layer to reduce total strain in the top multiple quantum well set. a plurality of multiple quantum well sets stacked on a substrate, the plurality of multiple quantum well sets including a first, a second, and a top multiple quantum well set, each multiple quantum well set comprising one or more quantum well layers; characterized in that the first multiple quantum well set being adjacent the substrate and having a low indium concentration; each multiple quantum well set above the first multiple quantum well set having a progressively increased indium concentration; the top multiple quantum well set having a highest indium concentration selected to emit light in the amber-to-red visible spectra region; and adjacent multiple quantum well sets being separated by an Al x Ga 1-x N (0<x≤1) intermediate strain compensation layer, each Al x Ga 1-x N (0<x≤1) intermediate strain compensation layer having a barrier layer above and below the respective Al x Ga 1-x N (0<x≤1) intermediate strain compensation layer to reduce total strain in the top multiple quantum well set.