mhurhangee/ep-ind-claims huggingface dataset:
A telecommunications system for communicating data to and from a mobile device, the system comprising a plurality of repeater nodes (2, 3, 4, 5, 6) disposed to form a network, each repeater node (2, 3, 4, 5, 6) having a transceiver unit operable to transmit the data with a first transmission power to one or more others of the repeater nodes (2, 3, 4, 5, 6) within one of a plurality of time slots (TS1, TS2, TS3, TS4, TS5, TS6) of a time frame, each repeater node (2, 3, 4, 5, 6) being allocated one of the time slots (TS1, TS2, TS3, TS4, TS5, TS6) of the time frame to transmit and receive data to and from the mobile device, wherein each of the repeater nodes (2, 3, 4, 5, 6) is operable to transmit a pilot signal during the same one of the time slots of the time frame as each of the other repeater nodes (2, 3, 4, 5, 6) on a same frequency channel with a second transmission power, the second power being less than the first transmission power, the pilot signal including an identifier of the repeater node (2, 3, 4, 5, 6) which transmitted the pilot signal and the mobile device is operable to receive one of the pilot signals transmitted from one of the repeater nodes (2, 3, 4, 5, 6), to detect the identifier included in the pilot signal received from the one repeater node for identifying the location of the mobile device, and to transmit a message to the one repeater node in the one of the time slots of the time frame.
A furniture fitting for supporting a furniture part movably-mounted relative to a furniture carcass, comprising: - a first fitting portion configured to be fixed to the furniture carcass, - a second fitting portion configured to be fixed to the movable furniture part, the first fitting portion and the second fitting portion being hingedly connected to one another, - wherein the first fitting portion includes at least one mounting body for fixing the first fitting portion to the furniture carcass, and a carrier, a position of the carrier being configured to be adjusted relative to the mounting body, wherein at least one pivotally supported actuating arm (7a, 7b) is arranged on the carrier, and a spring device is provided for applying a force to the at least one actuating arm (7a, 7b), wherein an adjustment device with three operating elements (13a, 13b, 13c) is provided, and a position of the carrier relative to the mounting body can be adjusted by each of the operating elements (13a, 13b, 13c), characterized in that the mounting body includes a fastening side (27a, 27b, 27c) for fixing the mounting body to a, preferably substantially horizontally aligned, furniture panel (2a, 2b) of the furniture carcass, and a front side extending substantially perpendicular to the fastening side (27a, 27b, 27c), wherein each of the operating elements (13a, 13b, 13c) is configured to be actuated from the front side of the mounting body, preferably with the aid of a tool, wherein the front side of the mounting body faces towards the second fitting portion in a closed condition of the furniture fitting and is aligned substantially parallel to a front face of the furniture carcass in a fixed condition of the furniture fitting, wherein the mounting body is configured to be releasably locked with a housing or holding plate of the furniture fitting, the housing or holding plate being configured to be pre-mounted to the furniture carcass, so that the mounting body can be coupled to the housing or holding plate pre-mounted to the furniture carcass without the use of a tool. - a first fitting portion configured to be fixed to the furniture carcass, - a second fitting portion configured to be fixed to the movable furniture part, the first fitting portion and the second fitting portion being hingedly connected to one another, - wherein the first fitting portion includes at least one mounting body for fixing the first fitting portion to the furniture carcass, and a carrier, a position of the carrier being configured to be adjusted relative to the mounting body, wherein at least one pivotally supported actuating arm (7a, 7b) is arranged on the carrier, and a spring device is provided for applying a force to the at least one actuating arm (7a, 7b), wherein an adjustment device with three operating elements (13a, 13b, 13c) is provided, and a position of the carrier relative to the mounting body can be adjusted by each of the operating elements (13a, 13b, 13c),
A plasticizer composition, comprising: a terephthalate-based material; a dibenzoate-based material including one or more dibenzoate-based compounds represented by Formula 1 below; and a citrate-based material represented by Formula 2 below, wherein a weight ratio of the terephthalate-based material and the dibenzoate-based material is 99:1 to 1:99, and the citrate-based material is included at 1 to 80 parts by weight with respect to 100 parts by weight of the total weight of the terephthalate-based material and the dibenzoate-based material: where R is a C2-C4 alkylene group, and n is an integer of 1 to 3, and where R1 to R3 are each independently a C4 to C12 alkyl group, and R4 is hydrogen. a terephthalate-based material; a dibenzoate-based material including one or more dibenzoate-based compounds represented by Formula 1 below; and a citrate-based material represented by Formula 2 below, wherein a weight ratio of the terephthalate-based material and the dibenzoate-based material is 99:1 to 1:99, and the citrate-based material is included at 1 to 80 parts by weight with respect to 100 parts by weight of the total weight of the terephthalate-based material and the dibenzoate-based material: where R is a C2-C4 alkylene group, and n is an integer of 1 to 3, and where R1 to R3 are each independently a C4 to C12 alkyl group, and R4 is hydrogen.
A processing method, applied to a terminal, wherein N transmission paths are configured for a target split bearer corresponding to the terminal, data transmission on M transmission paths in the N transmission paths is performed by using a secondary cell, SCell, N is an integer greater than or equal to 2, M is a positive integer less than or equal to N, and the method comprises: performing a target operation when data transmission on a target transmission path in the M transmission paths fails, wherein the target operation comprises reporting failure indication information, wherein the failure indication information comprises an identifier of a cell group corresponding to the target transmission path and an identifier of a logical channel of a target RLC entity corresponding to the target transmission path. performing a target operation when data transmission on a target transmission path in the M transmission paths fails, wherein the target operation comprises reporting failure indication information, wherein the failure indication information comprises an identifier of a cell group corresponding to the target transmission path and an identifier of a logical channel of a target RLC entity corresponding to the target transmission path.
A routing bridge at an edge of a transparent interconnection of lots of links, TRILL, campus, wherein the routing bridge is configured to: determine that a first access port is associated with a pseudo-nickname, wherein the first access port is a multi-chassis link aggregation, MC-LAG, port; determine that a second access port is associated with the pseudo-nickname, wherein the second access port is a MC-LAG port; receive a frame via the first access port from a first customer equipment, CE; replicate the frame to generate a replicated frame; and forward the replicated frame via the second access port to a second CE, wherein the first CE coupled to the first access port and the second CE coupled to the second access port are coupled to a same group of routing bridges, the first access port and the second access port are associated with different multi-chassis link aggregations, MC-LAGs. determine that a first access port is associated with a pseudo-nickname, wherein the first access port is a multi-chassis link aggregation, MC-LAG, port; determine that a second access port is associated with the pseudo-nickname, wherein the second access port is a MC-LAG port; receive a frame via the first access port from a first customer equipment, CE; replicate the frame to generate a replicated frame; and forward the replicated frame via the second access port to a second CE, wherein the first CE coupled to the first access port and the second CE coupled to the second access port are coupled to a same group of routing bridges, the first access port and the second access port are associated with different multi-chassis link aggregations, MC-LAGs.
A method for manufacturing an SOI substrate by forming an SOI layer on a surface of a transparent insulating substrate, the method comprising, in the following order, the steps of: implanting ions into a silicon wafer (1, 5) or a silicon wafer with an oxide film from a surface thereof so as to form an ion-implanted layer; subjecting at least one of the surface of the transparent insulating substrate and the surface of the ion-implanted silicon wafer or the silicon wafer with an oxide film to a surface activation treatment; bonding together the silicon wafer (1, 5) or the silicon wafer with an oxide film and the transparent insulating substrate; subjecting the bonded wafer to a heat treatment at 150°C or higher but not higher than 350°C so as to obtain a laminate; and irradiating visible light with a wavelength within the range 400 to 700 nm at a side of the transparent insulating substrate of the laminate toward the ion-implanted layer of the silicon wafer (1, 5) or the silicon wafer with an oxide film to embrittle an interface of the ion-implanted layer to the extent of not causing thermal delamination and transfer a silicon thin film to the transparent insulating substrate so that the SOI layer can be formed. implanting ions into a silicon wafer (1, 5) or a silicon wafer with an oxide film from a surface thereof so as to form an ion-implanted layer; subjecting at least one of the surface of the transparent insulating substrate and the surface of the ion-implanted silicon wafer or the silicon wafer with an oxide film to a surface activation treatment; bonding together the silicon wafer (1, 5) or the silicon wafer with an oxide film and the transparent insulating substrate; subjecting the bonded wafer to a heat treatment at 150°C or higher but not higher than 350°C so as to obtain a laminate; and irradiating visible light with a wavelength within the range 400 to 700 nm at a side of the transparent insulating substrate of the laminate toward the ion-implanted layer of the silicon wafer (1, 5) or the silicon wafer with an oxide film to embrittle an interface of the ion-implanted layer to the extent of not causing thermal delamination and transfer a silicon thin film to the transparent insulating substrate so that the SOI layer can be formed.
A core block, a plurality thereof being suitable for constituting a laminated core by being connected in an annular shape, the core block comprising: a plurality of electrical steel sheet pieces stacked to each other; and an adhesion part which is provided between the electrical steel sheet pieces adjacent in a stacking direction and adheres the electrical steel sheet pieces to each other, wherein an adhesion area ratio of each of the electrical steel sheet pieces by the adhesion part is 1% or more and 60% or less, wherein a non-adhesion region (143, 243) of each of the electrical steel sheet pieces in which the adhesion part is not provided is formed between an adhesion region of each of the electrical steel sheet pieces in which the adhesion part is provided and a peripheral edge of each of the electrical steel sheet pieces, characterized in that a width of the non-adhesion region (143, 243) is 1 times or more and 10 times or less a sheet thickness of each of the electrical steel sheet pieces, the width of the non-adhesion region (143, 243) being a dimension in a direction orthogonal to the direction in which each portion of the non-adhesion region (143, 243) extends. a plurality of electrical steel sheet pieces stacked to each other; and an adhesion part which is provided between the electrical steel sheet pieces adjacent in a stacking direction and adheres the electrical steel sheet pieces to each other, wherein an adhesion area ratio of each of the electrical steel sheet pieces by the adhesion part is 1% or more and 60% or less, wherein a non-adhesion region (143, 243) of each of the electrical steel sheet pieces in which the adhesion part is not provided is formed between an adhesion region of each of the electrical steel sheet pieces in which the adhesion part is provided and a peripheral edge of each of the electrical steel sheet pieces, characterized in that a width of the non-adhesion region (143, 243) is 1 times or more and 10 times or less a sheet thickness of each of the electrical steel sheet pieces, the width of the non-adhesion region (143, 243) being a dimension in a direction orthogonal to the direction in which each portion of the non-adhesion region (143, 243) extends.
An actuator assembly comprising: power means, an actuator powered by the power means, the power means being adapted to provide a work motion of the actuator, motion sensor means for monitoring motion of the actuator, the motion sensor means comprising at least one motion sensor unit (61, 62), the motion sensor means being adapted to provide motion sensor signals in response to motion of the actuator, timing means for receiving the motion sensor signals and measuring an immobility time of the actuator based on the motion sensor signals, the immobility time of the actuator representing time lapsed after previous motion of the actuator, safety means for selectively controlling the actuator assembly into an operational state in which the work motion of the actuator is allowed and a safety state in which the work motion of the actuator is prevented, the safety means being adapted to monitor the immobility time of the actuator and to prevent the operational state of the actuator assembly in case the immobility time of the actuator exceeds a predetermined process safety time, characterized in that the actuator assembly further comprises activation means adapted to monitor an immobility time of the actuator during an operational state of the actuator assembly, and to control the power means to provide an activation motion of the actuator in case the immobility time exceeds a predetermined activation time, the activation time being shorter than or equal to the process safety time, the activation motion being a small motion while being big enough for being detected by the motion sensor means. power means, an actuator powered by the power means, the power means being adapted to provide a work motion of the actuator, motion sensor means for monitoring motion of the actuator, the motion sensor means comprising at least one motion sensor unit (61, 62), the motion sensor means being adapted to provide motion sensor signals in response to motion of the actuator, timing means for receiving the motion sensor signals and measuring an immobility time of the actuator based on the motion sensor signals, the immobility time of the actuator representing time lapsed after previous motion of the actuator, safety means for selectively controlling the actuator assembly into an operational state in which the work motion of the actuator is allowed and a safety state in which the work motion of the actuator is prevented, the safety means being adapted to monitor the immobility time of the actuator and to prevent the operational state of the actuator assembly in case the immobility time of the actuator exceeds a predetermined process safety time, characterized in that the actuator assembly further comprises activation means adapted to monitor an immobility time of the actuator during an operational state of the actuator assembly, and to control the power means to provide an activation motion of the actuator in case the immobility time exceeds a predetermined activation time, the activation time being shorter than or equal to the process safety time, the activation motion being a small motion while being big enough for being detected by the motion sensor means.
A system comprising an implant and a drill guide, wherein the implant comprises a talar dome implant comprising: a body having a bone contact surface and an articulation surface; and a first flange extending longitudinally from the bone contact surface, the flange defining a first screw hole configured to receive a targeted screw therethrough, and wherein the drill guide comprises: a first portion configured to couple to the articulation surface of the implant; and a second portion extending longitudinally from the first portion, the second portion defining a first drill guide hole sized and configured to receive a drill therethrough, said system being characterized in that said articulation surface comprises a first hemisphere and a second hemisphere that are configured to mimic articulation of a talar dome with respect to a tibia, in that said first portion has a curvature and cross-section configured to match a curvature and cross-section of the articulation surface of the implant and in that said drill guide hole comprises a predetermined angle such that the drill extending through the drill guide hole will pass through said first screw hole in said first flange. a body having a bone contact surface and an articulation surface; and a first flange extending longitudinally from the bone contact surface, the flange defining a first screw hole configured to receive a targeted screw therethrough, and wherein the drill guide comprises: a first portion configured to couple to the articulation surface of the implant; and a second portion extending longitudinally from the first portion, the second portion defining a first drill guide hole sized and configured to receive a drill therethrough, said system being characterized in that said articulation surface comprises a first hemisphere and a second hemisphere that are configured to mimic articulation of a talar dome with respect to a tibia, in that said first portion has a curvature and cross-section configured to match a curvature and cross-section of the articulation surface of the implant and in that said drill guide hole comprises a predetermined angle such that the drill extending through the drill guide hole will pass through said first screw hole in said first flange. a first portion configured to couple to the articulation surface of the implant; and a second portion extending longitudinally from the first portion, the second portion defining a first drill guide hole sized and configured to receive a drill therethrough,
An herbal anti-AMD composition comprising: (a) a plurality of standardized herbal extracts selected from the group consisting of Cinnamomum verum, Terminalia chebula, and Acacia catechu in concentrations constituting 40% to 50% w/w of the present composition; wherein the extract is standardized to comprise 2 to 8% w/w procyanidin from Cinnamon verum, 8 to 25% w/w chebulagic acid and 15 to 30% w/w chebulinic acid obtained from Terminalia chebula and > 3% w/w of catechin from Acacia catechu; (b) a plurality of standardized herbal extracts selected from the group consisting of Silybum marianum and Curcuma longa, in concentrations constituting 30% to 40% w/w of the present herbal composition; wherein the extract is standardized to comprise up to 95% w/w of silymarin from Sylibum marianum, 35% to 100% w/w of curcumin and/or curcuminoids from Curcuma longa; and (c) a standardized extract of Punica granatum constituting 1% to 10% w/w of the present herbal composition; wherein the extract is standardized to comprise 1 to 25% w/w of ellagic acid from Punica granatum. (a) a plurality of standardized herbal extracts selected from the group consisting of Cinnamomum verum, Terminalia chebula, and Acacia catechu in concentrations constituting 40% to 50% w/w of the present composition; wherein the extract is standardized to comprise 2 to 8% w/w procyanidin from Cinnamon verum, 8 to 25% w/w chebulagic acid and 15 to 30% w/w chebulinic acid obtained from Terminalia chebula and > 3% w/w of catechin from Acacia catechu; (b) a plurality of standardized herbal extracts selected from the group consisting of Silybum marianum and Curcuma longa, in concentrations constituting 30% to 40% w/w of the present herbal composition; wherein the extract is standardized to comprise up to 95% w/w of silymarin from Sylibum marianum, 35% to 100% w/w of curcumin and/or curcuminoids from Curcuma longa; and (c) a standardized extract of Punica granatum constituting 1% to 10% w/w of the present herbal composition; wherein the extract is standardized to comprise 1 to 25% w/w of ellagic acid from Punica granatum.
A terminal comprising: a receiver configured to receive, from a base station, measurement band information indicating a frequency range in which received quality is to be measured; and a measurer configured to measure a received quality of a cell of the base station in the frequency range indicated by the measurement band information, wherein the measurer is configured to measure the received quality using a synchronization signal received from the base station on the frequency range indicated by the measurement band information, characterized in that when synchronization signals transmitted from a plurality of specific logical antenna ports of the base station are received in the frequency range indicated by the measurement band information, the measurer is configured to measure the received quality of the cell based on a signal with the highest received quality, among the signals with the identical cell IDs. a receiver configured to receive, from a base station, measurement band information indicating a frequency range in which received quality is to be measured; and a measurer configured to measure a received quality of a cell of the base station in the frequency range indicated by the measurement band information, wherein the measurer is configured to measure the received quality using a synchronization signal received from the base station on the frequency range indicated by the measurement band information, characterized in that when synchronization signals transmitted from a plurality of specific logical antenna ports of the base station are received in the frequency range indicated by the measurement band information, the measurer is configured to measure the received quality of the cell based on a signal with the highest received quality, among the signals with the identical cell IDs.