mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting a Master Cell Group, MCG, failure by a wireless communication device, comprising: receiving, from a first wireless communication node, a configuration message that includes a first indicator; detecting a first MCG failure; and reporting (204, 206) the first MCG failure to the first wireless communication node, via a second wireless communication node, according to the first indicator, a first failure type of the first MCG failure, a status of a Secondary Cell Group, SCG, and a Signal Radio Bearer, SRB, configuration, wherein the first indicator is configured to indicate whether the wireless communication device is allowed to report the first MCG failure. receiving, from a first wireless communication node, a configuration message that includes a first indicator; detecting a first MCG failure; and reporting (204, 206) the first MCG failure to the first wireless communication node, via a second wireless communication node, according to the first indicator, a first failure type of the first MCG failure, a status of a Secondary Cell Group, SCG, and a Signal Radio Bearer, SRB, configuration, wherein the first indicator is configured to indicate whether the wireless communication device is allowed to report the first MCG failure.
A power over Ethernet, POE, monitor system, comprising: a monitor; a POE module coupled to the monitor; and one or more processors communicatively coupled to the monitor, wherein the one or more processors are configured to: receive an Ethernet signal; transmit a POE signal based on the Ethernet signal received, to the POE module; receive a POE-DC signal from the POE module, wherein the POE-DC signal is based at least on the POE signal transmitted; determine that the POE-DC signal is a power source; and utilize power associated with the POE-DC signal according to a POE profile, wherein the utilized power does not exceed the POE-DC signal, characterized in that the POE profile indicates which capabilities remain active. a monitor; a POE module coupled to the monitor; and one or more processors communicatively coupled to the monitor, wherein the one or more processors are configured to: receive an Ethernet signal; transmit a POE signal based on the Ethernet signal received, to the POE module; receive a POE-DC signal from the POE module, wherein the POE-DC signal is based at least on the POE signal transmitted; determine that the POE-DC signal is a power source; and utilize power associated with the POE-DC signal according to a POE profile, wherein the utilized power does not exceed the POE-DC signal, receive an Ethernet signal; transmit a POE signal based on the Ethernet signal received, to the POE module; receive a POE-DC signal from the POE module, wherein the POE-DC signal is based at least on the POE signal transmitted; determine that the POE-DC signal is a power source; and utilize power associated with the POE-DC signal according to a POE profile, wherein the utilized power does not exceed the POE-DC signal, characterized in that the POE profile indicates which capabilities remain active.
Composition for producing a thermoplastic moulding compound, wherein the composition comprises the following constituents: A) at least one polymer selected from the group consisting of polycarbonate and polyester carbonate, B) at least one polyester, C) phosphorous acid, D) at least one phosphonite, E) at least one sterically hindered phenol. A) at least one polymer selected from the group consisting of polycarbonate and polyester carbonate, B) at least one polyester, C) phosphorous acid, D) at least one phosphonite, E) at least one sterically hindered phenol.
A method of preparing a dialkyl carbonate, comprising: reacting an alkanol, oxygen, carbon monoxide, and a catalyst to form a mixture comprising a dialkyl carbonate, an alkyl chloroformate, hydrochloric acid, water, carbon dioxide, and carbon monoxide; and passing said mixture through a fluid passageway at a temperature of 30°C to 130°C and for a residence time of 0.5 hour to 10 hours. reacting an alkanol, oxygen, carbon monoxide, and a catalyst to form a mixture comprising a dialkyl carbonate, an alkyl chloroformate, hydrochloric acid, water, carbon dioxide, and carbon monoxide; and passing said mixture through a fluid passageway at a temperature of 30°C to 130°C and for a residence time of 0.5 hour to 10 hours.
A base station in a communication system providing at least three cells from the base station, the base station adapted to: communicate with a first user equipment, using at least two cells by carrier aggregation; provide, to the first user equipment, a first cell among the at least two cells as a first special cell to keep connection between the base station and the first user equipment; provide a second cell among the at least two cells for use for the first user equipment as uplink and/or downlink resources: communicate with a second user equipment using the at least three cells by the carrier aggregation; provide, to the second user equipment, a third cell among the at least three cells as a second special cell to keep connection between the base station and the second user equipment; and provide the first cell and the second cell for use for the second user equipment as uplink and/or downlink resources, the second cell and the third cell being different from the first cell, wherein, when system information used for the second cell is changed, the base station is adapted to: provide the changed system information to the first user equipment via a dedicated signaling on a dedicated channel of the first cell as the first special cell, and provide the changed system information to the second user equipment via a dedicated signaling on a dedicated channel of the third cell as the second special cell. communicate with a first user equipment, using at least two cells by carrier aggregation; provide, to the first user equipment, a first cell among the at least two cells as a first special cell to keep connection between the base station and the first user equipment; provide a second cell among the at least two cells for use for the first user equipment as uplink and/or downlink resources: communicate with a second user equipment using the at least three cells by the carrier aggregation; provide, to the second user equipment, a third cell among the at least three cells as a second special cell to keep connection between the base station and the second user equipment; and provide the first cell and the second cell for use for the second user equipment as uplink and/or downlink resources, the second cell and the third cell being different from the first cell, wherein, when system information used for the second cell is changed, the base station is adapted to: provide the changed system information to the first user equipment via a dedicated signaling on a dedicated channel of the first cell as the first special cell, and provide the changed system information to the second user equipment via a dedicated signaling on a dedicated channel of the third cell as the second special cell. provide the changed system information to the first user equipment via a dedicated signaling on a dedicated channel of the first cell as the first special cell, and provide the changed system information to the second user equipment via a dedicated signaling on a dedicated channel of the third cell as the second special cell.
A memory device, comprising: a substrate of semiconductor material of a first conductivity type; first and second spaced-apart regions (14, 16) in the substrate of a second conductivity type, with a channel region (18, 18a, 18b) in the substrate therebetween; a conductive floating gate over and insulated from the substrate, wherein the floating gate is disposed at least partially over the first region and a first portion of the channel region; a conductive second gate laterally adjacent to and insulated from the floating gate, wherein the second gate is disposed at least partially over and insulated from a second portion of the channel region; and characterized in that a stressor region of embedded silicon carbide formed in the substrate directly under the second portion of the channel region and the second gate, wherein no stressor region of embedded silicon carbide is formed directly under the first portion of the channel region. a substrate of semiconductor material of a first conductivity type; first and second spaced-apart regions (14, 16) in the substrate of a second conductivity type, with a channel region (18, 18a, 18b) in the substrate therebetween; a conductive floating gate over and insulated from the substrate, wherein the floating gate is disposed at least partially over the first region and a first portion of the channel region; a conductive second gate laterally adjacent to and insulated from the floating gate, wherein the second gate is disposed at least partially over and insulated from a second portion of the channel region; and characterized in that a stressor region of embedded silicon carbide formed in the substrate directly under the second portion of the channel region and the second gate, wherein no stressor region of embedded silicon carbide is formed directly under the first portion of the channel region.
A composition, comprising a resin mixture comprising: a resin; and a plurality of polymer nanoparticles, wherein the plurality of polymer nanoparticles constitutes from 5 to 75 percent by volume of the resin mixture, wherein: the polymer nanoparticles are spherical; the polymer nanoparticle have a particle cross sectional width of 10 to 200 nanometers; and the polymer nanoparticles have a greater distortion capability than the cured unmodified resin due to a nanoparticle porosity that is greater than a porosity of the cured, unmodified resin, characterised in that the polymer nanoparticles have a nanoparticle porosity provided by a single pore occupying greater than 50 percent of a total nanoparticle volume. a resin; and a plurality of polymer nanoparticles, wherein the plurality of polymer nanoparticles constitutes from 5 to 75 percent by volume of the resin mixture, wherein: the polymer nanoparticles are spherical; the polymer nanoparticle have a particle cross sectional width of 10 to 200 nanometers; and the polymer nanoparticles have a greater distortion capability than the cured unmodified resin due to a nanoparticle porosity that is greater than a porosity of the cured, unmodified resin, characterised in that the polymer nanoparticles have a nanoparticle porosity provided by a single pore occupying greater than 50 percent of a total nanoparticle volume. the polymer nanoparticles are spherical; the polymer nanoparticle have a particle cross sectional width of 10 to 200 nanometers; and the polymer nanoparticles have a greater distortion capability than the cured unmodified resin due to a nanoparticle porosity that is greater than a porosity of the cured, unmodified resin, characterised in that the polymer nanoparticles have a nanoparticle porosity provided by a single pore occupying greater than 50 percent of a total nanoparticle volume.
Method for the quality control of a spectacle lens (12, 12', 12"), having the following steps: establishing the topography of at least one optically effective surface of the spectacle lens; calculating local actual values (I[X,Y]) of at least one optical variable of the spectacle lens taking into account the established topography; calculating local deviations (F[X,Y]) of the calculated local actual values (I[X,Y]) from local intended values (S[X,Y]) for the at least one optical variable of the spectacle lens; establishing a quality measure for the spectacle lens (12, 12', 12") by virtue of the calculated local deviations (F[X,Y]) being evaluated; and assessing the established quality measure according to a quality specification, characterized in that the quality measure is calculated from a mean value M of the calculated local deviations (F[X,Y]) at grid points (P[X,Y]) distributed over the spectacle glas, wherein the mean value M is a mean value of the calculated local deviations (F[X,Y]) weighted by a weight distribution (G[f[X,Y]]), which for weighting the local deviation (F[X,Y]) is a distribution function for the viewing direction frequency when using the spectacle lens as intended. establishing the topography of at least one optically effective surface of the spectacle lens; calculating local actual values (I[X,Y]) of at least one optical variable of the spectacle lens taking into account the established topography; calculating local deviations (F[X,Y]) of the calculated local actual values (I[X,Y]) from local intended values (S[X,Y]) for the at least one optical variable of the spectacle lens; establishing a quality measure for the spectacle lens (12, 12', 12") by virtue of the calculated local deviations (F[X,Y]) being evaluated; and assessing the established quality measure according to a quality specification, characterized in that the quality measure is calculated from a mean value M of the calculated local deviations (F[X,Y]) at grid points (P[X,Y]) distributed over the spectacle glas, wherein the mean value M is a mean value of the calculated local deviations (F[X,Y]) weighted by a weight distribution (G[f[X,Y]]), which for weighting the local deviation (F[X,Y]) is a distribution function for the viewing direction frequency when using the spectacle lens as intended.
A bolt fastening structure comprising: - a base member having a screw hole and an engaging hole provided at the bottom of the screw hole, the screw hole opening in an upper surface of the base member, and, the engaging hole having a right circular cylindrical inner surface with a diameter smaller than the internal diameter of the screw hole; - a mounting member fitted over the base member from above; and a bolt fastening the mounting member to the base member, the bolt having a screw shaft screwed into the screw hole and a bolt head having a larger diameter than that of the screw shaft; characterized in that the bolt further having an engaging shaft which projects downward from the end undersurface of the screw shaft and engages with the inner peripheral surface of the engaging hole; wherein the engaging shaft is slightly eccentric to the screw shaft, or the engaging hole is slightly eccentric to the screw shaft, so that the screw shaft is slightly eccentric from and/or inclined to the screw hole by engaging the engaging shaft with the engaging hole. - a base member having a screw hole and an engaging hole provided at the bottom of the screw hole, the screw hole opening in an upper surface of the base member, and, the engaging hole having a right circular cylindrical inner surface with a diameter smaller than the internal diameter of the screw hole; - a mounting member fitted over the base member from above; and a bolt fastening the mounting member to the base member, the bolt having a screw shaft screwed into the screw hole and a bolt head having a larger diameter than that of the screw shaft;
A submersible light, comprising: a partially spherical housing (110, 120, 1410, 1420) having a hollow interior and a first aperture at a front side of the housing, wherein the housing includes a front partially hemispherical body (110, 1410) and a rear partially hemispherical body (120, 1420) that are mated together; a transparent window (112, 1512) extending across the first aperture; a seal (232, 1526) between a periphery of the window and the front body for providing resistance to the entry of water into the hollow interior of the housing; at least one LED mounted on a printed circuit board, PCB, and behind a rear side of the window; an inner driver element (222, 224, 1506, 1508) for providing driving signals and/or power to the LED; a connector wiring assembly (130, 132, 1430, 1432); characterized in that an internal water barrier seal (1580, 1590, 1595) is disposed between the inner driver element (1506, 1508) and connector wiring assembly (1430, 1432), wherein the internal water barrier seal (1580, 1590, 1595) comprises a PCB. a partially spherical housing (110, 120, 1410, 1420) having a hollow interior and a first aperture at a front side of the housing, wherein the housing includes a front partially hemispherical body (110, 1410) and a rear partially hemispherical body (120, 1420) that are mated together; a transparent window (112, 1512) extending across the first aperture; a seal (232, 1526) between a periphery of the window and the front body for providing resistance to the entry of water into the hollow interior of the housing; at least one LED mounted on a printed circuit board, PCB, and behind a rear side of the window; an inner driver element (222, 224, 1506, 1508) for providing driving signals and/or power to the LED; a connector wiring assembly (130, 132, 1430, 1432); characterized in that an internal water barrier seal (1580, 1590, 1595) is disposed between the inner driver element (1506, 1508) and connector wiring assembly (1430, 1432), wherein the internal water barrier seal (1580, 1590, 1595) comprises a PCB.
A communications device comprising: a plurality of wireless transmitters (22, 42) operable at different respective frequencies and each configured to generate respective IQ signals having an initial IQ imbalance; a frequency tunable auxiliary receiver; and a controller configured to selectively couple a given wireless transmitter to said frequency tunable auxiliary receiver and tune said frequency tunable auxiliary receiver to a frequency of the given wireless transmitter, and apply predistortion to the given wireless transmitter based upon the initial IQ imbalance to reduce the initial IQ imbalance. a plurality of wireless transmitters (22, 42) operable at different respective frequencies and each configured to generate respective IQ signals having an initial IQ imbalance; a frequency tunable auxiliary receiver; and a controller configured to selectively couple a given wireless transmitter to said frequency tunable auxiliary receiver and tune said frequency tunable auxiliary receiver to a frequency of the given wireless transmitter, and apply predistortion to the given wireless transmitter based upon the initial IQ imbalance to reduce the initial IQ imbalance. selectively couple a given wireless transmitter to said frequency tunable auxiliary receiver and tune said frequency tunable auxiliary receiver to a frequency of the given wireless transmitter, and apply predistortion to the given wireless transmitter based upon the initial IQ imbalance to reduce the initial IQ imbalance.
An agricultural crop and field sprayer, said sprayer comprising: a sprayer fluid tank, a positive displacement pump, the inlet of the pump being in fluid communication with said tank, a boom divided in boom sections and each boom section being provided with a plurality of spray nozzles, a valve arrangement associated with said boom sections, a feed conduit for establishing fluid communication between an outlet of said pump and said valve arrangement, said valve arrangement being configured for selectively connecting the feed conduit to a bypass conduit or to one or more of the boom sections, a return conduit branching off from the feed conduit, a regulation valve, said regulation valve applying a variable degree of throttling to the fluid flowing from said feed conduit through said return conduit, said variable degree of throttling depending on the position of said regulation valve, a controller configured to receive instruction signals from an operator, and configured to receive other measured signals, said controller being configured to control the position of the regulation valve using the instructions from the operator and the available measured signals using one or more feedback control loops characterized in that said feedback control loops are combined with a feed forward control signal. a sprayer fluid tank, a positive displacement pump, the inlet of the pump being in fluid communication with said tank, a boom divided in boom sections and each boom section being provided with a plurality of spray nozzles, a valve arrangement associated with said boom sections, a feed conduit for establishing fluid communication between an outlet of said pump and said valve arrangement, said valve arrangement being configured for selectively connecting the feed conduit to a bypass conduit or to one or more of the boom sections, a return conduit branching off from the feed conduit, a regulation valve, said regulation valve applying a variable degree of throttling to the fluid flowing from said feed conduit through said return conduit, said variable degree of throttling depending on the position of said regulation valve, a controller configured to receive instruction signals from an operator, and configured to receive other measured signals, said controller being configured to control the position of the regulation valve using the instructions from the operator and the available measured signals using one or more feedback control loops characterized in that said feedback control loops are combined with a feed forward control signal.
An aerosol generating device for use with an aerosol generating article comprising an aerosol-forming substrate, the device comprising: a heater for heating an aerosol-forming substrate; an odour inhibition assembly, the odour inhibition assembly comprising at least one chamber (112, 113) for receiving at least one odour inhibition substrate (122, 123); and a recess for receiving an aerosol generating article, the at least one chamber (112, 113) being isolated from the recess such that air is unable to pass from the chamber to the recess through the aerosol generating device. a heater for heating an aerosol-forming substrate; an odour inhibition assembly, the odour inhibition assembly comprising at least one chamber (112, 113) for receiving at least one odour inhibition substrate (122, 123); and a recess for receiving an aerosol generating article, the at least one chamber (112, 113) being isolated from the recess such that air is unable to pass from the chamber to the recess through the aerosol generating device.
An animal access system comprising a lockable access door, an access door surround, and an implant adapted to be inserted through the outer tissue of an animal, the access door surround being provided with an induction coil operative to induce an electro-magnetic field at the access door, the Induction coil being controlled by control means operative to generate a control signal to lock or unlock the access door in response to a change In the induced electro-magnetic field generated as a result of the Implant entering the induced electro-magnetic field, characterized In that the implant comprises detector means operative to detect at least one clinical parameter of the animal, the control means being operative to process the change in the Induced electro-magnetic field and to generate a health signal indicative of the clinical parameter, in response to the change in the induced electro-magnetic field.