Abstract: A residual current circuit breaker and a system including the residual current circuit breaker are provided. The residual current circuit breaker includes: a first switch connected in series between a power supply of the residual current circuit breaker and a load; a second switch connected in series between a standby power supply and the load; and a control means that controls to open the first switch and close the second switch in response to a residual current of a main loop of the residual current circuit breaker exceeding a predetermined threshold, wherein a voltage of the standby power supply is higher than a lowest value of a voltage required for the load to operate and lower than a highest value of a safe voltage, and wherein the first switch and the second switch are mutually exclusive.

Abstract: An electrode film with a high tensile strength and a low electrical resistance is fabricated by using conductive flakes to strengthen polymer stabilized particle electrode. The new compositions and low energy methods are disclosed in this invention. The method includes mixing and blending the particulate materials and fibrilltable polymers with conductive flakes into a paste, fibrillating the polymers, and extruding and rolling the paste into self-supported electrode films.

Abstract: Activated carbons with high surface areas are produced from a synergistic activation effect triggered at high temperatures by a predetermined combination of chemical activation agents derived from weak acidic salts, and/or weak basic salts, and/or neutral salts, and/or compounds. In one embodiment, a method of the present invention comprises mixing a carbon precursor with a first component comprising a first salt and at least one second component selected from the group consisting of a second salt, a compound and combinations thereof, in an inert environment or in carbon dioxide and/or steam environment.

Abstract: An electrode film with a high tensile strength and a low electrical resistance is fabricated by using conductive flakes to strengthen polymer stabilized particle electrode. The new compositions and low energy methods are disclosed in this invention. The method includes mixing and blending the particulate materials and fibrilltable polymers with conductive flakes into a paste, fibrillating the polymers, and extruding and rolling the paste into self-supported electrode films.

Abstract: Activated carbons with high surface areas are produced from a synergistic activation effect triggered at high temperatures by a predetermined combination of chemical activation agents derived from weak acidic salts, and/or weak basic salts, and/or neutral salts, and/or compounds. In one embodiment, a method of the present invention comprises mixing a carbon precursor with a first component comprising a first salt and at least one second component selected from the group consisting of a second salt, a compound and combinations thereof, in an inert environment or in carbon dioxide and/or steam environment.

Abstract: The invention introduces a method and an apparatus for fast recovery. The fast recovery method comprises: evaluating data download qualities of non-current RATs (Radio Access Technologies) to obtain a candidate RAT list; determining whether a PS (Packet Service) download quality of a current RAT becomes worse; and if the PS download quality of the current RAT becomes worse, selecting one RAT from the candidate RAT list and switching to the selected RAT. The method and the apparatus for fast recovery introduced by the invention realize the seamless RAT switch and maintain the continuous data transmission.

Abstract: A timing method and communication apparatus therefor. The timing method, performed by a mobile communication device, includes: activating a first communication module; receiving updated information when the first communication module is active; determining and setting an expiry time for an adaptive timer based on the updated information; activating the adaptive timer to count to the determined expiry time; and activating a second communication module when the adaptive timer expires.

Abstract: A method of modifying an electrode for an electrochemical cell in which the electrode is in contact with an electrolyte comprising one or more salts containing metal ions and halogen ions connecting the electrode in a circuit comprising the electrode, the electrolyte, and an opposite electrode; and applying a charging current to the circuit charging the circuit to a first voltage sufficient to drive halogen ions into the electrode to modify the atomic structure of the electrode. An electrochemical cell comprising a first electrode, an electrolyte comprising one or more salts containing metal ions and halogen ions; and a second electrode, the second electrode containing halogen ions when the electrochemical cell is in a charged state.

Abstract: The invention introduces a method and an apparatus for fast recovery. The fast recovery method comprises: evaluating data download qualities of non-current RATs (Radio Access Technologies) to obtain a candidate RAT list; determining whether a PS (Packet Service) download quality of a current RAT becomes worse; and if the PS download quality of the current RAT becomes worse, selecting one RAT from the candidate RAT list and switching to the selected RAT. The method and the apparatus for fast recovery introduced by the invention realize the seamless RAT switch and maintain the continuous data transmission.

Abstract: A timing method and communication apparatus therefor. The timing method, performed by a mobile communication device, includes: activating a first communication module; receiving updated information when the first communication module is active; determining and setting an expiry time for an adaptive timer based on the updated information; activating the adaptive timer to count to the determined expiry time; and activating a second communication module when the adaptive timer expires.

Abstract: A method of fabricating carbon nanotube arrays (CNTA) on an oxide catalyst layer is disclosed. In one embodiment, the oxide catalyst is a metal oxide. The metal oxide may be deposited on a substrate used as a support. The CNTA is grown on the oxide catalyst layer under conditions promoting CNT growth. CNT growth is dependent on temperature, concentration of oxidizing molecules and carbon availability. One embodiment of the method comprises depositing an oxide catalyst layer on the substrate, heating the catalyst layer at certain rates to the target temperatures, adding oxidation molecules for the pretreatment of the oxide catalyst layer, and growing the array on the substrate. The oxide catalyst layer may comprise a group VIII element.

Abstract: A method of dispersing a metal or metal oxide within a CNT or CNT array, comprising exposing the CNT or CNT array to a solution containing a metal compound in a non-aqueous liquid; and removing the non-aqueous liquid from the CNT or CNT array. Nanoparticles were homogenously deposited within millimeter-long carbon nanotube array (CNTA). After modified with nanoparticles, CNTA changes from hydrophobic to hydrophilic. The hydrophilic composite electrodes present ideal capacitive behavior with high reversibility. The novel, nano-architectured composite demonstrates strong promise for high-performance thick and compact electrochemical supercapacitors.

Abstract: A network searching method for a multi-mode user equipment having a first radio access technology module and a second radio access technology module includes camping on a current cell by the user equipment via the first radio access technology module; obtaining information broadcast by a system of the second radio access technology module via the first radio access technology module when network environment corresponding to the first radio access technology module changes; and instructing the second radio access technology module to perform a network searching.

Abstract: A method comprises: physically attaching one or more of metals, metal compounds or oxides to walls of carbon nanotubes; treating the metals, metal compounds or oxides to bond the metals, metal compounds, or oxides chemically to the carbon nanotubes; removing the metals, metal compounds or oxides from the walls of the carbon nanotubes resulting in defected carbon nanotubes; and unzipping the defected carbon nanotubes into graphene sheets or ribbons.