Abstract: An apparatus, method and system are provided to allow a low power and fast application service transmission (LP-FAST) engine to enhance the quality of service (QoS) and optimize the power consumption of the mobile applications operating in a mobile terminal in a service-aware, bandwidth-aware and power-consumption-aware manner.

Abstract: A method for processing graphics includes: receiving a graphic stream that carries a graphic type identifier; and obtaining the graphic type identifier, and displaying corresponding graphic content of the graphic stream if a graphic type is identifiable, or discarding the graphic stream if the graphic type is not identifiable. Because the graphic stream carries a graphic type identifier, when obtaining the graphic type identifier, the terminal judges whether the graphic type is identifiable, and displays the graphic content if the graphic type is identifiable or discards the graphic stream if the graphic type is not identifiable. In this way, if the terminal does not support the graphic type, the terminal can discard the graphic stream automatically, which enhances the terminal capability of processing graphics.

Abstract: A method within network element, for directing traffic away from cards of first virtual partition, before changing software on cards of first virtual partition, until after cards of first virtual partition have session data, while network element services sessions. Redistribute sessions, serviced by cards of first virtual partition, to cards of second virtual partition. Each of virtual partitions has control card and line card. Direct traffic away from cards of first virtual partition, prior to taking line card of first virtual partition offline. After redistributing sessions, change software on line card of first virtual partition, while cards of second virtual partition service sessions, including redistributed sessions. After changing software, synchronize session data, for sessions serviced by cards of second virtual partition to cards of first virtual partition.

Abstract: A multifinger carbon nanotube field-effect transistor (CNT FET) is provided in which a plurality of nanotube top gated FETs are combined in a finger geometry along the length of a single carbon nanotube, an aligned array of nanotubes, or a random array of nanotubes. Each of the individual FETs are arranged such that there is no geometrical overlap between the gate and drain finger electrodes over the single carbon nanotube so as to minimize the Miller capacitance (Cgd) between the gate and drain finger electrodes. A low-K dielectric may be used to separate the source and gate electrodes in the multifinger CNT FET so as to further minimize the Miller capacitance between the source and gate electrodes.

Abstract: A multifinger carbon nanotube field-effect transistor (CNT FET) is provided in which a plurality of nonotube top gated FETs are combined in a finger geometry along the length of a single carbon nanotube, an aligned array of nanotubes, or a random array of nanotubes. Each of the individual FETs are arranged such that there is no geometrical overlap between the gate and drain finger electrodes over the single carbon nanotube so as to minimize the Miller capacitance (Cgd) between the gate and drain finger electrodes. A low-K dielectric may be used to separate the source and gate electrodes in the multifinger CNT FET so as t further minimize the Miller capacitance between the source and gate electrodes.

Abstract: A computer implemented method of characterizing a nanotube material by sampling a region of the nanotube material using a scanning electron microscope (SEM) to obtain at least one image, and analyzing the at least one image using an image processing algorithm to characterize the nanotube material.

Abstract: A nanotube dual gate transistor and associated method of use are provided. The nanotube dual gate transistor includes a substrate, a nanotube material, a source conductor and a drain conductor, a top gate and a back gate. The nanotube material is formed over the substrate having a nanotube channel with a first end and a second end. The source conductor is coupled to the first end of the nanotube channel and the drain conductor is coupled to the second end of the nanotube channel. The back gate is formed under one or more of the devices for receiving a DC signal for establishing a desired optimal operational state of the device(s). The top gate is formed over the nanotube channel for receiving an AC signal for high frequency operation of the device(s) with low gate capacitance.