Abstract: A method of displaying image data, which can mitigate a double-boundary problem and improve MPRT, includes the steps of: receiving a plurality of frame data of a pixel; correcting subframe data of two of the plurality frame data; and sequentially displaying each of the subframe data of the plurality frame data.

Abstract: A method of displaying image data, which can mitigate a double-boundary problem and improve MPRT, includes the steps of: receiving a plurality of frame data of a pixel; correcting subframe data of two of the plurality frame data; and sequentially displaying each of the subframe data of the plurality frame data.

Abstract: A method of operating a display includes deriving first pixel data for overdriving pixel circuits of the display from initial gray levels to target gray levels based on values in the first and second lookup tables, rendering the second lookup table unavailable in memory in response to a change in a temperature of the display, and deriving second pixel data using the first lookup table for overdriving the pixel circuits when the second lookup table is unavailable in the memory.

Abstract: A method of displaying image data, which can mitigate a double-boundary problem and improve MPRT, includes the steps of: receiving a plurality of frame data of a pixel; correcting subframe data of two of the plurality frame data; and sequentially displaying each of the subframe data of the plurality frame data.

Abstract: A driving unit for a display device includes a buffer to provide first frame data and second frame data and a timing controller. The timing controller includes a first overdrive data generation unit responsive to the first frame data to output first overdrive frame data to the display device and a second overdrive data generation unit in response to the second frame data to output second overdrive frame data. The timing controller also includes a delay unit to delay the second current overdrive frame data by a delay time period to output the second current overdrive frame data to the display device after the delay time period.

Abstract: A method for driving a pixel includes driving the pixel with a first gray level and a second gray level within a first sub-frame period and a second sub-frame period of a first frame period, respectively, driving the pixel with a third gray level and a fourth gray level within a first sub-frame period and a second sub-frame period of a second frame period, respectively, and adjusting the third gray level and the fourth grey level such that the luminance of the adjusted fourth grey level is similar to the luminance of the second grey level.

Abstract: A method of displaying image data, which can mitigate a double-boundary problem and improve MPRT, includes the steps of: receiving a plurality of frame data of a pixel; correcting subframe data of two of the plurality frame data; and sequentially displaying each of the subframe data of the plurality frame data.

Abstract: A method of operating a display includes providing light having a luminance that varies periodically, overdriving a pixel circuit of the display, and modulating the light using the pixel circuit to generate modulated light. The amount of overdrive and the phase of the light relative to the overdriving of the pixel circuit are controlled such that the modulated light has a predetermined level of uniformity.

Abstract: A method of operating a display includes deriving first pixel data for overdriving pixel circuits of the display from initial gray levels to target gray levels based on values in the first and second lookup tables, rendering the second lookup table unavailable in memory in response to a change in a temperature of the display, and deriving second pixel data using the first lookup table for overdriving the pixel circuits when the second lookup table is unavailable in the memory.

Abstract: A pixel signal for a pixel has an initial voltage during a frame period. The pixel signal is driven from the initial voltage to an intermediate voltage larger than the initial voltage during the frame period, and the pixel signal is maintained at the intermediate voltage for a time interval. After the time interval, the pixel signal is driven from the intermediate voltage to a target voltage larger than the intermediate voltage during the frame period.

Abstract: A method, which establishes a voice communications link through the internet community, includes the step of configuring a gateway to use a mapping table to translate input identification data of a called party to a corresponding internet protocol address of another gateway associated with the called party. The method is relatively simple as compared to existing voice over internet protocols.

Abstract: A pipelined CPU includes a pre-fetch (PF) stage for performing branch prediction, and an instruction fetch (IF) stage for fetching instructions that are to be later processed by an execution (EX) stage. The PF stage has a PF address (PFA) register for storing the address of an instruction being processed by the PF stage, and the IF stage has an IF address (IFA) register for storing the address of an instruction to be fetched for later execution. The CPU also includes address register control (ARC) circuitry for setting the contents of the PFA and the IFA. The ARC accepts branch-prediction results from the PF stage to determine the subsequent contents of the PFA and the IFA. If the PF stage predicts a branch, then the ARC sets the next address of the PFA to be sequentially after a predicted branch address, and simultaneously sets the next address of the IFA to be the predicted branch address.

Abstract: pipelined CPU includes a pre-fetch (PF) stage for performing branch prediction, and an instruction fetch (IF) stage for fetching instructions that are to be later processed by an execution (EX) stage. The PF stage has a PF address (PFA) register for storing the address of an instruction being processed by the PF stage, and the IF stage has an IF address (IFA) register for storing the address of an instruction to be fetched for later execution. The CPU also includes address register control (ARC) circuitry for setting the contents of the PFA and the IFA. The ARC accepts branch-prediction results from the PF stage to determine the subsequent contents of the PFA and the IFA. If the PF stage predicts no branching, then the ARC sets a next address of the PFA to be sequentially after a current address of the PFA, and sets a next address of the IFA be the current address of the PFA.

Abstract: A session key is developed for communication between two end to end users where one or both of the end users do not have the computation capability of carry out all the steps required to generate a secure session key. End user limitations may include lack of computer storage, bandwidth or power supply capability to support the programs necessary for the computation and authentication of the protocol steps. The invention teaches the use of at least one intermediary proxy, which may be network servers or a telephone service providers, and who hold securitiy certificates supporting the use of public and private keys in the transmission of encrypted information. The end users channel their requests through the proxies, who perform the protocol computations and act as trusted intermediaries in transferring the computation results between the end users in establishing a secure session key.

Abstract: This invention describes a multi-deposition system, whereby directing elemental or molecular source fluxes across a substrate in an asymmetrical manner and rotating the substrate at low rotation speeds, a superlattice is formed having a composition of A(x-.DELTA.x)B(1-(x-.DELTA.x))/A(x+.DELTA.x)B(1-(x+.DELTA.x) where .DELTA.x is a function of the nonuniform focusing of the elemental or molecular source fluxes A and B. More specifically, superlattices 18 are formed in the ternary and quaternary In(GaAl)As alloys on InP by molecular beam epitaxy without mechanical shuttering. The superlattice 18 is formed by nonuniformly directing the group III elements 22 and 24 onto the substrate 26 and rotating the substrate 26 across the beams. Periodic ordering is produced by rotation of the substrate 26 through a nonuniform distribution of source fluxes at the rotating substrate 26. The growth rate and substrate rotation rate together determine the superlattice period.