Abstract:
A method of constructing an optimized network simulation environment according to the present invention includes the steps of identifying communication equipment models for relaying a message to/from real equipments out of communication equipment models within a network model, as major models, calculating the order of abstraction priority for major models, performing batch-mode abstraction for non-major models, driving a simulation, determining whether a difference between a simulation execution time and an actual time spent is within an allowable delay value, performing adaptive abstraction for the major models, and evaluating a result of the simulation. If the method according to the present invention is used, a real-time simulation having fidelity and reliability for the function and operation of real equipments can be guaranteed.
Abstract:
A method of constructing an optimized network simulation environment according to the present invention includes the steps of identifying communication equipment models for relaying a message to/from real equipments out of communication equipment models within a network model, as major models, calculating the order of abstraction priority for major models, performing batch-mode abstraction for non-major models, driving a simulation, determining whether a difference between a simulation execution time and an actual time spent is within an allowable delay value, performing adaptive abstraction for the major models, and evaluating a result of the simulation. If the method according to the present invention is used, a real-time simulation having fidelity and reliability for the function and operation of real equipments can be guaranteed.
Abstract:
A mobile terminal may include a camera module and a controller. The camera module may include a first capture unit to capture a subject to acquire a first image, a second capture unit to capture the subject to acquire a second image, an actuator disposed at least one of the first capture unit and the second capture unit, and a drive unit configured to drive the actuator. The controller may analyze a perceived 3-dimensional (3D) image formed by using the first image and the second image, and may produce a relative position compensation value corresponding to a relative displacement between the first capture unit and the second capture unit according to a result of the analysis. The drive unit may drive the actuator to control a relative position between the first capture unit and the second capture unit based on the relative position compensation value.