To verify the correctness and effectiveness of the design, we first simulate the homogeneous background material based on the resistor network.
In this paper, the problem of enhancing the detection performance of detector for target in partially homogeneous background is addressed.
Since the diffusion of the dye is much faster than the image acquisition time (0.1 milliseconds vs. 50-to-100 milliseconds), the fluorescence produces a homogeneous background.
We observe that a typical panoramic image includes several homogeneous background regions yielding horizontally elongated distributions, as well as multiple foreground objects with arbitrary locations.
These surface displacement fields are used to test the inverse strategy on a problem domain consisting of a stiff circular inclusion in a softer homogeneous background.
Next, a series of numerical results serve to validate the aforementioned models, and to show the differences in the wave motion patterns developing in media that are inhomogeneous as compared to a reference homogeneous background.
A stretching procedure of the inhomogeneous background to a homogeneous one leads to a domain integral equation in a stretched space, where the Green function has the same simple functionality as the one of the non-stretched homogeneous background.
We consider the numerical solution of the scattering of time-harmonic plane waves from an infinite periodic array of reflection or transmission obstacles in a homogeneous background medium, in two dimensions.
We model the surge as a moving magnetic flux tube for two magnetic field configurations: (i) a twisted tube surrounded by plasma with homogeneous background magnetic field, and (ii) a twisted tube which environment is plasma with also twisted magnetic field.
Furthermore, this similarity is determined by spatial resolution and homogeneous background in hyperspectral image.
However, by assessing a sparse target scene, the homogeneous background influences the SSIM.
