SCATTERED FIELDS CST MICROWAVE STUDIO FULL

For example using the results of EM simulation to calculate thermal effects, then structural deformation, and then another EM simulation to analyze detuning. SAM facilities the set-up of a linked sequence of solver runs for hybrid and multiphysics simulations. SAM helps users to compare the results of different solvers or model configurations within one simulation project and perform post-processing automatically. SAM enables the use of the most efficient solver technology for each component. These are described by relevant physical quantities such as currents, fields or S-parameters. The SAM framework can be used for analyzing and optimizing an entire device that consists of multiple individual components. Results are shownbased on rigorous parametric studies that lead to useful guidelines and optimised designs for sub-wavelength focusing inside the dielectric body.With System Assembly and Modeling (SAM), CST Studio SuiteВ® provides an environment that simplifies the management of simulation projects, enabling the intuitive construction of electromagnetic (EM) systems and straightforward management of complex simulation flows using schematic modeling. The effect of the dielectric losses is also studied. A comparison with a dielectric-free case for the same geometry is also included to bring out the impact of the presence of the dielectric body. It simplifies solving complex structures as it solves for MaxwellвЂ™s equations numerically inside the structure.

SCATTERED FIELDS CST MICROWAVE STUDIO FULL

It was found that the dielectricpermittivity plays an important role in the two-dimensional subwavelength-focused imaging of this array. Introduction to CST Abstract This experiment is an introduction to CST software (Computer Simulation Technology) which is powerful numerical full electromagnetic simulator. Simulations were conducted considering an array composed of a centrally fed monopole surrounded by parasitic secondary monopoles (placed less than half a wavelength away) and a dielectric body placed in the proximity of the array. The designed superscatterer has the superscattering phenomenon simultaneously at 2.2 and 3.73 GHz. The measured results in (e)(h) are consistent with the analytical results in (a)(d). Results are shownbased on rigorous parametric studies that lead to useful guidelines and optimised designs for sub-wavelength focusing inside the dielectric body.ДЄB - The effect of a dielectric body on the performance of a near-field antenna-array probe designed for sub-wavelength focusing is presented by computing the fields inside the dielectric using CST Microwave Studio 2010. Much pronounced scattered fields are observed in the superscatterer. It was found that the dielectricpermittivity plays an important role in the two-dimensional subwavelength-focused imaging of this array.

N2 - The effect of a dielectric body on the performance of a near-field antenna-array probe designed for sub-wavelength focusing is presented by computing the fields inside the dielectric using CST Microwave Studio 2010. T1 - A study of the effect of dielectric materials on a two-dimensional near-field antenna-array probe for sub-wavelength microwave imaging

Scattered fields cst microwave studio