Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  consider a two-stage numerical procedure for imaging of objects buried in dry sand using time-dependent backscattering experimental radar measurements. These measurements are generated by a single point source of electric pulses and are collected using a microwave scattering facility which was built at the University of North Carolina at Charlotte. Our imaging problem is formulated as the inverse problem of the reconstruction of the spatially distributed dielectric constant e r ( x ) , x ? R 3 , which is an unknown coefficient in Maxll's equations.On the first stage the globally convergent method of Beilina and Klibanov (2012) is applied to get a good first approximation for the exact solution. Results of this stage re presented in Thi?nh et?al. (2014). On the second stage the locally convergent adaptive finite element method of Beilina (2011) is applied to refine the solution obtained on the first stage. The two-stage numerical procedure results in accurate imaging of all three components of interest of targets: shapes, locations and refractive indices.   briefly describe methods and present new reconstruction results for both stages.
['Larisa Beilina', 'Nguyen Trung Thành', 'Michael V. Klibanov', 'John Bondestam Malmberg']
I am writing a research paper on a idea Globally convergent and adaptive finite element methods in imaging of buried objects from experimental backscattering radar measurements
[{"from": "human", "value": "I am writing a research paper on a idea Globally convergent and adaptive finite element methods in imaging of buried objects from experimental backscattering radar measurements"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  consider a two-stage numerical procedure for imaging of objects buried in dry sand using time-dependent backscattering experimental radar measurements. These measurements are generated by a single point source of electric pulses and are collected using a microwave scattering facility which was built at the University of North Carolina at Charlotte. Our imaging problem is formulated as the inverse problem of the reconstruction of the spatially distributed dielectric constant e r ( x ) , x ? R 3 , which is an unknown coefficient in Maxll's equations.On the first stage the globally convergent method of Beilina and Klibanov (2012) is applied to get a good first approximation for the exact solution. Results of this stage re presented in Thi?nh et?al. (2014). On the second stage the locally convergent adaptive finite element method of Beilina (2011) is applied to refine the solution obtained on the first stage. The two-stage numerical procedure results in accurate imaging of all three components of interest of targets: shapes, locations and refractive indices.   briefly describe methods and present new reconstruction results for both stages."}]