Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: The reduced local curvature approximation of third order (RLCA3) is a recently proposed model for rough surface scattering that matches the Kirchhoff approximation as ll as the first-order and second-order small perturbation methods in appropriate limits. Predictions of bistatic scattering, thermal emission, and reflected atmospheric brightnesses from the RLCA3 model are presented in this paper through a Monte Carlo simulation process. The surfaces considered are realizations of an oceanlike spectrum and contain features ranging from 64 to 0.5 electromagnetic wavelengths. Results are compared with predictions from the commonly applied ldquotwo-scalerdquo theory of sea emission, as ll as results from a previous similar study using the small slope approximation (SSA) of Voronovich. Results show a high level of agreement beten RLCA3 and SSA predicted bistatic scattering patterns, but appreciable differences in predicted surface brightnesses, particularly in the third Stokes' parameter.
['Joel T. Johnson', 'Tanos Elfouhaily']
I am writing a research paper on a idea Computation of Oceanlike Surface Thermal Emission and Bistatic Scattering With the Reduced Local Curvature Approximation
[{"from": "human", "value": "I am writing a research paper on a idea Computation of Oceanlike Surface Thermal Emission and Bistatic Scattering With the Reduced Local Curvature Approximation"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: The reduced local curvature approximation of third order (RLCA3) is a recently proposed model for rough surface scattering that matches the Kirchhoff approximation as ll as the first-order and second-order small perturbation methods in appropriate limits. Predictions of bistatic scattering, thermal emission, and reflected atmospheric brightnesses from the RLCA3 model are presented in this paper through a Monte Carlo simulation process. The surfaces considered are realizations of an oceanlike spectrum and contain features ranging from 64 to 0.5 electromagnetic wavelengths. Results are compared with predictions from the commonly applied ldquotwo-scalerdquo theory of sea emission, as ll as results from a previous similar study using the small slope approximation (SSA) of Voronovich. Results show a high level of agreement beten RLCA3 and SSA predicted bistatic scattering patterns, but appreciable differences in predicted surface brightnesses, particularly in the third Stokes' parameter."}]