Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  develop and then demonstrate a modified planar subarray processing algorithm based on the inverse scaled Fourier transform applied to very high frequency ice-sounding data that produces swath measurements of ice sheet surface topography, ice thickness, and radar reflectivity of both internal reflecting horizons and bedrock of the ice sheet. It is a real-time ice-sounding imaging method. First, theory analysis has been carried on the proposed algorithm. Then,  give the particular realizing steps to implement this algorithm. Finally,  apply this algorithm to the simulation point targets and real data collected during the 29th Chinese Antarctic Research Expedition to prove its validity of imaging of ice sheets. Furthermore, compared with two previous algorithms in two major aspects—the por of azimuth clutter reduction and calculating time—the proposed algorithm could considerably reduce the imaging time to meet the requirement of real-time imaging of ice-sounding data without degrading the ability of azimuth clutter reduction via C+MPI language on a parallel computer system.
['Shinan Lang', 'Qiang Wu', 'Xiaojun Liu', 'Bo Zhao', 'Wenxin Zhang', 'Xiuwei Chen']
I am writing a research paper on a idea Modified Planar Subarray Processing Algorithm Based on ISFT for Real-Time Imaging of Ice-Sounding Data
[{"from": "human", "value": "I am writing a research paper on a idea Modified Planar Subarray Processing Algorithm Based on ISFT for Real-Time Imaging of Ice-Sounding Data"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  develop and then demonstrate a modified planar subarray processing algorithm based on the inverse scaled Fourier transform applied to very high frequency ice-sounding data that produces swath measurements of ice sheet surface topography, ice thickness, and radar reflectivity of both internal reflecting horizons and bedrock of the ice sheet. It is a real-time ice-sounding imaging method. First, theory analysis has been carried on the proposed algorithm. Then,  give the particular realizing steps to implement this algorithm. Finally,  apply this algorithm to the simulation point targets and real data collected during the 29th Chinese Antarctic Research Expedition to prove its validity of imaging of ice sheets. Furthermore, compared with two previous algorithms in two major aspects\u2014the por of azimuth clutter reduction and calculating time\u2014the proposed algorithm could considerably reduce the imaging time to meet the requirement of real-time imaging of ice-sounding data without degrading the ability of azimuth clutter reduction via C+MPI language on a parallel computer system."}]