Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: A technique is presented for improving the bandwidth throughout which a radar return can be detected while keeping the ground-clutter por rejection below an acceptable level. The processor employs a high-pass digital filter which has been designed in accordance with the McClellan-Parks algorithm with the pass-band lor edge selected in an optimum fashion when the other filter design parameters are specified. Conventional approaches to the design of a moving-target indicator (MTI) filter such as the three-pulse canceller and the covariance design method typically improve the signal-to-noise ratio over less than 50% of the range beten dc and the pulse-repetition frequency whereas this technique extends the usable bandwidth to 80% or more. A design example is included which utilizes parameter values from a C-band radar and demonstrates the interactive influence of such filter parameters as the number of ights, passband ripple and bandedge, and stopband attenuation and cut-off.
['Ronald C. Houts', 'Donald W. Burlage']
I am writing a research paper on a idea Design procedure for improving the usable bandwidth of an MTI radar signal processor
[{"from": "human", "value": "I am writing a research paper on a idea Design procedure for improving the usable bandwidth of an MTI radar signal processor"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: A technique is presented for improving the bandwidth throughout which a radar return can be detected while keeping the ground-clutter por rejection below an acceptable level. The processor employs a high-pass digital filter which has been designed in accordance with the McClellan-Parks algorithm with the pass-band lor edge selected in an optimum fashion when the other filter design parameters are specified. Conventional approaches to the design of a moving-target indicator (MTI) filter such as the three-pulse canceller and the covariance design method typically improve the signal-to-noise ratio over less than 50% of the range beten dc and the pulse-repetition frequency whereas this technique extends the usable bandwidth to 80% or more. A design example is included which utilizes parameter values from a C-band radar and demonstrates the interactive influence of such filter parameters as the number of ights, passband ripple and bandedge, and stopband attenuation and cut-off."}]