Abstract

Wideband RCS Reduction and Gain Enhancement for a Patch Antenna with Broadband AMC Structure

Highlights

  • With the rapid development of detection and stealth technology, Radar Cross Section (RCS) plays an important role in evaluating the stealth performance of a target

  • We proposed a broadband Artificial Magnetic Conductor (AMC) structure with orthogonal slot slot-embedding for the simultaneous improvement of radiating and scattering performance of a patch antenna

  • The principle of RCS reduction for chessboard configuration (CBC) lies in the backscattering cancellation which depends on the phase difference of AMC cells, which can be approximated by array theory

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Summary

Introduction

With the rapid development of detection and stealth technology, Radar Cross Section (RCS) plays an important role in evaluating the stealth performance of a target. In reference [12], a novel frequency selective surface (FSS) is proposed in MIMO antennas design Both isolation and RCSR have been achieved based on this structure and method. We proposed a broadband AMC structure with orthogonal slot slot-embedding for the simultaneous improvement of radiating and scattering performance of a patch antenna. By arranging the broadband AMC and square ring unit surrounding the patch antenna in a chessboard configuration (CBC) for phase cancellation of reflected wave, both remarkable RCSR and gain enhancement are realized over the operating band of the antenna. CHEN., WIDEBAND RCS REDUCTION AND GAIN ENHANCEMENT FOR A PATCH

Broadband AMC Unit Design
Wideband Low Scattering Patch Antenna Design
Simulated With AMC
Fabrication and Measurement
Conclusion
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