Bistatic Radar with Quantum-Generated Noise Phase Manipulation and Non-Directional Antennas

Area of Science:

• Radar Technology
• Quantum Information Science
• Electromagnetics

Background:

• Bistatic noise radars represent a significant advancement in radar technology.
• Existing methods for bistatic radar design require further development to enhance capabilities.

Purpose of the Study:

• To propose two novel approaches for the design of bistatic noise radars.
• To improve electronic protection, stealth, and signal processing capabilities of bistatic radars.

Main Methods:

• Utilizing quantum-generated random number sequences for phase manipulation control, offering practically infinite duration and enhanced electronic protection.
• Introducing synchronized emissions from both antennas to control the electromagnetic field, improving signal processing and achieving electronic stealth.

Main Results:

• Achieved enhanced electronic protection through non-repeating phase manipulation codes.
• Enabled formation of a controlled electromagnetic field, improving received-signal processing.
• Enhanced radar stealth by creating a fictitious electromagnetic center and complicating antenna location determination.

Conclusions:

• The proposed methods offer significant improvements in bistatic noise radar design.
• Quantum-generated noise and synchronized emissions are effective for enhancing radar security and performance.