
This paper develops theory to design higher order directional microphone arrays. The proposed higher order designs have similar inter sensor spacings as traditional first and second order differential arrays. The Jacobi–Anger expansion is used to exploit the underlying structure of microphone signals from pairs of closely spaced sensors. Specifically, the difference and sum of these microphone signals are processed to design the novel directional array.
noise, Design, Transducers, Jacobi-anger expansion, sound, equipment design, Second orders, Microphone signals, acoustics, signal processing, Inter-sensor spacing, Higher order, instrumentation, Sensors, article, Signal Processing, Computer-Assisted, Acoustics, Equipment Design, Models, Theoretical, Microphone arrays, Keywords: Directional microphones, Sound, Microphones, Noise
noise, Design, Transducers, Jacobi-anger expansion, sound, equipment design, Second orders, Microphone signals, acoustics, signal processing, Inter-sensor spacing, Higher order, instrumentation, Sensors, article, Signal Processing, Computer-Assisted, Acoustics, Equipment Design, Models, Theoretical, Microphone arrays, Keywords: Directional microphones, Sound, Microphones, Noise
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