A dual-arc non-penetrating gas baseline focusing air-coupled sensor
A non-penetrating, air-coupled technology, applied in the field of acoustic transducers, can solve the problems of mismatched acoustic impedance, expensive materials, and difficult processing, and achieve the effects of low acoustic impedance, concentrated acoustic energy, and high energy transmission efficiency.
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[0019] Attached below Figure 1-6 , taking a sensor with an opening angle θ=90° and a focus radius, that is, a cylinder surface radius R=20mm, as an example to further describe the specific implementation. Here the cross-sectional side length of the selected piezoelectric column 9 is a=1.5mm, and the height h=15mm; the overall cross-sectional side length of the epoxy resin support 11 is s=32.5mm, the edge height f=15mm, and the cylindrical surface length s =32.5mm, rectangular air gap cross-sectional dimension a×b: 1.5mm×0.5mm, square air gap cross-sectional dimension b×b: 0.5mm×0.5mm, the epoxy resin layer thickness at both ends of the air gap 10 is r=0.5 mm, stent width c=0.2mm.
[0020] Such as figure 1 As shown, the sensor includes a double-arc non-penetrating gas-based piezoelectric composite material 1, an upper electrode 2, a lower electrode 3, an impedance matching layer 4, a backing layer 5, an impedance matching circuit 6, a metal shell 7, and a BNC connector 8 Wa...
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