TY - CHAP
T1 - Resonance low frequency sound source with extended frequency band
AU - Donskoy, Dimitri M.
AU - Nazalewicz, Jan
PY - 1995
Y1 - 1995
N2 - A new concept of a low-frequency (< 1000-Hz) underwater sound source has been proposed and tested (Donskoy and Blue, 1994). The present work is a further development of the source. A full scale reaction force driver to power the source was developed, built and tested. In order to extend frequency band of the source, a double resonance approach (resonating reaction mass and resonating radiation piston) was employed. This approach allows for a significant extension (up to 400%) of the frequency band without an increase in a vibromotive force. The driver consists of a brushless servomotor, a brushless resolver for feedback, a Digital Signal Processor (DSP) based servo amplifier, and an interface with a PC. Vibromotive force is created with an eccentric weight mounted to a resonating mechanical structure. The driver can generate up to 8.000 lbs force, it has a programmable frequency control in the range up to 117 Hz, high power output (3.3 kW), compact size, low weight, and relatively low cost.
AB - A new concept of a low-frequency (< 1000-Hz) underwater sound source has been proposed and tested (Donskoy and Blue, 1994). The present work is a further development of the source. A full scale reaction force driver to power the source was developed, built and tested. In order to extend frequency band of the source, a double resonance approach (resonating reaction mass and resonating radiation piston) was employed. This approach allows for a significant extension (up to 400%) of the frequency band without an increase in a vibromotive force. The driver consists of a brushless servomotor, a brushless resolver for feedback, a Digital Signal Processor (DSP) based servo amplifier, and an interface with a PC. Vibromotive force is created with an eccentric weight mounted to a resonating mechanical structure. The driver can generate up to 8.000 lbs force, it has a programmable frequency control in the range up to 117 Hz, high power output (3.3 kW), compact size, low weight, and relatively low cost.
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M3 - Chapter
AN - SCOPUS:0029428384
T3 - American Society of Mechanical Engineers, Design Engineering Division (Publication) DE
BT - 15th Biennial Conference on Mechanical Vibration and Noise
A2 - Wang, K.W.
A2 - Yang, B.
A2 - Sun, J.Q.
A2 - Seto, K.
A2 - Yoshida, K.
A2 - et al, al
T2 - Proceedings of the 1995 ASME Design Engineering Technical Conference. Part C
Y2 - 17 September 1995 through 20 September 1995
ER -