Propagation of sound pulse informational messages in planar wave-guide with ideal boundaries
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Abstract
Propagation of informational signal in the form of acoustic code-pulse sequence in the planar wave-guide with ideal walls and spatial structure is observed. It is discovered and observed some time and bit-error probability peculiarities for the informational message as a single and a pair of radio pulses with fre-quency distribution in dependency of the frequency ratio of pulses. Evaluation of probabilistic features was made for bit-error in variable of conditions where noise spectral density power is represented by noise of the sea at the selected frequency range. It is discovered and mapped some peculiarities and temporal characteristics of the acoustic single pulse propagation velocity to the assessment of the effects of energy transfer through the channel.
Ref. 13, Fig. 15.
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References
Sommerfeld, A., & Brillouin, L. (1960). Wave Propagation and Group Velocity.
Kilfoyle, D. B., & Baggeroer, A. B. (2000). The state of the art in underwater acoustic telemetry. Oce-anic Engineering, IEEE Journal of, 25(1), 4-27.
Mann III, J. A., Tichy, J., & Romano, A. J. (1987). Instantaneous and time‐averaged energy transfer in acoustic fields. The Journal of the Acoustical Society of America, 82(1), 17-30.
Sklar, B. (2001). Digital communications (Vol. 2). NJ: Prentice Hall.
Bezruchko, A. V., Didkovskiy, V. S., Gladkik, N. D., & Korzhyk, O. V. (2015). On the deformation of frequence coded PCM acoustic signal underwater sound channel. Information processing systems. In-formation problems of the theory of acoustic, electronic and telecommunication systems, (10), 12-15.
Brekhovskikh, L. M. (1973). Waves in layered media. Ripol Classic.
Bulanaya, M. A., Vovk, I. V., Grinchenko, V. T., Matsypura, V. T. (2008). Peculiarities of the sound pulse propagation in the planar regular waveguide. Acoustics Bulletin, (11), 9-23.
Lastovenko, O. R., Lisyutin, V. A., Yaroshenko, A. A. (2007). Modeling of transfer and impulse re-sponses of hydroacoustic waveguides. The waveguide with absolutely rigid boundaries. Acoustics Bulletin, (10), 59-69.
Meleshko, V. V., Matsipura, V. T., Ulitko, A. F. (2013). Theory of waveguides.
Reed, Richard. (2004). Fundamentals of Theory of Information Transmission. M: "Williams”.
Urik, R.Dzh. (1978). Basics of underwater acoustics. A: Shipbuilding.
Schurov, V. A., Kuleshov, V. P., Cherkasov, A. V. (2011). Vortex properties of acoustic intensity in a shallow sea. Acoustic magazine, (57), 837-843.
Elaysez, M., Garcia-Moliner, F. (1972). Distribution of wave packets and frequency dependent internal friction. In. Physical Acoustics. The principles and methods. V.5, pp.192-253.