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MODAL ANALYSIS OF INTERIOR NOISE FIELDS.

Publication ,  Journal Article
Chao, CF; Dowell, EH; Bliss, DB
Published in: Semiconductor International
January 1, 1981

E. H. Dowell's linear theory of acoustoelasticity, which is capable of predicting the interior sound field for any structural model surrounding an arbitrarily shaped acoustic cavity subject to a prescribed internal sound source and/or external noise fields (or structural wall motion), has been employed. Using this theory, a method and associated computer program have been developed to compute the acoustic natural modes and natural frequencies of a cavity of arbitrary geometry. Comparisons of present calculated results and other theoretical and experimental values show generally good agreement. The theoretical model is also applied to predict the noise transmission through a single wall or a double wall/cavity system into a cavity. The effects of acoustoelastic and absorption couplings have been considered in a rigorous fashion. It is shown that a combination of added absorption material and a double wall/cavity system could significantly reduce interior noise levels.

Duke Scholars

Published In

Semiconductor International

ISSN

0163-3767

Publication Date

January 1, 1981

Start / End Page

29 / 56

Related Subject Headings

  • Applied Physics
 

Citation

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Chao, C. F., Dowell, E. H., & Bliss, D. B. (1981). MODAL ANALYSIS OF INTERIOR NOISE FIELDS. Semiconductor International, 29–56.
Chao, C. F., E. H. Dowell, and D. B. Bliss. “MODAL ANALYSIS OF INTERIOR NOISE FIELDS.Semiconductor International, January 1, 1981, 29–56.
Chao CF, Dowell EH, Bliss DB. MODAL ANALYSIS OF INTERIOR NOISE FIELDS. Semiconductor International. 1981 Jan 1;29–56.
Chao, C. F., et al. “MODAL ANALYSIS OF INTERIOR NOISE FIELDS.Semiconductor International, Jan. 1981, pp. 29–56.
Chao CF, Dowell EH, Bliss DB. MODAL ANALYSIS OF INTERIOR NOISE FIELDS. Semiconductor International. 1981 Jan 1;29–56.

Published In

Semiconductor International

ISSN

0163-3767

Publication Date

January 1, 1981

Start / End Page

29 / 56

Related Subject Headings

  • Applied Physics