Structural intensity analysis of stepped thickness rectangular plates utilizing the finite element method

Cho, Dae Seung and Choi, Tae Muk and Kim, Jin Hyeong and Vladimir, Nikola (2016) Structural intensity analysis of stepped thickness rectangular plates utilizing the finite element method. = Structural intensity analysis of stepped thickness rectangular plates utilizing the finite element method. Thin-walled structures, 109. pp. 1-12. ISSN 0263-8231. Vrsta rada: ["eprint_fieldopt_article_type_article" not defined]. Kvartili JCR: Q1 (2016). Točan broj autora: 4.

Full text not available from this repository.
Official URL: http://www.sciencedirect.com/science/article/pii/S...

Abstract

Stepped thickness rectangular plates are found in various engineering branches, and knowledge about their dynamic performance represents an important issue for rational structural design. The structural intensity analysis, assessing magnitude and direction of vibration energy flow provides information on dominant transmission paths, and vibratory energy distribution including sink positions. In this paper, vibration energy flow in stepped thickness rectangular plates is analyzed by structural intensity technique employing the finite element method. An outline of structural intensity formulation for a plate element is given, and developed analysis system combining in-house code and commercial FE tools is described. Numerical examples include structural intensity analysis of stepped thickness rectangular plates subjected to harmonic excitation forces with different sets of boundary conditions, where special attention is paid to influence of plate thickness ratio variation on vibration energy flow. Moreover, different structural intensity components of a simply supported stepped thickness plate are separately quantified, to assess their contribution to the total intensity.

Item Type: Article (["eprint_fieldopt_article_type_article" not defined])
Keywords (Croatian): stepped thickness rectangular plate; structural intensity; energy flow; harmonic excitation; FEM
Subjects: TECHNICAL SCIENCE > Mechanical Engineering
Divisions: 600 Department of Naval Engineering and Marine Technology > 650 Chair of Marine Machinery and System Design
Indexed in Web of Science: Yes
Indexed in Current Contents: Yes
Quartiles: Q1 (2016)
Date Deposited: 27 Sep 2016 12:57
Last Modified: 01 Mar 2018 13:37
URI: http://repozitorij.fsb.hr/id/eprint/6990

Actions (login required)

View Item View Item