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A Study on the Hybrid Mount against Vibration and Shock for Naval Ships
Author(s) -
Seok-Jun Moon,
Jeong-Seok Kwak,
Jung-Hoon Chung,
Yong-Jin Ji,
Jeong-Sik Yoon,
SeungBok Choi,
Hyun-Yup Lee,
WooJin Jung,
Dock-Jong Ki
Publication year - 2010
Publication title -
shock and vibration
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.418
H-Index - 45
eISSN - 1875-9203
pISSN - 1070-9622
DOI - 10.1155/2010/390453
Subject(s) - mount , engineering , vibration , marine engineering , shock (circulatory) , actuator , displacement (psychology) , structural engineering , mechanical engineering , electrical engineering , acoustics , medicine , psychotherapist , psychology , physics
In naval ships, some methods or devices are acquired both to cut off the transmission of vibration from shipboard machineries and to protect them from external shock loading. One of the approaches is to install the passive mountings between machinery and a flexible supporting structure. More advanced performance has become necessary recently so far as at high frequencies in order to retain the stealth function of certain types of naval vessels. For the purpose of this research, a novel hybrid mount for shipboard machinery installed on naval ships was developed. The mount is combined with a rubber mount and piezostack actuators. The rubber mount is one of the most popular and effective passive mounts to have been applied to various vibration systems to date. The piezostack actuator is featured by a fast response time, small displacement and low power consumption. Through a series of experimental tests conducted in accordance with MIL-M-17185A(SHIPS), MIL-M-17508F(SH), and MIL-S-901D which are US military specifications related to the performance requirements of the mount, it has been confirmed that the hybrid mount shows more effective performance for use in naval ships.

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