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Piezoelectrics composites

Modified-lead-titanate/polymer composites for hydrophone applications

, &
Pages 177-182 | Received 28 Aug 1988, Published online: 10 Feb 2011

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J. Sladek, V. Sladek & E. Pan. (2016) Modeling of porous piezoelectric structures by the meshless local Petrov-Galerkin method. Mechanics of Advanced Materials and Structures 23:3, pages 233-247.
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WANG LIKUN, DONG TIANXIAO, LI LI & QIN LEI. (2009) A Novel 3 Phase Multi-Elements Composite for Transducer Array Application. Ferroelectrics Letters Section 36:1-2, pages 1-11.
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M. M. Maior, I. P. Prits, M. I. Gurzan & Yu.M. Vysochanskii. (2001) Development of novel polycrystalline materials on the basis of Sn2P2S6 for hydrophone applications. Ferroelectrics 249:1, pages 227-236.
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M.P. Wenger, P. Blanas, C.J. Dias, R.J. Shuford & O.K. Dasgupta. (1996) Ferroelectric ceramic/polymer composites and their applications. Ferroelectrics 187:1, pages 75-86.
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RobertY. Ting, Avnera. Shaulov & WallaceA. Smith. (1992) Evaluation of the properties of 1-3 piezocomposites of a new lead titanate in epoxy resins. Ferroelectrics 132:1, pages 69-77.
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L. Pardo, B. Jiménez, L. Calzada, C. Alemany & F. Carmona. (1992) Preparation and piezoelectric properties of boron glass and Ca-modified PbTiO3 composites. Ferroelectrics 127:1, pages 179-184.
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Hamid Saheban & Zoheir Kordrostami. (2021) Hydrophones, fundamental features, design considerations, and various structures: A review. Sensors and Actuators A: Physical 329, pages 112790.
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Pengfei Lin, Chunlong Fei, Shang Hou, Tianlong Zhao, Qiang Chen, Yi Quan, K. Kirk Shung & Qifa Zhou. (2018) 0.36BiScO 3 –0.64PbTiO 3 /Epoxy 1–3 Composite for Ultrasonic Transducer Applications . IEEE Sensors Journal 18:14, pages 5685-5690.
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De-ping Zeng, Hua Wang, Ying-qi Sun, Xue-mei Gao & Zeng-tao Yang. (2017) Sensitivity characteristics of 1–3 piezoelectric composite hydrophones over a wide frequency range. Sensitivity characteristics of 1–3 piezoelectric composite hydrophones over a wide frequency range.
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