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Ferroelectrics Volume 60, 1984 - Issue 1
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Section I: Material properties

Composite piezoelectric sensors

R. E. Newnham Materials Research Laboratory, The Pennsylvania State University, University Park, PA, 16802
,
A. Safari Materials Research Laboratory, The Pennsylvania State University, University Park, PA, 16802
,
J. Giniewicz Materials Research Laboratory, The Pennsylvania State University, University Park, PA, 16802
&
B. H. Fox Materials Research Laboratory, The Pennsylvania State University, University Park, PA, 16802
Pages 15-21 | Published online: 08 Feb 2011

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Anam Afzal, Ayesha Kausar & Muhammad Siddiq. (2016) Technical Relevance of Polymer/Cement/Carbon Nanotube Composite: Opportunities and Challenges. Polymer-Plastics Technology and Engineering 55:16, pages 1743-1764.
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Ki Hwan Baek, Seong Kwang Hong, Se Bin Kim, Jeong Hun Kim & Tae Hyun Sung. (2013) Study of Charging Efficiency of a Piezoelectric Energy Harvesting System Using Rectifier and Array Configuration. Ferroelectrics 449:1, pages 42-51.
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K.A. Hanner, A. Safari, R.E. Newnham & J. Runt. (1989) Thin film 0–3 polymer/piezoelectric ceramic composites: Piezoelectric paints. Ferroelectrics 100:1, pages 255-260.
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J. R. Giniewicz, R. E. Newnham, A. Safari & Dawne Moffatt. (1987) (Pb, Bi)(Ti, Fe, Mn)O3/Polymer 0-3 composites for hydrophone applications. Ferroelectrics 73:1, pages 405-417.
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D.L. Monroe, J.B. Blum & A. Safari. (1986) Sol-gel derived PbTio3-polymer piezoelectric composites . Ferroelectrics Letters Section 5:2-3, pages 39-46.
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J. Runt, A. Safari, E.C. Galgoci & R.E. Newnham. (1985) The influence of interfacial adhesion on the piezoelectric response of electroceramic/polymer composites. Ferroelectrics Letters Section 5:1, pages 15-20.
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