Molecular Simulation of the Interfacial Properties of an Epoxy Composite Reinforced Using a Carbon Nanotube/Carbon Fiber Hybrid
p.1289
p.1289
A Study on the Crack-Controlled Layer of UHTCC in Functionally-Graded Composite Beams
p.1293
p.1293
Numerical Study on the Mechanical Behavior of Aluminum Foam Material Using CT Image
p.1297
p.1297
Effects of Magnetic Field Gradient on Particle Distributions of Suspension Comprised of both Magnetic and Nonmagnetic Particles Using Two-Dimensional Monte Carlo Simulations
p.1301
p.1301
Modeling of Dynamic Characteristics of Ionic Polymer-Metal Composite Beam near Resonant Frequencies
p.1305
p.1305
Recent Development of Molecular Simulation Based on GPU in Material Science
p.1309
p.1309
Nonlinear Dynamic FE Simulation of Smart Piezolaminated Structures Based on First- and Third-Order Transverse Shear Deformation Theory
p.1313
p.1313
Modeling and Simulations of Pd/n-ZnO Schottky Diode and its Comparison with Measurements
p.1317
p.1317
Modeling and Optimization of Nanomechanics of Diamond-Like Carbon by MPCVD Using Response Surface Methodology
p.1321
p.1321
Modeling of Dynamic Characteristics of Ionic Polymer-Metal Composite Beam near Resonant Frequencies
Abstract:
In this paper, the dynamic characteristic of an ionic polymer-metal composite (IPMC) cantilevered beam near resonant frequencies is investigated. A dynamic model is formulated on the basis of beam vibration, charge distribution and charge interactions. Experimental tests are conducted with an IPMC cantilevered beam actuated in frequency domain. Comparison with experimental results shows that the theoretical model is able to predict the dynamic responses of IPMC near resonant frequencies.
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Info:
Periodical:
Advanced Materials Research (Volumes 79-82)
Pages:
1305-1308
Citation:
Online since:
August 2009
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