Optimal Design of Nanostructures Used in Vibration Control

Aleksander Muc

doi:10.4028/www.scientific.net/AMR.47-50.1250

Paper Titles

Plastic Optical Fiber Sensors for Measurement of Large Strain in Geotextile Materials
p.1233

High-Energy Influences of Substance’s Flows on Structural Changes in Materials
p.1237

Glass Substrate with UV Imprinted Polymer Moth Eye Structure
p.1241

Study on Non-Halogen Flame-Retarded HIPS with High Strength HIPS
p.1245

Optimal Design of Nanostructures Used in Vibration Control
p.1250

Homogenization, Numerical Analysis & Optimal Design of MR Fluids
p.1254

Variational Approach in Optimal Design of Piezoelectric Sensors & Actuators
p.1258

Application of Three-Dimensional Displacement and Strain Distribution Measurement by Windowed Phase-Shifting Digital Holographic Interferometry
p.1262

Development of Model of the Superdeep Penetration of Microparticles
p.1266

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Optimal Design of Nanostructures Used in Vibration Control

Abstract:

Since the atomic structure of carbon nanotubes demonstrates evidently anisotropic mechanical properties an analytical molecular structural mechanics model is introduced in order to derive longitudinal and circumferential moduli of nanotubes. The identification is based on the eigenfrequencies analysis of the proposed computational model. It is combined with the FE analysis and the interatomic potentials. Detailed derivations are presented and the predicted results are shown and discussed with a few computational examples.