Nanocomposite Materials Design and the Sintering Optimization Based on Interface Strengthening

Fa Zhan Yang; Jian Qiang Zhou; Guang Yao Meng; Chang He Li

doi:10.4028/www.scientific.net/AMR.139-141.26

Paper Titles

Influence of Multi-Walled Carbon Nanotubes on the Mechanical Properties of Nanocomposites
p.9

Modeling of Piezoelectric Ceramics Based on Partial Least-Square Regression Method
p.13

Mesh-Free Numerical Simulation for Carbon Nanotubes upon Bending
p.17

Ab Initio Study of the Structural and Mechanical Properties of Hf-Si-N
p.22

Nanocomposite Materials Design and the Sintering Optimization Based on Interface Strengthening
p.26

Influence of Nano-CaCO₃ on the Properties of Magneto-Rheological Fluid
p.30

Study on the Preparation of Fe₃O₄ Nano-Magnetic Fluid for Seal
p.34

Hybrid Finite Element Formulation for Temperature Prediction in Carbon Nanofiber Based Composites
p.39

Effects of Immersion Time on the Electrochemical Impedance Spectroscopy Model of Epoxy Coating Modified by Nano-Sized Titanium
p.43

HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 139-141Nanocomposite Materials Design and the Sintering...

Nanocomposite Materials Design and the Sintering Optimization Based on Interface Strengthening

Abstract:

Nanocomposite tool materials are developing very fast in engineering field for their highlighted advantage in mechanical properties and stability under high temperature. However, there are lots of puzzles to be discussed in the materials design theory and the fabrication processing due to the difference between the traditional materials and the nanocomposite. Therefore, in this paper, a new nanocomposite tool materials design method has been proposed based on the interface strengthening theory. The sintering temperature and the soaking time could be optimized based on the interface strengthening theory and the relative density of the tool materials. Meanwhile, a series of experiments were carried out to fabricate the nanocomposite tool materials under the guider of the interface strengthening theory. Results showed that experimental data agreed well with the calculation and the model was proved to be correct.