Multi-Scale Modeling of Nanocrystalline Materials

Names Chandra; Sirish Namilae

doi:10.4028/www.scientific.net/MSF.447-448.19

Paper Titles

Preface

Plastic Deformation in Metals with Nanosized Grains: Atomistic Simulations and Experiments
p.3

Modelling Grain Boundary Sliding from First Principles
p.11

Multi-Scale Modeling of Nanocrystalline Materials
p.19

Grain Boundary Sliding of Ʃ5(001) Twist Grain Boundary in Aluminium Bicrystal from First-Principles Calculations
p.27

Assessment of Contribution of Intragranular Slip to Grain Boundary Sliding in Bicrystals
p.33

Cooperative Grain Boundary Processes in Superplastic Flow
p.41

Dynamics of Grain Boundary Networks in Superplasticity
p.49

Comparison between 2D and 3D Characterisations of Damage Induced by Superplastic Deformation
p.55

HomeMaterials Science ForumMaterials Science Forum Vols. 447-448Multi-Scale Modeling of Nanocrystalline Materials

Multi-Scale Modeling of Nanocrystalline Materials

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Materials Science Forum (Volumes 447-448)

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19-26

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https://doi.org/10.4028/www.scientific.net/MSF.447-448.19

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February 2004

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Names Chandra, Sirish Namilae

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Atomic-Level Strain, Atomic-Level Stress, Atomistic Simulation, Grain Boundary, Nanocrystal

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References

[1] S. Iijima, Nature 354 (1991) 56

Google Scholar

[2] M.P. Allen and W.J. Tildesley, Computer simulation of liquids, Oxford university press, Oxford, 1989.)

Google Scholar

[3] Z.S. Basinski, M.S. Duesberry and R.Taylor ,Canadian J.of Phys.49, 2160 (1971).

Google Scholar

[4] J.F. Lutsko, J of Appl. Phys. 64, 1152 (1988).

Google Scholar

[5] J. Cormier, J.M. Rickman and T.J. Delph, J of Appl. Phys. 89,99 (2001).

Google Scholar

[6] K.S. Cheung and S. Yip, J of Appl. Phys. 70, 5688 (1996).

Google Scholar

[7] N. Chandra, S. Namilae and C. Shet, Phy. Rev. B (submitted)

Google Scholar

[8] S. Namilae, N. Chandra and C. Shet, Chem. Phys Letters (Submitted)

Google Scholar

[9] M.S. Daw and I. Baskes, Phys. Rev. Letters, 50 (1983), 1285.

Google Scholar

[10] F. Ercolessi and J.B. Adams, Europhysics Letters 26 (1994) 583

Google Scholar

[11] N. Chandra and P. Dang, J. of Mater. Sci. 34 655 (1999)

Google Scholar

[12] A.D Sheikh Ali, Acta. Mater 45, 8, 3109-3114 (1997)

Google Scholar

[13] R. Monzen , N.Takada, Mater. Sci. and Eng. A, A234-236, 202, (1997)

Google Scholar

[14] G.Wang and Anderson, Acta metal. Mater 39, No.5, 779, (1991)

Google Scholar

[15] R.J. Kurtz, R.G. Hoagland and J.P. Hirth, Phil. Mag. A 79, no-3 665-681, (1999)

Google Scholar

[16] M.F. Ashby, Surface Sci 31 , 498, (1972)

Google Scholar

[17] P.W. Chung, K.K. Tamma and R.R. Namburu, Composites: Part A 32, 1291, (2001)

Google Scholar

[18] P.W. Chung, K.K. Tamma and R.R. Namburu, Composites Science and Technology, 60, 2233, (2000)

Google Scholar

[19] J. Fish, K. Pandheeradi and M.S. Shepard, Computer Methods in Applied Mechanics Engineering, 148, 53, (1997)

Google Scholar