Summary of Nanowire Growth Mechanism: Difference between revisions

From Micro and Nano Mechanics Group
Jump to navigation Jump to search
No edit summary
Line 20: Line 20:


Solving the above integral, we can get the equilibrium shape of the nanowire grown by steady state process.
Solving the above integral, we can get the equilibrium shape of the nanowire grown by steady state process.

===Non-zero line tension===

The force balance equation in this situation will change as

<math> \sigma_{LV} cos(\beta) = \sigma_{SV} cos(\alpha)-\sigma_{LS}-\frac{\tau}{r} </math>

if <math>\tau<0</math>, there will be a tendency to increase the trijunction radius; while if <math>\tau>0</math>, the tendency should be to reduce the trijunction radius.


==Anisotropic Material Nanowire Statics==
==Anisotropic Material Nanowire Statics==

Revision as of 19:55, 26 June 2012

Summary of Nanowire Growth Mechanism

Yanming Wang and Seunghwa Ryu

Isotropic Material Nanowire Statics

No line tension at trijunction

Force balance is always kept as,

Solving the above integral, we can get the equilibrium shape of the nanowire grown by steady state process.

Non-zero line tension

The force balance equation in this situation will change as

if , there will be a tendency to increase the trijunction radius; while if , the tendency should be to reduce the trijunction radius.

Anisotropic Material Nanowire Statics

Isotropic Material Nanowire Growth Dynamics

Anisotropic Material Nanowire Growth Dynamics