1. Hydrogen storage
Different approaches(results consistent with other numerical results)
Single tube,T=265
Three tubes,T=265
Three tubes,T=77
Physisorption: Results suggest that tubes should be kept mechanically separated.
After simulation
Storage inside nanotube: Potentially very effective (Here at 14.3wt%). Interesting flow dynamics issues at ends.
After simulation
After simulation
Chemisorption inside and outside tube: inside is not stable but outside is stable
After 15ps isothermal simulation
At the beginning(5,5) d=7.82A

2. Hydrogen storage
Mechanical approaches towards adsorption and desorption A B C D E

3. Hydrogen storage
Smashing nanotubes into hydrogen molecular at high speed:
(Van der Waals force is ignored)

4. Hydrogen storage

5. Hydrogen storage

6. Hydrogen storage

7. Scientific Issues Surface Forces: May affect the entire domain
Chemisorption
Free path length
May become global
Geometric Restrictions
Rotational motions, anisotropies, locking
Interpolation
Ensemble Averages
Virial Stresses
Stress-strain relationship
Benchmark flows
Poisseuille flows
Couette Flows
After 15ps isothermal simulation
At the beginning(5,5) d=7.82A