... | @@ -64,4 +64,8 @@ In practical applications, we observe that the energy when applied the spherical |
... | @@ -64,4 +64,8 @@ In practical applications, we observe that the energy when applied the spherical |
|
![wiki2](uploads/3c18f9d061adcea98d658125b498a1ad/wiki2.png)
|
|
![wiki2](uploads/3c18f9d061adcea98d658125b498a1ad/wiki2.png)
|
|
It is clearly visible, that for evolution with the cubic cutoff the energy is conserved up to high accuracy, while for spherical cutoff the quality of the energy conservation is significantly lower.
|
|
It is clearly visible, that for evolution with the cubic cutoff the energy is conserved up to high accuracy, while for spherical cutoff the quality of the energy conservation is significantly lower.
|
|
|
|
|
|
|
|
`wlog` files for these runs:
|
|
|
|
* [cubic.wlog](uploads/5aff56cbbd8ee97046cc1c3d10a49867/cubic.wlog)
|
|
|
|
* [spherical.wlog](uploads/e642fe76e9496d2305f4c462ebc61e72/spherical.wlog)
|
|
|
|
|
|
In conclusion, we find that typically for trajectories of length $`te_F\approx1000`$ the spherical cutoff provides reasonable accuracy, while for generation of long trajectories $`te_F\gg 1000`$ it is recommended to use the cubic cutoff. |
|
In conclusion, we find that typically for trajectories of length $`te_F\approx1000`$ the spherical cutoff provides reasonable accuracy, while for generation of long trajectories $`te_F\gg 1000`$ it is recommended to use the cubic cutoff. |
|
|
|
\ No newline at end of file |