A suggestion here: transiesta usually starts with a standard siesta run, if
you’re not restarting from a .TSDE file for instance - this may explain the
speedup you get.
arthur
> On 29 Aug 2016, at 15:52, Yangchuan Li wrote:
>
> Hi Nick,
>
> Thank you for your
Dear Nick,
thanks for your reply, that paper was very insightful. I still have some
questions to get more understanding if you hopefully don't mind. So, in the
EigenChannels.py subroutine, the bond current for atoms (ij) is calculated
via 4 * pi * Im[H_ij * D_ji] where D is the DOS of the
Sorry, it is the proxy used.
Here:
http://dx.doi.org/10.1088/0953-8984/14/11/314
2016-08-29 16:30 GMT+02:00 Luk Keh :
> Dear Nick,
>
> thanks for your instant reply. It seems that I need a login for the link
> you provided. Can you provide another mirror or the paper's
Dear Nick,
thanks for your instant reply. It seems that I need a login for the link
you provided. Can you provide another mirror or the paper's title?
Thanks alot,
Luk
2016-08-29 16:18 GMT+02:00 Nick Papior :
> This paper is excellent in explaining the details concerning
This paper is excellent in explaining the details concerning bond-currents:
http://dx.doi.org.globalproxy.cvt.dk/10.1088/0953-8984/14/11/314
PS. In the next release of siesta, transiesta/tbtrans also enables the
calculation of bond-currents.
2016-08-29 16:11 GMT+02:00 Luk Keh
Dear users and developers,
could somebody tell me which unit the 'bond currents' in the .curr files
produced by Inelastica have? Are those in fact transmissions (since they
don't vanish without bias, i.e. [f_L - f_R] = 0 => I_mn = 0) or actual
currents (in Ampere)?
Also I would like to know how