我們精確地導出了光機電混合系統(hybrid electro-optomechanical system)在非馬可夫環境下的主方程，並且利用這個系統來實現量子態的傳輸。在文中，我們介紹了目前為止所被提出的三種量子傳輸方法，藉由我們所導出的精確主方程，研究和討論了在這三種方法下量子傳輸的效率。我們發現在非馬可夫效應下，暗態(mechanically dark mode)依然可以達到保護量子傳輸的效果。另外，我們也檢驗了Ying-Dan Wang和Aashish A. Clerk在2012年所提出的論點，亦即「混合傳輸法(hybrid transfer scheme)幾乎不受機械震盪器的初始熱粒子數影響」。透過我們的數值分析發現，這個論點只有在極低溫時才會成立，當溫度升高，初始熱粒子所造成的影響就會愈來愈明顯。

We studied a hybrid electro-optomechanical system under non-Markovian environment and discuss
the delities of state transfer between two cavities through the mechanical resonator in
adiabatic passage scheme and hybrid transfer scheme, both of which utilize the mechanically
dark mode. We found that the mechanically dark mode really can protect the state transfer
from mechanically thermal noise. Furthermore, we also inspect the argument Wang and Clerk
made in 2012, namely the hybrid transfer scheme is almost completely insensitive to any initial
thermal population in the mechanical resonator. Our exact results show that this argument
is valid only in a very low temperature. When the temperature raises, the di erence of state
transfer delity with and without precooling becomes more and more conspicuous.

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