The germanene nanosheet is used for designing germanene molecular device.
In this paper, we have developed a molecular device in E. coli using a dicistronic construct.
Cerium nitride-based molecular device transport properties are investigated using density functional theory.
The results (% inhibition) were processed by using Soft- Max Pro software (Molecular Device, USA).
The spin-resolved currents of the single pyrene molecular device are much lower than that of the single phenalenyl molecular device when they all connected to electrodes symmetrically.
The transmission spectrum gives the insight on the transport property of V2O5 molecular device.
Therefore, the system will provide the possibilities for a multifunctional molecular device design.
The transmission of AlP nanoribbon molecular device is analyzed with two probe method.
The increasing absorbance at 630 nm was measured afther 50 min, using a microplate reader (Molecular Device, USA).
The electrical behavior of the crosslinked molecular devices was studied by testing each crosswire molecular device junction (Figure 5a).
The results (change in absorbance per min) were processed by using softMax Pro software (molecular Device, USA).
