Published October 1, 2024 | Version v2

Data for: Molecular Aharonov-Bohm Interferometers Based on Porphyrin Nanorings

Description

The directories in this dataset contain:

./cpn
xyz files: Optimized geometries of the c-PN porphyrin nanorings using the GFN1-xTB method in the absence of a magnetic field. 
txt files: Orbital energies of the c-PN porphyrin nanorings relative to its HOMO-LUMO gap center in the absence of a magnetic field calculated using the GFN1-xTB-M1 method where first number in each line is the magnetic field strength (Tesla) and the remaining numbers are the orbital energies (eV).

./cpn_flat
xyz files: Optimized geometries of the flattened c-PN porphyrin nanorings using the GFN1-xTB method in the absence of a magnetic field. 
txt files: Orbital energies of the flattened c-PN porphyrin nanorings relative to its HOMO-LUMO gap center in the absence of a magnetic field calculated using the GFN1-xTB-M1 method where the first number in each line is the magnetic field strength (Tesla) and the remaining numbers are the orbital energies (eV).

./current
txt files: The calculated current as a function of the external magnetic field for the specified Fermi transport windows and electronic temperatures where the first number in each line is the magnetic field strength (Tesla) and the second number is the current (micro Amps).

./finite_junction
xyz files: Optimized geometries of the finite junction model using the GFN1-xTB method in the absence of a magnetic field. 
txt files: Orbital energies of the finite junction model relative to the HOMO-LUMO gap center of the c-P10 nanoring in the absence of a magnetic field calculated using the GFN1-xTB-M1 method where the first number in each line is the magnetic field strength (Tesla) and the remaining numbers are the orbital energies (eV).

./fpn
xyz files: Optimized geometries of the f-PN porphyrin nanobelts using the GFN1-xTB method in the absence of a magnetic field. 
txt files: Orbital energies of the f-PN porphyrin nanobelts relative to its HOMO-LUMO gap center in the absence of a magnetic field calculated using the GFN1-xTB-M1 method where the first number in each line is the magnetic field strength (Tesla) and the remaining numbers are the orbital energies (eV).

./transmission
txt files: The transmission function calculation results using the NEGF+GFN1-xTB-M1 method for a number of field strengths and biased electron densities where the 1st, 2nd and 3rd numbers in each line are the energy (Hartree) relative to the HOMO-LUMO gap center of the c-P10 nanoring in the absence of a magnetic field, transmission probability, and density of states.

./transmission_homo-1
txt files: The transmission function calculation results using the NEGF+GFN1-xTB-M1 method for energies around the HOMO-1 and HOMO-2 peaks for a number of field strengths where the 1st, 2nd and 3rd numbers in each line are the energy (Hartree) relative to the HOMO-LUMO gap center of the c-P10 nanoring in the absence of a magnetic field, transmission probability, and density of states.

Files

data.zip

Files (144.6 MB)

Name Size Download all
md5:9e3b7808261009f4e68faf28cdf59d72
144.6 MB Preview Download

Additional details

Funding

European Research Council
ARO-MAT 885606