Trapping integrated molecular devices via local transport circulation

Abstract

Interactions between quantum systems and their environments may always result in inevitable decoherence. Isolation of the quantum system from the undesired environment noise brings us a great challenge for an...

Correlation anisotropy driven Kosterlitz–Thouless-type quantum phase transition in a Kondo simulator

“…26,27 In MTJs, these parameters could be the hybridization of the molecular energy levels with the conduction bands, the chemical interaction, the charging energy, the electron–electron and electron–phonon interactions within the molecule, the external magnetic field, and so on. 7,28–33…”

“…26,27 In MTJs, these parameters could be the hybridization of the molecular energy levels with the conduction bands, the chemical interaction, the charging energy, the electron-electron and electron-phonon interactions within the molecule, the external magnetic field, and so on. 7,[28][29][30][31][32][33] Recently, the importance of magnetic anisotropy (MA) within SMMs has come into play. Basically, MA always originates from the combined effect of the anisotropy in the orbital angular momentum of the atom, together with the interaction between the orbital and spin angular momentum, i.e., the spinorbit interaction.…”

Tuning the Quantum Properties of ZnO Devices by Modulating Bulk Length and Doping

“…Molecular-level devices are possible substitutes for qubits [ 19 , 20 ], which are the basic units of a quantum computer. The intermediate controller switching the interaction between qubits and environment can also be made by molecular devices due to their electrical properties [ 21 ]. Moreover, molecular-level devices can assist in realizing non-demolition measurements [ 22 ].…”