Fano effect in a thermally induced transport through a triple quantum dot within the Coulomb blockade regime

Abstract

In the present work we theoretically study thermoelectric transport and heat transfer in a junction including a $T$-shaped double quantum dot coupled to nonmagnetic electrodes and supplemented with a third dot in a parallel configuration. We focus on the combined effect of Coulomb interactions and quantum interference occurring in the $T$-shaped portion of the considered triple quantum dot on the thermoelectric electron transport. The transport through the system is studied within the Coulomb blockade regime in the limit of strong intra-dot interactions between electrons beyond the linear response regime. It is shown that under these conditions both charge and heat transfer through the considered system may be significantly affected by the quantum interference and inter-dot Coulomb interactions.

8 pages, 6 figures

References in corpus (11)

• Thermoelectric energy harvesting with quantum dots
• Quantum limit of heat flow across a single electronic channel
• Giant Thermoelectric Effect from Transmission Supernodes
• Single-electron heat diode
• Strongly nonlinear thermovoltage and heat dissipation in interacting quantum dots
• Kondo-Dicke resonances in electronic transport through triple quantum dots
• Conditions for requiring nonlinear thermoelectric transport theory in nanodevices
• Spin-dependent thermoelectric effects in a strongly correlated double quantum dot
• Thermoelectric transport properties of a T-shaped double quantum dot system in the Coulomb blockade regime
• Heat asymmetries in nanoscale conductors: The role of decoherence and inelasticity
• Mode-selected heat flow through a one-dimensional waveguide network