Magnetic field-induced Kondo effects in Coulomb blockade systems
M. Pustilnik, L. I. Glazman, D. H. Cobden, L. P. Kouwenhoven
Abstract
We review the peculiarities of transport through a quantum dot caused by the spin transition in its ground state. Such transitions can be induced by a magnetic field. Tunneling of electrons between the dot and leads mixes the states belonging to the ground state manifold of the dot. Unlike the conventional Kondo effect, this mixing, which occurs only at the singlet-triplet transition point, involves both the orbital and spin degrees of freedom of the electrons. We present theoretical and experimental results that demonstrate the enhancement of the conductance through the dot at the transition point.
Create a lesson
Related papers
Magnon Klein paradox
D. Wang
Transport kinetics in excitonic Mott insulator
W. J. Brunner, Zhiwen Zhou, Luc M. Nguyen et al.
Direct Observation of Chirality-Dependent Berry Curvature Dipole via Cross-Axial Nonlinear Hall Effect in Trigonal Te
Jaehyun Lee, Junhee Shin, Daryll J. C. Dalayoan et al.
Establishing the role of thickness in LaOBr; an alternative gate dielectric for vdW heterostructures
Isaac Antoine Lagaud, Justin Boddison-Chouinard, Antoine Labbé et al.
Electric-dipole-induced nuclear electric resonance in silicon
Jiyun Su, Shihang Zhang, Peihao Huang
Parametric Glassiness in Graphene-based Electronic Lévy Glass
Caue N. da Silva, Diego B. Fonseca, Adauto J. F. de Souza et al.