We investigate the Andreev transport through double-quantum-dot Cooper pair splitters with
ferromagnetic leads. The analysis is performed with the aid of the real-time diagrammatic …

We analyze the stationary spin-dependent transport through a single-molecule magnet
weakly coupled to external ferromagnetic leads. Using the real-time diagrammatic …

We analyze transport properties of coherent triple-quantum-dot systems in triangular
geometry, weakly coupled to external leads. The real-time diagrammatic technique up to the …

We study the spin-dependent transport properties of a spin valve based on a double
quantum dot. Each quantum dot is assumed to be strongly coupled to its own ferromagnetic …

We study electronic transport through an Aharonov-Bohm interferometer with single-level
quantum dots embedded in the two arms. The full counting statistics in the shot-noise regime …

Molecular systems can exhibit a complex, chemically tailorable inner structure which allows
for targeting of specific mechanical, electronic, and optical properties. At the single-molecule …

We investigate the spin-resolved transport properties, such as the linear conductance and
the tunnel magnetoresistance, of a double quantum dot device attached to ferromagnetic …

We study the effects of cotunneling and a nonuniform Zeeman splitting on the stationary and
transient leakage current through a double quantum dot in the Pauli spin blockade regime …

Nonequilibrium Green's function formalism is used to study electron and energy transport in
the Coulomb-blockade regime through a two-level quantum dot/molecule attached to …

Waiting time distribution and the zero-frequency full counting statistics of unidirectional
electron transport through a double quantum dot molecule attached to spin-polarized leads …