Carbon nanotubes are a versatile material in which many aspects of condensed matter
physics come together. Recent discoveries have uncovered new phenomena that …

We review here some universal aspects of the physics of two-electron molecular transistors
in the absence of strong spin–orbit effects. Several recent quantum dot experiments have …

Understanding how the orbital motion of electrons is coupled to the spin degree of freedom
in nanoscale systems is central for applications in spin-based electronics and quantum …

Universal properties of entangled many-body states are controlled by their symmetry and
quantum fluctuations. By the magnetic-field tuning of the spin-orbital degeneracy in a Kondo …

Understanding the interplay between many-body phenomena and nonequilibrium in
systems with entangled spin and orbital degrees of freedom is a central objective in …

We study electron mechanical coupling in a suspended carbon nanotube (CNT) quantum
dot device. An electron spin couples to the flexural vibration mode because of spin‐orbit …

We report on cotunneling spectroscopy magnetoconductance measurements of multihole
ultraclean carbon nanotube quantum dots in the SU (4) Kondo regime with strong spin-orbit …

The formation of spin levels upon torsional deformation of nonchiral (n, n) carbon nanotubes
has been theoretically studied. In the absence of mechanical deformation, nanotubes have …

Using a linearized augmented cylindrical wave (LACW) approach taking into account the
screw and rotational symmetries of carbon nanotubes (CNTs), the first principles technique …

In a quantum dot hybrid superconducting junction, the behavior of the supercurrent is
dominated by Coulomb blockade physics, which determines the magnetic state of the dot. In …