Mechanical resonators based on a single carbon nanotube are exceptional sensors of mass
and force. The force sensitivity in these ultralight resonators is often limited by the noise in …

This review illustrates how Local Fermi Liquid (LFL) theories describe the strongly correlated
and coherent low-energy dynamics of quantum dot devices. This approach consists in an …

The ultrastrong coupling of single-electron tunneling and nanomechanical motion opens
exciting opportunities to explore fundamental questions and develop new platforms for …

Molecule-electrode interfaces in molecular electronic junctions are prone to chemical
reactions, structural changes, and localized heating effects caused by electric current. These …

Transport measurements allow sensitive detection of nanomechanical motion of suspended
carbon nanotubes. It has been predicted that when the electromechanical coupling is …

We present an analysis of the transient electronic and transport properties of a nanojunction
in the presence of electron–electron and electron–phonon interactions. We introduce a …

Remarkable features have been predicted for the mechanical fluctuations at the bistability
transition of a classical oscillator coupled capacitively to a quantum dot [Micchi, Phys. Rev …

We study the quantum transport and the nonequilibrium vibrational states of a quantum dot
embedded between a normal-conducting and a superconducting lead with the charge on …

Detection of nanomechanical displacement by transport techniques has reached a high
level of sensitivity and versatility. In order to detect the amplitude of oscillation of a …

Geometry, electrostatics, and single‐electron tunneling contribute to the nonlinearity in the
quantum dot embedded nanomechanical resonator, while “Duffing term” is a kind of …