Nanometer-scale structures with high aspect ratios such as nanowires and nanotubes
combine low mechanical dissipation with high resonance frequencies, making them ideal …

Discrete time crystals are a many-body state of matter where the extensive system's
dynamics are slower than the forces acting on it. Nowadays, there is a growing debate …

We study a dissipative Kerr resonator subject to both single-and two-photon detuned drives.
Beyond a critical detuning threshold, the Kerr resonator exhibits a semiclassical first-order …

Micromechanical oscillator sustains oscillation through a velocity-proportional feedback
force. Stabilization of the oscillation frequency is typically achieved by increasing the …

Coupling a system to a nonthermal environment can profoundly affect the phase diagram of
the closed system, giving rise to a special class of dissipation-induced phase transitions …

Networks of coupled Kerr parametric oscillators (KPOs) are a leading physical platform for
analog solving of complex optimization problems. These systems are colloquially known as …

The working mechanism of resonant sensors is based on tracking the frequency shift in the
linear vibration range. Contrary to the conventional paradigm, in this paper, we show that by …

Networks of coupled parametric resonators (parametrons) hold promise for parallel
computing architectures. En route to realizing complex networks, we report an experimental …

This paper considers the dynamic response of a single degree of freedom system with
nonlinear stiffness and nonlinear damping that is subjected to both resonant direct excitation …

Efficient energy transfer often occurs between oscillation modes in a resonator when they
are tuned to internal resonance. We design the eigenfrequencies of two vibrational modes of …