As a striking example, we predict this effect for a quantum point contact in Laughlin fractional edge states, demonstrating that it can occur in a genuinely noninterferometric system. We further reinterpret the phenomenon in terms of the photoassisted probabilities generated by the voltage pulse.
This school & workshop at ICTP Trieste connects two fast-growing quantum technology fields: ultrafast single-electron physics and quantum thermodynamics, bringing students, early-career researchers, and experts together to foster cross-disciplinary dialogue and new collaborations.
Now pursuing my research at CPT with a PhD financed by QuantEduFrance, I will study the coexistence of the quantum Hall state with superconductivity, which are a priori two incompatible states of matter.
In EQUBITFLY project, my goal will be to develop criteria to quantify the creation of entanglement between two electrons interacting within a quantum conductor.
The results obtained in this study can be generalized to more complex hole-conjugate fractional quantum Hall phases.
Our research could have significant implications for probing the fundamental properties of light in the microwave to terahertz domains at extremely short timescales.
In EQUBITFLY project, his contribution focuses on two aspects: (1) Understanding the physics of moiré systems, and (2) Manufacturing samples based on rhombohedral graphene to explore the anomalous quantum Hall effect.
We compute the cross-correlation between the anyon current transmitted from the source and the current after the Ω junction, providing a direct method to detect anyon braiding statistics.
Our results provide a minimal and accessible platform for probing anyonic statistics using a single chiral edge.
Discover the latest scientific publication of EQUBITFLY, by F. Ronetti et al., in Physical Review B ! Periodic source of energy-entangled electrons in helical states coupled to a BCS superconductor