In this talk, I willdiscuss my lab’s efforts to harness optical enhancement cavities both as aplatform to explore molecular physics under strong light-matter interactionsand as tools for precision spectroscopy.
Polaritons are hybridlight-matter states with unusual properties that arise from strong
Envisioned in the 1980s, quantum computers have recently become a reality. Today several leading manufacturers offer cloud-based access to devices with tens of quantum bits (qubits) or more.
The question that needs now to be answered is what they are useful for.
We are excited to invite you to attend our Technion Helen Diller Quantum center community retreat, to be held on April 28th, 2025, at At David’s Harp (Galilee).
All lectures will be given in
Hexagonal boron nitride (hBN) has emerged as a promising platform for quantum optics due to the presence of stable and bright color centers that act as single-photon sources (SPSs).
Quantum effects play a central role in low temperature collisions. Particularly important is the formation of metastable scattering resonances that lead to temporary trapping of the colliding particles.
Non-Hermitian skin effect (NHSE) has now become the paradigmatic example of the topologically nontrivial impact of loss or gain in optical and condensed matter systems.
Unlike quantum error correction, which involves real-time correction of errors in quantum circuits, quantum error mitigation (QEM) is a family of techniques that utilize multiple variants of the original noisy circuit to eliminate noise in post-processing.
In this talk I’ll first introduce our newly established computational group at the Technion, and our goal of combining ab-initio and model simulations of quantum systems interacting with intense ultrashort laser pulses (driven far-from-equilibrium) to explore fundamental physics.