Nonstabilizerness, also known as “magic,” stands as a crucial resource for achieving a
potential advantage in quantum computing. Its connection to many-body physical …

The classical simulation of highly entangling quantum dynamics is conjectured to be
generically hard. Thus, recently discovered measurement-induced transitions between …

We introduce a novel hybrid approach combining tensor network methods with the stabilizer
formalism to address the challenges of simulating many-body quantum systems. By …

The presence of quantum noises inherent to real physical systems can strongly impact the
physics in hybrid quantum circuits with local random unitaries and midcircuit measurements …

We propose an enhanced Time-Dependent Variational Principle (TDVP) algorithm for Matrix
Product States (MPS) that integrates Clifford disentangling techniques to efficiently manage …

We consider the quantum magic in systems of dense neutrinos undergoing coherent flavor
transformations, relevant for supernova and neutron-star binary mergers. Mapping the three …

We introduce a nonstabilizerness monotone which we name basis-minimised stabilizerness
asymmetry (BMSA). It is based on the notion of $ G $-asymmetry, a measure of how much a …

Motivated by the Gottesman-Knill theorem, we present a detailed study of the quantum
complexity of $ p $-shell and $ sd $-shell nuclei. Valence-space nuclear shell-model …

We present a thorough investigation of non-stabilizerness-a fundamental quantum resource
that quantifies state complexity within the framework of quantum computing-in a one …

Quantum systems can not be efficiently simulated classically due to the presence of
entanglement and nonstabilizerness, also known as quantum magic. Here we study the …