Conformal field theories have been long known to describe the fascinating universal physics
of scale invariant critical points. They describe continuous phase transitions in fluids …

Over the past 15 years, the numerical conformal bootstrap has become an indispensable
tool for studying strongly coupled conformal field theories in various dimensions. Reviewed …

The deconfined quantum critical point (DQCP) represents a paradigm shift in quantum
matter studies, presenting a “beyond Landau” scenario for order-order transitions. Its …

The “symmetric mass generation”(SMG) quantum phase transition discovered in recent
years has attracted great interest from both condensed matter and high energy theory …

We systematically investigate the finite size scaling behavior of the Rényi entanglement
entropy (EE) of several representative 2d quantum many-body systems between a …

It is well known that theorems of Lieb-Schultz-Mattis type prohibit the existence of a trivial
symmetric gapped ground state in certain systems possessing a combination of internal and …

Emergent quasiparticles with a Dirac dispersion in condensed matter systems can be
described by the Dirac equation for relativistic electrons, in analogy with Dirac particles in …

We study a possible deconfined quantum phase transition in a realistic model of a two-
dimensional Shastry-Sutherland quantum magnet, using both numerical and field theoretic …

The interplay between lattice gauge theories and fermionic matter accounts for fundamental
physical phenomena ranging from the deconfinement of quarks in particle physics to …

Novel critical phenomena beyond the Landau-Ginzburg-Wilson paradigm have been long
sought after. Among many candidate scenarios, the deconfined quantum critical point …