We study Chern numbers to characterize the ground state of strongly interacting systems on a lattice. This method allows us to perform a numerical characterization of bosonic fractional quantum Hall (FQH) states on a lattice where the conventional overlap calculation with the known continuum case such as the Laughlin state, breaks down due to the lattice structure or dipole-dipole interaction. The non-vanishing Chern number indicates the existence of a topological order in the degenerate ground-state manifold.Physic
The possibility of realizing lattice analogs of fractional quantum Hall (FQH) states, so-called frac...
We present a concrete example of fractional Chern insulator whose fermion Hamiltonian consists of ho...
It is widely accepted that topological quantities are useful to describe quantum liquids in low dime...
We study Chern numbers to characterize the ground state of strongly interacting systems on a lattice...
For various two-dimensional lattices such as honeycomb, kagome, and square-octagon, the gauge conven...
Topological invariants, such as the Chern number, characterize topological phases of matter. Here we...
We study the phase diagram of interacting electrons in a dispersionless Chern band as a function of ...
We study the many-body ground states of two-component hardcore bosons in topological triangular latt...
We show how the phases of interacting particles in topological flat bands, known as fractional Chern...
Chern numbers are gaining traction as they characterize topological phases in various physical syste...
Topological insulators and their intriguing edge states can be understood in a single-particle pictu...
The recent theoretical discovery of fractional Chern insulators (FCIs) has provided an important new...
Despite having been discovered nearly four decades ago, fractional quantum Hall (FQH) states continu...
Lattice models forming bands with higher Chern number offer an intriguing possibility for new phases...
A peculiar feature of the majority of three-dimensional topological insulator surface states studied...
The possibility of realizing lattice analogs of fractional quantum Hall (FQH) states, so-called frac...
We present a concrete example of fractional Chern insulator whose fermion Hamiltonian consists of ho...
It is widely accepted that topological quantities are useful to describe quantum liquids in low dime...
We study Chern numbers to characterize the ground state of strongly interacting systems on a lattice...
For various two-dimensional lattices such as honeycomb, kagome, and square-octagon, the gauge conven...
Topological invariants, such as the Chern number, characterize topological phases of matter. Here we...
We study the phase diagram of interacting electrons in a dispersionless Chern band as a function of ...
We study the many-body ground states of two-component hardcore bosons in topological triangular latt...
We show how the phases of interacting particles in topological flat bands, known as fractional Chern...
Chern numbers are gaining traction as they characterize topological phases in various physical syste...
Topological insulators and their intriguing edge states can be understood in a single-particle pictu...
The recent theoretical discovery of fractional Chern insulators (FCIs) has provided an important new...
Despite having been discovered nearly four decades ago, fractional quantum Hall (FQH) states continu...
Lattice models forming bands with higher Chern number offer an intriguing possibility for new phases...
A peculiar feature of the majority of three-dimensional topological insulator surface states studied...
The possibility of realizing lattice analogs of fractional quantum Hall (FQH) states, so-called frac...
We present a concrete example of fractional Chern insulator whose fermion Hamiltonian consists of ho...
It is widely accepted that topological quantities are useful to describe quantum liquids in low dime...