We study the topological structure of matter-light excitations, so-called polaritons, in a quantum spin Hall insulator coupled to photonic cavity modes. We identify a topological invariant in the presence of time reversal (TR) symmetry, and demonstrate the existence of a TR-invariant topological phase. We find protected helical edge states with energies below the lower polariton branch and characteristic uncoupled excitonic states, both detectable by optical techniques. Applying a Zeeman field allows us to relate the topological index to the double coverage of the Bloch sphere by the polaritonic pseudospin
We present the theory of a new type of topological quantum order which is driven by the spin-orbit d...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
We study the topological structure of matter-light excitations, so-called polaritons, in a quantum s...
We study the topological structure of matter-light excitations, so-called polaritons, in a quantum s...
The interaction between light and matter can give rise to novel topological states. This principle w...
Topological insulators—materials that are insulating in the bulk but allow electrons to flow on thei...
In this work light and matter have been coupled in a strong interaction between exciton resonances a...
Motivated by the sustained interest in Bose Einstein condensates and the recent progress in the unde...
Motivated by the sustained interest in Bose Einstein condensates and the recent progress in the unde...
We study a system of microcavity pillars arranged into a kagome lattice. We show that polarization-d...
Strong light-matter interaction enriches topological photonics by dressing light with matter, which ...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
We consider exciton-polaritons in a honeycomb lattice of micropillars subjected to circularly polari...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
We present the theory of a new type of topological quantum order which is driven by the spin-orbit d...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
We study the topological structure of matter-light excitations, so-called polaritons, in a quantum s...
We study the topological structure of matter-light excitations, so-called polaritons, in a quantum s...
The interaction between light and matter can give rise to novel topological states. This principle w...
Topological insulators—materials that are insulating in the bulk but allow electrons to flow on thei...
In this work light and matter have been coupled in a strong interaction between exciton resonances a...
Motivated by the sustained interest in Bose Einstein condensates and the recent progress in the unde...
Motivated by the sustained interest in Bose Einstein condensates and the recent progress in the unde...
We study a system of microcavity pillars arranged into a kagome lattice. We show that polarization-d...
Strong light-matter interaction enriches topological photonics by dressing light with matter, which ...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
We consider exciton-polaritons in a honeycomb lattice of micropillars subjected to circularly polari...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
We present the theory of a new type of topological quantum order which is driven by the spin-orbit d...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...
Time-periodic perturbations can be used to engineer topological properties of matter by altering the...