Pseudospin describes how waves are distributed between different “internal” degrees of freedom or microscopic states, such as polarizations, sublattices, or layers. Here, we experimentally demonstrate and explain wave dynamics in a photonic Lieb lattice, which hosts an integer pseudospin s=1 conical intersection. We study the most striking differences displayed by integer pseudospin states: pseudospin-dependent conical diffraction and the generation of higher charged optical vortices
Topological properties of materials are typically presented in momentum space. Here, we demonstrate ...
Pseudospin, an additional degree of freedom emerging in graphene as a direct consequence of its hone...
The breathing honeycomb lattice hosts a topologically non-trivial bulk phase due to the crystalline-...
Pseudospin describes how waves are distributed between different “internal” degrees of freedom or mi...
We study linear and nonlinear wave dynamics in the Lieb lattice, in the vicinity of an intersection ...
We review some recent progress in the exploration of pseudospin-1 physics using dielectric photonic ...
We review some recent progress in the exploration of pseudospin-1 physics using dielectric photonic ...
Band structure singularities occur in 2D photonic lattices when two or more bands intersect at a poi...
We demonstrate conical diffraction in photonic Lieb lattices in fused silica glass. In contrast to D...
Wedemonstrate controllable generation and destruction of pseudospin-mediated topological charges (vo...
This work was supported by ONR under Grant No. N00014-16-1-2828.Peer reviewedPostprin
Pseudospin, an additional degree of freedom inherent in graphene, plays a key role in understanding ...
We demonstrate the coexistence of pseudospin- and valley-Hall-like edge states in a photonic crystal...
Realising photonic analogues of the robust, unidirectional edge states of electronic topological ins...
We study the photoinduced manipulation of charge carriers in monolayer silicene subject to intense e...
Topological properties of materials are typically presented in momentum space. Here, we demonstrate ...
Pseudospin, an additional degree of freedom emerging in graphene as a direct consequence of its hone...
The breathing honeycomb lattice hosts a topologically non-trivial bulk phase due to the crystalline-...
Pseudospin describes how waves are distributed between different “internal” degrees of freedom or mi...
We study linear and nonlinear wave dynamics in the Lieb lattice, in the vicinity of an intersection ...
We review some recent progress in the exploration of pseudospin-1 physics using dielectric photonic ...
We review some recent progress in the exploration of pseudospin-1 physics using dielectric photonic ...
Band structure singularities occur in 2D photonic lattices when two or more bands intersect at a poi...
We demonstrate conical diffraction in photonic Lieb lattices in fused silica glass. In contrast to D...
Wedemonstrate controllable generation and destruction of pseudospin-mediated topological charges (vo...
This work was supported by ONR under Grant No. N00014-16-1-2828.Peer reviewedPostprin
Pseudospin, an additional degree of freedom inherent in graphene, plays a key role in understanding ...
We demonstrate the coexistence of pseudospin- and valley-Hall-like edge states in a photonic crystal...
Realising photonic analogues of the robust, unidirectional edge states of electronic topological ins...
We study the photoinduced manipulation of charge carriers in monolayer silicene subject to intense e...
Topological properties of materials are typically presented in momentum space. Here, we demonstrate ...
Pseudospin, an additional degree of freedom emerging in graphene as a direct consequence of its hone...
The breathing honeycomb lattice hosts a topologically non-trivial bulk phase due to the crystalline-...