Impact of Transforming Interface Geometry on Edge States in Valley Photonic Crystals
We investigate how altering the interface geometry from a zigzag to a glide plane interface between two topologically distinct valley Hall emulating photonic crystals (VPC), profoundly affects edge states. We experimentally observe a transition from gapless to gapped edge states, accompanied by the...
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Veröffentlicht in: | Physical review letters 2024-03, Vol.132 (11), p.116901-116901, Article 116901 |
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creator | Yu, D Arora, S Kuipers, L |
description | We investigate how altering the interface geometry from a zigzag to a glide plane interface between two topologically distinct valley Hall emulating photonic crystals (VPC), profoundly affects edge states. We experimentally observe a transition from gapless to gapped edge states, accompanied by the occurrence of slow light within the Brillouin zone, rather than at its edge. We numerically simulate the propagation and measure the transmittance of the modified edge states through a specially designed valley-conserving defect. The robustness to backscattering gradually decreases, suggesting a disruption of valley-dependent transport. We demonstrate the significance of interface geometry to gapless edge states in a VPC. |
doi_str_mv | 10.1103/PhysRevLett.132.116901 |
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title | Impact of Transforming Interface Geometry on Edge States in Valley Photonic Crystals |
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