Add to ORKGWe demonstrate microfabrication of ultra-high-Q microcavities on a chip, exhibiting a novel toroid-shaped geometry. The cavities possess Q-factors in excess of 100 million which constitutes an improvement close to 4 orders-of-magnitude in Q compared to previous work [B. Gayral, et al., 1999]
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
We investigate the resonance structure and modal properties of chip-based toroidal microcavities. Th...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
We demonstrate microfabrication of ultra-high-Q microcavities on a chip, exhibiting a novel toroid-s...
Optical microcavities confine light spatially and temporally and find application in a wide range of...
The circulation of light within dielectric volumes enables storage of optical power near specific re...
The circulation of light within dielectric volumes enables storage of optical power near specific re...
The circulation of light within dielectric volumes enables storage of optical power near specific re...
Optical microcavities confine light spatially and temporally and find application in a wide range of...
We present microfabrication of ultra-high-Q microcavities on a chip. These toroidal microcavities po...
We present microfabrication of ultra-high-Q microcavities on a chip. These toroidal microcavities po...
Ultrahigh-Q optical resonators are being studied across a wide range of fields, including quantum in...
Ultrahigh-Q optical resonators are being studied across a wide range of fields, including quantum in...
On-chip high-Q microcavities possess significant potential in terms of integration of optical micror...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
We investigate the resonance structure and modal properties of chip-based toroidal microcavities. Th...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
We demonstrate microfabrication of ultra-high-Q microcavities on a chip, exhibiting a novel toroid-s...
Optical microcavities confine light spatially and temporally and find application in a wide range of...
The circulation of light within dielectric volumes enables storage of optical power near specific re...
The circulation of light within dielectric volumes enables storage of optical power near specific re...
The circulation of light within dielectric volumes enables storage of optical power near specific re...
Optical microcavities confine light spatially and temporally and find application in a wide range of...
We present microfabrication of ultra-high-Q microcavities on a chip. These toroidal microcavities po...
We present microfabrication of ultra-high-Q microcavities on a chip. These toroidal microcavities po...
Ultrahigh-Q optical resonators are being studied across a wide range of fields, including quantum in...
Ultrahigh-Q optical resonators are being studied across a wide range of fields, including quantum in...
On-chip high-Q microcavities possess significant potential in terms of integration of optical micror...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...
We investigate the resonance structure and modal properties of chip-based toroidal microcavities. Th...
Optical microresonators are essential to a broad range of technologies and scientific disciplines. H...