It is shown theoretically that an optical bottle resonator with a nanoscale radius variation can perform a multinanosecond long dispersionless delay of light in a nanometer-order bandwidth with minimal losses. Experimentally, a 3 mm long resonator with a 2.8 nm deep semiparabolic radius variation is fabricated from a 19??µm radius silica fiber with a subangstrom precision. In excellent agreement with theory, the resonator exhibits the impedance-matched 2.58 ns (3 bytes) delay of 100 ps pulses with 0.44??dB/ns intrinsic loss. This is a miniature slow light delay line with the record large delay time, record small transmission loss, dispersion, and effective speed of light
Brillouin slow light in optical fibers is a promising technique for the development of all-optical ...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2008.Many practical applic...
We study the slow light effect via stimulated Brillouin scattering (SBS) using broadly-tunable frequ...
It is shown theoretically that an optical bottle resonator with a nanoscale radius variation can per...
All resonant systems throughout science and engineering, independent of their physical implementatio...
Creation of miniature optical delay lines and buffers is one of the greatest challenges of the moder...
Over the past few years, researchers have directed a significant amount of effort towards realizing ...
We report on a tunable all-optical delay line for pulses with optical frequency within the Rb D2 abs...
Abstract: We demonstrate continuously tunable delays and advancements of 3.5-ps pulses over a total...
conference 6904 " Advances in Slow and Fast Light ", Session 2 " Slow/Fast Light in Fibers and Photo...
High-speed optical networks will require all-optical signalprocessing to avoid bottleneck due to opt...
Abstract—We design a tunable slow-light delay line based on fiber-optic parametric process by shapin...
Coupled optical microresonators are one way of slowing down light. A new record has now been set for...
International audienceWe theoretically study parametric amplification in highly birefringent optical...
The characteristics of slow light in the microfiber double-knot resonator with a parallel structure ...
Brillouin slow light in optical fibers is a promising technique for the development of all-optical ...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2008.Many practical applic...
We study the slow light effect via stimulated Brillouin scattering (SBS) using broadly-tunable frequ...
It is shown theoretically that an optical bottle resonator with a nanoscale radius variation can per...
All resonant systems throughout science and engineering, independent of their physical implementatio...
Creation of miniature optical delay lines and buffers is one of the greatest challenges of the moder...
Over the past few years, researchers have directed a significant amount of effort towards realizing ...
We report on a tunable all-optical delay line for pulses with optical frequency within the Rb D2 abs...
Abstract: We demonstrate continuously tunable delays and advancements of 3.5-ps pulses over a total...
conference 6904 " Advances in Slow and Fast Light ", Session 2 " Slow/Fast Light in Fibers and Photo...
High-speed optical networks will require all-optical signalprocessing to avoid bottleneck due to opt...
Abstract—We design a tunable slow-light delay line based on fiber-optic parametric process by shapin...
Coupled optical microresonators are one way of slowing down light. A new record has now been set for...
International audienceWe theoretically study parametric amplification in highly birefringent optical...
The characteristics of slow light in the microfiber double-knot resonator with a parallel structure ...
Brillouin slow light in optical fibers is a promising technique for the development of all-optical ...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2008.Many practical applic...
We study the slow light effect via stimulated Brillouin scattering (SBS) using broadly-tunable frequ...