We propose and experimentally demonstrate single-carrier adaptive frequency-domain equalization (SC-FDE) to mitigate multipath interference (MPI) for the transmission of the fundamental mode in a few-mode fiber. The FDE approach reduces computational complexity significantly compared to the time-domain equalization (TDE) approach while maintaining the same performance. Both FDE and TDE methods are evaluated by simulating long-haul fundamental-mode transmission using a few-mode fiber. For the fundamental mode operation, the required tap length of the equalizer depends on the differential mode group delay (DMGD) of a single span rather than DMGD of the entire link
Few-mode fibers (FMFs) are used for the first time to transmit over 5000 km. Ten WDM channels with 5...
Abstract—Nonlinearities in optical fibers deteriorate system performances and become a major perform...
We report for the first time on the limitations in the operational power range of few-mode fiber bas...
We propose and experimentally demonstrate single-carrier adaptive frequency-domain equalization (SC-...
As a promising candidate to break the single-mode fiber capacity limit, mode-division multiplexing (...
We propose single-carrier adaptive frequency-domain equalization (SC-FDE) for mode-division multiple...
We propose single-carrier adaptive frequency-domain equalization (SC-FDE) for mode-division multiple...
We demonstrate mode-division multiplexed WDM transmission over 50-km of few-mode fiber using the fib...
We experimentally demonstrate adaptive frequency-domain equalization with low algorithmic complexity...
Optical multiple-input multiple-output (MIMO) transmission systems generally employ minimum mean squ...
We propose and simulate single-carrier adaptive frequency-domain equalization (SC-FDE) for mode-divi...
Abstract—Long-haul mode-division multiplexing (MDM) em-ploys adaptive multi-input multi-output (MIMO...
Space-division multiplexing (SDM) has been extensively proposed to overcome the next capacity crunch...
Modal dispersion is one of the key impairments for few-mode fiber transmission. We propose a modifie...
A low complexity 6×6 frequency domain equalizer is used to demonstrate the improved robustness to re...
Few-mode fibers (FMFs) are used for the first time to transmit over 5000 km. Ten WDM channels with 5...
Abstract—Nonlinearities in optical fibers deteriorate system performances and become a major perform...
We report for the first time on the limitations in the operational power range of few-mode fiber bas...
We propose and experimentally demonstrate single-carrier adaptive frequency-domain equalization (SC-...
As a promising candidate to break the single-mode fiber capacity limit, mode-division multiplexing (...
We propose single-carrier adaptive frequency-domain equalization (SC-FDE) for mode-division multiple...
We propose single-carrier adaptive frequency-domain equalization (SC-FDE) for mode-division multiple...
We demonstrate mode-division multiplexed WDM transmission over 50-km of few-mode fiber using the fib...
We experimentally demonstrate adaptive frequency-domain equalization with low algorithmic complexity...
Optical multiple-input multiple-output (MIMO) transmission systems generally employ minimum mean squ...
We propose and simulate single-carrier adaptive frequency-domain equalization (SC-FDE) for mode-divi...
Abstract—Long-haul mode-division multiplexing (MDM) em-ploys adaptive multi-input multi-output (MIMO...
Space-division multiplexing (SDM) has been extensively proposed to overcome the next capacity crunch...
Modal dispersion is one of the key impairments for few-mode fiber transmission. We propose a modifie...
A low complexity 6×6 frequency domain equalizer is used to demonstrate the improved robustness to re...
Few-mode fibers (FMFs) are used for the first time to transmit over 5000 km. Ten WDM channels with 5...
Abstract—Nonlinearities in optical fibers deteriorate system performances and become a major perform...
We report for the first time on the limitations in the operational power range of few-mode fiber bas...