We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compensation in a mid-link optical phase conjugation (OPC) system using an optimized dual-order distributed Raman amplification (DRA) technique. The dual-order backward (BW)-pumping scheme shows a record signal power symmetry of 97% over 50.4-km single-mode fiber (SMF) spans. We also demonstrate that the required accuracy for span-to-span power alignment is within ±1 dB in order to maintain 20-dB nonlinear product compensation. For a 256-Gb/s dual-polarization-16 QAM transmission over 100.8 km (2×50.4 km) SMF with mid-link OPC, the proposed Raman amplification scheme enables the OPC to improve the nonlinear threshold by 7 dB and the optimum signal...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We experimentally demonstrate, for the first time, a significant 34-dB nonlinear product power compe...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We propose a novel dual-order backward-pumped distributed Raman amplification scheme assisted erbium...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...
We experimentally achieve compensation of nonlinearity of at least 34 dB when deploying Optical Phas...