285 mW High Power, Dissipative-Soliton Mode-Locked, Er-doped Fiber Laser using Carbon Nanotube

Nozaki, Yuto; Nishizawa, Norihiko; Kataura, Hiromichi; Omoda, Emiko; Sakakibara, Youichi

doi:10.1364/cleo_si.2013.cm1i.4

Cleo: 2013 2013

DOI: 10.1364/cleo_si.2013.cm1i.4

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285 mW High Power, Dissipative-Soliton Mode-Locked, Er-doped Fiber Laser using Carbon Nanotube

Yuto Nozaki

Norihiko Nishizawa

Hiromichi Kataura

et al.

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2015

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“…In addition to polarization control, mechanical stretching of the fiber is also used to maintain an optimum cavity length while achieving initial mode-locking. Note that the value of normal dispersion of the cavity is in the range of passive mode-locking, as reported by a number of experimental studies [29][30][31][32][33].…”

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confidence: 59%

Blue-Shifted Rogue Waves Generation in Normal Dispersion Fiber Laser

Afzal

Alameh

Lee

2015

IEEE Photon. Technol. Lett.

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In the presence of noise in normal dispersion fiber mode-locked lasers, "dissipative resonance" disappears, which leads to instability of spectral broadening and makes the asymptotic accumulation of energy impossible. We experimentally generate dissipative soliton molecules-like spectral peaks and rogue waves in the frequency domain in a self-mode-locked fiber laser. Due to noise in the initial triangular-shaped mode locked wave, these molecules are arranged in the form of lobes on the longer wavelength side, thus forming three virtual groups of soliton molecules. Further dissipative accumulation of power in the mode-locked wave ultimately leads to the formation of a blue-shifted group of three rogue waves, due to the effective fusion of adjacent soliton molecules. This is the first report of an experimental observation of blue-shifted and three rogue waves in a single experiment. The results have far reaching implications for experimentation with soliton collisions, optical rogue waves, and understanding of hydrodynamics.Index Terms-Passive mode-lock fiber lasers, normal dispersion, instability of dissipative soliton resonance, bound solitons, supercontinuum, rogue waves.

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confidence: 59%

Blue-Shifted Rogue Waves Generation in Normal Dispersion Fiber Laser

Afzal

Alameh

Lee

2015

IEEE Photon. Technol. Lett.

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285 mW High Power, Dissipative-Soliton Mode-Locked, Er-doped Fiber Laser using Carbon Nanotube

Cited by 1 publication

References 2 publications

Blue-Shifted Rogue Waves Generation in Normal Dispersion Fiber Laser

Blue-Shifted Rogue Waves Generation in Normal Dispersion Fiber Laser

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