A compact high repetition rate fully polarization-maintaining fiber mode-locked laser
A high repetition frequency, mode-locked laser technology, applied in lasers, laser parts, phonon exciters, etc., can solve the problems of difficulty in achieving high repetition frequency, high pump power consumption, and difficulty in increasing the repetition frequency. Achieve long-term stable operation and anti-interference ability, solve processing difficulties, reduce coupling difficulty and stability
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Embodiment 1
[0024] figure 1 is a schematic diagram of the structure of the laser provided in Embodiment 1, such as figure 1 As shown, a compact high repetition rate fully polarization-maintaining fiber mode-locked laser includes a first polarization-maintaining single-mode fiber 1, a polarization-maintaining gain fiber 13, a second polarization-maintaining single-mode fiber 14, a pump source 15, a first Composite polarization-maintaining fiber collimator 2, first phase shifter unit 6, first polarization beam splitter 9, first 1 / 4 wave plate 10, second optical bandpass filter 11, electro-optic modulator 23, grating pair 24. Mirror 25 and piezoelectric ceramic 26; the first polarization-maintaining single-mode fiber 1 and the polarization-maintaining gain fiber 13 are connected through the fiber fusion splicing point 12, between the first polarization-maintaining single-mode fiber 1 and the polarization-maintaining gain fiber 13 Multiple sections of polarization-maintaining single-mode fib...
Embodiment 2
[0034] With respect to Embodiment 1, the first composite polarization-maintaining fiber collimator 2 and the first phase shifter unit 6 are replaced by a second composite polarization-maintaining fiber collimator 31, and the second composite polarization-maintaining fiber collimator 31 Add a second half-wave plate 36 between the first polarization beam splitter and the first polarization beam splitter 9; Phase unit 35; the second phase shifter unit 35 and beam splitter 29 can be between the polarization-maintaining fiber collimator 28 and the second polarization beam splitter 30, or between the polarization-maintaining fiber collimator for wavelength division multiplexing 27 and the second polarization beam splitter 30; the second half-wave plate 36 can be replaced by a direct rotation second composite polarization-maintaining fiber collimator 31 or the first polarization beam splitter 9, and can also be replaced by other types of wave plate combination structure or Faraday ro...
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