Chip-integrated extended-cavity mode-locked laser in the visible

Lisa V. Winkler, Govert Neijts, Hubertus J. M. Bastiaens, Melissa J. Goodwin, Albert van Rees, Philip P. J. Schrinner, Marcel Hoekman, Ronald Dekker, Adriano R. do Nascimento Jr., Peter J. M. van der Slot, Christian Nölleke, Klaus-J. Boller
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引用次数: 0

Abstract

Mode-locked lasers are of interest for applications such as biological imaging, non-linear frequency conversion, and single-photon generation. In the infrared, chip-integrated mode-locked lasers have been demonstrated through integration of laser diodes with low-loss photonic circuits. However additional challenges, such as a higher propagation loss and smaller alignment tolerances have prevented the realization of such lasers in the visible range. Here, we demonstrate the first chip-integrated mode-locked diode laser in the visible using an integrated photonic circuit for cavity extension. Based on a gallium arsenide gain chip and a low-loss silicon nitride feedback circuit, the laser is passively mode-locked using a saturable absorber implemented by focused ion beam milling. At a center wavelength of 642 nm, the laser shows an average output power of 3.4 mW, with a spectral bandwidth of 1.5 nm at a repetition rate of 7.84 GHz.
可见光中的芯片集成扩展腔模式锁定激光器
锁模激光器在生物成像、非线性频率转换和单光子生成等应用中备受关注。在红外领域,通过激光二极管与低损耗光子电路的集成,芯片集成锁模激光器已经得到了验证。然而,在可见光范围内,更高的传播损耗和更小的对准公差等额外挑战阻碍了此类激光器的实现。在此,我们展示了第一台利用集成光子电路扩展腔体的芯片集成锁模二极管激光器。该激光器以砷化镓增益芯片和低损耗氮化硅反馈电路为基础,利用聚焦离子束铣削技术实现的可饱和吸收器进行被动锁模。该激光器的中心波长为 642 nm,平均输出功率为 3.4 mW,重复频率为 7.84 GHz 时的光谱带宽为 1.5 nm。
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