On-Chip Hyperuniform Lasers for Controllable Transitions in Disordered Systems
KAUST DepartmentAdvanced Semiconductor Laboratory
Computer, Electrical and Mathematical Sciences and Engineering (CEMSE) Division
Electrical Engineering Program
PRIMALIGHT Research Group
Online Publication Date2020-01-15
Print Publication Date2020-02
Permanent link to this recordhttp://hdl.handle.net/10754/661066
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AbstractDesigning light sources with controllable properties at the nanoscale is amain goal in research in photonics. Harnessing disorder opens manyopportunities for reducing the footprints of laser devices, enabling physicalphenomena and functionalities that are not observed in traditional structures.Controlling coherent light–matter interactions in systems based onrandomness, however, is challenging especially if compared to traditionallasers. Here, how to overcome these issues by using semiconductor laserscreated from stealthy hyperuniform structures is shown. An on-chip InGaNhyperuniform laser is designed and experimentally demonstrated, a new typeof disordered laser with controllable transitions—ranging from lasing curveslopes, thresholds, and linewidths— from the nonlinear interplay betweenrandomness and hidden order created via hyperuniformity. Theory andexperiments show that the addition of degrees of order stabilizes the lasingdynamics via mode competition effects, arising between weak lightlocalizations of the hyperuniform structure. The properties of the laser areindependent from the cavity size or the gain material, and show very littlestatistical fluctuations between different random samples possessing thesame randomness. These results open to on-chip lasers that combine theadvantages of classical and random lasers into a single platform.
CitationLin, R., Mazzone, V., Alfaraj, N., Liu, J., Li, X., & Fratalocchi, A. (2020). On-Chip Hyperuniform Lasers for Controllable Transitions in Disordered Systems. Laser & Photonics Reviews, 1800296. doi:10.1002/lpor.201800296
SponsorsR.L. and V.M. contributed equally to this work. The KAUST authors would like to acknowledge the support of KAUST Baseline Funds BAS/1/1664-01-01, and Competitive Research Grants URF/1/3437-01-01, URF/1/3771-01-01, KAUST Competitive Research Award OSR-2016-CRG5-2995, Kaust Supercomputing Laboratory (KSL), GCC Research Council REP/1/3189-01-01. J.L. would like to thank funding support by the National Natural Science Foundation of China (Grant No. 61834008).
JournalLaser & Photonics Reviews