2009
DOI: 10.1364/oe.17.014063
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Compact, lower-power-consumption wavelength tunable laser fabricated with silicon photonic-wire waveguide micro-ring resonators

Abstract: A wavelength tunable laser with an SOA and external double micro-ring resonator, which is fabricated with silicon photonic-wire waveguides, is demonstrated. To date, it is the first wavelength tunable laser fabricated with silicon photonic technology. The device is ultra compact, and its external resonator footprint is 700 x 450 microm, which is about 1/25 that of conventional tunable lasers fabricated with SiON waveguides. The silicon resonator shows a wide tuning range covering the C or L bands for DWDM opti… Show more

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Cited by 112 publications
(69 citation statements)
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“…Wavelength tuning can be achieved via the thermo-optic effect, i.e., by heating of the MRRs, which increases the effective waveguide index and thereby the optical length of the MRRs. Further details about MRR Vernier filters can be found in [19][20][21].…”
Section: Operation Principlementioning
confidence: 99%
“…Wavelength tuning can be achieved via the thermo-optic effect, i.e., by heating of the MRRs, which increases the effective waveguide index and thereby the optical length of the MRRs. Further details about MRR Vernier filters can be found in [19][20][21].…”
Section: Operation Principlementioning
confidence: 99%
“…There are several approaches for the design of integrated tunable lasers: sampled grating DBR (SGDBR), digitally tuned DBR lasers, etc., mainly developed on InP substrates [15][16][17]. Recently, tunable lasers integrating extra-cavity or intra-cavity ring resonators (RRs) have been demonstrated on InP [18,19], or by butt-coupling an already fabricated reflective semiconductor optical amplifier to an external ring resonator filter fabricated on SOI [20]. However, InP-based solutions still suffer from high losses in passive parts and yield issues, while the butt-coupling solution requires high precision mechanical positioning, which is costly and not suitable for dense photonic integration.…”
Section: Introductionmentioning
confidence: 99%
“…(1) silicon material engineering by introducing emissive centers to assist the efficient light emission (Pavesi et al, 2000;Han et al, 2001;Rotem et al, 2007a,b;Shainline and Xu, 2007), (2) strained Ge (Liu et al, 2007(Liu et al, , 2009Cheng et al, 2009;Sun et al, 2009b,c;Camacho-Aguilera et al, 2012), (3) silicon Raman laser Jalali, 2004, 2005;Rong et al, 2005aRong et al, ,b, 2007, and (4) heterogeneous integration of III/V gain materials through packaging (Chu et al, 2009;Fujioka et al, 2010;Urino et al, 2011) or wafer bonding (Park et al, 2005;Fang et al, 2007a,b;Liang et al, 2009aLiang et al, ,b, 2010Stanković et al, 2010;Grenouillet et al, 2012). …”
Section: Review On Research For Lasers On Siliconmentioning
confidence: 99%
“…Research groups from Japan devoted many efforts for the development of silicon lasers using packaging methods. Chu et al (2009) demonstrated the first wavelength-tunable-laser fabricated with silicon photonic technology, which comprised a semiconductor optical amplifier (SOA) chip and a silicon photonic chip, and were hybridintegrated by using passive alignment technology. An SiON modesize converter was adopted between the silicon waveguide and III/V SOA for low coupling loss.…”
Section: Review On Research For Lasers On Siliconmentioning
confidence: 99%