2025
Low‐Divergence Wave‐Chaotic Microlasers From Fiber‐Hybridized Colloidal Quantum Dots
Ren Y, Zou S, Li K, Wu Y, Ding Y, Li F, Liu S, Wang Y. Low‐Divergence Wave‐Chaotic Microlasers From Fiber‐Hybridized Colloidal Quantum Dots. Laser & Photonics Review 2025, 19 DOI: 10.1002/lpor.202402136.Peer-Reviewed Original ResearchQD lasersColloidal quantum dotsQuantum dotsLow divergenceQD gain mediumFar-field distributionHigh Q factorCoherent emissionResonator symmetryPhotonic circuitsComprehensive numerical simulationsHybrid resonanceGain mediumFiber hybridizationLaser designSpectral tunabilityResonant modesOutgoing lightFiber platformSolution-processedQ-factorOutput angleNumerical simulationsResonanceCurved boundaries
2018
Chip-scale high Q-factor glassblown microspherical shells for magnetic sensing
Freeman E, Wang C, Sumaria V, Schiff S, Liu Z, Tadigadapa S. Chip-scale high Q-factor glassblown microspherical shells for magnetic sensing. AIP Advances 2018, 8: 065214. PMID: 29938122, PMCID: PMC6002270, DOI: 10.1063/1.5030460.Peer-Reviewed Original ResearchGallery mode resonatorsExternal magnetic fieldUltra-smooth surfaceResonance frequency shiftResonance shiftsPhotoelastic effectMagnetic fieldExperimental limitsMode resonatorsLimit of detectionMagnetic sensingQ-factorFrequency shiftDetection limitShell structureShell resonatorMechanical deformationMagnetometerMagnetic forceResonatorMagnetsHzShellWavelengthLimit
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