A CW-driven doubly resonant degenerate OPO achieves passive mode-locking via bichromatic femtosecond dissipative quadratic solitons with 336 fs duration at 1572 nm and 5% conversion efficiency under 600 mW pump.
Towards compact phase-matched and waveguided nonlinear optics in atomically layered semiconductors
4 Pith papers cite this work. Polarity classification is still indexing.
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Metal-2DES junctions produce zero-bias photocurrent at oblique incidence due to asymmetric local field amplitudes from phase variations, enabling incidence direction reconstruction via tunable asymmetric plasmon modes.
Sparse sampling of reflectance with five strategically chosen near-IR bandpass filters combined with a multivariate Gaussian model enables non-destructive thickness mapping of 3R-MoS2 on PDMS up to 691 nm with average 8.3 nm 95% CI width.
SoLo is a non-iterative single-frame super-resolution method for fluorescence imaging that infers source positions through sampling-detection, preserving intensity linearity for real-time quantitative analysis.
citing papers explorer
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Dissipative quadratic soliton mode-locked optical parametric oscillator
A CW-driven doubly resonant degenerate OPO achieves passive mode-locking via bichromatic femtosecond dissipative quadratic solitons with 336 fs duration at 1572 nm and 5% conversion efficiency under 600 mW pump.
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Photocurrent at oblique illumination and reconstruction of wavefront direction with 2d photodetectors
Metal-2DES junctions produce zero-bias photocurrent at oblique incidence due to asymmetric local field amplitudes from phase variations, enabling incidence direction reconstruction via tunable asymmetric plasmon modes.
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Sparse Spectral Imaging for Thickness Mapping of 3R-MoS$_2$ on PDMS
Sparse sampling of reflectance with five strategically chosen near-IR bandpass filters combined with a multivariate Gaussian model enables non-destructive thickness mapping of 3R-MoS2 on PDMS up to 691 nm with average 8.3 nm 95% CI width.
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Source localization realizes single frame super-resolution for fluorescence imaging
SoLo is a non-iterative single-frame super-resolution method for fluorescence imaging that infers source positions through sampling-detection, preserving intensity linearity for real-time quantitative analysis.