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Our research is focused on the interaction between light and matter at the micro and nano-scale. We build nanoscale optical devices such as lasers, cavities and waveguides using optical and electron beam\u00a0lithography<\/a>\u00a0techniques – the same process used in advanced microelectronics devices. Combining these advanced fabrication techniques with materials displaying high refractive index, such as silicon, silicon nitride, III-V compounds, and glass, we are able to confine light in very small structures\u00a0\u00a0(sub-micron). In such tight confining structure, a plethora of new and enhanced effects may be explored within a scientific viewpoint, e.g., quantum mechanics of mesoscopic objects (Quantum optomechanics<\/a>), nonlinear dynamics, and low threshold nonlinear optics (non-linear optics<\/a>); or within a technological viewpoint, e.g., mass sensors, optical modulation and filters (Photonic Molecules<\/a>), and RF oscillators.<\/p>\n <\/p>","protected":false},"excerpt":{"rendered":" Our research is focused on the interaction between light and matter at the micro and nano-scale. We build nanoscale optical devices such as lasers, cavities and waveguides using optical and electron beam\u00a0lithography\u00a0techniques – the same process used in advanced microelectronics devices. Combining these advanced fabrication techniques with materials displaying high refractive index, such as silicon, … <\/p>\n