Integrated Photonics technology

Mutibah Alanazi

Mutibah’s research focuses on quantum optics, optoelectronics, and nanophononics, with an emphasis on developing scalable quantum optical technologies. During her PhD at the University of Oxford, she explored quantum coherent emission, polariton condensation, and photon bunching in low-dimensional systems. She has extensive expertise in advanced laser systems, cryogenic techniques, microcavity systems, and material modeling, contributing to several notable publications in the field of condensed matter physics. Research interests Mutibah's research focuses on developing cavity-coupled spin

Polina Morozova

Visiting Student (former), Electrical and Computer Engineering
Polina received her bachelor's degree in Photonics and Optoinformatics from ITMO University with honours degree and is currently working towards a master’s degree in Applied Photonics at ITMO University. In her first grade as a graduate student, Polina studied abroad in South Korea for the spring semester. Polina is experienced in working on attacks on quantum key distribution systems, and electrodynamics traps, having worked on several projects in the field. She used to be involved in the design of a 3D model for quantum communication education stand circuits. Polina joined the Photonics

Integrated Photonic Devices for Sensing and Telecom Applications

Prof. Hugo E. Hernandez Figueroa, University of Campinas (UNICAMP)

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B3 L5 R5209

This talk will be focused on Integrated Photonics technology, which demands strong and robust confinement of light in order to attain the maximum possible integration of photonics devices on a single chip. Keeping this in mind, three applications based on LEMAC’s recent developments will be presented in this talk.

Toward scalable and high performance on-chip light source for integrated silicon photonics

Chen Shang, Postoctoral Researcher Fellow, University of California Santa Barbara

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B9 L2 R2322

Monolithic integration of quantum dot (QD) gain materials onto Si photonic platforms via direct epitaxial growth is considered as the ultimate solution for on-chip light sources.