The rapid advancements in nanotechnology and materials science are positioning photonic chips as a cornerstone technology in contemporary scientific study. This transformative potential manifests in two key dimensions. First, the development of sophisticated photonic integrated circuits (PICs) that streamline the complexity and reduce the costs of conventional optical systems. Second, the innovation of novel optoelectronic materials and nanostructured photonic devices enables precise electromagnetic field manipulation and unprecedented enhancement of light-matter interactions at the chip scale.
At Photonic Chip Laboratory, we are dedicated to pioneering next-generation PICs and nanophotonic solutions addressing critical challenges across information science, biochemistry, and environment monitoring. Beyond technological innovation, we are committed to nurturing leaders with creative problem-solving abilities, scientific rigor, and collaborative leadership. Our core technical focus spans on-chip light source development, advanced sensing technology, high-efficiency photodetectors, and spectroscopic computation algorithms. The research thrusts are unpinned by multidisciplinary expertise in integrated optics, nanophotonics, nanomaterials, spectroscopy, and artificial intelligence. By synergizing theoretical insights with experimental ingenuity, we strive to deliver breakthroughs that not only address national technological priorities but also contribute to global advancements in human health, information processing, and sustainable development.
Fundamentals of Optoelectronics: This course introduces the key concepts and devices in optoelectronics. Students are expected to learn the principles of optical resonators, optical amplifiers, lasers, photodetectors, and modulators. It is suitable for undergraduate students majoring in optoelectronic information engineering.
Integrated Optoelectronics Design: This course introduces the design methods of integrated optoelectronic devices. Students are expected to learn how to design several waveguide devices, including couplers, power splitters, resonators, and modulators. It is suitable for undergraduate students majoring in optoelectronic information engineering, optoelectronic science, and measurement and control engineering.
Fundamentals and Frontiers of Silicon Photonics: This course introduces the fundamentals and advances of silicon photonics. Students are expected to learn fundamental theories, manufacturing processes, and cutting-edge applications of silicon photonic integrated circuits. It is suitable for graduate and undergraduate students majoring in optical engineering, instrument science, and electronic information.
Innovative Talent Cultivation in Optoelectronics: This course introduces innovative applications of optoelectronics. Students are expected to learn about successful cases of innovation and entrepreneurship in the areas of sensing, communications, ranging, processing, and computing. It is suitable for graduate students majoring in optical engineering, instrument science, and electronic information.
