Research
By harnessing the light-matter interactions, we probe the dynamics and properties of newly emerging materials and engineer the electronic and optical devices made of these materials to push the boundaries of semiconductors technologies.
Probing Materials via Optical Spectroscopies
Newly emerging systems, including low-dimensional materials, phase change materials, superlattice structures, topological materials, among others, exhibit intriguing properties. Harnessing these materials can complement the existing technologies in the industry, ultimately broadening the scope of applications and achieving enhanced device capabilities. Therefore, it is essential to gain deeper insights in the behaviors of materials. Optical spectroscopy serves as a powerful tool in this endeavor, offering a non-destructive, contactless method for material characterization and uncovering rich information at very short timescale. Understanding the fundamental properties of materials through optical spectroscopy empowers us to tailor them effectively, paving the way for improved design and functionality of future semiconductor devices.
Newly emerging systems, including low-dimensional materials, phase change materials, superlattice structures, topological materials, among others, exhibit intriguing properties. Harnessing these materials can complement the existing technologies in the industry, ultimately broadening the scope of applications and achieving enhanced device capabilities. Therefore, it is essential to gain deeper insights in the behaviors of materials. Optical spectroscopy serves as a powerful tool in this endeavor, offering a non-destructive, contactless method for material characterization and uncovering rich information at very short timescale. Understanding the fundamental properties of materials through optical spectroscopy empowers us to tailor them effectively, paving the way for improved design and functionality of future semiconductor devices.
Engineering Nano-Photonic and Electronic Devices
Photonic and electronic devices are irreplaceable components of the semiconductor industry, forming the backbone of crucial technologies such as memory storage, processors, and interconnects. These devices play vital roles across a wide range of application fields, including telecommunications, computing, imaging, autonomous driving, healthcare technologies, renewable energy systems, and artificial intelligence. As the demand for more efficient and capable devices grows, further enhancing performance beyond existing technologies is essential to expand the potential application scenarios and make a significant impact on the world. Our group focuses on engineering better devices by leveraging novel materials exhibiting unique properties and optimized configurations, ultimately aiming to unlock new functionalities and improve device efficiency for a myriad of future applications.
Photonic and electronic devices are irreplaceable components of the semiconductor industry, forming the backbone of crucial technologies such as memory storage, processors, and interconnects. These devices play vital roles across a wide range of application fields, including telecommunications, computing, imaging, autonomous driving, healthcare technologies, renewable energy systems, and artificial intelligence. As the demand for more efficient and capable devices grows, further enhancing performance beyond existing technologies is essential to expand the potential application scenarios and make a significant impact on the world. Our group focuses on engineering better devices by leveraging novel materials exhibiting unique properties and optimized configurations, ultimately aiming to unlock new functionalities and improve device efficiency for a myriad of future applications.