Responding to the increasing demand for efficient, tunable optical materials capable of precise light modulation to create greater bandwidth in communication networks and advanced optical systems, a team of researchers at NYU Abu Dhabi's Photonics Research Lab (PRL) have developed a novel, two-dimensional (2D) material capable of manipulating light with exceptional precision and minimal loss.
Tunable optical materials (TOMs) are revolutionizing modern optoelectronics, electronic devices that detect, generate and control light. In integrated photonics circuits, precise control over the optical properties of materials is crucial for unlocking groundbreaking and diverse applications in light manipulation.
Two-dimensional materials like Transition Metal Dichalcogenides (TMDs) and graphene exhibit remarkable optical responses to external stimuli. However, achieving distinctive modulation across a short-wave infrared (SWIR) region while maintaining precise phase control at low signal loss within a compact footprint has been a persistent challenge.
In a new paper titled "Electro-Optic Tuning in Composite Silicon Photonics Based on Ferroionic 2D Materials" published in Light: Science & Applications, the team of scientists, led by Research Scientist Ghada Dushaq, and Associate Professor of Electrical Engineering and Director of PRL Lab Mahmoud Rasras, have demonstrated a novel avenue for active light manipulation through the utilization of ferroionic, 2D material CuCrP2S6 (CCPS).
To read more, click here.