Periodic Reporting for period 1 - TOP-BLG (Terahertz OPtoelectronics in BiLayer Graphene)
Período documentado: 2023-01-01 hasta 2025-06-30
The discovery of new materials and physical phenomena often leads to important technological advances. This is true for Terahertz (THz) optoelectronics, which operates in a frequency range between ~0.1-10 THz. This range is useful for identifying chemicals and biological substances, studying the universe's origins, and detecting things without causing harm to materials. These qualities make THz radiation valuable for many areas, like food manufacturing, detecting hazards, medicine, security, wireless communication, and exploring the origins of life. However, despite its potential, THz technology is still limited by materials’ response in this spectral range, which makes it difficult to create affordable, high-performance devices.
Recent advances in 2D materials might provide a solution for better THz devices. By utilizing the remarkable THz properties of Bilayer Graphene, we aim to significantly increase the performance of THz optoelectronic devices at elevated working temperatures. A key feature in the project is to integrate the devices into a compact, low-cost spectroscopy system, which would revolutionize THz instruments.
Recent advances in 2D materials might provide a solution for better THz devices. By utilizing the remarkable THz properties of Bilayer Graphene, we aim to significantly increase the performance of THz optoelectronic devices at elevated working temperatures. A key feature in the project is to integrate the devices into a compact, low-cost spectroscopy system, which would revolutionize THz instruments.
On the theoretical aspect, we have developed new simulations tools to assess the optical response of our graphene systems. By using these tools we were able to simulate the interaction of our system with electromagnetic radiation and found it to be very strong.
On the experimental aspect, we have designed and built a unique experimental system that can accommodate the requirements of the project. The system is one of its kind and is novel in its methodology – it enables to do broadband spectroscopy at long wavelengths, in samples that are smaller or comparable to the wavelength.
On the experimental aspect, we have designed and built a unique experimental system that can accommodate the requirements of the project. The system is one of its kind and is novel in its methodology – it enables to do broadband spectroscopy at long wavelengths, in samples that are smaller or comparable to the wavelength.