The team achieves nanofabrication of nanostructures buried deep inside silicon wafers, enabling sub-wavelength and multi-dimensional control directly inside the material. The breakthrough opens up new possibilities for developing nano-scale systems with unique architectures.
Researchers have found a way to use nature's inner dynamics to build complex systems, including cells and crystals. They observed the Tracy-Widom distribution in diverse systems, which could help predict and study new examples of systems with this universality.
Researchers from Bilkent University develop a technique to eliminate cross-talk in 3D holographic projection, enabling the creation of realistic and dynamic holograms. The method uses wavefront engineering and orthogonality properties to achieve high-quality projections with increasing hologram resolution.
Researchers pack laser-written structures deep into silicon chips, enabling arbitrary 3D fabrication without layers above or below. The method also enables creating functional optical devices and 3D sculpturing of entire wafers.
Researchers at Bilkent University have designed the simplest experimental system to date, revealing that particles can form autocatalytic aggregates with rich complex behaviors. The study employs only two parameters: laser power and beam position, allowing for controlled emergence of complexity.