To realize the vision of "invisible" wearable optoelectronics such as smart contact lenses and ultrathin AR glasses, traditional, bulky optical components must be reinvented at the atomic level. XPANCEO researchers, alongside collaborators from NUS and UCT Prague, have taken a major step toward this goal by uncovering the extraordinary properties of the layered crystal molybdenum oxychloride MoOCl₂. Published in Nano Letters, the study provides the first experimental map of the material that possesses the strongest light-bending effect ever recorded in a natural substance, offering a direct path to miniaturizing high-performance optical hardware. The research reveals that MoOCl₂ is a sort of "chameleon" in the world of physics. Due to its extreme optical anisotropy, this crystal’s function depends entirely on its orientation. Oriented one way, the crystal reflects light like a metal; turned by 90 degrees, it becomes transparent like glass. With an in-plane birefringence value of about 2.2, the crystal can split and bend light with unprecedented efficiency. For XPANCEO’s development, this means the complex light manipulation required for AR displays can now be achieved using materials thousands of times thinner than the diameter of a human hair. 

Researchers have developed a new way to generate realistic synthetic training data for agricultural robots by recreating tomato cultivation environments in a virtual world. The approach could help overcome one of the biggest barriers in agricultural robotics: the time and labor required to collect and manually label real-world data under challenging greenhouse conditions such as changing lighting, dense foliage, and fruit occlusion.

A new technology created by Heriot-Watt University is poised to upend one of the most stubborn bottlenecks in modern manufacturing.

FreeForm Photonics is set to commercialise a laser-based process that builds alignment directly into optical glass components, removing the painstaking manual calibration that currently accounts for more than half of all photonics production costs.

The result is a manufacturing pathway that is faster, cheaper and precise to sub-micron tolerances, a scale far smaller than the width of a human hair. It also removes the complexity that has long made photonic systems prohibitively expensive to scale.

The implications stretch across some of the most consequential technologies of the coming decade. Sectors like Quantum computing systems, next-generation medical diagnostics and the optical communications infrastructure underpinning the modern internet. These all depend on photonic components that are currently largely assembled by hand.