Researchers develop a nanoscale optical device that processes light differently based on direction and polarization, creating new possibilities for secure data encryption and information hiding.
Programmable materials offer real-time control of mechanical properties, separating structure from function for breakthroughs in robotics, aerospace, and secure systems.
Scientists introduce a method using programmable metasurfaces to achieve highly accurate, wireless hand gesture recognition, overcoming challenges in existing technologies.
This metamaterial-based e-skin integrates multiple sensory inputs, including pre-contact detection and self-powered operation, advancing wearable and robotic technologies.
A new multifunctional metamaterial with adaptable electromagnetic properties offers innovative solutions for stealth technology, improved signal clarity, and enhanced medical imaging.
Researchers develop gold nanohexagon superlattices with extraordinary optical properties, paving the way for advanced near-infrared technologies in imaging and communications.
Researchers develop flexible metasurfaces using industrial knitting techniques, potentially revolutionizing portable antennas and electromagnetic devices for communications and sensing.
Flat optics metasurfaces enable enhanced, compact, and versatile quantum light sources for applications in quantum communication, sensing, and imaging.