A team of researchers at MIT has successfully controlled quantum randomness from the vacuum, a milestone in quantum technologies. By injecting a weak laser bias into an optical parametric oscillator, they have created a controllable source of 'biased' quantum randomness, enabling probabilistic computing and ultra-precise field sensing.
A team of researchers from MIT has developed an algorithm to solve hard combinatorial problems using optical machines. This breakthrough has the potential to revolutionize fields such as biology, drug discovery, and routing/scheduling by leveraging the advantages of optical hardware integrated into silicon photonics.
Researchers at MIT have extended Maxwell's electromagnetism to smaller scales, bridging the gap between macroscopic and nanoscale phenomena. The new model incorporates electronic length scales, enabling nonclassical effects such as nonlocality and surface-enabled Landau damping.
A team of MIT researchers has developed a novel way to recycle unwanted infrared light from thermal emitters like incandescent bulbs, improving their efficiency and reducing waste. The innovative design features nanophotonic structures that spectrally filter emitted light, allowing visible light to pass through.
Researchers find Weyl points, predicted by Hermann Weyl in 1929, in photonic crystals, opening a new area of photonics. The discovery paves the way for new photonic phenomena and applications, including angularly selective materials and powerful single-frequency lasers.
A new approach to produce transparent projection screens has been developed by a MIT team, enabling wide viewing angle, scalability to large size, and low cost. The technology uses color-sensitive nanoparticles to create a material that lets most ambient light pass through while scattering specific colors for high-resolution images.
Researchers at MIT have discovered a new platform that enables dramatic manipulation of organic molecules' emission by suspending them on top of a carefully designed planar slab with a periodic array of holes. This platform has important implications for applications such as bio-imaging, bio-molecular detection and the development of o...
Researchers have implemented topological photonic crystals that completely prohibit light wave back-reflections, allowing microwave light to propagate in a one-way structure. This concept may lead to reduced internal connections and improved performance in light-driven circuits.