Researchers at the University of Utah have introduced a novel chiral photonic device that merges light manipulation and memory storage for advanced optical computing.
The device features a heterostructure incorporating aligned carbon nanotubes, eliminating the need for additional control components in optical systems.
Chiral light, with its rotational properties, carries information efficiently through left-handed and right-handed spirals.
By utilizing carbon nanotubes, the device enables dynamic responses to electrical stimuli, revolutionizing chiral optics.
The device's integration of light manipulation and information storage marks a significant step towards reconfigurable optical computing systems.
With a phase-change material, the device can rapidly transition between amorphous and crystalline states under electrical pulses.
Carbon nanotubes serve dual functions by manipulating chirality and facilitating phase changes, optimizing optical circuit design.
The device's capability to fine-tune circular dichroism enhances memory storage potential in optical computing analogs.
The research's manufacturing techniques and AI integration contributed to the successful assembly of the heterostructure, improving optical circuit efficiency.
The technology allows for orthogonal information channels in optical circuits, enhancing data encoding options and transmission speed.