
The manufacturing process requires precise control of membrane thicknesses around 500 nanometers. The complex nested tube design adds complexity compared to conventional fiber production, though Microsoft is leveraging its resources to address scaling challenges, he added.
“Financial trading was the earliest sector to benefit, with its well-funded operators contributing to the initial development of the technology,” Poletti noted.
Applications are expanding to other high-value segments. “A likely next phase of adoption could involve enhancing the efficiency of AI workloads and enabling more flexible regional placement of data centres,” Poletti said.
Market availability timeline
Microsoft deployed the technology first, but broader industry access appears likely as production scales. “Microsoft was the first to recognize the potential of the technology and to place its trust in it, taking on the initial development risks,” Poletti said. “However, it is reasonable to anticipate that, over time, the technology will reach the broader market and deliver benefits across the entire telecommunications and data communications ecosystem.”
The research showed the technology could operate across wavelengths from 700 nm to over 2,400 nm, potentially enabling much broader bandwidth applications than current telecommunications systems. Modeling suggested optimized designs could achieve even lower losses of 0.018 dB/km with larger core designs.
Industry transformation potential
The researchers concluded their paper by stating the breakthrough “has the potential to enable the next technological leap in data communications.” For enterprise networks facing growing bandwidth demands from AI workloads and digital transformation, the technology offers performance improvements that seemed impossible just years ago.