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October 2026

STL Tech > Newsletter > October 2026

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We wrapped up Yotta 2026 and Capacity Europe 2026 

Thank you for visiting us at Yotta 2026 and Capacity Europe 2026.

At Yotta 2026, we showcased how STL is building next-generation AI data centers; from optical glass to AI compute.

At Capacity Europe 2026, we showcased how STL transforms advanced glass into the optical technologies powering tomorrow's networks. For any further discussions,

Reach out to us today


Meet STLer team at IWCS 2026

Six technical presentations. Two poster papers. One week of serious cable and connectivity conversations. STL is participating in IWCS 2026 in Orlando with research spanning hyperscale data centers, next-generation fiber, fire-safe interconnects, aerial networks, high-fiber-count cable engineering and Single Pair Ethernet. Our STLer Technology and R&D team is looking forward to engaging discussions on how we can shape the future of digital infrastruture together.

STL strengthens its Neuralis portfolio with Pre-Terminated Fiber Trunk Assemblies

STL has strengthened its Neuralis Data Center portfolio with Pre-Terminated Fiber Trunk Assemblies ranging from 48F to 6912F. This is a high-density cabling portfolio purpose-built for hyperscale and enterprise data centers navigating an unprecedented surge in bandwidth demand driven by AI, cloud and high-performance computing workloads.

Read more


Your accelerator will change in 18 months. Your fiber won’t.

Different AI chips create very different demands on the cabling beneath them. Training GPUs drive ultra-high-density trunking at 800G and 1.6T, inference ASICs call for moderate fiber counts and structured cross-connects, and edge NPUs rely on simple duplex patching. Silicon refreshes every 12-18 months, while fiber infrastructure is expected to serve for 10-15 years, so the pathways you install today have to outlast several accelerator generations.
Read full blog here

Build For Scale, Not Rework: How To Future-Proof AI Infrastructure

Today’s AI compute may be replaced in two or three years, while the fibre pathways beneath it may still be in place a decade later. That mismatch changes how AI infrastructure needs to be built. In his latest Forbes Business Council article, STL’s Managing Director Ankit Agarwal argues that the physical layer should be designed for several generations of compute, rather than only for the hardware going into a data centre today
Read the full article here

Hollow core fiber’s next big hurdle isn’t physics – It’s scale

Hollow core fiber (HCF) is often discussed as a latency story. It is also a power story. Because light travels mostly through air rather than glass, hollow core fiber interacts far less with the medium. That allows significantly higher optical power to be launched, which can extend reach and ease the cross-talk limits that appear in conventional single-mode fiber.

So why isn’t it everywhere yet? The challenge is scale, not physics.

STL’s Group CTO, Badri Gomatam, shared this view with Fierce Network.
Read the full article here

STL - beyond tomorrow