SciTransfer
COCOPOP · Project

High-Capacity Laser Sources for AI Data Center Network Scaling

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Imagine a highway for data where the lanes are already full. Instead of building more roads, this technology allows more cars to travel in the same lane by packing them closer together and moving them faster. It uses a special 'comb' of light to send massive amounts of information through a single fiber with incredible precision.

By the numbers
8x
increase in wavelengths for denser channel packing
10-100x
narrower linewidths for better signal fidelity
6-10x
greater throughput for data traffic
2x
potential improvement in energy efficiency
2.2bn
forecasted market size in USD by 2032
The business problem

What needed solving

Data centers are hitting a physical wall where they cannot add more fibers or wavelengths to handle AI-driven traffic. This creates bottlenecks in bandwidth, power consumption, and signal integrity.

The solution

What was built

A coherent-capable External Laser Source (ELS) based on a chip-scale Silicon Nitride frequency comb and a patented laser array.

Audience

Who needs this

Hyperscale data center operatorsCPO/OIO hardware manufacturersAI infrastructure providersHigh-performance computing architects
Business applications

Who can put this to work

Cloud Computing
enterprise
Target: Hyperscale Data Center Operator

If you are a hyperscale operator dealing with explosive AI traffic growth — this project developed a coherent-capable external laser source that provides 6–10× greater throughput. This allows you to scale networks without increasing fiber count.

Hardware Manufacturing
enterprise
Target: Optical Interconnect Vendor

If you are a hardware vendor dealing with faceplate density limits — this project developed a chip-scale frequency comb that offers up to 8× more wavelengths. This enables denser channel packing in co-packaged optics systems.

AI Infrastructure
mid-size
Target: High-Performance Computing (HPC) Provider

If you are an HPC provider dealing with high power consumption and signal errors — this project developed a laser source with 10–100× narrower linewidths. This results in better signal fidelity and potential 2× improvements in energy efficiency.

Frequently asked

Quick answers

What is the expected cost or price of the solution?

Based on available project data, specific pricing is not provided, but the technology targets a market segment forecasted to grow to $2.2bn by 2032.

Can this be produced at an industrial scale?

Yes, the project uses a chip-scale Silicon Nitride (SiN) frequency comb designed for integration into market-ready ELS modules.

What is the IP or licensing status?

The system utilizes a patented injection-locked demultiplexer laser array developed by Pilot Photonics.

How does this integrate with existing hardware?

The ELS product is designed to integrate into current IM/DD-based systems while providing a seamless transition to future coherent optics.

What is the timeline for market availability?

Pilot Photonics intends to have the COCOPOP ELS on the market within two years of the project's end (after March 2027).

Consortium

Who built it

The project is streamlined with a 100% industry ratio, led by a single SME, Pilot Photonics Ltd. This lean structure suggests a fast-track commercialization path, focusing on moving a patented technology from R&D to a market-ready product without the overhead of academic partners.

How to reach the team

Contact Pilot Photonics Ltd in Ireland for commercial inquiries regarding ELS modules.

Next steps

Talk to the team behind this work.

Contact us to explore integration opportunities for coherent-capable laser sources in your data center architecture.