Remi Chauveau Notes
Alphabet’s Taara has unveiled a compact, 17-pound "invisible fiber" device that uses solid-state silicon photonics to beam 25Gbps internet through the air with ultra-low latency, bypassing the need for traditional cables or satellite infrastructure.
Technology 🚀

Taara Beam: Light-Speed Connectivity Without the Cables 💡🌐

25 February 2026
@cnetdotcom Fiber without the actual fiber? Taara's Lightbridge terminals claim to offer fiber internet speeds without the cables by transmitting laser beams that utilize the same spectrum of light used in fiber optics. #whatthefuture #fiberinternet #internetspeed #laser ♬ original sound - CNET

The Weaver of Sunbeams and Stars

Just as Neonblaze captures the raw, atmospheric tension of space and time in Speed of Light", Taara’s new technology mirrors that cosmic intensity by turning invisible light into a high-speed bridge across our urban horizons. The song’s blend of ambient textures and relentless energy finds its physical counterpart in the Taara Beam, where over 1,000 miniature emitters steer data with the same precision and speed that Neonblaze uses to explore the "big questions of existence". In this new era, the "cosmic yet intimate" soundscapes of the music are no longer just metaphorical—they are the literal infrastructure of our world, moving at the velocity of our shared dreams and connecting distant voices through a translucent, solid-state dance of photons.

🎶 📡 ⚡ 🧠 🏙️ 📡 🔦 ⏱️ 🌐 🌍 🎯 🧩 🏛️ 🔊 Speed of Light - Neonblaze




“The day will come when the man at the telephone will be able to see the distant person to whom he is speaking.” — Alexander Graham Bell

🔭 A New Era of Internet Delivered Through Light

Taara, a startup spun out of Alphabet’s moonshot lab, has unveiled a breakthrough device that beams 25Gbps internet using near‑infrared light, offering fiber‑class speeds without laying a single cable. The compact Taara Beam weighs just 17 pounds and can transmit data across 10 kilometers, making it a powerful alternative for regions where traditional infrastructure is slow, costly or impossible to deploy.

📦 A Smaller, Faster Successor to Lightbridge

The new device is 50% smaller than Taara’s earlier Lightbridge system, shrinking from a 29‑pound unit to a shoebox‑sized form factor while boosting throughput from 20Gbps to 25Gbps. This reduction in size and power consumption makes it easier to mount on rooftops, poles or existing infrastructure, enabling rapid deployment in both rural and urban environments.

🚀 A Rival to Starlink With Ultra‑Low Latency

While Starlink relies on satellites, Taara Beam uses invisible light beams to deliver internet with ultra‑low latency under 100 microseconds, far outperforming space‑based systems. This positions Taara as a compelling alternative for ISPs, carriers and enterprises seeking high‑capacity “middle‑mile” connectivity without spectrum licensing or trenching.

🏙️ Built for Cities, Campuses and Data Centers

Taara Beam is designed for dense environments: urban rooftops, enterprise campuses, data center clusters and event venues. It can also integrate with the longer‑range Lightbridge system to create hybrid networks spanning entire neighborhoods or cities. Its ability to offload massive sensor and lidar data from EV fleets or support V2X communication makes it attractive for next‑generation mobility ecosystems.

🌍 Connectivity for Hard‑to‑Reach Communities

Beyond cities, Taara’s mission remains clear: bring high‑speed internet to places where fiber cannot go. Mountains, rivers and remote terrain no longer block access when data can travel through the air at the speed of light. With deployments already spanning more than 20 countries, Taara Beam represents a scalable, resilient and cost‑effective path toward universal connectivity.

#AlphabetTaara ✨ #InvisibleFiber 📡 #FutureOfInternet 🏙️ #Connectivity 🚀 #SiliconPhotonics 🌬️

Taara Photonics

The Solid-State Revolution of Invisible Fiber
The hidden breakthrough behind Taara’s success isn't just the speed, but its transition from mechanical mirrors to Optical Phased Arrays (OPA) on a single silicon chip. Unlike older systems that used physical mirrors to "hunt" for a connection—which were prone to mechanical wear and vibration issues—this new solid-state design uses over 1,000 miniature emitters to steer the light beam electronically in microseconds. This allows the device to maintain a link the width of a chopstick on a target 10 kilometers away with zero moving parts, making it far more resilient to the swaying of city skyscrapers or high-wind environments than any previous laser-link technology.

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