Terabit to Exabit

Tb

1 Tb

Eb

0.000001 Eb

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Quick Reference Table (Terabit to Exabit)

Terabit (Tb)Exabit (Eb)
0.10.0000001
0.40.0000004
10.000001
100.00001
1000.0001
4000.0004

About Terabit (Tb)

A terabit (Tb or Tbit) equals 10¹² bits (1,000 gigabits) in the SI system. Terabit-per-second speeds describe internet backbone infrastructure, submarine fiber optic cables, and hyperscale data center interconnects. Consumer applications rarely reach terabit scale, but aggregate traffic does: global internet traffic exceeds hundreds of terabits per second. Storage media rarely uses terabits — terabytes are more appropriate for capacity — but terabit figures appear in enterprise SSD and NAND flash specifications for maximum read/write bandwidth.

A single submarine fiber cable between continents can carry 400 Tbps or more across multiple wavelengths. A hyperscale data center spine switch operates at 25.6 Tbps.

About Exabit (Eb)

An exabit (Eb or Ebit) equals 10¹⁸ bits (1,000 petabits) in the SI system. The exabit is used for describing cumulative global internet traffic volumes over time periods (months or years) and theoretical maximum capacity of entire communication network infrastructures. It sits at the current practical ceiling of data storage and transmission measurement for human-scale systems. Above the exabit, the zettabit (10²¹ bits) and yottabit (10²⁴ bits) exist as SI units but have no current practical application in networking or storage.

Global monthly internet traffic exceeded 400 exabytes in 2022. The total data stored globally is estimated at roughly 100–300 exabytes.


Terabit – Frequently Asked Questions

One terabit per second (Tbps) equals 125 gigabytes per second — enough to transfer the entire contents of a 1 TB hard drive in about 8 seconds. At this speed, you could download the entire Netflix library (estimated at around 100 petabytes) in roughly 800,000 seconds, or about 9 days.

Submarine fiber optic cables (such as the transatlantic cables connecting Europe and the Americas), long-haul terrestrial fiber routes, and the internal switching fabric of the largest hyperscale cloud data centers (Google, Amazon, Microsoft) operate at terabit and multi-terabit speeds. These use wavelength-division multiplexing (WDM) to carry many 100 Gbps or 400 Gbps channels on a single fiber.

Not in the foreseeable future for a single household connection. Current consumer endpoints (laptops, phones, TVs) cannot process or use data at terabit speeds — Wi-Fi 7 tops out around 46 Gbps theoretically. Terabit access would require new hardware at every endpoint. The practical benefit would be minimal since content servers themselves are not yet able to deliver at terabit rates to a single user.

Global internet traffic is measured in exabytes per month. Estimates suggest the internet backbone carries over 1,000 Tbps (1 Pbps) in aggregate during peak hours. Major internet exchange points (IXPs) like DE-CIX in Frankfurt regularly see peak traffic above 10 Tbps, and the largest cloud providers' internal networks operate at multi-petabit scales.

Current 5G mmWave cells can deliver up to 10–20 Gbps aggregate capacity shared among users in a sector. Industry roadmaps for 6G (targeted around 2030) aim for 1 Tbps aggregate throughput per cell site using sub-terahertz frequencies (100–300 GHz), massive MIMO antenna arrays, and intelligent reflecting surfaces. Achieving terabit wireless capacity requires extremely dense small-cell deployments — potentially one access point every 50–100 meters in urban areas.

Exabit – Frequently Asked Questions

One exabit = 10¹⁸ bits = 125,000 terabytes = 125 petabytes. If every person on Earth (8 billion people) each stored 15 GB of data — roughly a modern smartphone's photos and messages — the total would be about 120 exabytes, or about 960 exabits. The entire human genome is about 1.5 GB; sequencing every person on Earth would produce about 12 exabytes of data.

Cisco's annual internet traffic reports estimated global IP traffic at roughly 4.8 exabytes per day in 2022, rising about 20% per year. Expressed in bits, that's about 38 exabits per day or roughly 440 petabits per second continuously. Video streaming accounts for over 60% of total internet traffic volume.

Data gravity is the principle that massive datasets attract applications, services, and additional data toward them — rather than being moved to where processing occurs. At exabit scale, physically transferring data becomes impractical: moving 1 exabit over a 100 Gbps link takes 116 days. Instead, companies deploy compute resources alongside the data. This effect drives cloud concentration — once an organisation stores exabits in AWS or Azure, the cost and latency of moving that data elsewhere creates powerful vendor lock-in, shaping the economics of the entire cloud industry.

The Square Kilometer Array (SKA), under construction in Australia and South Africa, will be the world's largest radio telescope. Its thousands of antennas will collectively produce roughly 1 exabit of raw sensor data per day — more than the entire global internet traffic of the early 2000s. This data cannot be stored in full; instead, on-site supercomputers reduce it by a factor of ~10,000 in real time, keeping only scientifically relevant signals. The SKA illustrates how radio astronomy pushes data processing to extreme scales that rival commercial internet infrastructure.

At 1 Gbps (a fast home connection), downloading 1 exabit would take 1 billion seconds — about 31.7 years. At 1 Tbps (a high-end data center link), it would take 1 million seconds, or about 11.6 days. This illustrates why exabit-scale data movements require massively parallel infrastructure — no single link or device handles exabit transfers directly.

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