NVIDIA Vera Rubin based AI data centers could cost as much as $47 billion for every gigawatt of installed capacity, according to new estimates from Foxconn. The report also suggests that a 1GW facility could face annual electricity costs of roughly $1.3 billion, showing how rapidly the price of building AI infrastructure is rising.
The numbers underline the scale of the next generation AI race. Companies are no longer building small server clusters for experiments or limited workloads. They are planning huge facilities filled with thousands of AI server racks, designed to train and run advanced models for cloud providers, governments, enterprises, and AI developers.
Vera Rubin is expected to succeed NVIDIA’s Blackwell architecture and could push AI infrastructure spending to a new level.
A single Vera Rubin data center could need thousands of racks
Foxconn estimates that a 1GW AI data center based on NVIDIA Vera Rubin hardware could require around 3,557 server racks. Each rack may cost about $9.1 million.
That puts the hardware cost alone at an enormous level before including land, buildings, cooling, power equipment, networking, and operating staff.
| Vera Rubin AI data center estimate | Reported figure |
|---|---|
| Total capacity | 1GW |
| Estimated construction and hardware cost | Up to $47 billion |
| Number of server racks | Around 3,557 |
| Estimated cost per rack | Around $9.1 million |
| Annual electricity cost | Around $1.3 billion |
| Hardware depreciation cost | Estimated at six times the yearly power bill |
The scale makes clear that only the world’s largest technology companies, cloud providers, governments, and well funded AI firms may be able to build these facilities directly.
Power costs are becoming a major part of AI spending
The annual electricity cost of a 1GW Vera Rubin facility could reach about $1.3 billion. That figure is already extremely high, but Foxconn reportedly expects hardware depreciation to be even more expensive.
If hardware depreciation is six times the annual electricity bill, operators could be dealing with several billion dollars in yearly equipment value loss as newer AI chips arrive and older systems become less competitive.
This is one of the biggest challenges facing the AI industry. Building the infrastructure is expensive, but keeping it current may become even more costly.
AI hardware is evolving quickly. A company that spends billions on one generation of accelerators may feel pressure to upgrade within a few years to remain competitive with newer systems.
Vera Rubin is expected to push agentic AI infrastructure further
NVIDIA Vera Rubin is expected to target the next phase of AI computing, often described as agentic AI. These systems are designed to do more than answer questions or generate text. They may carry out multi step tasks, use tools, plan workflows, process large amounts of information, and support more autonomous software systems.
That requires more compute power, more memory, faster networking, and much larger data center deployments.

Blackwell has already raised the scale of AI hardware, but Vera Rubin is expected to take that further. This is why companies are planning multi gigawatt facilities rather than smaller expansions.
Data center power demand could more than double by 2030
The wider data center market is expected to grow quickly through the end of the decade. Estimates suggest global compute infrastructure could consume around 174GW of power by 2030, more than double the level required in 2024.
To support that growth, the industry may need to add roughly 18GW of new electrical capacity every year between 2025 and 2030.
That creates pressure far beyond the chip industry. Utilities, construction companies, energy producers, networking suppliers, cooling firms, and governments all need to prepare for a much larger demand for power.
| AI infrastructure challenge | Why it matters |
|---|---|
| Power generation | AI facilities need huge amounts of electricity |
| Grid capacity | Existing power networks may not support large new campuses |
| Cooling systems | Dense AI racks create more heat than traditional servers |
| Hardware supply | AI accelerators, memory, networking, and packaging remain limited |
| Construction costs | New data centers need land, buildings, and electrical infrastructure |
| Hardware upgrades | Fast chip cycles can raise depreciation costs |
Foxconn sees room for AI technology parks in the United States
Foxconn chairman Young Liu has reportedly suggested building Taiwan style science and technology parks in the United States, particularly in Arizona and Texas.
The idea is based on creating concentrated industrial areas where suppliers, manufacturers, data center operators, and technology companies can work closer together.
Arizona and Texas are already becoming important locations for semiconductor and AI infrastructure investment. Both states have attracted large chip manufacturing projects, major cloud investments, and new data center construction.
A more connected ecosystem could help reduce supply chain delays and support the rapid expansion of AI facilities.
The real AI competition is now about economics
NVIDIA’s Vera Rubin platform may deliver enormous AI performance, but the largest challenge could be affordability. Building a single gigawatt class data center may cost tens of billions of dollars, while operating it could require billions more every year.
This means the future of AI will not be decided only by who has the fastest chips. It will also depend on who can secure enough power, build data centers quickly, manage cooling, and keep hardware spending under control.
Vera Rubin could become one of the most powerful AI platforms ever deployed, but the cost of using it at scale may redefine what it means to compete in the data center market.



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