Key Takeaways
- AI data center development costs in 2026 are substantially higher than traditional hyperscale facilities due to GPU density, power infrastructure, and liquid cooling requirements.
- According to JLL's 2026 Global Data Center Market Outlook, average shell-and-core construction costs are projected to reach $11.3 million per megawatt (MW) globally.
- AI-specific fit-outs can add up to $25 million per MW, pushing total project costs significantly higher.
- Goldman Sachs Research estimates next-generation AI facilities typically cost $15–20 million per MW, compared with roughly $10 million per MW for conventional hyperscale developments.
- McKinsey estimates the global AI data center buildout could require $5.2 trillion in capital expenditure by 2030.
- Epoch AI's research suggests a 1-gigawatt AI data center could require approximately $38 billion in upfront capital investment.
- Power infrastructure, GPUs, transformers, substations, and cooling systems have become the primary drivers of cost escalation.
AI Data Center Development Costs 2026
$11.3M
Average Global Construction Cost per MW
JLL 2026 Outlook$25M
AI Fit-Out Cost per MW
JLL 2026 Outlook$38B
1 GW AI Data Center CapEx
Epoch AI$765B
Annual AI CapEx Forecast
Goldman SachsAI Infrastructure Is Creating a New Cost Reality
The AI boom has transformed the economics of data center construction.
Just a few years ago, developers focused primarily on acquiring land, securing utility connections, and constructing hyperscale cloud facilities. In 2026, however, the economics have changed dramatically.
Artificial intelligence workloads require infrastructure capable of supporting tens of thousands of GPUs operating simultaneously. These facilities consume far more power, generate significantly more heat, and demand much higher levels of redundancy than traditional cloud environments.
As a result, AI data center development costs have become one of the most closely watched metrics among investors, infrastructure funds, hyperscalers, utilities, and real estate developers.
The question is no longer whether AI infrastructure will be built. The focus has shifted toward understanding how much it will cost and whether investment returns can justify the unprecedented capital requirements.
➡️ Also Read: AI Data Centers and the Global Electricity Surge: Why Power Is Becoming the New Bottleneck of Digital Infrastructure
JLL Forecasts Construction Costs Reaching $11.3 Million Per MW
One of the most widely cited benchmarks comes from JLL's "2026 Global Data Center Market Outlook," published in January 2026.
According to JLL researchers, global shell-and-core construction costs have risen from approximately $7.7 million per MW in 2020 to $10.7 million per MW in 2025. The firm forecasts costs reaching approximately $11.3 million per MW in 2026, reflecting a sustained compound annual growth rate of roughly 7%.
JLL's analysis highlights how AI workloads are fundamentally changing facility design requirements.
Traditional facilities primarily required server halls, cooling systems, backup power, and networking infrastructure. AI campuses now require:
- High-voltage electrical systems
- Larger substations
- Advanced liquid cooling infrastructure
- Higher rack densities
- Enhanced redundancy systems
- Expanded networking capacity
The report notes that AI-specific technology fit-outs can add up to $25 million per MW, dramatically increasing total project costs beyond shell-and-core construction budgets.
JLL also estimates that cumulative spending on data center real estate and IT infrastructure could approach $3 trillion globally over the next five years.
Global Data Center Construction Cost Growth
| Year | Cost per MW |
|---|---|
| 2020 |
$7.7M
|
| 2025 |
$10.7M
|
| 2026 |
$11.3M
|
Goldman Sachs Sees AI Facilities Costing $15–20 Million Per MW
A similar conclusion emerges from Goldman Sachs Research.
In its May 2026 analysis, "The Assumptions Shaping the Scale of the AI Build-Out," Goldman Sachs analysts examined how changing infrastructure specifications are affecting development economics.
The report notes that traditional hyperscale facilities often cost approximately $10 million per MW.
AI-optimized facilities, however, frequently require between $15 million and $20 million per MW, with costs potentially rising even higher depending on power density, cooling architecture, and redundancy requirements.
Goldman Sachs argues that cost-per-megawatt assumptions have become one of the most important variables influencing long-term AI infrastructure forecasts.
Even small changes in cost estimates can alter projected industry spending by hundreds of billions of dollars.
The firm's broader AI infrastructure model forecasts approximately $765 billion in annual AI-related capital expenditure during 2026, with spending potentially rising toward $1.6 trillion annually by 2031.
Traditional vs AI Data Center Economics
| Metric | Traditional | AI Facility |
|---|---|---|
| Cost/MW | $10M | $15M-$25M+ |
| Cooling | Air | Liquid |
| Rack Density | 10-20 kW | 50-100+ kW |
| Power Demand | Moderate | Extreme |
| Capital Intensity | High | Very High |
Why AI Facilities Cost So Much More Than Traditional Data Centers
Several factors explain the widening cost gap.
GPU Infrastructure
The largest driver is computing hardware.
Unlike conventional cloud facilities that rely primarily on CPUs, AI facilities require large clusters of specialized accelerators such as NVIDIA GPUs and custom AI processors.
High-end GPUs frequently cost more than $25,000 per unit, while large AI clusters may contain tens of thousands of processors.
In many projects, server infrastructure alone exceeds the cost of the physical building.
Power Distribution Systems
AI workloads require enormous amounts of electricity.
Facilities increasingly need:
- Dedicated substations
- High-capacity transformers
- Redundant electrical feeds
- Backup generation systems
- Advanced power management infrastructure
Power infrastructure can represent a substantial portion of overall project budgets, particularly in regions where utility upgrades are required.
Liquid Cooling Systems
Air cooling is becoming inadequate for many high-density AI deployments.
Developers are increasingly investing in:
- Direct-to-chip cooling
- Rear-door heat exchangers
- Immersion cooling systems
- Advanced thermal management infrastructure
Industry estimates suggest liquid cooling can increase upfront capital costs by approximately 7–10%, although it often improves long-term operational efficiency.
AI Data Center Cost Breakdown
| Component | Share of Total Cost |
|---|---|
| GPU / AI Servers | 60% |
| Facility Construction | 20% |
| Power Infrastructure | 12% |
| Cooling Systems | 5% |
| Networking & Other | 3% |
Epoch AI's $38 Billion Gigawatt Data Center Model
One of the most detailed cost analyses available comes from Epoch AI.
In May 2026, researchers Amelia Michael and Ben Cottier published "Total Cost of Ownership of a One-Gigawatt AI Data Center."
Their findings illustrate the extraordinary scale of modern AI infrastructure investments.
According to the report:
- A 1 GW AI facility may require approximately $38 billion in upfront capital expenditure
- Annual operating costs can exceed $900 million
- Servers account for roughly 60% of total ownership costs
- Annualized ownership costs approach $8.5 million per MW per year
The analysis demonstrates how hardware—not buildings—has become the dominant cost component in AI infrastructure projects.
For many investors, this changes the economics entirely, shifting focus from real estate returns toward technology utilization rates and compute monetization.
Where Does $38 Billion Go?
| Category | Estimated Share | Value |
|---|---|---|
| GPU Infrastructure | 60% | $22.8B |
| Buildings | 20% | $7.6B |
| Power Systems | 12% | $4.6B |
| Cooling | 5% | $1.9B |
| Network & Other | 3% | $1.1B |
Recent Developments in this Sector
Several industry analyses provide practical examples of current market pricing.
Alpha-Matica's 100 MW Example
In its November 2025 research, Alpha-Matica estimated that a modern 100 MW hyperscale facility requires:
| Component | Estimated Cost |
|---|---|
| Facility Construction | $900 million – $1.5 billion |
| IT Equipment | $2.5 billion – $4 billion+ |
| Total Project Cost | $3.4 billion – $5.5 billion+ |
The study highlights how IT hardware frequently exceeds facility construction costs by several multiples.
Construct Elements Findings
In February 2026, Construct Elements reported that many AI-optimized projects exceeding 50 MW now require investments surpassing $1 billion before equipment purchases are fully completed.
➡️ Read Also: Investing in Data Center Commercial Real Estate in 2026: AI, Power Demand, and the Next CRE Boom
McKinsey's Multi-Trillion Dollar Buildout Forecast
The scale of future investment becomes even clearer in McKinsey's analysis.
In "The Cost of Compute: A $7 Trillion Race to Scale Data Centers," published in April 2025, McKinsey estimated:
- Base-case AI data center investment: $5.2 trillion by 2030
- Total compute infrastructure spending: $6.7 trillion
- High-growth scenario: $7.9 trillion
The consulting firm estimates roughly 125 gigawatts of additional AI-equipped capacity could be added globally between 2025 and 2030.
Such forecasts explain why infrastructure investors, sovereign wealth funds, pension funds, and private equity firms are aggressively pursuing data center opportunities.
The Global AI Infrastructure Spending Race
| Source | Forecast |
|---|---|
| McKinsey | $5.2T by 2030 |
| Goldman Sachs | $5.3T (2025-2030) |
| JLL | $3T Real Estate + IT |
| BloombergNEF | $600B-$750B Annual CapEx |
The Hidden Cost Driver: Power Infrastructure
One recurring theme across virtually every major report is power.
Researchers from JLL, Goldman Sachs, McKinsey, Bloom Energy, and Turner & Townsend consistently identify electrical infrastructure as one of the fastest-growing cost categories.
Developers increasingly face expenses associated with:
- Transmission upgrades
- Grid interconnections
- Utility capacity expansion
- Transformer procurement
- On-site generation systems
- Fuel cells and microgrids
In some regions, obtaining sufficient power capacity has become more difficult than securing project financing.
The rising cost of transformers and switchgear further compounds the problem, with lead times often extending several years.
➡️ Read Also: AI Data Center Power Crisis 2026: How It is Impacting U.S. Real Estate and Infrastructure Investment
Regional Cost Differences Can Exceed 40%
Location remains one of the most important variables affecting project economics.
According to industry assessments from Turner & Townsend, Cushman & Wakefield, and other market researchers, construction costs can vary by more than 40% between regions.
Factors influencing regional pricing include:
- Electricity availability
- Utility upgrade requirements
- Labor costs
- Land prices
- Tax incentives
- Regulatory complexity
- Supply chain accessibility
Markets such as Northern Virginia continue to command premium pricing due to established ecosystems, while Texas increasingly attracts investment because of stronger power availability and lower operating costs.
Meanwhile, Cushman & Wakefield's 2026 Asia Pacific Data Centre Construction Cost Guide, led by Pritesh Swamy, reported construction costs rising approximately 10% year-over-year across many Asia-Pacific markets due to continued demand growth and supply-chain pressures.
Read the related Post: How Canada’s Renewable Energy Advantage Is Attracting AI Data Center Investment
What Investors Are Watching Most Closely in 2026
Institutional investors are increasingly evaluating AI infrastructure through several key metrics:
Cost Per MW
The industry's preferred benchmark for comparing projects.
Power Availability
Many investors now view utility access as more important than land acquisition.
GPU Utilization Rates
Infrastructure economics depend heavily on maintaining high utilization levels.
Time to Market
Construction delays can significantly impact returns.
Total Cost of Ownership
Long-term operating expenses increasingly influence investment decisions.
Scalability
Developers capable of expanding beyond initial phases often attract higher valuations.
These factors help explain why AI infrastructure has become one of the most capital-intensive real estate and technology sectors in the world.
Investor Decision Dashboard
| Factor | Importance |
|---|---|
| Power Availability | ★★★★★ |
| Cost per MW | ★★★★★ |
| GPU Supply | ★★★★★ |
| Time-to-Market | ★★★★☆ |
| Land Cost | ★★★☆☆ |
| Tax Incentives | ★★★☆☆ |
The AI Infrastructure Spending Race Is Accelerating
Research from JLL, Goldman Sachs, McKinsey, Epoch AI, Alpha-Matica, Construct Elements, Cushman & Wakefield, and other industry analysts points toward the same conclusion: AI data center development costs are rising rapidly because infrastructure requirements are fundamentally changing.
Facilities that once cost around $10 million per MW increasingly require $15–25+ million per MW, while total project costs can climb much higher once GPU clusters, networking systems, and power infrastructure are included.
For developers, the challenge is balancing construction costs, power availability, and deployment speed. For investors, the opportunity lies in a market where demand for AI compute continues to outpace available capacity, despite the enormous capital required to build it.
Core Insights Review contributors publish research-based analysis and editorial insights on commercial real estate, PropTech, smart infrastructure, sustainable construction, industrial real estate, and emerging technologies shaping the future of the built environment.
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