Advancing AI Requires Major Datacentre and Digital Infrastructure Upgrades

The generative AI boom extends far beyond chat assistants. The wider integration of large language models across various technology platforms and processes will need datacentres and digital infrastructure capable of managing AI workloads effectively. As a result, new datacentre construction is increasing and existing datacentres are being retrofitted with graphics processing units (GPUs) and other AI hardware, leading to premium leasing rates. Because AI-optimised datacentres consume more power, stakeholders are also starting to address power sourcing, potentially with alternative energies like renewables and nuclear. Investments in cell towers and AI devices are expected to grow as well to deliver AI to the average consumer.

We view these dynamics as catalysts that can accelerate growth and boost earnings for the broad datacentre and digital infrastructure ecosystem. For investors, this means numerous opportunities to gain exposure to the AI paradigm shift.

Key Takeaways

  • Industry stakeholders, led by hyperscalers, are rushing to invest in new datacentres capable of delivering AI processing needs.
  • New AI datacentres and many existing datacentres will be fitted with specialised AI hardware, creating opportunities for component suppliers and energy suppliers.
  • Investments are likely to be ultimately directed towards enabling infrastructure such as cell towers and AI devices, which are needed for AI to achieve its potential at the consumer level.

AI Demand Spurs U.S. Datacentre Construction Activity

In the United States, primary datacentre markets are expected to surpass 3,500 megawatts (MW) in construction activity in 2024, the highest level on record.1 In 2023, primary markets across the U.S. witnessed a nearly 25% year-over-year (YoY) increase in datacentre supply, reaching 5,174 MW.2 In Europe, a record 273 MW of new capacity is expected to be built this year.3

The Dodge Momentum Index (DMI), a widely used measure of the value of non-residential building projects entering the planning phase, increased by 6.1% in April to 174.3, and another 2.7% in May to 179.0, largely driven by new datacentre projects.4 Over 25 construction projects valued at $100 million or more in April, and an additional 19 projects in May, contributed to the DMI’s positive momentum.5 Among the largest construction projects in planning stages for April are several datacentres, including the billion-dollar Convergent Tech Park in Remington, Virginia, and the $630 million Dulles Digital Datacentre in Dulles, Virginia.6 For the month of May, the DMI benefitted from a $495 million Prime Datacentre in Fort Worth, Texas and another $481 million Prime Datacentre in Garland, Texas.7

Meanwhile, vacancy rates for existing colocation-based datacentres have reached record lows. According to CBRE, by the end of 2023, vacancy rates in primary U.S. markets fell to 3.7%.8 Simultaneously, rental rates for datacentre capacity in primary U.S. markets are expected to increase by 13% year-on-year (YoY) in 2024, underscoring the growing demand amidst a capacity crunch.9

Additionally, investing aggressively in new capacities to power their own technology platforms and cloud computing businesses are the hyperscalers. As of 2023, the hyperscalers operated nearly 992 datacentres worldwide, with capacity doubling over the past four years.10 The big four, Amazon, Meta Platforms, Microsoft, and Alphabet, are expected to spend $200 billion on capital expenditures in 2024, an increase of more than 35% YoY.11

Amazon is planning an $11 billion investment for a datacentre complex in northern Indiana.12 Google is set to construct a $2 billion datacentre in Fort Wayne, Indiana, and spend an additional $1 billion to improve existing facilities in Virginia.13 Google is also investing globally, with $1.1 billion going to build a datacentre in Finland and over $5 billion for datacentre expansion in Singapore.14 Meta is building a two-building datacentre on a 328-acre campus in Davenport, Iowa, and it’s embarking on a multibillion-dollar datacentre project in Cheyenne, Wyoming.15

AI Processing Creates Opportunities for New Hardware and New Energy

To process AI workloads, new datacentres need a wide array of specialised hardware, which is creating unique tailwinds for specialised component providers. The most prominent example is Nvidia. In just the last 12 months, Nvidia sold nearly $66 billion worth of GPUs to datacentres, helping it ascend to the rarefied air of a $3.3 trillion market cap.16 We expect spending on datacentre accelerators alone to grow at a nearly 30% annual growth rate to top $165 billion by 2030.17

Broadcom, one of the largest suppliers of AI networking solutions and application specific integrated chips (ASICs) for AI processing to companies like Meta Platforms and Alphabet, projects its AI segment revenues to grow by over 50% YoY to $11 billion in Fiscal Year 2024.18 Also, chipmakers Intel and AMD launched new products, including datacentre CPU chips, which are expected to be used widely for AI inferencing applications.19 Other prime examples of the infrastructure needed to support AI workloads include specialised cooling systems for datacentres. High-capacity memory and fast storage solutions are also essential to handle the vast amounts of data processed by AI applications, such as those supplied by SK Hynix or Micron.20

Another significant consideration with AI hardware growth is that it comes with severe power trade-offs. An average ChatGPT query consumes 10 times more power than a regular Google search, resulting in an AI-first datacentre requiring nearly 2.5 times more electricity on average than a traditional datacentre.21 In primary U.S. datacentre markets, where new datacentre construction activity increased by 25% in the first half of 2023, power supply demands increased 19.2% YoY.22

Datacentres currently account for 1–1.5% of global electricity use, but by the end of this decade, it’s expected to exceed 5%.23 Because conventional grids are unable to supply this increase, datacentre companies must resolve their power supply, which is a hurdle that can extend construction completion timelines by 24–72 months.24 Potential solutions include the use of nuclear and renewable energies. For example, Amazon recently acquired a $650 million datacentre project from Talen Energy close to a nuclear power station in Pennsylvania.25 Microsoft and Google joined hands for a partnership with Nucor to source geothermal, hydrogen, and other low carbon energy sources.26

Infrastructure Density and Enhanced Devices Crucial to Bringing AI to Users

Existing mobile connectivity infrastructure is insufficient to handle the massive amounts of data AI systems generate. Seamless connectivity and data transmission to end users requires an extensive expansion and enhancement of cell towers, particularly in dense urban areas. A likely growth segment is small cell towers, which can increase service densification. U.S. cell tower leader Crown Castle expects demand for small cell towers to grow significantly in 2024, even as the telecom industry braces for a 10% drop in capital expenditure.27 Crown Castle’s small cell tower business grew 6% YoY in 2023.28

Edge datacentres, along with content delivery networks (CDNs), are another segment that can play a crucial role in reducing latency and enabling AI systems to process data closer to end users and applications. Edge computing facilitates real-time processing and response that is vital for consumer applications and real-time connectivity.

Also, devices are likely to be optimised for AI. Local inference processing, where AI computations are done directly on the device, will become increasingly important. Smartphone giants like Apple are already moving in that direction. Apple’s latest announcements include the launch of Apple Intelligence, a device-based AI assistant capable of working only on Apple’s latest M-chip hardware and iOS 18.29 This development signals the likelihood of a smartphone upgrade cycle, which could catalyse growth for a long list of component vendors and device manufacturers. Laptops, wearables, Internet of Things systems, and industrial automation setups will require upgrades, including specialised low-power chips and components to efficiently handle AI tasks.

Conclusion: Datacentre & Digital Infrastructure Value Chain Appear Well-Positioned

We believe that the digital infrastructure value chain presents highly investable opportunities as corporate investments in AI continue to grow. Datacentre companies can leverage newly built and enhanced AI processing capacity to upcharge and boost their sales and earnings. Chip and component manufacturers can benefit from an upgrade cycle in processing hardware and devices, fuelled by growing construction of new datacentres. Renewable energy, edge computing platforms, and device makers will provide critical infrastructure. In our view, exposure to these pillars of the AI ecosystem offers an attractive way to play AI’s proliferation.

Related ETFs

GXAI: The Global X Artificial Intelligence ETF (ASX: GXAI) invests in global companies involved in AI development, AI-as-a-service, providing AI compute power, or designing and manufacturing AI hardware.

ATOM: The Global X Uranium ETF (ASX: ATOM) invests in a broad range of companies involved in uranium mining and the production of nuclear components, including those in extraction, refining, exploration, or manufacturing of equipment for the uranium and nuclear industries.