Due to their growing power demand, data centres can set a precedent for how to handle rapid load growth in a way that supports the grid and ensures reliable, resilient, carbon-free electricity. In other words, they can set the template for the coming surges in demand from EVs, buildings electrification, and the new rich-world policies of onshoring industry and manufacturing, explain Alexandra Gorin, Roberto Zanchi and Mark Dyson at RMI. Big, profitable, tech companies – now rapidly growing their cloud computing, cryptocurrency mining, and AI services – are in a very good position to work intelligently with utilities and planners to find optimal solutions. In the U.S. alone, their power demand is projected to reach up to 7.5% of the country’s total electricity consumption by 2030. And many utilities are turning to gas to address load growth or postponing fossil fuel plant retirements, so the need for new pathways is urgent. The authors look at four categories of solutions: maximising energy efficiency, enhancing demand flexibility, getting more out of existing grid infrastructure, and negotiating for additional carbon-free energy and storage. They give examples where big tech firms – like Meta, Amazon, Alphabet and Equinix – are already working with utilities to deliver results commercially, including implementing innovative system solutions and deals on financial incentives. The authors end with recommendations for regulators.
The Data Centre demand surge and its implications
The United States is witnessing an unprecedented surge in data centre power demand, which is expected to double from 2022 levels to 35 GW by 2030. Projected to reach up to 7.5 percent of the country’s total electricity consumption, this level of demand is equivalent to the electricity consumption of nearly a third of (40 million) American homes.
Cloud computing, cryptocurrency mining, AI
This dramatic growth, marked by a record-breaking 4.3 GW of new transactions in 2023 alone, is fuelled by the expanding needs of cloud computing, cryptocurrency mining, and artificial intelligence (AI) workloads, including large language models that require substantial power for operation. The impact of this growth is driving mounting concerns over grid reliability and decarbonisation as these workloads push up against existing grid capacities.
Many utilities are turning to gas as a solution to address load growth, reporting to add 16.9 GW of new gas generation between 2023 and 2027. However, they have other options. Data centre load growth could exceed $100 billion in annual investment directed toward the energy system; this can influence the types of generation, siting decisions, and cost allocations that will be used to meet it.
Data centres can help reshape the energy landscape and set a precedent for larger loads to come from electric vehicles (EVs), onshoring industry, manufacturing, and building electrification. Proactive system-level approaches to address grid reliability and promote carbon-free electricity and storage are critical for overcoming default energy solutions that would add natural gas plants, deploy diesel backup generators, or postpone fossil fuel assets retirements.
Data Centres can support reliability and decarbonisation. 4 solutions…
To support grid reliability and decarbonisation effectively, data centre companies can implement four strategic solutions: maximising energy efficiency, enhancing demand flexibility, getting more out of existing grid infrastructure, and negotiating for additional carbon-free energy and storage. These approaches are critical pathways toward a more sustainable and resilient energy future for data centres that support system-level progress on decarbonisation, not just company-level goals and reporting.
1] Maximise Energy Efficiency
Data centre cooling can consume about 40 percent of the facility’s energy use. The industry has seen significant advancements in cooling technology, transitioning from traditional air-conditioning systems to more efficient solutions like in-row cooling or refrigerant-based heat dissipation. Despite these improvements, the challenge of cooling is intensifying, with typical power requirements per rack in current data centres expected to jump from 10–14 kW to 40–60 kW for AI-ready racks that accommodate resource-intensive GPUs.
An example of a forward-thinking approach to addressing these heightened demands is Equinix’s adoption of AI to dynamically adjust its cooling in response to real-time weather conditions. Through this change, the company achieved a 9 percent increase in energy efficiency.
2] Enhance Demand Flexibility
Enhancing demand flexibility is a critical front in the battle to achieve a reliable, low-emissions grid. Data centres could intelligently shift data processing workloads to times or geographies where the grid is less congested or renewable energy sources are more plentiful. In this way, data centres can play a key role in reducing pressure on peak loads and utilising excess carbon-free electricity that may otherwise have been curtailed.
Alphabet’s spinoff, Verrus, for example, is designing data centres with sustainability as a focal point. By employing software to manage workloads and utilising grid-scale battery storage, Verrus has announced plans for data centres to dynamically reduce their electricity load during peak grid stress periods. This strategic approach can not only lessen the burden on the grid but also aligns data centre operations more closely with the availability of carbon-free electricity.
It is important to recognise that demand flexibility incentives vary among data centres. Cryptocurrency mining operations, for instance, often suspend activities when electricity prices exceed operational profitability, sometimes deriving substantial revenue from demand response programs. In contrast, data centres engaged in AI computations may see little economic incentive to reduce demand based solely on price signals, making their participation less about cost savings and more a strategic decision influenced by broader corporate sustainability goals.
This distinction underscores the importance of policy and regulatory mechanisms to encourage demand flexibility participation across the spectrum of data centre activities. Where such programs do not exist, data centre companies can negotiate with their utilities to design these programs so they support system-level reliability and help avoid using coal and gas generation.
3] Use Existing Infrastructure Better
Interconnection queues and supply chains to add new generation and transmission infrastructure remain steadfast bottlenecks to expanding load. Datacentre companies will need to use existing infrastructure more efficiently if they wish to continue expanding in low-capacity markets.
Grid-enhancing technologies (GETs), which include dynamic line ratings, advanced power flow controls, and topology optimisation, offer more cost-effective and rapid alternatives to traditional transmission upgrades. Datacentre companies could encourage their utilities and transmission owners to deploy GETs to help them connect to the grid more rapidly and with lower transmission and distribution upgrade costs and enhance their ability to meet climate goals through increased integration of renewable energy sources.
In parallel, the Energy Infrastructure Reinvestment program, part of the broader Inflation Reduction Act (IRA), presents an innovative opportunity for data centre companies to add new load, clean generation, or storage at existing coal and gas generation sites by leveraging the same interconnection infrastructure. This “clean repowering” could potentially accelerate the integration of renewables relative to going through the interconnection queue.
Data centre companies should also consider the emissions impacts of where they choose to site new or expand existing facilities – grids and even individual nodes can vary by how much emissions they would generate. Discussing site selection in the context of tariff negotiations and broader utility planning processes between corporations, developers, and utilities may help support the decarbonisation of data centre operations.
4] Negotiate Access to Renewables and Storage with Utilities
Negotiating to add renewable energy and integrate storage with utilities is another pivotal strategy for data centre companies looking to be leaders in the energy transition. Data centre companies could forge novel tariff agreements with utilities or inform utility resource plans to achieve these outcomes for new and expanding facilities.
In fact, Meta’s partnership with the Tennessee Valley Authority (TVA) to establish a green tariff for new solar energy across TVA’s service area is an example of how corporate demand can drive additional renewable energy sources. And Amazon’s innovative energy procurement strategy has led to the repurposing of a 120-year-old Maryland coal mine site into a solar farm. This brownfield conversion project illustrates the transformative potential of aligning corporate renewable strategies with local grid needs.
What regulators should keep in mind
Regulators are in a critical position to shape the energy landscape as data centre demand puts pressure on capacity, emissions, and electricity rates. They can:
- Ensure equitable cost allocation, so that those receiving the benefits of grid upgrades to interconnect these new loads and generation undertake the financial responsibility and risks.
- Encourage utilities to diversify energy portfolios by exploring a variety of generation options, implement GETs, and take full advantage of federal tax incentives like the IRA to limit the need to add more gas and ease the impact on consumers.
- Advocate for transparency and early identification of energy needs and interconnection requirements by both utilities and data centre companies, so regulators can consider the electricity rate impact, community benefits, and resource mix of multiple solutions.
- Promote demand response and renewable energy programs, compelling utilities to design demand response initiatives for data centres and to negotiate tariffs that provide greater access to renewable energy and storage, potentially with data centres volunteering to bear all the incremental costs.
- Forge partnerships with commercial and industrial entities that could help drive faster, more innovative clean energy and transmission infrastructure development in front of and behind the meter.
- Keep in mind that data centre load growth may be the beginning of larger waves of new load. Grids need system-level plans that inform where large pockets of load should be added — like a zoning system but for the grid — to minimise the number of new transmission corridors, substations, and transformers that must be added.
Openness to innovative approaches will be critical for supporting the expansion of a cleaner and more reliable grid.
Conclusion
The data centre industry, propelled by AI, is at a critical juncture. Data centre load growth is likely a practice round for a bigger wave of loads from EVs, onshoring industry, and building and manufacturing electrification.
The significant capital that data centre companies are directing to the energy system could be used to support scaling traditional renewable energy sources like wind and solar, as well as GETs and nascent technologies such as virtual power plants, clean firm generation, and long-duration storage.
The IRA introduced new ways to finance and site these projects and make them accessible to a broader range of electricity customers. However, if data centre companies — as well as other large load customers — only focus on accelerating their own interconnection, and not the broader system-level needs and opportunities, the energy industry could continue on a business-as-usual path, adding more natural gas, installing diesel generators, or delaying fossil retirements, jeopardising both corporate and state sustainability goals.
RMI’s ZEROgrid initiative brings together leading corporations from multiple industries to identify system-level actions that will accelerate grid reliability and decarbonisation. We encourage data centre operators, their customers, developers, utilities, and regulators to participate in driving ambitious, forward-thinking actions that will set an example that other industries can follow for how to grow energy demand while also supporting a reliable, equitable transition.
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Alexandra Gorin is the System Reliability & Resilience Lead at RMI
Roberto Zanchi is a Senior Associate, Carbon-Free Electricity at RMI
Mark Dyson is Managing Director, Carbon-Free Electricity at RMI
This article was first published on RMI.org, and has been reprinted with permission
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Wanda Parisien is a computing expert who navigates the vast landscape of hardware and software. With a focus on computer technology, software development, and industry trends, Wanda delivers informative content, tutorials, and analyses to keep readers updated on the latest in the world of computing.