As Data Center Demand Accelerates, Utilities Face a New Risk Landscape

Artificial intelligence, cloud computing, and digital infrastructure are driving unprecedented demand for data centers across the United States. But the challenge is not simply building the facilities; it is generating and delivering enough reliable power to support them.

Power demand is rising faster than infrastructure can be delivered

Artificial intelligence, cloud computing, and digital infrastructure are driving unprecedented demand for data centers across the United States. According to industry estimates, approximately $3 trillion is expected to be invested globally in digital infrastructure by 2030, with U.S. data center growth projected to add nearly 50 GW of electricity demand over the same period.

The challenge is not simply building the facilities; it is generating and delivering enough reliable power to support them.

Many data center projects are designed to come online within 18 to 24 months, while the power generation, transmission, and interconnection infrastructure needed to support them can take three to five years or longer to develop. Utilities, developers, operators, and capital partners are now navigating compressed timelines, supply chain constraints, labor shortages, evolving energy strategies, and increasingly complex contractual obligations.

Why early collaboration is needed

As these projects scale, risk allocation has become one of the most important topics of conversation in the market. Equally important is ensuring that utilities, developers, hyperscalers, investors, and other counterparties engage in early collaborative discussions to right-size insurance requirements and contractual obligations.

Establishing a shared understanding of who is assuming which risks and aligning insurance expectations accordingly can help drive the intended outcomes all parties seek while avoiding the unintended transfer of disproportionate risk.

For utilities and stakeholders supporting data center development, the key questions are no longer simply whether power can be delivered, but:

  • Who bears the risk if timelines slip?
  • Who absorbs the financial consequences of delayed generation or outages?
  • How are contractual obligations structured?
  • What insurance and risk management solutions should be considered?

Why the contract structure matters

The risks associated with powering data centers vary significantly depending on ownership structure, power offtake arrangements, and contractual obligations.

Some projects are developed through regulated utilities, where ratepayer protection remains central to the structure. Others involve unregulated affiliates, private-equity-backed generation entities, or direct arrangements with hyperscalers, including cloud and AI providers.

In some structures, the utility may have limited exposure if power delivery is delayed or interrupted. In others, contractual obligations may create significant exposure to consequential damages, liquidated damages obligations, or replacement power costs.

Understanding the contractual framework early helps stakeholders identify insurance solutions that support the intended allocation of risk.

A practical framework for evaluating data center risk

Rather than approaching every project the same way, utilities and stakeholders can work through a structured framework that evaluates:

  • Ownership structure
  • Regulated vs. unregulated exposure
  • Power delivery obligations
  • Contractual penalties
  • Interconnection responsibilities
  • Capacity commitments
  • Insurance and collateral requirements
The following flow chart illustrates how ownership, contractual obligations, and power delivery structures can influence risk allocation and the types of insurance and financial protections that may be considered.
Energy Yes Yes Regulated Non-Regulated Capacity Green: Solutions Blue: Potential Exposures No No Regulated or non-regulated entity Contracted for energy or capacity? Is the utility responsible for replacement power? Traditional approach – Property Damage Only. Consider Forced Outage Are consequential damages allowed in the jurisdiction? Delay in Startup, Forced Outage, and Business Interruption. fines and penalites not insurable on traditional BI cover. Delay in Startup, Foruced Outage, and Business Interruption

Step 1: Who owns the generation asset?

The first consideration is whether the generation asset sits within a regulated utility structure or an unregulated entity.

In regulated environments, there is often a greater focus on protecting ratepayers from large-scale project risk. Some states may limit the extent to which consequential damages or contractual penalties can ultimately be recovered by the utility or its customer base.

In unregulated structures, however, shareholders, investors, or private entities may bear more direct exposure associated with power delivery obligations, outages, or project delays.

Understanding where the asset sits immediately changes the risk conversation.

Step 2: What are the power delivery obligations?

The next question is whether the utility or generation provider has firm contractual obligations tied to capacity, uptime, or delivery timelines.

Many hyperscale data center agreements contain strict service-level commitments requiring exceptionally high reliability standards, sometimes targeting “five nines” availability, or 99.999% uptime.

If a facility cannot deliver its committed megawatts due to a forced outage, delayed interconnection, equipment failure, or a generation shortfall, the consequences can extend beyond operational disruption.

Depending on the contract structure, stakeholders may face:

  • Liquidated damages obligations
  • Replacement power costs
  • Revenue losses
  • Contract disputes
  • Business interruption exposures
  • Reputational impacts

In large-scale projects, delays alone can cause losses of up to $1 million per day when facilities are not operational as expected.

Consequential damages and replacement power risk

One of the most significant emerging concerns is the allocation of consequential damages when power cannot be delivered as promised under the contract. For example, if a generating asset unexpectedly goes offline, replacement capacity may need to be purchased in real-time energy markets such as ERCOT, MISO, or PJM. During peak demand periods, replacement power costs can increase dramatically.

The question then becomes who ultimately absorbs that financial burden. The answer depends heavily on:

  • Contract wording
  • Indemnification language
  • Insurance structure
  • Counterparty obligations

Not every project transfers the same level of exposure to the utility or operator. In some arrangements, hyperscalers may absorb a substantial portion of the risk. In others, utilities may retain more exposure tied to delivery obligations.

Aligning insurance solutions to the exposure

Once the ownership and contractual framework are understood, insurance and risk management strategies can be aligned more effectively.

Potential solutions should be tailored to the project’s contractual structure and delivery obligations. Depending on the exposure, stakeholders may consider delay-in-start-up (DSU) coverage, forced-outage protection, business interruption solutions, and construction or operational property programs designed to address physical and financial loss scenarios.

Contractual risk transfer provisions, collateral and other financial security arrangements, along with engineering and reliability assessments, can further support resiliency and help ensure that the parties best positioned to manage a particular exposure retain responsibility for it.

For example:

  • A project with minimal delivery obligations may require a different approach than one with strict uptime guarantees and exposure to liquidated damages.
  • A regulated utility structure may require different protections than a merchant generation or private infrastructure arrangement.
  • Renewable-heavy projects may require additional redundancy and reliability considerations because of variability in generation sources.

Beyond selecting appropriate insurance structures, stakeholders should also take practical steps early in the planning process to improve project outcomes and strengthen resilience. These efforts may include:

  • Validating realistic timelines
  • Evaluating infrastructure constraints
  • Assessing supply chain exposure
  • Reviewing contingency and backup plans
  • Stress-testing operational assumptions
  • Building redundancy and resiliency into the system earlier

Conclusion

As data center development accelerates, the market will continue evolving. No two projects will look exactly alike, and the contractual allocation of risk will remain one of the most important differentiators across transactions.

The most effective solutions are rarely one-size-fits-all. Understanding the ownership structure, delivery obligations, and potential financial consequences of an outage or delay allows stakeholders to develop insurance and risk management strategies that reflect the realities of each project and support long-term success.

Contributors

Patrick Maguire

Energy Practice Leader

Rob Logan, Executive Vice President

Energy Practice

Greg Glaser, Senior Vice President

Energy Practice

Todd Pickard, COO, Executive Vice President

Energy Practice

 

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