AI Infrastructure Strategy: Where Should Workloads Run?

Learn how to place AI workloads across cloud, colocation, and enterprise data centers based on cost, latency, resilience, governance, and long-term scalability.

7 minutes

9th of September, 2026

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AI spending discussions often start with models, use cases, and software. Yet the decisions that determine whether those investments can scale increasingly sit in the infrastructure beneath them.

For enterprise leaders, the question is becoming strategic. Which workloads belong in a public cloud, a colocation facility, or an enterprise data center, and how much capacity should be owned, reserved, or purchased as needed?

These choices shape cost, speed, resilience, and access to compute long after model selection changes. AI infrastructure advantage is becoming a durable part of competitive advantage, so infrastructure planning deserves the same attention as talent and capital allocation.

Why AI Workloads Change Infrastructure Planning

Traditional enterprise compute used to be relatively predictable. Business applications, databases, virtual machines, and storage could be planned around familiar utilization patterns.

AI workloads have introduced a wider range of demand, making things less predictable. Training can require dense, sustained compute for defined periods, while inference may be distributed, latency-sensitive, and tied directly to business activity. Uptime Institute states that AI training clusters can operate near peak power for extended periods, while inference often behaves more like conventional compute.

A Lawrence Berkeley National Laboratory analysis shows how quickly physical requirements can change. In one modeled GPU mix, an AI server had an average rated power of roughly 8 kW. Even a small high-density cluster can change rack, cooling, power, and facility assumptions that worked for traditional workloads.

Workload classification therefore becomes central to AI infrastructure planning. Before capacity is bought, leaders need to understand whether demand is sustained, latency-sensitive, centralized, and likely to become a long-term production service.

Why the AI Data Center Is Becoming an Execution Layer

A data center used to be seen mainly as a place where technology lived. With AI, location and infrastructure design directly influence what the technology can deliver.

An AI data center that can’t support the required power density, cooling, interconnect performance, or expansion path can limit training and deployment. Similar constraints appear when workloads sit too far from data, users, or operational systems and latency begins to affect performance.

A data center strategy therefore belongs inside the AI strategy. Compute placement influences several business outcomes at once:

  • Performance and resilience depend on how closely compute, data, and users need to sit together, and how much disruption critical workloads can tolerate.
  • Cost depends on utilization, reserved capacity, data movement, energy, and operational overhead.
  • Governance depends on where sensitive data is stored, processed, and moved.
  • Flexibility depends on how easily workloads can shift as models and hardware change.

Hybrid and multicloud approaches are most useful when they follow workload needs. Application modernization also matters because legacy dependencies can restrict where workloads move and increase placement costs.

Compute Placement Is Now a Strategic Business Decision

There’s no single best location for enterprise AI infrastructure. Placement decisions need to be made workload by workload, with a clear view of economics in the long term.

Building capacity can make sense where demand is large and stable. Cloud or colocation capacity can provide faster access and more flexibility when demand is less predictable, so many organizations will need a combination. 

Build-versus-buy shouldn’t become a one-time procurement exercise. AI infrastructure costs change as utilization shifts, models evolve, hardware turns over, and data movement grows. A low unit price can become expensive when the architecture creates idle reserved capacity, high transfer costs, or a difficult migration path.

Modern data platforms and flexible cloud or on-premises deployment options help preserve these choices as needs change, allowing workloads to move, rebalance, or retire without making the first deployment decision permanent.

What Separates a Good AI Infrastructure Partner From a Bad One

Service providers now influence capacity, deployment speed, connectivity, and future expansion. A useful partner should explain where a workload should run and why, including when its own environment is not the right fit.

Several questions make the difference clear:

  • Can the provider model economics across different utilization levels rather than quoting one capacity price?
  • Can it support the density, cooling, network, and resilience needs the workload will have as it grows?
  • Are capacity commitments and expansion timelines clear enough for business planning?
  • Can workloads and data move without creating prohibitive technical or commercial friction?
  • Does the provider understand training, inference, data preparation, and conventional workloads well enough to place each appropriately?
  • Are governance, security, observability, and exit terms built into the relationship from the beginning?

A weak provider service may optimize around the capacity available today, while a strong one helps preserve options as requirements change.

Power is still a huge part of the equation, too. The U.S. Department of Energy has highlighted how large-load rate structures are evolving around cost allocation, stranded-asset risk, and supply adequacy. For enterprise leaders, power sits within a wider set of choices about location, commitment, provider risk, and long-term AI infrastructure costs.

AI Data Center Infrastructure Is Becoming a Strategic Asset

A durable AI advantage will increasingly depend on infrastructure choices. As AI moves deeper into operations, compute placement, capacity, AI data center infrastructure, and provider partnerships determine which use cases can scale economically and reliably.

Models and features will keep changing, while infrastructure choices have a longer tail because they shape cost structures, deployment options, and operational constraints for years.

Akkodis helps organizations like yours connect AI strategy with cloud, infrastructure, data, and application modernization decisions, so workload placement is grounded in business requirements rather than a default platform choice. Our teams can help assess where workloads belong and which operating model provides the right balance of control, flexibility, resilience, and cost.

Contact our team today to discuss an AI infrastructure strategy designed around where your workloads should run.