As AI agents become more sophisticated, they will autonomously seek out and use the cheapest decentralized services for tasks like storage and processing. This creates a relentless, 24/7 market pressure that will continuously drive down the fundamental costs of computing for everyone.

Today's AI computing demand from millions of human users is just the beginning. The real explosion in demand will come from billions of AI "agents" working 24/7. This will double the workforce and create a relentless, round-the-clock need for inference computing, dwarfing current infrastructure requirements.

AI applications often have long waiting periods for model responses or user input, but traditional cloud platforms charge for this idle time. Vercel's "Fluid Compute" is designed so customers only pay when the application is actively processing, making it fundamentally more cost-effective for AI workloads.

Agentic workflows challenge traditional enterprise cloud assumptions. Matt Garman notes that autonomous agents are uniquely sensitive to P999 latency, unlike human developers who tolerate slight delays. Furthermore, agents frequently spin up databases for transient tasks, making standard multi-region 'five nines' durability over-engineered and resource-heavy. Cloud providers must rethink primitives to support high-speed, disposable infrastructure alongside durable storage.

Individuals will soon manage hundreds or thousands of personal AI agents running concurrently. This shift from owning 3-4 physical devices to countless virtual agents will cause a tenfold explosion in an individual's demand for underlying compute, memory, and power resources, reshaping infrastructure needs.

The shift from simple chatbots (one user request, one API call) to agentic AI systems will decouple inference requests from direct user actions. A single user request could trigger hundreds or thousands of automated model calls, leading to an exponential increase in compute demand and cost.

The need for high-availability data centers is an assumption from the training and real-time era. For asynchronous background agents, a distributed fleet of small, cheap data centers with 95% uptime is viable. Failures are handled by a robust control plane that reroutes work, trading P99 latency for unbeatable economics.

The rise of AI agents drives demand for a new computing primitive: secure, small-footprint virtual machines that can start in milliseconds, execute a task, persist state, and then sleep. This optimizes CPU usage for the high-volume, short-burst workflows characteristic of agents.

The largest driver of future energy consumption for AI won't be human-initiated queries on chatbots. Instead, it will be the massive, continuous "machine-to-machine" traffic generated by autonomous AI agents performing tasks, which will ultimately swamp human-AI interaction and create a runaway demand for compute power.