The tangible utility of agentic tools like Claude Code has reversed the "AI bubble" fear for many experts. They now believe we are "underbuilt" for the necessary compute. This shift is because agents, unlike simple chatbots, are designed for continuous, long-term tasks, creating a massive, sustained demand for inference that current infrastructure can't support.
Agentic coding tools like Claude Code represent a new, distinct modality of AI interaction, as significant as the advent of image generation or chatbots. This shift is creating a new category of power users who integrate AI into their daily workflows not just for queries, but for proactive, complex task execution.
Investor Brent Beshore's experience demonstrates a step-function change, not a gradual evolution. His firm's agentic AI projects, which failed after months of effort, were completed in minutes using Claude Cowork just weeks later. This highlights the surprisingly rapid transition of agentic AI from a theoretical concept to a practical, value-creating tool.
The focus in AI has evolved from rapid software capability gains to the physical constraints of its adoption. The demand for compute power is expected to significantly outstrip supply, making infrastructure—not algorithms—the defining bottleneck for future growth.
Unlike the speculative "dark fiber" buildout of the dot-com bubble, today's AI infrastructure race is driven by real, immediate, and overwhelming demand. The problem isn't a lack of utilization for built capacity; it's a constant struggle to build supply fast enough to meet customer needs.
Analyst Doug O'Laughlin views agentic coding tools not just as a feature but as a fundamental new scaling paradigm for AI, comparable in impact to the invention of "Chain of Thought," that will permanently alter all information work and accelerate AI capabilities.
Contrary to the idea that infrastructure problems get commoditized, AI inference is growing more complex. This is driven by three factors: (1) increasing model scale (multi-trillion parameters), (2) greater diversity in model architectures and hardware, and (3) the shift to agentic systems that require managing long-lived, unpredictable state.
The current AI investment boom is focused on massive infrastructure build-outs. A counterintuitive threat to this trade is not that AI fails, but that it becomes more compute-efficient. This would reduce infrastructure demand, deflating the hardware bubble even as AI proves economically valuable.
Obsessing over linear model benchmarks is becoming obsolete, akin to comparing dial-up speeds. The real value and locus of competition is moving to the "agentic layer." Future performance will be measured by the ability to orchestrate tools, memory, and sub-agents to create complex outcomes, not just generate high-quality token responses.
The perceived limits of today's AI are not inherent to the models themselves but to our failure to build the right "agentic scaffold" around them. There's a "model capability overhang" where much more potential can be unlocked with better prompting, context engineering, and tool integrations.
The success of personal AI assistants signals a massive shift in compute usage. While training models is resource-intensive, the next 10x in demand will come from widespread, continuous inference as millions of users run these agents. This effectively means consumers are buying fractions of datacenter GPUs like the GB200.