The critical trade-off in AI is between throughput (cost efficiency via batching) and interactivity (low latency for users). This curve dictates infrastructure, model, and application decisions, determining whether a workload is optimized for cheap batch processing or high-value instant responses.

The dominant AI use case will shift from real-time, human-in-the-loop chatbots to long-running background agents. For these agents, which work for hours or days, an extra few seconds of latency is meaningless, unlocking massive cost-saving opportunities by prioritizing throughput over speed.

As frontier AI models reach a plateau of perceived intelligence, the key differentiator is shifting to user experience. Low-latency, reliable performance is becoming more critical than marginal gains on benchmarks, making speed the next major competitive vector for AI products like ChatGPT.

The GPU architecture is economically optimized for slow AI inference, offering a very low cost per token. However, this efficiency plummets when speed is required, as the cost and power per token increase exponentially, creating a market for alternative architectures in high-speed applications.

Model architecture decisions directly impact inference performance. AI company Zyphra pre-selects target hardware and then chooses model parameters—such as a hidden dimension with many powers of two—to align with how GPUs split up workloads, maximizing efficiency from day one.

The focus on GPUs for AI overlooks a critical bottleneck: CPU shortages. AI agents require massive CPU power for non-GPU tasks like web queries and data prep. This demand is straining existing infrastructure and creating new market opportunities for CPU makers like ARM.

The current AI boom focuses on GPUs for "thinking" (Gen AI). The next phase, "Agentic AI" for "doing," will rely heavily on CPUs for task orchestration and memory for context, creating new investment opportunities in this previously overshadowed hardware.

GPUs were designed for graphics, not AI. It was a "twist of fate" that their massively parallel architecture suited AI workloads. Chips designed from scratch for AI would be much more efficient, opening the door for new startups to build better, more specialized hardware and challenge incumbents.

When splitting jobs across thousands of GPUs, inconsistent communication times (jitter) create bottlenecks, forcing the use of fewer GPUs. A network with predictable, uniform latency enables far greater parallelization and overall cluster efficiency, making it more important than raw 'hero number' bandwidth.