
AI workloads are outpacing network capabilities, leaving expensive chips idle. Mark Rushworth explains why the switch is the bottleneck and how to fix it.
Will any major AI networking switch vendor announce a new product targeting AI workload bottlenecks by July 31, 2026?
Resolves by Jul 31, 2026
AI systems are experiencing a critical bottleneck: while compute chips have become extremely powerful, the network switches that connect and coordinate data flow between them cannot keep pace, leaving expensive chips idle more than half the time during training. As AI workloads demand higher bandwidth speeds, switches become the limiting factor in overall system performance, and simply upgrading cables and connection speeds does not solve this underlying problem. The industry developed network components independently rather than designing them together as an integrated system, resulting in wasted capacity and underutilized computing power. Fixing this requires redesigning the network architecture starting from actual AI workload patterns and moving toward more sophisticated switching technologies that can handle the dynamic, asymmetric traffic patterns of AI systems.

PUCT staff backs ERCOT’s proposed operating conditions in an early test of Texas’ new framework for colocated data centers.

The news comes about a week after OpenAI announced its own custom AI chip in a partnership with Broadcom.

Google reported that its annual electricity consumption rose by 37 percent in 2025—the largest increase in the company’s history as Silicon Valley’s AI data center buildout continues. But the tech giant says it kept operational carbon emissions down by continuing to purchase massive amounts of clean energy. The company’s latest sustainability report acknowledges that Google’s total electricity usage has increased by more than 250 percent since 2019, which the company attributed to ongoing growth
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