Kimi AI Blog
Moonshot, Kimi, and China’s “AI Tigers”

The AI infrastructure buildout: chips, fabs, power, and the software harness

Jun 2026

China's "AI Tigers" and the US frontier labs are converging on the same realization: model quality is increasingly downstream of infrastructure. Whoever controls chips, fabrication, power, and the software harness controls the pace of progress. For builders evaluating assistants like AI Chat, the interesting story in 2026 is not a single model—it is the sprawling list of companies entering the infrastructure stack.

Chips: a multipolar accelerator market

NVIDIA dominates globally, but the field has widened: AMD Instinct, Google TPUs, AWS Trainium, Microsoft Maia, Intel Gaudi, and—central to China's ecosystem—Huawei Ascend and a wave of domestic accelerator startups. Export controls have made regional self-sufficiency a strategic priority, which is exactly why so many new silicon entrants are appearing at once.

Networking, materials, and memory

At cluster scale, interconnect and memory often matter more than peak compute. NVLink, InfiniBand, and RoCE Ethernet decide whether a pod scales, while HBM and advanced packaging (CoWoS-style stacking) gate how big a model fits. These materials are supply-constrained, which has turned packaging and memory vendors into infrastructure power brokers.

Power supply and the electric grid

The newest "AI companies" are energy companies. Frontier campuses need hundreds of megawatts to gigawatts, drawing in utilities, independent power producers, gas turbines, and small modular reactor startups. In both China and the US, grid interconnection and power contracts now set the timeline for when clusters come online.

Cooling and the physical plant

Air cooling has hit its ceiling. Direct-to-chip liquid cooling and immersion are now standard for dense racks, bringing fluid engineering and facilities specialists into the AI supply chain alongside server and rack manufacturers.

Foundries, fabs, and manufacturing deals

Leading-edge capacity sits with TSMC, Samsung, and a reviving Intel Foundry, while China invests heavily in domestic fabs. The notable pattern is custom-silicon co-design: Google with Broadcom, Amazon's Annapurna Labs, and OpenAI's reported work with Broadcom and TSMC. Advanced packaging capacity has become as strategic as the wafers themselves.

The inference board challengers

Groq
LPUs offering deterministic, low-latency token streaming for fast interactive inference.
Cerebras
Wafer-scale engines that keep large models on a single die and cut inter-chip overhead.
Etched
The transformer architecture etched into silicon (Sohu) for extreme fixed-architecture throughput.
Taalas
Compiling specific models into dedicated hardware, chasing large efficiency gains.

The software harness

Above the hardware sits the harness—inference servers, model routers, gateways, evaluation and observability platforms, and AI-native IDEs. Most production calls run through wrappers handling caching, grounding, and fallback. Assistants such as Chat AI and ChatGTP are the visible face of this harness, and their reliability is mostly a property of the orchestration layer.

Final take

Whether you track the AI Tigers or the Western hyperscalers, the same lesson holds: the infrastructure race is now the AI race. Builders who understand chips, fabs, power, cooling, and the software harness will make better bets than those chasing benchmark headlines alone. Many teams keep ChatGBT in their comparison set while they tune the stack underneath.