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<rss version="2.0"><channel><title>AI Infrastructure Analysis</title><link>https://aiinfrastructureanalysis.com/</link><description>Clear explanations of chips, electricity, facilities, networks and the cost of useful AI. Supplier claims, historical measurements and future scenarios are kept distinct.</description><item><title>Micron’s HBM4 ramp shows why autonomy needs more than a faster chip</title><link>https://aiinfrastructureanalysis.com/articles/an-ai-chip-is-only-as-useful-as-the-data-it-can-reach/</link><guid>https://aiinfrastructureanalysis.com/articles/an-ai-chip-is-only-as-useful-as-the-data-it-can-reach/</guid><description>The memory beside the processor helps determine how much an AI system can remember, how many tasks it can serve, and what each task costs.</description></item><item><title>NVIDIA’s Rubin rollout makes AI autonomy a systems migration</title><link>https://aiinfrastructureanalysis.com/articles/a-new-accelerator-generation-is-also-a-migration-project/</link><guid>https://aiinfrastructureanalysis.com/articles/a-new-accelerator-generation-is-also-a-migration-project/</guid><description>A new generation of accelerators also changes cooling, software, networking and the work needed before an agent can run reliably.</description></item><item><title>The new MLPerf tests ask a better question about autonomous AI</title><link>https://aiinfrastructureanalysis.com/articles/how-to-read-an-ai-benchmark-without-buying-the-headline/</link><guid>https://aiinfrastructureanalysis.com/articles/how-to-read-an-ai-benchmark-without-buying-the-headline/</guid><description>Agentic and end-to-end benchmarks broaden the evidence, but a leaderboard still needs to be read against the job a buyer wants done.</description></item><item><title>Google’s Michigan power plan shows what autonomous AI must build outside the server room</title><link>https://aiinfrastructureanalysis.com/articles/a-data-center-s-critical-path-may-begin-outside-its-fence/</link><guid>https://aiinfrastructureanalysis.com/articles/a-data-center-s-critical-path-may-begin-outside-its-fence/</guid><description>New generation, storage and demand flexibility are becoming part of the product plan for companies that want to operate AI at scale.</description></item><item><title>Google’s one-gigawatt flexibility deal separates AI work that can wait from work that cannot</title><link>https://aiinfrastructureanalysis.com/articles/some-ai-work-can-wait-and-that-can-help-the-grid/</link><guid>https://aiinfrastructureanalysis.com/articles/some-ai-work-can-wait-and-that-can-help-the-grid/</guid><description>Demand response could make large computing loads easier to accommodate, provided the promises match the actual workloads.</description></item><item><title>The IEA’s new AI electricity outlook is a capacity warning, not a meter reading</title><link>https://aiinfrastructureanalysis.com/articles/read-the-electricity-forecast-as-a-scenario-not-a-meter-reading/</link><guid>https://aiinfrastructureanalysis.com/articles/read-the-electricity-forecast-as-a-scenario-not-a-meter-reading/</guid><description>Forecasts help explain the scale of the buildout, but mixing scenarios, geography and measured demand can distort the story.</description></item><item><title>Microsoft’s cooling debate shows why autonomous AI still has physical neighbors</title><link>https://aiinfrastructureanalysis.com/articles/zero-water-for-cooling-does-not-mean-zero-environmental-footprint/</link><guid>https://aiinfrastructureanalysis.com/articles/zero-water-for-cooling-does-not-mean-zero-environmental-footprint/</guid><description>A design that avoids evaporating water can still raise questions about noise, electricity and the place where the computing happens.</description></item><item><title>Cerebras’ OpenAI agreement turns chip ambition into a data-center delivery test</title><link>https://aiinfrastructureanalysis.com/articles/the-moment-a-data-center-becomes-real-capacity/</link><guid>https://aiinfrastructureanalysis.com/articles/the-moment-a-data-center-becomes-real-capacity/</guid><description>A large computing commitment creates demand, but useful capacity arrives only after hardware, power, software and customer acceptance meet.</description></item><item><title>NVIDIA’s liquid-cooled Rubin racks put the facility inside the autonomy strategy</title><link>https://aiinfrastructureanalysis.com/articles/rack-density-is-a-facility-decision-not-just-a-server-feature/</link><guid>https://aiinfrastructureanalysis.com/articles/rack-density-is-a-facility-decision-not-just-a-server-feature/</guid><description>The server, its cooling loop and the building are becoming harder to buy as separate decisions.</description></item><item><title>NVIDIA’s photonics push puts the network inside the autonomy cost equation</title><link>https://aiinfrastructureanalysis.com/articles/optical-networking-is-about-moving-the-bottleneck-not-removing-physics/</link><guid>https://aiinfrastructureanalysis.com/articles/optical-networking-is-about-moving-the-bottleneck-not-removing-physics/</guid><description>Larger AI systems need to move information as well as calculate. Optical networking changes where the engineering and investment must go.</description></item><item><title>Jetson Thor brings larger AI models onto robots—and brings the limits with them</title><link>https://aiinfrastructureanalysis.com/articles/why-a-robot-s-computer-cannot-be-treated-like-a-small-cloud/</link><guid>https://aiinfrastructureanalysis.com/articles/why-a-robot-s-computer-cannot-be-treated-like-a-small-cloud/</guid><description>On-device computing can reduce dependence on the cloud, but power, heat and timely decisions still define useful autonomy.</description></item><item><title>A Jetson-powered robot is also a software fleet that somebody must maintain</title><link>https://aiinfrastructureanalysis.com/articles/a-fleet-of-intelligent-machines-is-also-a-software-maintenance-system/</link><guid>https://aiinfrastructureanalysis.com/articles/a-fleet-of-intelligent-machines-is-also-a-software-maintenance-system/</guid><description>Product availability and update tools are only the beginning of keeping autonomous machines consistent in the field.</description></item><item><title>Cerebras’ speed pitch raises the right question: what does a completed AI task cost?</title><link>https://aiinfrastructureanalysis.com/articles/the-cheapest-compute-hour-can-become-the-most-expensive-completed-job/</link><guid>https://aiinfrastructureanalysis.com/articles/the-cheapest-compute-hour-can-become-the-most-expensive-completed-job/</guid><description>Fast inference can make autonomous workflows more useful. The savings depend on the rest of the job, including retries and review.</description></item><item><title>Figure’s Nscale commitment puts the price of future autonomy on today’s balance sheet</title><link>https://aiinfrastructureanalysis.com/articles/the-utilization-trap-in-long-term-compute-commitments/</link><guid>https://aiinfrastructureanalysis.com/articles/the-utilization-trap-in-long-term-compute-commitments/</guid><description>A multibillion-dollar computing plan can secure room to grow, but the capacity still has to arrive and be used productively.</description></item><item><title>Google’s electricity growth shows why efficient AI can still need more power</title><link>https://aiinfrastructureanalysis.com/articles/efficiency-and-rising-electricity-demand-can-both-be-true/</link><guid>https://aiinfrastructureanalysis.com/articles/efficiency-and-rising-electricity-demand-can-both-be-true/</guid><description>Better chips and software reduce the cost of individual tasks. More users and more demanding autonomous workflows can push total consumption higher.</description></item></channel></rss>