The long-standing challenge of AI computing costs has reached a critical inflection point. According to a report by The Information citing sources familiar with the matter, OpenAI engineers disclosed during an internal presentation earlier this month that the company has successfully developed a new model inference optimization scheme capable of cutting model operating costs by more than half.

The technology’s effectiveness has already been validated in a specific deployment scenario. When applied to handling ChatGPT requests from visitors—users who are neither free account holders nor paid subscribers—the number of high-end Nvidia GPUs required plummeted from the previous scale of tens of thousands of units down to just a few hundred, representing a revolutionary leap in efficiency.

Sources indicated that OpenAI engineers demonstrated these results internally, though the company has yet to publicly disclose the specific technical details behind such a staggering efficiency gain.

Multiple Theories on the Technical Approach

While OpenAI remains tight-lipped about its core technical solution, industry observers have mapped out several plausible pathways based on current mainstream directions in AI inference optimization.

Analysts note that optimization methods capable of halving inference costs are rarely a single technique but rather a combination of multiple approaches. Quantization compression is among the most common paths, reducing model computation precision to gain significant improvements in speed and power consumption. Key-value caching technology effectively avoids redundant computation for identical or similar queries by directly reusing previously generated results. Batch processing strategies consolidate multiple query requests for combined processing, spreading the computational overhead of individual inferences. Additionally, intelligently routing simple requests to lightweight, lower-power models while reserving heavy-duty models for complex tasks is a widely adopted efficiency measure across the industry.

These technologies are not unique to OpenAI, but the ability to slash GPU requirements from tens of thousands to just hundreds in actual deployment suggests the company has achieved a breakthrough in engineering implementation that far surpasses its peers.

Custom Chip Initiative Surfaces

The leap in inference efficiency is not OpenAI’s only path to reducing computing costs. The company’s previously reported joint ASIC chip project with Broadcom is rewriting the cost structure from the hardware level.

Codenamed “Jalapeño,” this ASIC chip project is designed from the ground up specifically for large model inference. Unlike general-purpose GPU architectures, custom chips are unburdened by computing modules unrelated to AI, such as graphics rendering, enabling the most efficient matrix operations on a streamlined circuit. Once freed from the constraints of general-purpose architectures, hardware breakthroughs deliver not incremental upgrades but a fundamental restructuring of costs—potentially cutting inference costs directly by up to half.

Software-level optimization techniques and hardware-level custom chips are forming a dual-force multiplier. On one hand, optimization schemes dramatically improve the utilization of existing GPU clusters; on the other, once in-house ASICs enter mass production, they will fundamentally reduce dependence on Nvidia’s high-end GPUs.

A Shift in Computing Power Dynamics

Behind this wave of technical breakthroughs lies a deeper restructuring of power dynamics across the AI industry ecosystem.

For years, Nvidia has leveraged the absolute dominance of its GPUs in AI training and inference to control the industry’s computing pricing power and capacity allocation. Major AI firms, locked in a race for model scale, have been forced to channel enormous capital expenditures into Nvidia hardware procurement, leaving their cost structures highly vulnerable to external control.

But as leading AI companies gradually secure autonomous computing sources, this landscape is beginning to crack. Once OpenAI’s inference optimization scheme is deployed at scale, it means the same computing power can support far more user requests—or the same user base can be served with significantly less hardware investment. As dependence on Nvidia GPUs progressively diminishes, general-purpose hardware capacity and pricing power will no longer constitute a bottleneck constraining AI service expansion.

For the generative AI industry, long plagued by exorbitant computing costs, this serves as a powerful shot in the arm. Effectively reducing reliance on expensive GPUs will not only substantially improve OpenAI’s own financial structure—offering a glimpse of profitability for a business model built on burning cash for growth—but also accelerate the proliferation and adoption of AI technology across a broader range of scenarios. When inference costs cease to be astronomical, price reductions and market expansion for AI services become viable.

OpenAI has yet to issue an official response to this report, and further details of the relevant technical solutions await subsequent disclosure from the company.