CCID reports that AI inference data volume in China has surpassed training data volume, reaching 175 trillion daily token calls
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CCID reports that AI inference data volume in China has surpassed training data volume, reaching 175 trillion daily token calls

According to a report published on October 31, the volume of data used for artificial intelligence inference in China has exceeded the volume of data used for training for the first time. This conclusion was drawn by the China Center for Information Industry Development (CCID), a research institute under the Ministry of Industry and Information Technology. The news was reported by CCTV News on November 1, citing IT Home.

CCID notes that this shift signals China's transition from a phase focused on model development and training to a stage of large-scale industrial application. In the report, which lists ten trends in new type and new quality innovations, daily token calls in China were estimated at over 175 trillion as of June 2026. This is more than a thousand times higher than the level recorded at the beginning of 2024.

Furthermore, CCID indicates that the iteration cycle for leading large models has shortened from several months to several weeks or even days. According to the institute, AI is moving from the laboratory stage of data input to the industrial stage of data utilization.

The report links this trend to manufacturing. Under China's 'AI Plus Manufacturing' initiative, over 500 high-level 'smart factories' have been built across 31 provincial regions, covering over 80% of major production categories. Domestic computing power and large models supporting functions such as personalized customization and full lifecycle services have been implemented in more than 1000 application scenarios across 20 industries, including automotive and metallurgy.

Demand is also high among consumers. According to a report released by the China Internet Network Information Center in September, by the first half of 2026, there were over 700 million generative AI users in China, representing a penetration rate above 50%.

This transition is significant for computing resource planning. When inference surpasses training, the cost, speed, and reliability of daily token servicing become as critical as the size of the next training cycle. It should be noted that token volume estimates vary depending on the source and measurement method. In a separate report by the Chinese Academy of Information and Communications Technology in October, daily token consumption was estimated at approximately 500 trillion in June. However, the reports based on CCID's findings did not clarify the methodology for measuring inference and training data volumes.

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How the UAE is building AI potential through infrastructure and talent despite its small size
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How the UAE is building AI potential through infrastructure and talent despite its small size

Artificial intelligence is increasingly perceived as a competition intended for very large states. According to Stanford University's AI Index for 2026, private US investments in AI reached nearly $286 billion last year, more than 23 times the figure in China.

Training and launching advanced models requires enormous computational infrastructure, expensive chips, electricity, and a relatively small pool of highly skilled specialists. Nevertheless, two countries with populations and domestic markets significantly smaller than these two global powers have managed to position themselves unusually close to the center of this race.

The United Arab Emirates (UAE) is channeling significant capital into developing computational infrastructure, models, and international technology partnerships. Singapore, meanwhile, has spent years building a digital government, AI governance mechanisms, a research base, and one of the most concentrated pools of AI talent.

According to Spring Fu, Managing Director of the Mohammed bin Zayed University of Artificial Intelligence Academy, attempting to fully replicate the technology ecosystem of America or China is not a realistic goal. She argues that a medium-sized country cannot expect leadership in all areas but can leverage its size as an advantage in specific fields.

You Cannot Win Everywhere

For small states, this means accelerating government operations, concentrating resources on chosen capabilities, and becoming valuable partners within the AI ecosystem, which is not controlled by any single country.

The UAE's most notable bet is on computing power. Plans include creating the Stargate UAE computing cluster, with a capacity of one gigawatt, as part of a broader UAE-US AI campus totaling five gigawatts in Abu Dhabi. The project is being implemented by G42, with OpenAI and Oracle managing it, and Nvidia supplying the advanced chips. The first phase, with a capacity of 200 megawatts, is expected to go live this year.

Singapore faces a different physical reality. It already possesses over 1.4 gigawatts of data center capacity, but the island nation is constrained by land resources and a tropical climate that makes cooling energy-intensive. Data centers consume about 7 percent of national electricity, according to its Infocomm Media Development Authority. Instead of unlimited expansion, Singapore selects new capacity based on energy efficiency and strategic value.

This comparison demonstrates why there is no single formula for becoming an AI powerhouse. Abu Dhabi can use land, energy, capital, and geopolitical partnerships to create colossal computing infrastructure, whereas Singapore must derive maximum benefit from stricter physical limitations.

Both countries are heavily dependent on access to the outside world. Fu emphasizes that for a small state, international partnership is not an addition to national capability but an integral part of its construction, concerning access to chips, joint research, and attracting major international companies.

This dependency is not necessarily a weakness, as even the world's largest AI ecosystems rely on international supply chains for chips, manufacturing equipment, energy, models, and expertise. The question for small states is what capabilities they need to control independently and what they can reliably obtain through partners.

Fu believes that people are a more serious constraint. She notes that computing power can be bought or created, and capital can be quickly directed, but without people capable of utilizing this infrastructure, launching AI systems within organizations, and making informed decisions as regulators and buyers, investments remain unused.

Her definition of AI talent goes beyond a few elite researchers. The country needs not only these researchers but also many more engineers and practitioners capable of implementing technologies, as well as another group that receives less attention: leaders who understand AI well enough to decide where and where not to apply it.

Singapore offers one such strategy. Last year, it had the second-largest concentration of AI talent in the world, with 1.82 percent of LinkedIn users classified as AI talent in the Stanford index. Currently, the country aims to train 100,000 workers to become 'AI bilingual,' combining knowledge of their current profession with the ability to use AI, while helping 10,000 enterprises deepen adoption over the next three years.

The UAE is also moving quickly in this direction. Stanford found that the concentration of AI talent in the country grew by 121 percent between 2019 and 2025, the fastest growth among measured countries. The federal government is also collaborating with MBZUAI to develop expertise in agentic AI among 80,000 civil servants, including senior management and non-technical positions.

Fu's own program is a smaller example of this third level. Twelve UAE leaders spent five days in Singapore in September, studying the country's approach to AI policy, industry, governance, and talent, meeting with government bodies, multinational corporations, and local companies. The goal was not to train them in engineering but to enhance their decision-making capacity regarding the technology.

This exchange became part of a broader relationship. A few days later, the Abu Dhabi-Singapore Joint Forum identified AI and capacity building as areas where cooperation between the two parties would expand.

Perhaps the more complex question is how to determine if all this investment volume has yielded anything long-term. Fu notes that 'activity is easy to generate: announcements, pilots, startups, and signed conference partnerships. But seeing and imitating it is harder.'

Her criteria are more demanding: Is AI working within core government and industry operations, or is it remaining in innovation labs? Can the country develop and retain the necessary personnel? Are procurement rules, data systems, regulators, and testing standards mature enough for large-scale deployment? And will these capabilities withstand changes in technology, leadership, and funding?

Singapore is increasingly focusing on this less visible institutional level. Its National AI Strategy was updated this year, and the National AI Council was established in February, chaired by Prime Minister Lawrence Wong. Its AI governance work has also shifted towards agentic systems, updating frameworks this year based on feedback from over 60 organizations and examples of agents already operating within companies and governments.

Meanwhile, Abu Dhabi is actively integrating AI directly into the government. Last month, its Executive Council used an agentic AI platform for the first time to support analysis and discussion during a session chaired by Crown Prince Sheikh Khaled bin Mohammed bin Zayed Al Nahyan.

It is here that the argument about small states becomes more interesting than just counting data centers or investment announcements. Neither Singapore nor the UAE can compare with the United States in private capital or with China in industrial scale. Their bet is that they do not need to.

For small countries, AI potential may depend on carefully selecting what to build, developing sufficient people to use these technologies, having institutions move fast enough to implement them, and maintaining relationships that ensure access to everything else. A data center without talent is infrastructure. Talent without computation is potential. Partnerships without institutions to utilize them remain mere announcements. The hardest achievement is turning all three into real opportunities.

China Telecom releases Xing4.0-29B-Intent model for converting commands into structured parameters
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China Telecom releases Xing4.0-29B-Intent model for converting commands into structured parameters

The XingChen AGI Lab at China Telecom Artificial Intelligence Technology has made the Xing4.0-29B-Intent model available. This model is designed to perform a narrow but extremely important task in the field of AI agents: determining user intent and subsequently filling in the precise parameters required by the system to execute those actions.

Many intent recognition models are limited to mere classification. They might recognize that a user wants to adjust the lighting, but they cannot specify which lamps, what level, or which devices should remain unchanged. The Xing4.0-29B-Intent model combines intent classification and parameter extraction within a single pass.

Upon receiving a prompt, the model outputs a unified structure in JSON format, which includes a category field for the detected intent and an arguments (args) field containing extracted entities, values, and attributes. If a single sentence contains multiple commands, the model generates multiple intents, each with its own arguments.

The model was fine-tuned on the base XingChen 29B model and optimized for semantic parsing and structured output generation. The development team reported that the latency for end-to-end inference is less than 150 milliseconds, and the schema-based output constraint minimizes formatting errors.

According to testing results, the team recorded a Micro-F1 score of 70.27 in zero-shot cold start mode, which they claim surpasses GPT-4.1, and achieved an exact match rate of 61%. In a broader evaluation covering named entity recognition, relation extraction, event extraction, and conversational speech understanding, the overall score was 58, nine points higher than Gemini-3.6-Flash, which ranked second. These results are proprietary data from the team.

In practical tests published by Zhidx, the model successfully separated settings for different light sources in one command, ignored devices the user asked not to touch, maintained the original meeting duration of 30 minutes across several rounds of changes, and did not treat instructions written within a memorandum as new tasks. However, in one test involving a car window, the model made an error by returning a setting of 0% for the rear windows, which could have altered their current position.

The release includes not only the model weights. Two.753 million samples of controlled fine-tuning were used for training, collected from 61 public datasets across 19 domains and 52 languages, which the team calls the largest open-source corpus for intent understanding. Related work on intent data for phone interactions was accepted at the EMNLP 2026 conference. The code is available on GitHub under the TeleChat-USP project under the Apache 2.0 license, while the model itself and the dataset are hosted on Hugging Face and ModelScope along with an inference SDK and official image.

Planned application areas include smart spaces, in-car assistants, office workflows, and personal agents.

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