DeepSeek's Next Battlefield: The War Quietly Begins in This Fifth-Tier City

marsbit發佈於 2026-08-11更新於 2026-08-11

文章摘要

DeepSeek and other major AI players are quietly shifting their battle for supremacy to the infrastructure front, with Wulanchabu, a small city in Inner Mongolia, emerging as a key battleground. The article details a visit to the massive data center clusters there, highlighting the industry's pivot from a light-asset model of renting computing power to a strategic race to build and control foundational AI infrastructure. Wulanchabu's advantages—low electricity costs (around ¥0.32-0.35 per kWh, 90% green energy), cool climate, and proximity to Beijing—have made it China's largest AI computing cluster. Companies like Alibaba Cloud are deploying modular, prefabricated data center "cabins" that can be assembled on-site in as little as 100 days, dramatically accelerating deployment compared to traditional multi-year construction. This "new Foxconn" model standardizes components for mass production. The drive for efficiency is paramount. Alibaba’s latest architecture flattens design, integrating power distribution, backup batteries, and liquid-cooled server racks into single modules. The ultimate bottleneck is power. As AI training and, increasingly, inference demand skyrocket, electricity cost and availability become decisive competitive factors. The industry faces the challenge of aligning fast-paced computing demand with slower power grid planning. DeepSeek's significant investment in building its own computing center in Wulanchabu underscores this trend: securing large-scale,...

After passing through multiple security checks and having phone camera lenses covered with privacy film, Phoenix Network Technology entered this data center located in Ulanqab, Inner Mongolia. This facility supports the large-scale intelligent computing operations of cloud providers and AI companies, serving as a microcosm of China's AI industry's struggle for computing infrastructure.

Contrary to expectations of dusty scenes, a low, deep hum filled the air—the sound of chilled air roaring through the containerized modules. Orange-and-white massive box-like structures stood in orderly rows, awaiting the insertion of computing cards.

"It can be said that today, not a single card is idle. Delivery translates directly to productivity; faster delivery enables greater customer value," explained Wang Chaoyang, General Manager of Alibaba Cloud Global Data Centers, to us.

Since the beginning of this year, as AI newcomers like DeepSeek have announced plans to build or co-build their own data centers, the industry has been quietly shifting from the light-asset model of "renting space, buying computing power" towards gaining deeper control over the computing power foundation. The corporate logic has also evolved from simply purchasing cards to stockpiling strategic assets, with ten thousand or even a hundred thousand cards becoming the starting threshold.

Ulanqab has thus become a key battleground for AI giants vying for computing power dominance. From self-built data centers with self-developed equipment to modular "containerized" solutions achieving rapid 100-day delivery in leased facilities, a "new Foxconn" model for the AI era is emerging.

Visiting Ulanqab: What's Inside an Intelligent Computing Center?

Ulanqab, a grassland city in central Inner Mongolia with an annual average temperature of just 4.3 degrees Celsius, entered the AI industry's spotlight in mid-year following a recruitment notice from DeepSeek.

Historically known as the "Potato Capital of China," Ulanqab introduced Huawei in 2013 to build its first cloud data center as the mobile internet era dawned, officially kicking off the big data epoch. In the subsequent years, the rise and fall of the internet unfolded here silently in symbols unreadable by humans, with Huawei, Alibaba, Apple, Kuaishou, 21Vianet, and GDS successively establishing a presence.

According to local government data, by the end of 2025, Ulanqab had signed 84 data center projects, 81 of which are intelligent computing centers, with total investments exceeding 500 billion yuan.

In 2026, a new protagonist arrived. DeepSeek began large-scale recruitment for its intelligent computing center in Ulanqab, planning to build an ultra-large intelligent computing center with a total power capacity of 1 Gigawatt (GW) there, simultaneously hiring IDC design and planning engineers.

Following the industry's collective gaze, the veil was lifted on a massive intelligent computing center cluster originally hidden on the grasslands. Phoenix Network Technology also arrived in Ulanqab this August.

"One step west from Beijing, and you're in Ulanqab." Exiting the high-speed rail station, besides the refreshing cool air, eye-catching red promotional banners were visible.

Situated 350 km from Beijing, reachable by high-speed rail in under two hours, with network latency as low as 4 milliseconds, a cool climate year-round, strong winds, dry air, and located away from seismic zones... Most importantly, it's a "price trough" for electricity, with green power accounting for 90% of its supply and electricity prices at 0.32-0.35 yuan per kWh—hosting the same data center in Ulanqab could save 5 billion yuan in annual electricity costs compared to a neighboring city.

With these combined advantages, Ulanqab has become the nation's largest intelligent computing cluster, surpassing all Eastern Data to Western Computing nodes, transforming into a true "City of Tokens."

Alibaba Cloud's data center campus is also in Ulanqab. Here, there is not only a data center Alibaba built years ago but also a newly constructed 5.0 containerized data center delivered in just 100 days using modular design—the latter now handles 80% of Alibaba Cloud's intelligent computing business.

Left: The top of the Alibaba data center office building, featuring a 'Mongolian yurt'-style structure for insulation; Right: Exterior view of the data center.

Here, we discovered that data center construction isn't just about "building houses." Like DeepSeek hiring IDC design and planning engineers, it's full of intricacies. For instance, Alibaba's self-built 2.0 architecture data center in Ulanqab represents the pinnacle of the previous generation's technology. To save power, Alibaba trialed its self-developed Panama Power Supply here, drastically compressing the power transformation process. To conserve water, the data center employs a closed-loop system, even utilizing server-generated heat to warm equipment rooms in winter.

In the power distribution room, our guide explained, "In traditional data centers, the first floor is all infrastructure, with servers on the second. But in our new 5.0 architecture, everything has been 'flattened.'"

This "flattening" essentially means "transforming construction into manufacturing, replacing projects with products," Wang Chaoyang clarified. Everything from the 10kV medium-voltage power distribution and the self-developed Panama Power Supply to lithium battery backup and liquid-cooled IT cabinets is prefabricated inside the containers. On-site, it's merely about positioning the containers like Lego blocks and connecting the cables.

"In the past, building a data center required thousands of workers on site. Now, it's a team of cranes positioning the containers. Our record is from breaking ground on a new building to delivery in four and a half months." The guide revealed that while currently constrained by pulsed shortages of upstream raw materials and components—making the ideal 100-day timeline with "30 days of prefabrication" sometimes difficult to hit perfectly—the assembly phase has been optimized to the extreme.

DeepSeek Joins the Fray, Competing for Computing Infrastructure

In recent years, competition among large model companies has focused on algorithms, data, and model parameters.

But entering the era of ten-thousand or even hundred-thousand-card training, computing power has transformed from a "procured resource" into a strategic asset determining a company's survival.

DeepSeek's heavy investment is a microcosm of this trend. A harsh reality faces all AI race contenders: readily available computing power facilities on the market have long been snapped up. Traditional construction cycles of 12 months or more simply cannot keep pace with the exponential explosion in Token demand. In the context of an AI demand boom, whoever can more quickly secure a large-scale, high-density, low-cost, dedicated computing power foundation holds the ticket to the next round of competition.

Moreover, the rise of Agents has led to an explosive growth in inference demand as well. According to China's National Bureau of Statistics, the national daily Token call volume surpassed 140 trillion in March 2026. This necessitates an even larger scale of data center construction.

The massive Token demand has led to data centers springing up everywhere. Phoenix Network Technology witnessed numerous projects under construction in Ulanqab. In areas like Yiwutang, Bayin, and Chayou Qianqi, besides internet companies like Huawei, Kuaishou, and Alibaba, third-party data service providers like 21Vianet and Zhongjin Data occupy even larger plots.

How to make Tokens operate more efficiently has become a new competitive focus in the AI era.

Wang Chaoyang recalled significant internal opposition when the modular solution was first proposed, deemed too costly. "But once a product iterates and optimizes, costs will inevitably come down." Resistance persisted when seeking partners. "One partner disagreed, saying the cost was too high. Upon review, we found they had overestimated the cost per kilowatt by more than one-third. They later regretted it deeply; they had miscalculated." Wang stated that many partners have now fully accepted the approach.

What made him more aware of the industry shift was the reaction from competitors. "One of our biggest competitors spent three months internally learning it. Hearing we were developing the next architecture made them very nervous. Other partners are also asking when our new standard will be released." Not just domestically; overseas operators are following suit. In his view, this solution has evolved from Alibaba's own exploration into a path the industry is collectively adopting.

Alibaba Cloud has even more ambitious plans for data center construction—"to become the Foxconn of this industry." Through an ODM model, they aim for the supply chain to engage in large-scale manufacturing according to Alibaba's self-developed standards.

Inside the containers, even a power supply module is highly standardized. The guide used the on-site air conditioning as an example: "The market predominantly offers AC air conditioning, but AC to DC conversion incurs losses. Alibaba specifically commissioned a smaller manufacturer to customize DC air conditioning for this architecture." Wang Chaoyang later added that within this modular solution, "each module has undergone optimal debugging," and China's supply chain can fully keep up. "Wherever we want to build in a major base, these manufacturers are willing to follow us and set up local factories."

Wang Chaoyang emphasized that modularization is useless if not achieving over 90%. "If only 30% or 20% is modularized, it only solves part of the product issue. First, it doesn't address overall cost problems; second, it certainly doesn't solve overall delivery timeline issues." He also acknowledged the practical challenge of modularization: "once internally finalized, it's hard to change. Fortunately, we can now continuously iterate. Behind modularization must be versioning and standardization."

This capability to turn data centers into "standard products" could also stir the landscape of the US-China AI race. Wang Chaoyang further mentioned that China's manufacturing capacity is "frightening"; finding a few enterprises in Zhejiang can produce these containerized data centers. In contrast, facing widespread shortages of skilled labor overseas and delivery cycles stretching to 30 months, leveraging modular products from China's supply chain would present a crushing advantage. "When performance catches up with competitors, our Token cost will undoubtedly be at a killer level."

The Ultimate Limit of AI is Electricity

The ultimate limit of computing power is electricity. All efforts toward extreme efficiency and cost control ultimately point to electricity.

"For the same data center, locating it in Ulanqab versus a neighboring city can result in a 50 billion yuan difference in annual electricity costs," said Wang Chaoyang. When data center scales are over ten times larger than before, with single cabinet power heading towards 1000 kilowatts (equivalent to the heat emitted by over ten thousand people), electricity price becomes the sole critical factor besides chips.

However, cheap electricity isn't simply waited for. As AI enters the era of inference explosion, computing power demand presents a "two-way flow"—training workloads head west in a "three-level depth" pursuit of low-cost green power, while inference workloads move east in a "three-level下沉" (sinking) to be closer to economic hubs.

This encounters the current biggest pain point: computing-power-electricity coordination. Wang Chaoyang observed that many current so-called source-grid-load-storage initiatives are essentially for new energy consumption, not genuine computing power coordination. "Electricity delivery takes three to five years, but our computing power delivery is compressed to 100 days. When Tokens are experiencing quasi-exponential explosion, planning coordination is crucial."

Caption: Construction sites are everywhere.

He judges that the gap between current planned scale and actual demand is so significant that it will force the industry to develop explosive solutions within two years. "Power companies are excited but unsure how to participate. Future data centers cannot be rigid loads; they must become flexible, self-regulating systems, allowing computing power to adapt to electricity supply, achieving dynamic balance."

To find balance in water-scarce Inner Mongolia, Alibaba is also relentlessly tackling water usage. In Ulanqab, data centers exclusively use reclaimed water, with benchmark projects achieving a Water Usage Effectiveness (WUE) as low as 0.088, almost negligible water consumption. Wang Chaoyang admitted: "Using more water can save electricity, and low water pricing leads manufacturers to prefer water cooling. But when building ultra-large clusters, social costs must be considered, finding that微妙 (subtle)临界点 (critical point) between optimal cost and greenness."

From the "Potato Capital" to "China's Computing Power Capital," Ulanqab is witnessing a frenzied advance in computing infrastructure. As Alibaba Cloud and others transform data centers from "civil engineering projects" into "products" mass-producible on factory assembly lines, and as new players like DeepSeek also begin building their own computing power foundations along this path, a new paradigm for AI infrastructure, supported by Chinese manufacturing, is emerging.

Inside those orange-and-white containers on the grasslands, Tokens are being produced 24/7. The next chapter of this computing power surge may well be the true arrival of AI普惠 (inclusiveness/accessibility) when these "Chinese solutions" flow globally along the supply chain.

This article is from the WeChat public account "Phoenix Network Technology," author: Phoenix Network Technology.

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相關問答

QAccording to the article, why has Ulanqab become a key battleground for AI giants competing in computing power infrastructure?

AUlanqab has become a key battleground due to its combination of advantages: proximity to Beijing (350 km, ~2 hours by high-speed rail with 4ms latency), low average annual temperature (4.3°C), high green electricity ratio (90%), and extremely low electricity prices (0.32-0.35 RMB/kWh), saving up to 5 billion RMB in annual electricity costs compared to neighboring cities for similar data centers.

QWhat is the core innovation behind Alibaba Cloud's new 5.0 data center architecture described in the article?

AThe core innovation is the 'flattened' modular 'cabin' design. It transforms data center construction from an on-site engineering project into a factory-produced product. Prefabricated cabins containing medium-voltage power distribution, self-developed Panama power supplies, lithium battery backup, and liquid-cooled IT cabinets are delivered to the site. They are then simply hoisted into place and connected, drastically reducing construction time from years to a target of 100 days.

QWhat major shift in strategy for AI companies does the article highlight, using DeepSeek as an example?

AThe article highlights a strategic shift from a light-asset model of 'renting data center space and buying computing power' to deeply controlling the computing power infrastructure itself. Companies like DeepSeek are moving towards building or co-building their own large-scale data centers, treating computing power as a strategic asset to be stockpiled, with thresholds starting at tens of thousands or even hundreds of thousands of GPUs.

QWhat challenge related to power supply does Alibaba Cloud's Wang Zhaoyang identify for the future of large-scale AI computing clusters?

AHe identifies the challenge of 'computing-power coordination.' The delivery timeline for new power infrastructure is often 3-5 years, while modular data center delivery can be compressed to 100 days. This creates a significant planning gap as token demand grows explosively. He argues future data centers must evolve from being rigid power loads to becoming flexible, self-adaptive systems that dynamically balance computing tasks with the available power supply.

QWhat broader industry role does Alibaba Cloud envision for itself through its modular data center approach, according to the article?

AAlibaba Cloud envisions itself becoming the 'Foxconn of the industry.' It aims to use an ODM (Original Design Manufacturer) model, where the supply chain mass-produces data center modules according to Alibaba's self-developed standards. This 'productization' and standardization of data centers could leverage China's manufacturing capacity for a competitive advantage, potentially influencing the global AI infrastructure landscape.

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什麼是 $S$

什麼是 AGENT S

Agent S:Web3中自主互動的未來 介紹 在不斷演變的Web3和加密貨幣領域,創新不斷重新定義個人如何與數字平台互動。Agent S是一個開創性的項目,承諾通過其開放的代理框架徹底改變人機互動。Agent S旨在簡化複雜任務,為人工智能(AI)提供變革性的應用,鋪平自主互動的道路。本詳細探索將深入研究該項目的複雜性、其獨特特徵以及對加密貨幣領域的影響。 什麼是Agent S? Agent S是一個突破性的開放代理框架,專門設計用來解決計算機任務自動化中的三個基本挑戰: 獲取特定領域知識:該框架智能地從各種外部知識來源和內部經驗中學習。這種雙重方法使其能夠建立豐富的特定領域知識庫,提升其在任務執行中的表現。 長期任務規劃:Agent S採用經驗增強的分層規劃,這是一種戰略方法,可以有效地分解和執行複雜任務。此特徵顯著提升了其高效和有效地管理多個子任務的能力。 處理動態、不均勻的界面:該項目引入了代理-計算機界面(ACI),這是一種創新的解決方案,增強了代理和用戶之間的互動。利用多模態大型語言模型(MLLMs),Agent S能夠無縫導航和操作各種圖形用戶界面。 通過這些開創性特徵,Agent S提供了一個強大的框架,解決了自動化人機互動中涉及的複雜性,為AI及其他領域的無數應用奠定了基礎。 誰是Agent S的創建者? 儘管Agent S的概念根本上是創新的,但有關其創建者的具體信息仍然難以捉摸。創建者目前尚不清楚,這突顯了該項目的初期階段或戰略選擇將創始成員保密。無論是否匿名,重點仍然在於框架的能力和潛力。 誰是Agent S的投資者? 由於Agent S在加密生態系統中相對較新,關於其投資者和財務支持者的詳細信息並未明確記錄。缺乏對支持該項目的投資基礎或組織的公開見解,引發了對其資金結構和發展路線圖的質疑。了解其支持背景對於評估該項目的可持續性和潛在市場影響至關重要。 Agent S如何運作? Agent S的核心是尖端技術,使其能夠在多種環境中有效運作。其運營模型圍繞幾個關鍵特徵構建: 類人計算機互動:該框架提供先進的AI規劃,力求使與計算機的互動更加直觀。通過模仿人類在任務執行中的行為,承諾提升用戶體驗。 敘事記憶:用於利用高級經驗,Agent S利用敘事記憶來跟蹤任務歷史,從而增強其決策過程。 情節記憶:此特徵為用戶提供逐步指導,使框架能夠在任務展開時提供上下文支持。 支持OpenACI:Agent S能夠在本地運行,使用戶能夠控制其互動和工作流程,與Web3的去中心化理念相一致。 與外部API的輕鬆集成:其多功能性和與各種AI平台的兼容性確保了Agent S能夠無縫融入現有技術生態系統,成為開發者和組織的理想選擇。 這些功能共同促成了Agent S在加密領域的獨特地位,因為它以最小的人類干預自動化複雜的多步任務。隨著項目的發展,其在Web3中的潛在應用可能重新定義數字互動的展開方式。 Agent S的時間線 Agent S的發展和里程碑可以用一個時間線來概括,突顯其重要事件: 2024年9月27日:Agent S的概念在一篇名為《一個像人類一樣使用計算機的開放代理框架》的綜合研究論文中推出,展示了該項目的基礎工作。 2024年10月10日:該研究論文在arXiv上公開,提供了對框架及其基於OSWorld基準的性能評估的深入探索。 2024年10月12日:發布了一個視頻演示,提供了對Agent S能力和特徵的視覺洞察,進一步吸引潛在用戶和投資者。 這些時間線上的標記不僅展示了Agent S的進展,還表明了其對透明度和社區參與的承諾。 有關Agent S的要點 隨著Agent S框架的持續演變,幾個關鍵特徵脫穎而出,強調其創新性和潛力: 創新框架:旨在提供類似人類互動的直觀計算機使用,Agent S為任務自動化帶來了新穎的方法。 自主互動:通過GUI自主與計算機互動的能力標誌著向更智能和高效的計算解決方案邁進了一步。 複雜任務自動化:憑藉其強大的方法論,能夠自動化複雜的多步任務,使過程更快且更少出錯。 持續改進:學習機制使Agent S能夠從過去的經驗中改進,不斷提升其性能和效率。 多功能性:其在OSWorld和WindowsAgentArena等不同操作環境中的適應性確保了它能夠服務於廣泛的應用。 隨著Agent S在Web3和加密領域中的定位,其增強互動能力和自動化過程的潛力標誌著AI技術的一次重大進步。通過其創新框架,Agent S展現了數字互動的未來,為各行各業的用戶承諾提供更無縫和高效的體驗。 結論 Agent S代表了AI與Web3結合的一次大膽飛躍,具有重新定義我們與技術互動方式的能力。儘管仍處於早期階段,但其應用的可能性廣泛且引人入勝。通過其全面的框架解決關鍵挑戰,Agent S旨在將自主互動帶到數字體驗的最前沿。隨著我們深入加密貨幣和去中心化的領域,像Agent S這樣的項目無疑將在塑造技術和人機協作的未來中發揮關鍵作用。

1.3k 人學過發佈於 2025.01.14更新於 2025.01.14

什麼是 AGENT S

如何購買S

歡迎來到HTX.com!在這裡,購買Sonic (S)變得簡單而便捷。跟隨我們的逐步指南,放心開始您的加密貨幣之旅。第一步:創建您的HTX帳戶使用您的 Email、手機號碼在HTX註冊一個免費帳戶。體驗無憂的註冊過程並解鎖所有平台功能。立即註冊第二步:前往買幣頁面,選擇您的支付方式信用卡/金融卡購買:使用您的Visa或Mastercard即時購買Sonic (S)。餘額購買:使用您HTX帳戶餘額中的資金進行無縫交易。第三方購買:探索諸如Google Pay或Apple Pay等流行支付方式以增加便利性。C2C購買:在HTX平台上直接與其他用戶交易。HTX 場外交易 (OTC) 購買:為大量交易者提供個性化服務和競爭性匯率。第三步:存儲您的Sonic (S)購買Sonic (S)後,將其存儲在您的HTX帳戶中。您也可以透過區塊鏈轉帳將其發送到其他地址或者用於交易其他加密貨幣。第四步:交易Sonic (S)在HTX的現貨市場輕鬆交易Sonic (S)。前往您的帳戶,選擇交易對,執行交易,並即時監控。HTX為初學者和經驗豐富的交易者提供了友好的用戶體驗。

3.0k 人學過發佈於 2025.01.15更新於 2026.06.02

如何購買S

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歡迎來到 HTX 社群。在這裡,您可以了解最新的平台發展動態並獲得專業的市場意見。 以下是用戶對 S (S)幣價的意見。

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