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Open Standard Launches OUSD as Base Introduces Cobalt Upgrade for Programmable Blockchain Transactions

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Open Standard’s launch of OUSD and Base’s Cobalt mainnet upgrade point to two different but increasingly connected trends in crypto: the modernization of stablecoins and the expansion of blockchain infrastructure beyond simple transfers.

They show how the industry is moving toward programmable financial products designed to interact more directly with traditional payments and digital assets. OUSD is positioned as a yield-sharing stablecoin, with the Open Standard initiative bringing traditional financial infrastructure closer to onchain markets.

The backing and involvement of major payment names such as Stripe, Visa and Mastercard is significant because these companies sit at the center of global payments. Their connection to a stablecoin initiative highlights how stablecoins are increasingly being viewed not simply as crypto trading instruments.

But as potential infrastructure for payments, settlement and financial applications. The appeal of a yield-sharing stablecoin is straightforward. Traditional stablecoins generally seek to maintain a stable value against an underlying fiat currency.

While the assets supporting them can potentially generate income. OUSD’s model seeks to connect that underlying economic activity with users, creating a structure where yield can become part of the stablecoin experience.

That model also raises important questions around reserves, transparency, risk management and the distribution of returns. As stablecoins become more integrated with mainstream payment networks.

Users and institutions will increasingly demand clarity about how reserves are held, how yield is generated and what protections exist during periods of market stress.

Meanwhile, Base’s Cobalt upgrade represents another side of blockchain evolution. The mainnet upgrade introduces conditional transactions, allowing transactions to execute according to predefined conditions rather than requiring every action to be manually initiated in a simple one-step format.

This can create new possibilities for automated payments, trading strategies, subscriptions and applications that need transactions to respond to specific events.

The addition of B20 asset functions also expands the kinds of assets and financial logic that can operate within the Base ecosystem. Rather than treating blockchain merely as a ledger for transferring tokens, these capabilities move the network closer to functioning as programmable financial infrastructure.

The significance of conditional transactions becomes clearer when considered alongside stablecoins. A programmable dollar could theoretically be used in transactions that execute only after certain conditions are satisfied.

That could support automated settlements, machine-to-machine payments, escrow arrangements or financial applications where timing and conditions are embedded directly into the transaction logic.

This convergence between stablecoins and programmable blockchains could become one of the defining themes of the next phase of digital finance. Payment companies bring distribution, regulatory relationships and existing user networks, while blockchain networks provide programmability, transparency and composability.

Yet adoption will depend on more than technical capability. Stablecoins must maintain credible reserve structures and user confidence, while blockchain upgrades must demonstrate reliability, security and practical utility.

The industry has repeatedly shown that technological innovation can move faster than consumer adoption. OUSD and Cobalt therefore represent more than two isolated product developments.

They illustrate a broader shift toward financial systems where money, assets and transaction rules can exist within programmable digital infrastructure. If that architecture continues to mature, the boundary between traditional payments and decentralized networks could become increasingly difficult to define.

Tencent Reportedly Strikes $7 Billion Oracle Deal for 100,000 AI Chips in Southeast Asia

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Tencent has reportedly signed its largest overseas cloud leasing agreement with Oracle, securing access to about 100,000 advanced artificial intelligence chips through data centers in Southeast Asia as Chinese technology companies seek additional computing capacity outside the country.

The five-year agreement, reported by the Financial Times on Wednesday, citing people familiar with the matter, is estimated to be worth about $7 billion and would involve multiple Oracle data centers across Southeast Asia. Tencent is also expected to make an upfront payment of about 30%, according to the report.

If confirmed, the scale of the arrangement would highlight the extraordinary computing requirements emerging from China’s AI race, as Tencent and other major technology companies invest heavily in training and deploying more capable models.

More importantly, the reported structure illustrates how Chinese technology companies are seeking access to advanced AI computing capacity through infrastructure outside mainland China as U.S. restrictions limit the availability of leading AI processors inside China.

But Tencent’s reported decision to lease computing capacity in Southeast Asia rather than simply expand its domestic infrastructure points to a broader challenge facing China’s AI industry.

The United States has imposed export controls restricting China’s access to some of the most advanced AI chips, particularly processors from Nvidia and other U.S. suppliers. Beijing has responded by accelerating development of domestic alternatives, while Chinese companies have simultaneously sought other ways to obtain computing capacity.

A five-year Oracle agreement worth roughly $7 billion would mark a substantial commitment to overseas AI infrastructure. The reported 100,000 chips would give Tencent access to a large pool of advanced computing resources that are unavailable to it domestically.

The arrangement would also shift part of Tencent’s AI infrastructure footprint outside China.

This is considered a huge shift because, among other things, training large language models requires enormous amounts of computing power, while running AI products at scale also requires sustained access to inference capacity. As models become more capable and AI applications gain users, the computational burden increasingly extends beyond the initial training phase.

Tencent has been expanding its AI ambitions across consumer and enterprise products, increasing the need for both model-training infrastructure and computing capacity for commercial deployment.

The company recently released a preview version of a new AI image-generation model aimed at professional creators. The model supports text-to-image and image-to-image generation, adding to Tencent’s growing portfolio of AI applications.

The Economics of The Chip Squeeze

The reported deal also illustrates how export restrictions can change the economics of AI development.

For Chinese companies, access to cutting-edge processors is not simply a question of purchasing chips. Computing capacity can be obtained through cloud providers that operate data centers in jurisdictions where certain processors can legally be deployed.

Tencent would reportedly be leasing computing capacity from Oracle rather than importing the processors directly into China. The structure could allow the company to use advanced chips without those processors being physically deployed inside mainland China.

The reported arrangement thus underpins the growing importance of cloud infrastructure as an intermediary between semiconductor restrictions and AI development. It also reveals why Washington has increasingly focused not only on direct chip exports but on the possibility that restricted Chinese companies could obtain access to advanced computing remotely through overseas data centers.

For cloud providers, meanwhile, the surge in AI demand creates an enormous infrastructure opportunity. Oracle has been expanding its cloud capacity to serve AI developers and has signed large computing agreements with technology companies seeking access to scarce advanced processors.

Tencent’s reported commitment is expected to add another major customer to that trend.

China’s AI Race is Becoming An Infrastructure Race

The deal comes as Chinese technology companies compete to develop more capable AI models while Beijing encourages greater reliance on domestic technology.

China’s strategy is producing two parallel efforts.

One is the development of domestic processors and software ecosystems that can reduce reliance on Nvidia and other foreign suppliers. The other is securing access to advanced computing resources wherever they remain available.

Tencent is one of China’s largest technology companies and has substantial financial and engineering resources to devote to AI. Its willingness to reportedly commit billions of dollars to overseas cloud capacity underscores how valuable advanced computing has become.

The scale of the reported transaction also puts the economics of the AI boom into perspective. A $7 billion commitment over five years would amount to roughly $1.4 billion a year, before accounting for other infrastructure, energy, networking, personnel and model-development expenses.

That spending underlines why AI is becoming an increasingly capital-intensive business even for companies that already possess extensive cloud and data-center infrastructure.

Nevertheless, the investment is expected to provide Tencent with the computing capacity needed to accelerate model development and support large-scale deployment. For Oracle, a deal of this size would reinforce the importance of cloud infrastructure providers in the global AI supply chain.

But the reported agreement also underscores the limits of China’s current domestic chip ecosystem. If Tencent needs to secure tens of thousands of advanced processors through overseas infrastructure, it suggests that domestic alternatives have not yet fully eliminated the computing gap created by U.S. restrictions.

China’s technology industry is therefore pursuing two tracks simultaneously: developing its own AI hardware and software while finding ways to access global computing capacity. The Tencent-Oracle agreement, if confirmed, would be one of the clearest examples yet of how those two pressures are reshaping the geography of AI infrastructure.

AI Investment Gap Widens as Top 1% Companies Now Spend More on The Technology Than The Top 10%

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Enterprise spending on artificial intelligence is showing a widening gap between the companies investing most aggressively in the technology and the broader group of adopters.

According to data highlighted by Andreessen Horowitz (a16z) in its State of Markets II report, which tracked enterprise AI-vendor spending through July 2026, the median AI-vendor spending of companies in the top 1% has risen to roughly eight times that of companies in the top 10%.

By July, median spending among the top 1% had climbed to approximately $800,000, while spending among the broader top 10% remained below $100,000.

The divergence became particularly visible from late 2025, suggesting that AI adoption is not progressing evenly across enterprises.

Instead, a relatively small group of companies appears to be moving from experimentation into much larger-scale deployment, committing significantly more capital to AI vendors, cloud infrastructure, models, and related tools.

The spending gap is significant because it points to a two-speed AI adoption cycle. On one side are companies that remain in the early stages of evaluating and deploying AI tools.

On the other are a small number of large adopters that are spending at a substantially higher level as they integrate AI into core business processes.

For the leading adopters, AI spending increasingly extends beyond individual productivity tools. Companies are using AI across software development, customer service, data analysis, automation, and other enterprise workflows, creating demand for more computing power and model usage.

That dynamic also has implications for the companies supplying the AI infrastructure. As enterprise deployments become larger, demand can flow through the broader AI stack, including cloud platforms, computing infrastructure, model providers and specialized software vendors.

The concentration also helps explain why the AI market continues to generate substantial infrastructure demand even while many businesses remain cautious about large-scale deployment.

A relatively small number of high-spending companies can account for a disproportionate share of overall AI consumption, creating substantial demand for compute and model capacity before adoption becomes widespread.

At the same time, the data does not necessarily mean that most companies are rejecting AI. Rather, it indicates that enterprise adoption remains uneven.

The widening spending gap could represent a transition period in which leading companies are moving first into production-scale AI while other businesses are still testing use cases, determining returns and establishing the infrastructure needed for broader deployment.

For the AI industry, the trend therefore highlights an important characteristic of the current market: AI adoption is expanding, but the intensity of spending is concentrated among a relatively small group of early enterprise leaders.

Perhaps one of the most important findings in the report is that nearly 30% of S&P 500 companies report some quantifiable impact from AI, but only around 2% report having a tracked metric for that impact.

The distinction suggests that many companies are already experiencing or identifying benefits from AI, but relatively few have established mature systems for measuring those benefits.

The same pattern appears with AI agents. Although agentic AI has become a major focus of enterprise technology development, only a small proportion of users are deploying agents at meaningful scale

If adoption broadens over time, the current concentration could eventually give way to a much wider distribution of AI spending across businesses.

Outlook

Looking ahead, the concentration of enterprise AI spending is likely to remain a defining feature of the market as companies move at different speeds from experimentation to production-scale deployment.

The leading adopters are expected to continue increasing spending as AI becomes embedded in software development, customer service, analytics, automation, and other core business functions.

Google Releases Its Most Powerful AI Model, Gemini 4 Argon, Intensifying The AI Race

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Google has officially unveiled Gemini 4 Argon, its most powerful frontier AI model to date, marking a significant step in the ongoing competition among leading AI developers.

Rolled out on September 30, 2026, the model is designed for complex, long-horizon workflows spanning real-world software engineering, enterprise knowledge work in areas such as legal finance, and cybersecurity defense.

Announcing the launch, Google wrote,

“Today, we’re announcing our new frontier model, Gemini 4 Argon, which is rolling out to a set of trusted cyber defenders through our Fairwind Program. Built to sustain deep reasoning across complex, long-horizon workflows, Argon is fundamentally changing the way we work and build at Google. It delivers frontier performance in complex workflows across real-world software engineering, enterprise knowledge work like legal and finance, and cybersecurity defense”.

Gemini 4 Argon emphasizes deep reasoning over extended tasks, supported by an expanded output token limit of up to 1 million tokens, up from 64,000 in prior Gemini models.

This allows the system to maintain coherent, multi-step problem-solving in a single trajectory. Internally at Google, the model is already in use by thousands of employees for specialized coding, research, and writing.

Notable applications include optimizing quantum algorithms (in one case improving a baseline by 40%), identifying memory optimizations, and assisting with large-scale migrations of C/C++ codebases to Rust, including projects exceeding 800,000 lines.

On public benchmarks, Gemini 4 Argon sets a new state of the art on DeepSWE v1.1 at 77.9% for long-horizon software engineering tasks, ahead of competing models from OpenAI and Anthropic.

It leads the Vals Index, which measures economic impact across finance, coding, legal, and tax work weighted by U.S. GDP contribution. The model also ranks first on Zapier’s AutomationBench at 51.3% for end-to-end business functions, scores 65.4% on Vals Finance Agent v2, and achieves 19.6% on Harvey’s Legal Agent Benchmark.

Due to its advanced capabilities, Google is taking a phased release approach focused on safety. Initial access is limited to a set of trusted cyber defenders through the Fairwind Program, allowing time for system hardening and feedback.

The company is participating in the U.S. government’s voluntary pre-release model access process.

Google CEO Sundar Pichai noted that Argon has frontier safeguards and the company is rolling it out responsibly, going to a set of trusted cyber defenders.

Safeguards include defenses against misuse (such as for cyber or CBRN risks), improved resilience to prompt injection attacks, monitoring for misalignment via chain-of-thought analysis, and hardened sandbox environments. For trusted defenders, certain cyber guardrails can be adjusted to maximize defensive utility.

Broader availability is planned for developers, enterprises, and consumers—starting with paid API customers and Google AI Ultra subscribers, once additional testing and guardrail refinements are complete.

The launch of Gemini 4 Argon comes at a time when the competition among leading AI companies is shifting beyond traditional chatbots. Companies are now competing to develop models capable of reasoning through complex problems, writing and debugging software, analysing large volumes of information and independently completing multi-step tasks.

Google is positioning Gemini 4 Argon as a major step in that direction. The model is designed to handle demanding workloads across software engineering, enterprise research, cybersecurity and other areas that require extended reasoning and the ability to work with large amounts of information.

The release also comes as other major AI companies continue to introduce new models and products, creating an increasingly competitive environment.

OpenAI, Anthropic and Meta have each been pursuing different aspects of the AI market, ranging from advanced reasoning and coding to AI agents and consumer-facing assistants.

Anthropic has continued expanding its Claude family, while OpenAI has been developing increasingly autonomous AI systems. Meta, meanwhile, has continued investing heavily in its own AI models and infrastructure.

The competition is consequently moving from a simple battle over which company has the smartest chatbot to a broader contest over which company can build the most capable AI agent.

These systems are expected to move beyond answering questions and increasingly perform tasks on behalf of users. They could research information, analyse financial documents, write software, manage business workflows and execute complex assignments with limited human intervention.

Notably, the release positions Google to regain ground in the frontier AI race after a period of relatively quieter flagship model updates, while underscoring industry-wide emphasis on responsible deployment of highly capable systems.

US AI Lead Faces Power-Grid Bottleneck as China Expands Energy Capacity, Citadel Securities Says

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The United States may have an advantage in developing the world’s most advanced artificial intelligence models, but constraints on electricity and data-center infrastructure could limit how quickly those models are deployed, creating an opening for China to narrow the gap, according to Citadel Securities.

Nohshad Shah, head of EMEA fixed-income sales at Citadel Securities, said in a September 26 blog post that the AI race will ultimately depend on more than the quality of the underlying models. The ability to deploy AI across factories, vehicles, robots, drones and industrial systems could prove equally important, particularly if China can pair cheaper models with a much larger physical infrastructure base.

“China does not need the world’s best model in every domain if it can combine a slightly less capable (and much cheaper) one with more factories, robots, vehicles, drones, and industrial equipment,” Shah wrote.

The argument underpins a distinction between AI development and AI deployment. The United States has built a strong position in frontier-model development through companies such as OpenAI, Anthropic, and other leading AI laboratories. But deploying those models at scale requires enormous amounts of electricity, data-center capacity, semiconductor infrastructure, and physical facilities.

The infrastructure gap has resulted in a potential bottleneck for the US at a time when demand for computing power is accelerating.

Shah identified electricity as the most significant constraint. Data centers supporting powerful AI systems require large and reliable supplies of power, while projects in the US are encountering delays involving grid connections, permitting, and opposition from local communities.

China, meanwhile, is expanding its electricity-generating capacity at a substantially faster pace.

“China will add almost six times as much power-generation capacity as the US over the next five years, whilst America remains constrained by grid connections, permitting, and local opposition to data centers,” Shah wrote.

“That creates an uncomfortable possibility: America develops the better models but China has more places to run it.”

The comparison has become necessary because the economic value of AI will increasingly depend on how widely the technology can be integrated into the real economy. A more capable model does not necessarily translate into greater economic impact if there is insufficient computing and electricity capacity to run it at scale.

China’s manufacturing base could further amplify that advantage. AI systems can be incorporated into industrial robots, autonomous vehicles, drones, and production equipment, creating demand for inference capacity outside traditional cloud-computing environments.

That could allow a country with slightly less advanced models to generate substantial economic value through much broader deployment.

The infrastructure issue is becoming more significant as the AI industry pushes toward larger models and increasingly compute-intensive applications. Data centers are already placing new demands on electricity grids, while technology companies and infrastructure developers compete for power, land and transmission capacity.

In the US, opposition to new data centers has also emerged as a political and community issue. Shah said local resistance, together with permitting constraints and grid limitations, could become a greater threat to the country’s AI ambitions.

He argued that the next major constraint on AI development may not be chips or computing hardware but permission to build the infrastructure required to operate them.

Shah made a similar argument in August, saying that regulation and permitting could become the next major AI bottleneck.

His latest assessment also challenges the assumption that the country with the most sophisticated frontier models will automatically dominate the AI economy. Development and deployment are separate stages of the technology’s expansion, and the second requires physical infrastructure that cannot be produced simply by improving software.

Shah also connected the infrastructure challenge to the increasingly prominent debate over AI safety and potential social disruption. He argued that warnings about AI eliminating jobs or creating extreme risks could make it harder for the industry to secure the public support needed for new data centers and power infrastructure.

“The mistake is to tell the public that AI may eliminate their jobs (or indeed humanity itself!) and then ask the same public to provide the land, electricity and permits required to build it,” Shah wrote.

“The industry has spent several years making the strongest possible case for why AI is powerful and the weakest possible case for why ordinary people should want it.”

Shah does not argue that China is certain to overtake the US. Rather, he said the US can maintain its lead, but doing so would require greater political support for infrastructure development and fewer regulatory obstacles.

The emerging competition now extends beyond the race to build more capable AI models. It is also becoming a contest over electricity generation, transmission networks, data centers, industrial capacity, and the ability to deploy AI across the wider economy.

The challenge for the US is that technological leadership can be undermined if physical infrastructure cannot keep pace with the rapid growth in computing demand. For China, a less advanced model ecosystem could become less of a disadvantage if its expanding power and industrial base allow it to deploy AI more extensively.

The divergence has made the power grid an important part of the global AI race, alongside chips, models and capital.