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Blackstone Partners with Google in a $5 billion AI infrastructure venture powered by TPU chips

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Blackstone is deepening its bet on the artificial intelligence infrastructure boom with a new $5 billion partnership with Google, marking another episode of how the race for AI dominance is rapidly shifting beyond software models into ownership of the physical computing backbone powering the industry.

The new U.S.-based infrastructure company, announced Monday, will deploy Google’s proprietary tensor processing units, or TPUs, to build large-scale AI compute capacity, with the first 500 megawatts expected online by 2027 and plans for substantial future expansion.

The venture places Blackstone at the center of one of the fastest-growing segments of the global technology industry: AI data infrastructure.

As demand for generative AI systems accelerates, technology companies, cloud providers, and private equity firms are now scrambling to secure access to power, chips, networking capacity, and data centers capable of handling increasingly complex workloads.

“This new company has enormous potential as it helps to meet the unprecedented demand for compute,” Blackstone President and Chief Operating Officer Jon Gray said in a statement.

The deal also represents a major escalation in Google’s long-running effort to reduce dependence on Nvidia, whose graphics processing units have become the dominant hardware powering the global AI boom. While Google still uses Nvidia chips extensively across its cloud infrastructure, the company has spent years building its own semiconductor ecosystem around TPUs, chips specifically designed for artificial intelligence computations.

Unlike Nvidia’s GPUs, which are general-purpose accelerators originally developed for gaming and graphics rendering, Google markets TPUs as specialized processors optimized for machine learning and agentic AI workloads.

The infrastructure partnership, therefore, is seen as a reflection of more than a financing arrangement, as it signals Google’s attempt to establish its hardware architecture as a viable alternative to Nvidia’s near-monopoly in AI computing.

The rivalry has intensified as hyperscalers increasingly seek vertical integration to control both the software and hardware layers of AI systems. Amazon Web Services, for example, has developed its own Trainium and Inferentia chips, while Microsoft has expanded investment in proprietary AI processors through its Maia programme. Google was among the earliest major technology companies to pursue in-house AI chips, developing its first TPU as far back as 2015, years before the generative AI frenzy transformed semiconductor markets.

Now, the economics of AI are making that strategy increasingly important. The explosive growth of large language models has triggered an unprecedented surge in demand for computing infrastructure, driving shortages in high-performance chips, soaring data-center construction, and escalating electricity consumption globally.

Industry analysts increasingly describe compute capacity as the new bottleneck in AI. That has created massive opportunities for infrastructure-focused investors such as Blackstone, which has aggressively expanded across digital infrastructure, energy, and data centers in recent years.

The asset manager, which oversees more than $1.3 trillion in assets, is already the world’s largest private owner of data centers. Earlier this month, Blackstone launched another AI-focused infrastructure venture with Anthropic, highlighting how private capital is rapidly moving deeper into AI’s foundational layers rather than limiting exposure to software applications alone.

The latest partnership also underpins how Wall Street and Silicon Valley are teaming up in financing AI expansion. Building hyperscale AI infrastructure now requires enormous capital commitments that increasingly resemble utility or energy projects rather than traditional software businesses.

Training and operating advanced AI systems require massive amounts of electricity, cooling systems, networking hardware, and specialized semiconductor supply chains. The planned 500 megawatts of compute capacity in the Blackstone-Google venture would rank among the larger AI infrastructure deployments globally and reflects expectations that AI demand will continue growing sharply over the next decade.

The Wall Street Journal reported that the venture has already identified likely data-center sites, some of which are reportedly under construction. The company will be led by Benjamin Treynor Sloss, a longtime Google executive with deep operational experience in infrastructure scaling.

Neither Blackstone nor Google disclosed the ownership structure of the venture, although reports indicate Blackstone will hold a majority stake.

After years of dominating the AI hardware market, Nvidia is facing growing competitive pressure from customers determined to reduce dependence on a single supplier. This makes the partnership pivotal.

Nvidia’s extraordinary rise following the launch of OpenAI’s ChatGPT in 2022 transformed the chipmaker into the world’s most valuable company last year. But the company’s dominance has also created strategic concerns among hyperscalers wary of supply constraints, pricing power, and overreliance on one hardware ecosystem.

Google’s TPU strategy is partly aimed at solving those concerns internally while positioning its cloud business as an alternative AI infrastructure provider. The company already uses TPUs to run its Gemini AI models, while clients including Anthropic and Citadel Securities also use the technology.

The broader significance of the Blackstone-Google venture lies in how it highlights the next phase of the AI race. Competition is no longer centered solely on chatbots or consumer applications. Increasingly, the battle is about who controls the underlying infrastructure powering artificial intelligence itself. That includes semiconductors, energy access, cloud architecture, networking systems, and data-center capacity. In that environment, firms capable of controlling multiple layers of the AI stack may hold the strongest long-term advantage.

The market appeared to respond positively to the announcement, with shares of both Alphabet and Blackstone rising in premarket trading.

Tether Invests on LemFi to Accelerate Stablecoin Settlement Flow in Africa and Asia

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The investment by Tether in African remittance fintech LemFi marks another major step in the global expansion of stablecoin-based financial infrastructure. As digital payments continue to evolve, the partnership reflects a broader trend in which blockchain technology and dollar-backed stablecoins are increasingly being integrated into real-world financial services, particularly in emerging markets across Africa and Asia.

For years, cross-border remittances have remained one of the most expensive and inefficient aspects of global finance. Millions of migrant workers send money home every month, yet traditional banking rails and money transfer operators often impose high fees, slow settlement times, and currency conversion complications. In regions such as Sub-Saharan Africa and parts of Southeast Asia, remittance fees can consume a meaningful percentage of a family’s income.

This has created strong demand for faster and cheaper alternatives. LemFi has emerged as one of the most important fintech startups targeting this problem. The company provides international payment and remittance services to immigrants and diaspora communities, enabling users to transfer funds across borders using mobile-first financial tools.

By integrating USDT settlement into its infrastructure, LemFi could significantly improve the speed and efficiency of transactions while reducing reliance on correspondent banking systems. For Tether, the investment is strategically important. The company behind USDT has been aggressively expanding beyond crypto trading markets and into real-world payment systems, commodity trade settlement, and emerging market finance.

Although USDT originally gained popularity as a trading pair within cryptocurrency exchanges, it has increasingly become a digital dollar for millions of users in countries facing inflation, currency volatility, or limited banking access. Africa represents one of the fastest-growing crypto adoption regions globally. Countries such as Nigeria, Kenya, and South Africa have seen increasing use of stablecoins for savings, business transactions, and remittances.

In many cases, citizens use dollar-backed stablecoins as a hedge against local currency depreciation. Asia, meanwhile, remains one of the largest remittance corridors in the world, with billions of dollars flowing annually between workers abroad and their families back home. The collaboration between Tether and LemFi could therefore accelerate the normalization of stablecoins as settlement infrastructure rather than merely speculative crypto assets.

If remittance platforms can move value instantly through USDT while users continue to interact with familiar mobile applications and local currencies, blockchain technology may become invisible to end users while still delivering major efficiency gains behind the scenes. The development also highlights the growing convergence between fintech and decentralized finance infrastructure.

Instead of building entirely separate financial systems, many companies are now blending traditional user experiences with blockchain-based settlement layers. This hybrid model could allow fintech firms to scale internationally faster while avoiding some of the inefficiencies embedded in legacy banking networks.

However, challenges remain. Regulatory scrutiny around stablecoins continues to intensify globally, especially concerning reserve transparency, anti-money laundering compliance, and consumer protection. African and Asian regulators are still developing frameworks for digital assets, and future policies could shape how aggressively stablecoin payment systems expand.

Even so, Tether’s investment in LemFi signals that stablecoins are entering a new phase of adoption. Rather than being confined to crypto exchanges, digital dollars are increasingly becoming practical tools for global commerce, remittances, and financial inclusion across emerging economies.

Nvidia AI Architect Reveals How Job Seekers Can Beat AI Recruiters by Using Their Own Models

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In a candid revelation about the rapidly evolving AI-driven hiring landscape, Nvidia’s Chief Software Architect, Jonathan Ross, has advised job seekers to strategically game the system by tailoring their resumes to the specific large language models (LLMs) that recruiters are using.

Speaking at the Sohn Investment Conference 2026, Ross, a veteran AI hardware architect who previously helped design Google’s Tensor Processing Unit (TPU), highlighted a growing phenomenon: AI screening tools exhibit strong self-preferencing, favoring resumes generated by the same underlying model.

“Someone did a study and showed that resumes generated from one LLM are preferred by that same LLM over the resumes from the other,” Ross told John Yetimoglu, CIO of Infinitum.

He continued: “The recruiters are now using LLM to determine who to interview, but you got to figure out which LLM the recruiter’s using.”

Ross recommended a pragmatic, multi-model approach.

“So, you should build one resume with Claude or Opus 4.7 and one with ChatGPT, and you’ll have the highest probability of being selected, basically,” he said.

The Science of AI Self-Preferencing

According to Business Insider, Ross was referencing the 2025 academic paper “AI Self-preferencing in Algorithmic Hiring”, published in the Proceedings of the AAAI/ACM Conference on AI, Ethics, and Society. Researchers Jiannan Xu, Gujie Li, and Jane Yi Jiang analyzed over 2,200 resumes across 24 occupations and found that candidates using the same AI model as the evaluator were 23% to 60% more likely to be shortlisted than those submitting human-written resumes with equivalent qualifications.

This bias appears to stem from stylistic alignment: AI models favor language patterns, phrasing, and structures that mirror their own training data and generation style.

The advice arrives as AI adoption in recruitment has reached critical mass. A 2025 Resume.org survey of nearly 1,400 U.S. workers found that 57% of companies are already using AI in hiring processes. Among those: 79% use AI to screen resumes. 74% allow AI systems to automatically reject candidates without human intervention.

What started as a tool to reduce recruiter workload has evolved into a powerful gatekeeper. Many companies now run initial resume screens entirely through AI, meaning millions of candidates are being evaluated by algorithms before any human eyes see their applications.

A Perfect Storm of Risks and Challenges

Feross Aboukhadijeh, CEO of code security startup Socket, and Isaac Evans, CEO of Semgrep, have both warned about the broader implications. The combination of AI-generated code flooding systems and AI-powered hiring tools creates what Aboukhadijeh called a “perfect storm” — where the volume of code (and therefore potential vulnerabilities) explodes while human oversight shrinks.

This shift raises serious concerns about fairness, diversity, and innovation in talent acquisition. AI systems may inadvertently penalize unconventional career paths, non-traditional education, or candidates who don’t optimize for machine readability. There is also growing evidence of false negatives, where strong candidates are rejected prematurely by overly rigid algorithms.

Business Insider recently highlighted the case of an IT professional rejected just six minutes after applying, strongly suspecting an AI system had instantly screened him out.

For ambitious professionals, Ross’s comments reveal a new competitive reality: understanding and adapting to recruitment technology is becoming as important as core qualifications. Job seekers who treat resume creation as a strategic exercise, testing multiple LLMs, refining prompts, and maintaining different versions, may gain a significant edge in an increasingly automated process.

It is believed that the findings highlight the urgent need for better governance for employers and HR teams. Experts have warned that over-reliance on single-model AI screening risks creating echo chambers that reduce diversity of thought and background. Against that backdrop, forward-thinking companies are beginning to implement hybrid approaches: using AI for efficiency while ensuring meaningful human review for final shortlists, along with regular audits for bias.

Manoj Nair of security startup Snyk described the current environment for Chief Information Security Officers and HR leaders alike as living in “AI fog” — a period of uncertainty where powerful new tools create both opportunities and hidden dangers.

As AI capabilities continue to advance, the hiring process is likely to become even more sophisticated — and potentially more opaque. We may soon see the emergence of “AI detection” tools designed to identify machine-generated resumes, as well as countermeasures from candidates. Regulatory scrutiny around algorithmic fairness in hiring is also expected to intensify.

Revolut Launches Physical Crypto-linked Cards Integrated into Everyday Payment Rail 

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The launch of a physical crypto-linked card by Revolut marks a structural shift in how digital assets are being integrated into everyday payment rails. Rather than treating crypto as a speculative or purely on-chain instrument, financial platforms are increasingly embedding it directly into consumer spending infrastructure. The timing aligns with a broader rise in card-based crypto usage, where spending behavior is becoming a key metric of adoption.

A physical crypto card represents a convergence layer between custodial digital asset accounts and traditional point-of-sale systems. Users can spend cryptocurrencies or stablecoin-linked balances in real time, with automatic conversion to fiat at the point of transaction. While virtual crypto cards have existed for years, the physical form factor introduces psychological and behavioral reinforcement: it normalizes crypto as a wallet balance rather than an investment position. This subtle shift matters because payment habits tend to anchor financial behavior more deeply than trading interfaces.

The industry backdrop is important. Over the past two years, crypto-linked debit and prepaid cards have seen steady expansion, driven by neobanks, exchanges, and fintech aggregators.

Visa and Mastercard integrations with crypto platforms have also reduced friction, allowing real-time settlement layers that abstract away blockchain complexity from merchants. The result is that crypto spending is increasingly indistinguishable from traditional card payments at checkout, even though the backend settlement mechanics remain distinct.

What distinguishes the latest wave of crypto cards is not novelty, but integration depth. Early iterations of crypto cards were essentially prepaid instruments requiring manual top-ups or rigid conversion steps. The current generation, by contrast, is moving toward dynamic, multi-asset wallets where spending can draw from multiple balances—fiat, stablecoins, or selected cryptocurrencies—based on predefined user preferences or automated optimization rules.

This transforms the card from a simple payment tool into a liquidity routing interface. From a market structure perspective, this evolution reinforces the role of fintech platforms as intermediaries between decentralized asset pools and centralized payment networks. While decentralization remains a core ideological pillar of crypto, practical usability continues to depend on centralized gateways for compliance, fraud prevention, and merchant acceptance.

Crypto cards sit precisely at this intersection, acting as compliant translation layers between blockchain-native value and legacy financial systems. There is also a competitive dimension. As more fintech companies introduce crypto-linked spending products, differentiation increasingly depends on yield integration, rewards structures, and cross-asset flexibility rather than simple issuance.

Some platforms offer cashback in crypto, others provide staking yield pass-throughs, and newer models experiment with programmable spending rules tied to asset performance or market conditions. The card becomes less a payment object and more a programmable financial instrument. However, this expansion is not without constraints.

Regulatory scrutiny around custody, transaction monitoring, and stablecoin usage continues to vary across jurisdictions. Additionally, volatility management remains a core challenge when non-stable assets are directly exposed to consumer spending flows. Most implementations therefore rely heavily on real-time conversion engines that shield merchants from price fluctuations while preserving crypto exposure for users until the moment of payment.

The emergence of physical crypto cards signals a maturing phase of digital asset adoption. The focus is shifting away from speculative trading infrastructure toward embedded financial utility. If the first era of crypto was about ownership and the second about yield, the current phase is increasingly about spendability.

Hackers Reportedly Targeted eBTC Market on Monad

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The reported exploitation of the BTCFi protocol Echo, allegedly targeting the eBTC market on Monad, underscores a recurring structural vulnerability in emerging Bitcoin-derivative finance systems: the collision between experimental yield infrastructure and insufficiently battle-tested execution environments.

BTCFi protocols attempt to extend Bitcoin’s utility beyond passive holding by enabling yield generation, synthetic exposure, and cross-chain composability. In this case, Echo is described by onchain analysts as a BTCFi layer interacting with eBTC markets—tokenized representations of Bitcoin exposure deployed within decentralized finance ecosystems.

Monad, a high-performance Layer 1 blockchain designed for parallel execution and high throughput, has recently attracted experimental liquidity primitives precisely because of its promise of low latency and scalable smart contract execution.

However, high performance does not inherently imply high security maturity. The alleged exploit appears to have targeted the eBTC market structure, potentially exploiting inconsistencies in pricing logic, collateral accounting, or cross-contract state synchronization.

In BTCFi systems, these components are especially sensitive because they bridge Bitcoin liquidity—typically considered conservative and security-first—with DeFi-native composability, where rapid iteration and complex smart contract interactions are standard. Onchain analysts tracking the incident suggest that the attacker may have leveraged a discrepancy between collateral valuation and redemption mechanics within Echo’s interaction layer.

If eBTC minting or liquidation logic was dependent on delayed or manipulable price feeds, or if cross-pool liquidity calculations were not atomically enforced, an exploit path could emerge that allows asymmetric extraction of value. In such systems, even small rounding errors, oracle latency, or unguarded reentrancy vectors can cascade into systemic imbalance.

The broader implication is not isolated to Echo or Monad, but to the design philosophy underpinning BTCFi as a category. Bitcoin’s base layer prioritizes simplicity and robustness, while BTCFi stacks introduce complex abstractions to unlock yield and composability. Each additional abstraction layer increases the attack surface.

When these systems are deployed on high-throughput chains optimized for execution speed, the assumption often shifts toward economic security rather than formal verification or conservative constraint design. Similar patterns have emerged across DeFi cycles: rapid TVL growth in experimental protocols followed by exploits that exploit overlooked edge cases in incentive design.

What differentiates BTCFi incidents is the magnitude of capital at stake and the reputational sensitivity of Bitcoin-linked assets. eBTC markets, in particular, function as synthetic representations of Bitcoin exposure, meaning any exploit not only impacts protocol liquidity but can also distort perceived parity with BTC itself.

Market participants are likely to respond in three phases. First, liquidity contraction as arbitrageurs and LPs withdraw from affected pools. Second, forensic reconstruction by security researchers attempting to map exploit vectors and fund flows. Third, protocol-level remediation, potentially including pauses, parameter adjustments, or governance-driven compensation mechanisms if applicable.

The incident—if confirmed—adds to the ongoing scrutiny faced by next-generation L1s that prioritize performance as a primary differentiator. For BTCFi protocols like Echo, it reinforces a more fundamental constraint: Bitcoin-aligned financial systems require security assumptions closer to settlement infrastructure than experimental DeFi.

The exploit highlights a persistent tension in crypto system design: innovation velocity versus systemic resilience. BTCFi sits directly at that intersection, and incidents like this will likely shape whether the sector converges toward more conservative architecture or continues to push the boundaries of composable Bitcoin finance at the cost of elevated operational risk.