DAILY NEWS

Stay Ahead, Stay Informed – Every Day

Advertisement
Your AI bill is a tax on scale



Subscribe • Previous Issues
The Hybrid AI Stack Is Coming for the Pricing Power of OpenAI and Anthropic
OpenAI and Anthropic are going public while still capturing much of the money spent on foundation-model usage. But deployment patterns are starting to tell a more complicated story. Companies are building hybrid model portfolios, using proprietary models where convenience, support, and frontier capability matter, while turning to open-weights models where cost, privacy, customization, and deployment control matter more. As teams get better at operating multiple models, the single-vendor AI stack will look less like the default and more like a transitional phase.
Enjoying this newsletter? Consider becoming a paid supporter 🙏

What Open Weights Give You And What They Do Not
The economics are hard to ignore. In an earlier piece, I argued that the CFO has become the CTO, the Chief Token Officer. That framing applies directly here. Proprietary APIs are still useful for prototyping, broad assistants, and difficult reasoning tasks. But once a workflow becomes stable and high volume, token-based pricing starts to feel like a tax on scale. Open-weights models can cut unit costs sharply for repeatable work such as document processing, classification, extraction, internal search, customer support, and summarization. The savings are not automatic. Infrastructure and engineering costs have to be absorbed first. But for organizations running millions of daily inferences, the case can become compelling much sooner than many executives expected.
(enlarge)
The appeal is not just lower cost. Open-weights models give enterprises more control over where data goes, how models are adapted, and which version is running in production. That matters for banks, insurers, healthcare organizations, manufacturers, software companies, and any business handling sensitive records, proprietary code, contracts, customer conversations, or regulated data. A model that runs in a private cloud, on-premises environment, or approved regional infrastructure can be easier to govern than one accessed only through a third-party endpoint. With open-weights models, enterprises can select a model version, test it, approve it, and keep running it. This is valuable for regulated or high-stakes systems where silent behavior changes create audit and compliance problems. Fine-tuning and post-training lets teams adjust model behavior without retraining the whole system. RAG, or retrieval-augmented generation, lets a model consult a curated internal knowledge base before answering. Together, these patterns allow smaller models to perform well on company-specific workflows.
The barriers are just as practical. Switching to open weights is not like swapping an API key. Proprietary platforms package hosted endpoints, scaling, documentation, security features, enterprise support, and contractual accountability. Open-weights models shift more of that burden to the buyer. Teams need GPU planning, model serving, inference optimization, monitoring, evaluation, logging, access control, fallback paths, and cost tracking. The total cost of ownership is easy to underestimate because the API bill disappears, but the operational work does not. In some organizations, infrastructure and specialized engineering talent can become the dominant cost. Open weights can improve economics, but only for teams mature enough to run them well.
(enlarge)
The governance issues are even harder to wave away. Proprietary platforms usually include safety layers and enterprise risk support. Open-weights models often require companies to build those controls themselves. Input/output guardrails, red-team testing, incident response, secure artifact management, and model provenance all become first-class engineering concerns. Tools such as Heretic show why this matters. Safety guardrails can be stripped from open-weights models quickly, which raises obvious compliance and misuse risks. Legal teams also have real work to do. “Open-weight” does not mean unrestricted. Licenses may limit commercial use, redistribution, scale, geography, or specific capabilities. And when these models are used for code generation, companies need processes for scanning outputs for vulnerabilities and license conflicts.
The New Enterprise Model Stack
The next phase is not open versus closed. It is workload-specific model selection. A routine classification task can go to a smaller open-weights model. A sensitive internal search workflow can run inside private infrastructure. A difficult reasoning problem can be escalated to a proprietary frontier model. This is the real meaning of hybrid model portfolios. The architecture is no longer about picking one best model. It is about building a routing and governance layer that can evaluate requests, choose the right model, monitor cost and quality, and replace models when needed. I already see this in my own coding workflow. My O2 toolkit, using opencode and OpenRouter, is useful precisely because different models are better for different jobs.
(enlarge)
This hybrid approach becomes even more critical as we move toward agentic workflows. When you build autonomous agents that continuously run loops, call tools, and handle background tasks, your token consumption scales dramatically. If you run these entire multi-step workflows on premium proprietary endpoints, your monthly API bill will explode. Instead, a smarter architecture uses smaller, local open-weights models to handle the routine, repetitive steps in an agent’s loop, while escalating only the high-stakes decisions or complex reasoning tasks to closed frontier models. This setup also keeps the agent’s sensitive tool integrations and internal system commands within your own secure network rather than routing them through external APIs. The catch is that agents make the control layer harder to build. Every action needs to be logged, auditable, and ideally reversible, and most teams deploying agents have not built that infrastructure yet.
Open-weights are a business decision, and business decisions can be reversed.
This shift in workload routing has uncomfortable implications for OpenAI and Anthropic as they move toward IPOs. Their revenues may continue to grow quickly, but pricing power will face pressure from below. If open-weights models are good enough for a larger share of routine inference, enterprises will become more selective about when they pay premium API prices. They will still pay for frontier reasoning, managed compliance, uptime, enterprise support, convenience, and strong guardrails. But they will be less willing to send every summarization, extraction, routing, tagging, retrieval, and support workflow to the most expensive model. Revenue can grow while the price umbrella weakens.
(enlarge)
The biggest uncertainty is supply. Open weights are not a guaranteed public good. They are a business decision, and business decisions can be reversed. OpenAI demonstrated that years ago. Meta now appears less committed to Llama as an open ecosystem than many expected. At the same time, the open-weights landscape has become more concentrated among Chinese labs, and even that supply is narrowing as some providers move toward closed or more restricted licensing under revenue pressure. This is the part of the story that deserves more attention. Enterprises should absolutely take open weights seriously, but they should not assume the ecosystem will remain abundant, permissive, and stable. The winning teams will be the ones that can test, route, govern, and replace models without rebuilding their AI stack every time the market shifts.



Source link

12 GW announced. 5 GW under construction. What happens next?



Subscribe • Previous Issues
The Gap Between the Press Release and the Power Grid
Back in February, I wrote about what I called the “Data Center Rebellion,” the growing local resistance to the physical infrastructure behind AI. Since then, I have been asking tech people around the Bay Area how closely they are following the backlash. The answer is usually: they know it exists, but not much more than that. There is still a quiet assumption that most of these announced campuses will get built, plugged in, and brought online more or less on schedule. I am much less sure. What looked like a scattered set of zoning fights has hardened into something more organized, more politically potent, and more consequential for anyone trying to think clearly about AI infrastructure timelines. The opposition has gone from a speed bump to a genuine constraint.

Regularly reading? Consider becoming a paid supporter 🙏

The striking part is how broad the opposition has become. Polling suggests that resistance to local AI data centers is now a mainstream position, not a fringe one. And the “AI” label matters. Data centers have become a visible target for wider concerns about corporate power, electricity costs, water use, job displacement, surveillance, and who actually benefits from the buildout. The politics have also gone cross-ideological in ways that make this harder to dismiss. Environmental justice advocates, rural conservatives worried about local control, and labor groups anxious about automation are all finding common cause at the zoning board.
The Local Backlash Gets Smarter
The objections are practical and increasingly specific. Communities are worried about water in dry regions, electricity demand on strained grids, air pollution from backup power, the constant hum of cooling systems, farmland conversion, tax breaks, and the small number of permanent jobs these projects often create. The industry tends to lead with billion-dollar investment figures. Residents tend to ask a simpler question: what do we give up, and what do we actually get?

The tactics have matured too. This is no longer just online frustration or a few angry public meetings. Residents are using moratoriums, zoning challenges, lawsuits, ballot measures, protests, water-rights filings, and elections. What makes the backlash more durable is the trust problem. Shell companies, project code names, NDAs, fast-tracked approvals, and vague end-user disclosures make communities feel boxed out. Once that trust is gone, even reasonable technical claims start to sound like sales material.
Microsoft’s recent pledge to stop requesting NDAs is a useful illustration here.  It’s notable precisely because it signals how widespread the practice has become. When a company feels compelled to make that kind of pledge, it’s an admission that the old playbook has become a liability.

Announced Capacity Is Not Real Capacity
Local opposition gets much of the attention, but it is only one constraint. Even if a project clears the political process, it still has to get power, transformers, electrical equipment, GPUs, memory, networking gear, cooling systems, utility approvals, and enough skilled construction capacity. In many markets, the bottleneck has shifted from “can you get the chips?” to “can you get the megawatts?” A site can have land, permits, and a glossy announcement and still sit idle because the electrical infrastructure is not ready.
That’s why the gap between announced capacity and capacity under construction matters so much. Of the roughly 12 GW of U.S. data center capacity announced for 2026, only about 5 GW is under active construction. That ratio gets worse, not better, for later years. The industry’s pipeline looks enormous in press releases and investor decks, but only a fraction appears to be moving toward actual completion on the promised timeline. The word “capacity” can mean too many things: land under option, a permitted site, a building shell, reserved power, an energized hall, installed racks, or revenue-generating compute. Those are not minor distinctions. They are the difference between a story the market wants to hear and an asset that can actually serve AI workloads.
(enlarge)
The Trust Deficit Becomes an Execution Risk
The industry is responding, but mostly at the edges. Some developers are revising site plans, changing cooling designs, offering community benefits, making renewable-energy commitments, or becoming more selective about where they build. But they do not fully answer the harder questions: who pays for grid upgrades, who gets the water, who absorbs the noise and pollution, and who has the right to say no?
What concerns me is the financial exposure accumulating underneath all of this. More and more of this buildout is being funded through debt, long-term lease obligations, and capacity commitments made against a pipeline that is, in many cases, more announced than actually under construction. The hard question is whether the math works even if the projects do get built. Hyperscalers are spending as if AI infrastructure will unlock a very large new revenue pool. Maybe it will. But if capital spending keeps rising faster than revenue, the industry may discover that “demand” and “attractive return” are not the same thing. Either AI generates much more revenue than analysts currently expect, or some planned spending gets pushed out, scaled back, or canceled. That second outcome might not look like a crash. It could look like delayed campuses, slower GPU orders, tougher financing terms, and more “rephasing” language on earnings calls.
From “The impossible maths of the AI boom”
This is why I would not treat local opposition as a side story. The compute demand behind AI is not going away. That does not mean every project deserves a rubber stamp. It means the industry has to get much better at earning trust and building capacity that communities, utilities, and investors can actually live with. If AI infrastructure spending is helping support the broader economy, then a serious pause becomes a macro risk, not just an AI story. A slowdown isn’t even the worst version of this. It is an AI economy where compute becomes scarce, expensive, and concentrated in the hands of the few companies and customers that can afford it. That would be a bad outcome for everyone who wants AI to become broadly useful, not just broadly hyped.

The MANIAC. I know this is a 2023 book, but it feels even more worth reading now. As AI reshapes computing, research, and mathematics, this portrait of John von Neumann made me wonder what one of history’s great mathematical minds would make of the machines we’ve built. This is historical & biographical fiction at its best 💯
Steve Jobs in Exile: The Untold Story of NeXT. I had a couple of professor friends who were devoted NeXT users, and this helped me understand why that little black cube inspired such loyalty. This is a sharp, readable look at Jobs’ wilderness years, and how what looked like a detour ended up shaping the Mac, the iPhone, and the tools we use every day.
Inside the Box: How Constraints Make Us Better. I liked this book because its core idea feels especially relevant to AI right now. DeepSeek and other Chinese model builders are a good reminder that constraints do not always slow innovation down, sometimes they force teams to get sharper, scrappier, and more creative.



Source link

What Upwork, DoorDash, Meta, EY, and Fundrise reveal about agents



Subscribe • Previous Issues
Beyond the Demo: What Real AI Agents Actually Do at Work
I am always on the lookout for new AI agents and applications that operate outside the coding world. By agent, I mean a system that can take a goal, use tools, keep context, and work through several steps rather than simply answer a prompt. Looking through my notes from the recent AI Agent Conference, I put together a few standout examples drawn from conversations with the people who built them and friends at the conference. What stands out is not that these systems are magical. It is that they are showing up in ordinary business workflows where speed, judgment, and access to the right data matter.
Value this newsletter? Consider becoming a paid supporter 🙏

When Marketplaces Start Doing the Work
Upwork’s Uma Recruiter starts from a familiar problem: hiring is not just search. A client may write an incomplete job post, miss important constraints, or fail to separate required skills from nice-to-have ones. Uma Recruiter turns that messy input into a structured hiring task, then searches the talent marketplace and evaluates candidates across signals like past work, portfolio depth, availability, prior client relationships, and Job Success Score. It then invites promising candidates and ranks incoming proposals. Upwork is treating a job post less like a one-time query and more like the start of a multi-step recruiting process. Early results suggest this is not just a demo: Upwork says Uma Recruiter can produce shortlists within six hours, initial testing showed a 30 percent increase in hires using the shortlist, time to hire fell 11 percent, and jobs filled within seven days rose 10 percent between November 2025 and March 2026.
DoorDash’s merchant tools are less like a single recruiter-style agent and more like a bundle of AI-enabled workflows placed directly into merchant operations. The core idea is to remove setup and growth tasks that independent restaurants often lack the time or staff to handle. Its AI-powered onboarding pulls information from a merchant’s existing web presence, including photos, hours, and menu items, so a merchant can review and edit rather than start from scratch. DoorDash says this helps merchants launch more than 35 percent faster. The suite also includes AI photo tools that retouch or replate food images while preserving the underlying dish, AI-generated branded websites for direct ordering, and AI-assisted marketing campaigns for email content and scheduling. Millions of photos have been enhanced, AI-powered websites are seeing nearly 10 percent average order conversion, and merchants report meaningfully reduced effort across onboarding and marketing.

The common thread is that both companies are using AI to make their platforms easier to use, not to replace the marketplace itself. Uma Recruiter is more explicitly agentic: it has a reasoning core, specialized tools, memory, and an iterative plan-act-assess loop that runs until it has a strong shortlist. DoorDash is more embedded and task-specific, appearing as product features that reduce merchant friction at known points in the lifecycle. For builders, the distinction matters. Upwork is automating a judgment-heavy workflow where the system must reason across candidates and outcomes. DoorDash is automating setup, content, and marketing jobs where usability, guardrails, and tight integration into the merchant portal may matter more than a visibly autonomous agent.
Two Paths to the Enterprise Agent
Meta’s AI Second Brain addresses a problem most knowledge workers recognize immediately: the context needed to do your job is scattered across documents, meetings, tasks, code reviews, and internal discussions. Rather than starting each session cold, the system gives an AI agent a persistent workspace organized around the PARA method, a lightweight structure for Projects, Areas, Resources, and Archives that tells the agent what you are actively working on, what to load on demand, and where to route new information like meeting notes. The agent connects to internal tools through authenticated MCP servers, which give it scoped, permissioned access to internal systems, and command-line interfaces. The adoption numbers are striking: more than 63,000 installs in roughly three months, around 10,000 daily active users, and thousands of user-created skills written in plain markdown. That kind of internal traction usually means the tool solved a real problem.
EY’s agentic AI effort targets a very different kind of knowledge work: audit and assurance. The firm is embedding a multi-agent framework directly into EY Canvas, its global assurance platform built on Microsoft Azure, Microsoft Foundry, and Microsoft Fabric. The system is designed to help audit teams orchestrate complex tasks, surface updated accounting and audit guidance, sharpen risk assessments, and reduce administrative overhead, while keeping human judgment explicitly in the loop. The scale is institutional rather than viral: 130,000 assurance professionals, 160,000 audit engagements, more than 150 countries, and a roadmap to support end-to-end audit activity by 2028.

The shared lesson is that internal agents need far more than a capable model underneath them. They need access control, structured context, workflow integration, and a clear boundary between AI assistance and human decision-making. Where the two cases diverge is in philosophy. Meta’s system grew from the bottom up: users write their own skills, teams extend workflows, and adoption spread because the entry cost was low and the system was composable. EY’s deployment is top-down by design, embedded inside a regulated professional platform where governance, quality controls, and training matter as much as productivity gains. Some agents spread because people can adapt them. Others earn trust precisely because they cannot be adapted freely.
When the Data Is the Moat
RealAI is an AI real estate analyst for investors, multifamily professionals, agents, homebuyers, and renters. The pitch is that property and market analysis that once required specialized teams or expensive institutional tools that can now be done conversationally. RealAI can compare markets, evaluate properties, model returns, and surface data on rents, sales histories, demographics, household financials, migration trends, and market dynamics across U.S. residential properties. Fundrise claims underwriting that previously took days can now be completed in seconds. The owner-developer of New York City’s World Trade Center, said complex analyses that once took days can now be completed in minutes. RealAI is priced accessibly for individual investors and smaller firms that have historically been priced out of this kind of intelligence.

The most important part of RealAI may not be the chat interface or the agent harness, the layer that routes tasks to the right tools and data sources. It is the data underneath it. Fundrise describes a system trained on tens of thousands of hours of internal team experience and a database of roughly 3.5 trillion data points covering every residential property in the country, drawn from public records and private databases and updated in real time. The interface can be redesigned and the orchestration layer can be swapped out. But assembling, cleaning, connecting, and continuously refreshing domain-specific data at that scale is the genuinely hard part. In many applied agent systems, durable advantage lives below the model, in the data.
What Makes Agents Stick
These cases make me less interested in agents as a category and more interested in the conditions that make them useful. The pattern is not simply “give a model tools.” The better examples sit inside real work loops, draw on domain-specific data, preserve human control where judgment matters, and have enough memory to carry context across steps without dumping everything into every session. They also need less glamorous machinery: access control, retries when tools fail, logging that explains why the agent acted, evaluation tied to business outcomes, and cost discipline so every step does not require the most expensive model. That is where many agent projects will succeed or fail, not in the demo.

The workforce question is also sitting just below the surface of most of these deployments, even when it goes unspoken. Fundrise’s Ben Miller is unusually blunt about the labor consequences. He says AI will cause job losses across commercial real estate, and while Fundrise has not laid people off, the company has slowed hiring. That is a more candid framing than most companies are willing to offer publicly, and it is worth taking seriously. The systems described here are not replacing human judgment in the high-stakes moments, but they are compressing a significant amount of the work that surrounds those moments. For anyone building or buying agents, the value is real, but so are the organizational consequences.

When AI Found the Counterexample

Vatican to AI Leaders: Efficiency Is Not Enough
From The Vatican’s AI Principles: What You Need to Know



Source link