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As extreme heat becomes the norm on the continent, the AC culture wars may be solved by advances in environmentally friendly technology.

The NHTSA says it identified a 'pattern of driverless AVs' interfering with first responders. It's now demanding a solution from AV makers.

A few days ago I found myself trying out GLM 5.2 and was really positively impressed. The capabilities and security I was getting from this LLM are similar to those I've gotten from models like Claude or GPT, and this really surprised me. But then I thought, "I wonder how it would work on a normal computer like mine," and above all, "I wonder if it would work without going into OOM on a computer like mine." So I started working with the help of agents to test this possibility. I started converti

I was really looking forward to July 4, and not just because I love a poolside barbecue. This year the American holiday also marked a big symbolic deadline for US nuclear power. Last year the Trump administration set a goal to see three new microreactors achieve criticality, a technical milestone establishing that a reactor can…

Google shipped AlloyDB AI functions GA with a proxy model architecture that trains a lightweight local model from LLM outputs, then runs queries at database speed without external calls. Smart batching delivers 2,400x throughput improvement. The proxy model reaches 100,000 rows per second in preview, but benchmark numbers apply only to ai.if in internal testing. By Steef-Jan Wiggers

AWS has outlined how ProGlove, an industrial-wearables manufacturer, was able to scale its SaaS platform to run more than one million AWS Lambda functions spread across thousands of dedicated customer accounts. By Matt Foster

The Kubernetes community has introduced a framework for integrating AI into open-source maintainership, emphasising human accountability in code quality and oversight. AI tools may streamline workflows, but ultimate responsibility lies with human maintainers. The framework requires disclosure of AI usage in contributions and prohibits AI-generated commit messages. By Olimpiu Pop

{ Abhilash Kumar Bhattaram : Follow on LinkedIn } The Post-Migration Mirage For many Chief Technology Officers (CTOs), the successful cutover of a core database to the cloud feels like the ultimate victory lap. The data has landed, the connection strings are updated, and initial performance metrics look stellar. But there is a dangerous mirage that follows a cloud database migration: Hidden Downtime. Unlike an abrupt database crash, hidden downtime is a slow-burn operational decay. It happens when day-to-day transactions process smoothly in production, but the underlying database ecosystem—specifically the disaster recovery (DR) standby instances, secondary cross-region sites, and replication pipelines—quietly falls out of sync. When a true disruption occurs and you try to failover or scale, the database tier collapses. To ensure true, 24/7 predictability, forward-thinking CTOs look beyond the immediate "Go-Live" date. The ultimate challenge is navigating the dense maze of cloud onboarding options to find the exact database migration method that fits your specific application topology. Ground Zero: The Database Configuration Drift The root cause of post-migration database downtime begins long before cutover day, it starts with how the database is moved and how its configuration is maintained. Going to the cloud offers various technical pathways, but the overarching challenge is finding what fits your unique architecture. The initial migration must establish perfect baseline parity, but standard database operations and hasty migration choices quickly introduce fatal configuration drift. To manage this drift effectively, organizations must introduce rigorous baseline metrics before, during, and after the migration process: - Benchmarking Versions: Ensuring that source and target database patch levels, Timezone (TZ) files, and Release Updates (RUs) match exactly. Mismatched database versions between primary cloud instances and standby homes create silent dictionary inc

Some of you may have noticed I disappeared a bit from the community over the last couple of weeks....

Eleven exhibits, last time. A career that kept refusing to fit inside a single box — trainer,...

There's a comfortable thing people say when they see an AI agent query a code map. "Nice crutch. For now." The logic underneath it is reasonable. Coding agents are young. Context windows are small and getting bigger. Models are dumb today and will be smart tomorrow. So a structural index, the thing that hands the agent a dependency graph it would otherwise have to reconstruct, looks like a patch over a temporary weakness. Wait two releases. The model will just hold the whole repo in its head and the map becomes a quaint workaround, like a spellchecker for someone who learned to spell. I build one of those maps Sense . I went looking for the data that would kill it. I didn't find it. I found the opposite. What a map hands an agent is a computed fact. What a better model hands you is a more confident guess . No amount of model progress turns the second into the first, because the difference between them isn't a quality gap that closes with scale. It's a difference of kind. The rest of this piece is the two findings that forced me there. The belief, stated fairly The claim at full strength, because a weak version is easy to knock over. A code map exists to compensate for what the model can't do yet. Today's agent greps, samples, and guesses at structure because it can't read the whole codebase at once. Tomorrow's agent reads all of it, reasons over all of it, and the guessing stops. Bigger windows plus better weights equal no more blind spots. The map is scaffolding you'll tear down once the building stands. If that's true, the right move is to skip the tool and wait. Both findings, in order. Proof one: the best model available was still blind The benchmark ran the same task on thirteen real Ruby repos. Pick the hub model of an app, the Inbox , the MergeRequest , the Spree::Order , and ask the agent to find every place that depends on it before a teardown change. The non-obvious dependents, the ones scattered through concerns and workers and config-string registries, w

WebMCP Runs In Chrome. My 400 Daily Tool Calls Don't. Google I/O 2026 shipped WebMCP and half the AI Twitter timeline is calling it "the new MCP standard." It isn't. It's a browser-scoped protocol that solves a completely different problem than the MCP servers currently running on your VPS at 3 AM. Here's the boundary Google buried in the docs, and how to decide which side of it your agent belongs on. What WebMCP actually is (and isn't) WebMCP is a browser-scoped tool protocol. It exposes tools to an agent from inside a Chrome tab — the tools live in the page, auth is the user's active session, and the runtime is the browser itself. That's the entire surface area. When Google says "agentic web," they mean an agent that operates inside a tab the user already has open, using the cookies and OAuth tokens already loaded. That's a legitimate and useful pattern: Booking flows — agent fills a multi-step form on a site the user is signed into Dashboards — agent pulls a chart, exports it, drops it into a doc In-app copilots — SaaS product ships tools its own users' agent can call Form fillers and page-scoped assistants What WebMCP is not : a replacement for the stdio and HTTP MCP servers running headless on your machine or VPS. Different runtime, different auth model, different lifecycle. Calling it "the new MCP" is like calling a service worker "the new backend." Same protocol family, entirely different deployment target. The split that actually matters There's exactly one question you need to answer to pick correctly: Is a human looking at a screen when the agent runs? If yes → WebMCP is on the table. If no → you need a real server-side MCP. That's it. Everything else is retweet noise. Dimension WebMCP stdio / HTTP MCP Runtime Chrome tab Your process (local, VPS, container) Auth User's browser session Your API keys / OAuth tokens Trigger User action in the page cron, webhook, queue, schedule Lifecycle While tab is open 24/7 headless Credentials scope Whatever the user is l

Anthropic Shipped @claude for Slack. My Team Runs on Telegram. Anthropic just shipped @Claude inside Slack channels. Tag the bot, it reads the thread, does work async, posts back. Nice product. Except roughly 95% of small businesses don't live in Slack — they run on WhatsApp, Telegram, and Gmail. If you're a solopreneur or a 1-to-10-person team, here's the exact four-part recipe I use to run the same pattern in Telegram for under $12/month. What Anthropic actually shipped (and who it's for) Anthropic shipped an enterprise distribution deal wearing a product launch t-shirt. @Claude for Slack lets you tag the bot in a channel or thread, gives it channel memory, connects to your other apps, and returns work asynchronously — but only on Slack Team and Enterprise plans. That's the punchline: it lives where the annual contracts live. Look at the raw user counts. Slack's own reporting puts it around 35–40 million weekly active users globally. WhatsApp is over 2 billion. Telegram is over 900 million. Gmail sits around 1.8 billion. In the 1-to-10-employee segment outside US tech, Slack penetration is single digits. Small teams in Europe, LATAM, and most of Asia coordinate in WhatsApp groups and run pipeline out of Gmail. They are not about to add Slack seats at $15/user/month just to get an @Claude mention. That's a rational call for Anthropic — Slack is where the enterprise procurement motion already exists. It's just not a product for the operator segment. And the pattern they productized is trivially replicable on any messenger with a bot API. Platform Weekly/monthly active users Bot API Cost to run a mention-bot Slack ~35–40M WAU Yes, paid plan $15/user/mo + API Telegram ~900M MAU Yes, free ~$5–12/mo API only WhatsApp Business ~2B MAU Yes, metered $0.005–0.08/conversation + API Gmail ~1.8B MAU Pub/Sub push Free tier + API The four-part recipe (works in any messenger) Every mention-bot is the same four moving parts: a webhook that fires on mention, a context store that ho

From answering questions to solving problems — Phase 6 of the Jarvis AI Platform After Phase 5, Jarvis could hear, speak, remember conversations, retrieve documents, and use tools. But every interaction was still limited to a single request and a single response. You: "What's the weather in Kathmandu?" Whisper ↓ AiOrchestrator ↓ WeatherTool ↓ Text-to-Speech Jarvis: "It is 22°C and clear." That works well for simple questions. It completely breaks down when a task requires multiple decisions. The Limitation of Single-Turn AI Imagine asking: Research the top 3 Java AI frameworks, compare them, and summarize the findings. A traditional chatbot usually replies: I don't have enough information to research that. The problem isn't intelligence. The problem is planning. To answer properly, the AI must: Search for Java AI frameworks Search for comparisons Gather information Analyze results Produce a summary That requires multiple tool calls and reasoning between each one. This is exactly what AI agents are designed to do. What Is the ReACT Pattern? ReACT stands for: Reason + Act Instead of generating one response, the AI repeatedly performs a reasoning loop. THINK ↓ ACT ↓ OBSERVE ↓ THINK ↓ ACT ↓ OBSERVE ↓ FINAL ANSWER Example: THOUGHT: I should search for Java AI frameworks. ACTION: search INPUT: Java AI frameworks 2026 ↓ OBSERVATION: Spring AI LangChain4j Semantic Kernel ↓ THOUGHT: Now I need comparison data. ↓ ACTION: search INPUT: Spring AI vs LangChain4j ↓ FINAL ANSWER Instead of guessing everything up front, the AI gathers information step by step before producing the final response. The Biggest Architectural Decision The most important design decision of Phase 6 was not modifying the existing chat pipeline . Instead of turning AiOrchestrator into a giant class responsible for both chat and agents, agents became a completely separate orchestration layer. ❌ Wrong AiOrchestrator ↓ Single Chat ↓ Agent Logic ↓ Tool Logic ↓ Everything Mixed Together ✅ Correct AgentController

In January, three researchers built a shopping agent on Google's Agent Payments Protocol (AP2), the standard designed to make agent-led purchases safe through cryptographically verifiable mandates. Then they attacked it with nothing more exotic than adversarial text. The paper, "Whispers of Wealth" ( arXiv 2601.22569 , revised May 2026), reports that simple prompt injections reliably subverted the agent: one attack steered which products the agent ranked and bought, another exfiltrated sensitive user data. The part of the stack that failed was not the cryptography. The mandates verified exactly what they were designed to verify. What folded was the layer that exercises judgment. Hold that result in mind, because the agent economy is currently pouring money into judgment. Everyone is hiring a referee Look at what shipped in the last few months for agent-to-agent commerce, and a single pattern repeats: put the money in escrow, and let a judge decide when it comes out. ERC-8183 formalizes it: funds sit in an escrow contract while an Evaluator - an agent or a human - decides whether the deliverable meets the spec before releasing payment. It is the pattern Virtuals' Agent Commerce Protocol runs on. Circle has piloted an escrow agent for USDC flows. Kustodia and Nava (which raised $8.3M) are startups built on the same shape. And on July 1, BNB Chain and AWS launched agents that bank themselves - agents deployed to Amazon Bedrock AgentCore with their own wallets, identity, and payment stack from birth. Even the category label is contested now: at least one project has declared itself an "MCP Settlement Standard" from a landing page. That is five separate, serious teams independently converging on the same component: a referee who holds the money. The referee exists for a good reason Before arguing against the judge, steelman him. Most agent-to-agent commerce today is hiring: one agent pays another for work. Write this code. Produce this research. Render this video. The de