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Microsoft Execution Containers provide a cross-platform framework for isolating AI agents within secure sandboxes to protect private data and system integrity. This technology allows developers to manage the lifecycle of autonomous code while ensuring that unpredictable agentic workflows do not access sensitive local files or unauthorized network resources. The Evolution of Agent Security and Isolation Trust remains a significant hurdle for developers building modern AI agents, particularly those operating on edge systems. When agents combine local processing with cloud-based intelligence, they often require access to sensitive information to be effective. However, granting this access creates a risk that the agent might call unintended APIs or compromise private user data. Historical attempts to launch autonomous agents in the 1990s largely failed because of these security concerns. Delivering arbitrary code to local machines proved too risky for mainstream adoption. Today, hardware-assisted virtualization has changed the landscape. This technology serves as the foundation for modern security models, including isolated operating system components and cross-platform tools like the Windows Subsystem for Linux. Microsoft now utilizes these virtualization advancements to build a more reliable framework for agent operations. By running agents in secure containers or microVMs, the system separates their activities from the primary operating system. This isolation ensures that even if an agent receives a poorly constructed prompt, it cannot delete critical system files or leak sensitive information. Managing Developer Environments Developers need a way to build code in flexible environments while still planning for restricted production deployments. Microsoft Execution Containers (MXC) address this by offering a policy-based restriction model. This framework allows for the creation of managed, isolated containers that follow specific security protocols. Applying Policy-Ba

At a private, closed-door event in Austin, Texas today, Tesla officially launched its gilded car of the future. It's a huge milestone for Elon Musk, who has been hyping the imminent arrival of driverless cars for years and has bet the future of his company on AI, autonomous vehicles, and humanoid robots. It was an […]

Gene-edited pig kidneys could offer a lifeline to patients stuck waiting for a human donor.

The company published a form on its website Thursday soliciting info from people who are interested in "Cybercab fleet vehicle purchasing."

CDC staff had already accepted the measles death reports when RFK Jr. meddled.

This week on Uncanny Valley, we dig into the latest prediction market buzz, Flock’s AI-powered police search tool, and how tech bros don’t know how to talk about “rouge” AI agents

Shopify's engineering introduced gisting, a novel technique for compressing long LLM prompts into a smaller set of learned "gist" tokens, improving throughput and reducing inference cost. By Sergio De Simone

The company is about to formally launch the gold two-seater, with no steering wheel or pedals -- a move that could change Tesla forever.

Service interruptions hit ChatGPT, Claude, Grok, and Gemini practically simultaneously.

OpenAI's next big model is here: GPT-6 Astra. The company calls it a "generational leap in capability" for areas like cybersecurity, professional work, software engineering, science, and computer use. As OpenAI announced earlier this week, it's also the first model designated as meeting OpenAI's "critical cybersecurity capability threshold" - but the company promises that won't […]

The family-focused AI assistant wants access to the details of your everyday life, but says it won’t use that data to train AI models or share it with others.

Refactoring Safely: A Step-by-Step Guide We all know that feeling: a function that's 200 lines long, a class that does too many things, or a variable named data2 . Refactoring is the cure, but doing it recklessly can break your app and your confidence. Here's how I approach refactoring safely, step by step. 1. Start with a Safety Net Before touching any code, make sure you have tests. If your project lacks tests, write a few key ones first. Focus on the behavior you're about to change. The goal is to have a safety net that tells you when you've broken something. # example test for a function we'll refactor import unittest from mymodule import calculate_total class TestCalculateTotal ( unittest . TestCase ): def test_with_discount ( self ): self . assertEqual ( calculate_total ( 100 , discount = 0.1 ), 90 ) If tests aren't feasible, at least have a manual checklist. But automated tests are worth the effort. 2. Make Small, Atomic Changes Don't try to refactor everything at once. Pick one logical change. For instance, extract a method or rename a variable. Each change should be small enough that if it breaks, you know exactly what caused it. // before function processOrder ( order ) { const total = order . items . reduce (( sum , item ) => sum + item . price , 0 ); const tax = total * 0.08 ; const final = total + tax ; return final ; } // after step 1: extract tax calculation function processOrder ( order ) { const total = order . items . reduce (( sum , item ) => sum + item . price , 0 ); const final = total + calculateTax ( total ); return final ; } function calculateTax ( amount ) { return amount * 0.08 ; } Run your tests after each tiny step. If they pass, move on. If they fail, you know the last change caused it. 3. Use Your IDE's Refactoring Tools Modern IDEs can rename variables, extract methods, and change signatures safely. They update all references automatically. This reduces human error. For example, in VS Code, right-click a function and choose "Extract to

I use WSL2 as my main development environment on Windows. My projects live in Linux: /home/user/Projects/... Node.js, pnpm, Git, Docker, and the rest of my toolchain also run inside WSL. When I started using Google Antigravity IDE, I wanted the same workflow I already had with VS Code: code . Something like: agy . That would have been the obvious command. But agy is already the official Antigravity CLI, so reusing it as a launcher for the Windows IDE would be confusing. So I needed another name. I ended up with: wagy . You can read it as WSL + agy or Windows + agy — both actually describe what it does pretty well. The goal was simple: WSL2 └── ~/Projects/my-project │ │ wagy . ▼ Antigravity IDE on Windows │ └── Remote WSL └── /home/user/Projects/my-project I wanted to launch the Windows Antigravity IDE directly from my WSL terminal, while keeping the project, terminal, and development toolchain inside WSL. Not opening the project through \\wsl.localhost . Not moving the project to C:\ . And ideally, not patching Antigravity every time it gets updated. After a bit of digging, the solution turned out to be quite small. The setup This was tested with: Antigravity IDE 1.107.0 Windows 11 WSL2 Ubuntu zsh Antigravity was installed on Windows under: C:\Users\<user>\AppData\Local\Programs\Antigravity IDE From WSL, that becomes: /mnt/c/Users/<user>/AppData/Local/Programs/Antigravity IDE The missing piece: --remote Antigravity IDE already supports remote targets. From WSL, this works: "/mnt/c/Users/<user>/AppData/Local/Programs/Antigravity IDE/Antigravity IDE.exe" \ --remote "wsl+ $WSL_DISTRO_NAME " \ " $( pwd ) " That was the missing piece. It launches the Windows Antigravity IDE while opening the project through the current WSL distribution. So instead of opening: \\wsl.localhost\Ubuntu\home\user\Projects\my-project the IDE works with the actual WSL environment: /home/user/Projects/my-project This means the integrated terminal can keep using the Linux toolchain: node pnpm git

Using Frore’s air-cooling technology, Lenovo’s Project AeroBlade Concept is an ultralightweight laptop with efficient heat management.

At IFA 2026, Nvidia and its partners showed off the first RTX Spark-powered laptops and mini PCs, designed to run AI models right on your computer.

The Ubiquitous Infinite Scroll Pagination Bug Almost every Flutter engineer has encountered the dreaded infinite scroll race condition in production. The user opens a list, flings their thumb down the screen on a spotty cellular connection, and triggers multiple scroll notifications past the bottom threshold within milliseconds. Before the first asynchronous HTTP network request finishes, the scroll listener fires again. Suddenly, your list duplicates items, page counters jump ahead, or the state machine locks up entirely. Recently, mobile developer Ali Wajdan published a widely discussed article titled 3 Lines of Dart async* Code That Fixed My Infinite Scroll Pagination . In his article, Ali accurately diagnoses the root cause of standard pagination headaches: "Most Flutter pagination code I have seen, including my own for years, wraps a mutable state object around a scroll listener. A page counter, a loading boolean, a hasMore flag, and a fetch method the UI calls when it hits the scroll threshold. It works until two scroll events fire close together, or a rebuild triggers a second load before the first future resolves... It is a classic race condition, and it gets worse once the state lives across a page counter, a hasMore flag, and a loading flag that all need to stay in sync." To escape this trap, Ali suggested encapsulating pagination logic inside a Dart async* generator and consuming it with a StreamIterator : // The pattern proposed in Ali Wajdan's article Stream < List < Post >> fetchPostsPaginated ( String query ) async * { var page = 0 ; var hasMore = true ; while ( hasMore ) { final batch = await api . fetchPosts ( query , page: page ); hasMore = batch . isNotEmpty ; page ++ ; yield batch ; } } final iterator = StreamIterator ( fetchPostsPaginated ( query )); Future < List < Post >> loadNextPage () async { if ( ! await iterator . moveNext ()) return const []; return iterator . current ; } On the surface, moving mutable state into local generator variable

The long-rumored deal will give the chip giant access to—and help it promote—a huge repository of open-source AI models and data sets.

Nvidia said Hugging Face hosts over 3 million models and is used by over 18 million developers.

How to Handle Anti-Bot Measures When Taking Screenshots Programmatically You send a request. The page loads. The screenshot comes back blank, or shows a CAPTCHA, or captures a "Please verify you're human" wall. This is one of the most common problems when building any screenshot pipeline. Here's what's actually happening and how to deal with it. Why headless browsers get flagged Bot detection works by looking for patterns that differ from real users. Headless Chrome has several tells: navigator.webdriver returns true by default Missing Chrome-specific properties like window.chrome Inconsistent screen dimensions (no monitor attached means no GPU info) Mouse events fire at pixel-perfect coordinates with no jitter Font fingerprints differ from headed browsers Modern detection services (Cloudflare, Akamai, Datadome) look for combinations of these signals, not individual flags. Spoofing one without the others often makes the fingerprint more suspicious, not less. The practical spectrum of detection Most sites fall into one of three categories: No active detection — a basic bot check via User-Agent string at most. Simple fix: set a realistic UA. Passive fingerprinting — loads a detection script, collects signals, blocks on second or third visit. You'll see this on news sites, e-commerce, media platforms. Active challenges — Cloudflare Turnstile, hCaptcha, reCAPTCHA v3 score-based. These require real interaction or a solving service. Know which category your target falls into before spending time on it. Fixes that work for most cases 1. Use a stealth plugin For Playwright, playwright-extra with puppeteer-extra-plugin-stealth patches the most common fingerprinting vectors: npm install playwright-extra puppeteer-extra-plugin-stealth import { chromium } from 'playwright-extra'; import StealthPlugin from 'puppeteer-extra-plugin-stealth'; chromium.use(StealthPlugin()); const browser = await chromium.launch(); This handles navigator.webdriver , window.chrome , and several other

Dynamic rendering in Angular sounds like a fairly narrow technical problem: “I don't know which component I need until runtime.” Angular already gives us several good tools for that. But there is a big difference between dynamically choosing a component and dynamically constructing an entire UI from a runtime specification. And that difference becomes especially important with Server-Driven UI and Generative UI. 1. ngComponentOutlet : when the problem is really just component selection For simple cases Angular already gives us: <ng-container *ngComponentOutlet= "componentType" /> This works very well when the application already knows its possible components and runtime logic only decides which one to display. componentType = condition ? UserCardComponent : AdminCardComponent ; The advantages are obvious: very little infrastructure, normal Angular lifecycle, AOT-compatible components and a relatively declarative template. But this approach starts becoming uncomfortable when the runtime input is no longer: UserCardComponent and instead becomes: { "type" : "Card" , "children" : [ { "type" : "Input" , "props" : { "label" : "Name" } } ] } Now we are no longer selecting a component. We are interpreting a UI description. 2. ViewContainerRef.createComponent() : more control, more responsibility Angular also allows components to be instantiated programmatically: const ref = viewContainerRef . createComponent ( componentType ); ref . setInput ( ' label ' , ' Name ' ); This is a powerful primitive. We control where the component is created, which component is used, how inputs are assigned and when the component is destroyed. For relatively contained dynamic behavior, this can be exactly what we need. But once a runtime specification controls many components, application code often starts evolving into something like: switch ( node . type ) { case ' input ' : ... case ' select ' : ... case ' button ' : ... case ' dialog ' : ... } Then we add input mapping. Then events. Then ne