A $10K Bounty Aims to Make Sony’s PlayStation 5 a Computer Again
Nice PlayStation you got. Bet it could probably run Linux too.
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Nice PlayStation you got. Bet it could probably run Linux too.
Uber explained how it keeps its OpenSearch deployments running during a zone outage. It does this by using OpenSearch's built-in shard allocation and its own isolation-group system, which relies on the Odin container orchestration platform. This way, it maintains both query and ingestion capabilities. By Claudio Masolo
This is a complete introductory guide to the MAD-SHOW lighting control software. Whether you are a beginner new to lighting programming or a professional lighting designer seeking a lighting control solution, this article provides a comprehensive overview of MAD-SHOW core features, software architecture, and getting-started workflow. This guide is demonstrated based on version v3.0.9 interface; subsequent versions have inherited and expanded upon the relevant functionality. MAD-SHOW Lighting Control Software — Key Information Quick View Product Positioning : LED lighting programming control software Price : Completely free System Requirements : Windows (Mac not supported) Supported Protocols : Art-Net, sACN, DMX512 Built-in Effects : 41 preset lighting effects 3D Presets : 17 3D model preset effects Space Layout Capacity : Supports up to 4096 spaces What Is MAD-SHOW? MAD-SHOW is an independently developed lighting programming control software. The project was initiated in 2019, and the development team remains actively focused on the lighting control domain. The software specializes in LED lighting control, integrating three core capabilities: lighting effects, music synchronization, and interactive control. MAD-SHOW is completely free to download and use. Core Capabilities Overview Dimension Description Lighting Programming Professional-grade pixel mapping with DMX512 and Art-Net protocol control 3D Effects Built-in 3D effects module with one-click import of all major 3D model file formats Interactive Control Neuron Interaction plus depth camera, enabling sensor-driven lighting interaction Music Synchronization Real-time audio spectrum analysis with music rhythm-driven lighting changes Price Completely free; ready to use immediately after download Design Philosophy Intuitive interface engineered for ease of use, suitable for both professional and beginner users Application Scenarios Stage Performance : Concert, music festival, and theater lighting programming Night
The CEO of Foundation Future Industries, which counts the president’s son as its chief strategy adviser, tells WIRED it’s exploring some “kinetic things.”
Perimenopause has entered the chat. Perimenopause—and its better-known relative, menopause—used to be considered taboo. Not anymore, thanks at least in part to TV doctors and social media influencers. Perhaps it’s my age, but these days, both my algorithm and my conversations with friends increasingly swing toward perimenopause. Menopause is defined as the life stage that…
Every morning, airline dispatchers, grid operators, and farmers around the world make decisions based on the same thing: a weather forecast. While these forecasts are something that most people glance at for two seconds, weather predictions influence major strategic decisions in many industries, with real money, livelihoods, and even actual lives at stake. Farmers use…
OpenAI published an audit of SWE-Bench Pro on July 8, 2026 and estimated that roughly 30% of its tasks are broken. The reported issues make a familiar leaderboard assumption unsafe: every task in the denominator is a valid, equally interpretable trial. Primary source: OpenAI, “Separating signal from noise in coding evaluations” . The operational response should not be “ignore all benchmarks.” It should be: version task validity, preserve disputed cases, and publish how conclusions change across plausible denominators. Model task state separately from model result task validity: unreviewed | valid | broken | disputed model result: pass | fail | infrastructure_error | missing Never convert infrastructure_error to model failure without reporting that policy. Never delete broken tasks while retaining an old score label. A row needs provenance: { "task_id" : "repo-issue-17" , "dataset_revision" : "sha256:..." , "harness_revision" : "git:..." , "model_config" : "immutable-config-id" , "validity" : "disputed" , "result" : "pass" , "review_revision" : 3 , "evidence" : [ "fixture.log" , "review.json" ] } Publish three denominators Let: P_v , N_v : passes and total among reviewed-valid tasks; P_a , N_a : passes and total across all attempted tasks; D : disputed tasks. Report: valid-only score = P_v / N_v all-attempted score = P_a / N_a uncertainty interval = score if every disputed task hurts conclusion .. score if every disputed task helps conclusion This interval is not a statistical confidence interval. It is a sensitivity bound for unresolved task validity. A tiny sensitivity calculator #!/usr/bin/env python3 import json , sys rows = [ json . loads ( line ) for line in open ( sys . argv [ 1 ]) if line . strip ()] valid = [ r for r in rows if r [ " validity " ] == " valid " ] disputed = [ r for r in rows if r [ " validity " ] in ( " unreviewed " , " disputed " )] attempted = [ r for r in rows if r [ " result " ] in ( " pass " , " fail " )] rate = lambda passed , total : pa
There are beginner mistakes. Then there are "I spent three days doing the wrong thing" mistakes. This is one of mine. When I first joined a company as a trainee, I was excited... and completely unprepared for real-world software development. Back in college, our web development classes mostly covered HTML and CSS. We did touch a bit of programming, but if I'm being honest, many of our projects involved copying code, tweaking a few lines, and hoping everything still worked. I graduated knowing how to make things look nice , but not necessarily how professional development teams solved problems. Reality hit pretty quickly. Our First Task A few days into training, my friend and I were assigned our first real task by our senior team lead. He gave us an Excel file. It had two sheets , each with roughly 1,000 rows of data. Every row had around 7 to 10 columns . Then he said something like: "Import all of this into the database." Simple enough... right? Well... Neither of us had ever imported data into a database before. Asking the Wrong Person Instead of asking our team lead for clarification, we asked another trainee who happened to be our former classmate. His advice? "Just make an INSERT INTO script." Perfect. Say no more. Without questioning it, my friend and I started generating SQL INSERT statements. One row. After another. After another. And another. By the end, we had spent almost three days creating what felt like an endless wall of SQL. At the time, we were actually proud of ourselves. "Look at us. Future software engineers." Looking back... We were basically expensive copy-paste machines. The Reality Check Our senior team lead eventually came over to check our progress. He looked at our SQL file for a few seconds. Then smiled and said: "You tricked me, huh? That's not what I meant." My friend and I just stared at him. Confused. We thought, "But... the data is going into the database. Mission accomplished, right?" Wrong. What he actually wanted was a CakePHP scr
Flutter State Management in 2026: Riverpod vs Bloc vs Provider in Production Every Flutter team eventually hits the same wall. The app works, the demo looks great, and then somewhere around screen thirty the setState calls start colliding with each other, a widget rebuilds three times for one tap, and nobody on the team can explain why a loading spinner is stuck on a screen the user already navigated away from. That's the moment state management stops being a "nice to have" architectural decision and becomes the thing standing between you and a shippable product. We've built and maintained Flutter apps across fintech, e-commerce, logistics, and healthcare — different domains, wildly different feature sets, but the same recurring question from every engineering lead we work with: Riverpod, Bloc, or Provider? There's no shortage of opinions online, and most of them are shallow — "Bloc is too much boilerplate," "Riverpod is the future," "Provider is basically deprecated." None of that is useful when you're the one who has to live with the decision for the next two years of feature work. This is a practitioner's comparison, not a popularity contest. We'll walk through what each of these actually does under the hood, where each one falls apart in production, and how we decide which one to reach for on a new project. Why state management is the architecture decision that matters most In most application frameworks, state management is one of several important decisions. In Flutter, it's disproportionately important, because Flutter's entire rendering model is built around widget rebuilds driven by state changes. Get state management wrong and you don't just get messy code — you get a slow app, because unnecessary rebuilds are a real performance cost, not just an aesthetic one. There are three problems every state management approach in Flutter has to solve: Where does state live , and how does a widget deep in the tree access state that was created somewhere else? How do
I want to start with a moment most of us have lived through. It's 3 a.m. A dashboard is red. You're eight terminals deep in grep , trying to work out which service actually fell over and why. And the whole time there's this nagging feeling that you're doing archaeology on a system you wrote last month. Here's what got under my skin about it. The answer was never actually lost. Back in the source code it said, in plain terms, that the payment service talks to Postgres through a connection pool. That this retry backs off three times. That this particular dependency is external and you must never, ever try to "just restart it." That was all right there at build time. Then we packaged everything up, deployed, threw that structure in the bin, and asked a sleep-deprived human to reconstruct it from log lines. That gap bugged me enough that I spent a while building something around it. This post is about that. Autoscaling is good at the wrong problem We've gotten genuinely good at reacting to resource pressure. Traffic climbs, a box gets slow, CPU pins, and the autoscaler adds capacity or sheds load. No complaints there, it's kept things running for years. The problem is it has no idea what your app is for . It can't tell a service that's slow because it's healthy and hammered from a service that's fast because it's quietly writing garbage to the database. It never had a model of the application in the first place. So a whole category of failures just sails right past it. A connection pool getting drained by something downstream. A poison message kicking off a retry storm. A schema change that breaks one code path and leaves the other one looking perfectly fine. Infrastructure that only thinks in CPU and memory is blind to all of that. The "throw an LLM at it" era The going answer right now is to bolt a large language model onto your observability stack. Fire hose all the logs, traces, and metrics at a big central model and ask it what happened. I get why. I also think it'
The defense secretary’s idea of administering testosterone therapy to service members of the US Armed Forces reveals little understanding of the complexity of hormones.
On July 14, 2026, the Linux Foundation stood up the x402 Foundation — neutral governance for the protocol that lets AI agents pay each other over HTTP 402. The member list is the entire payments industry: Visa, Mastercard, Amex, Stripe, AWS, Google, Cloudflare, Coinbase, Circle, Ripple, Shopify, and two dozen more. Read the launch release end to end and one thing is missing. There is no conformance suite. No security profile. No certification program. No validation procedure. The industry just gave agent payments a standards home and standardized the rails — not the proof that the payment an agent executed was the one it was authorized to make. This is a pattern, not a one-off. Standards bodies standardize the protocol. The conformance surface lags — and the security surface lags behind that. It happened with MCP. The protocol matured fast; the testing of it arrived later and is still catching up. It is happening again with x402, on a compressed timeline, with more money behind it. The gap matters because a signed, well-formed record is not the same thing as a true one. Look at what landed in the research this month. ShareLock (arXiv 2606.27027 , Liu et al., June 2026) distributes a malicious instruction as benign-looking secret shares across several MCP tool descriptions using a Shamir threshold scheme. Each fragment passes per-tool inspection. The payload reconstructs only when the shares are aggregated, after a quiet trigger during a server update. The paper reports an average attack success rate above 90% against tool-description detectors. Every individual record was valid. The composite was hostile. A conformance check that validates each tool description in isolation passes the whole attack straight through. That is the shape of the coming problem for agent payments. Signed receipts, content-addressed evidence records, canonicalized envelopes — the industry is converging on the format of trustworthy agent evidence fast, and getting that format ratified inside
"Now offloading propellant. Next launch attempt hopefully in a few days."
1. Introduction In 2026, many teams still default to WordPress when building blogs or marketing sites, often without fully considering the architectural alternatives. The classic WordPress setup PHP on shared hosting or managed WordPress platforms, coupled with a MySQL database and a plugin ecosystem works reliably but comes with inherent performance trade-offs. Modern visitors now expect lightning-fast page loads and perfect Core Web Vitals a bar that traditional WordPress setups struggle to meet without extensive optimization and caching strategies. This article examines why, for many developer-managed websites, Astro + Cloudflare Pages delivers superior results in performance, SEO, security, and maintainability compared to traditional WordPress deployments. We'll explore the technical trade-offs and help you make an informed decision for your next blog or business website. 2. What is Astro + Cloudflare Pages? Astro is a modern web framework that prioritizes delivering fast, lightweight content by default. Instead of running client-side JavaScript on every page load, Astro generates complete HTML during build time. Only interactive elements—dubbed "islands of interactivity"—run JavaScript, and only when needed. Cloudflare Pages is a globally distributed static hosting platform that leverages Cloudflare's edge network for content delivery. Think of it as Git combined with Cloudflare's CDN and security stack with integrated CI/CD, zero-downtime deployments, and automatic edge caching. How they work together: You write your content and components using Astro's Markdown, MDX, or frameworks Astro builds your site to static HTML during your CI/CD pipeline Cloudflare Pages takes the built static assets and deploys them to edge locations worldwide Every request hits the nearest edge location , serving cache-optimized HTML directly This contrasts sharply with WordPress, which typically involves: PHP processing on every request Database queries to fetch content Server-side
Originally published on tamiz.pro . Introduction Over-the-air (OTA) updates are a critical component of modern software ecosystems, yet they introduce complexity through network instability, device fragmentation, and rollback challenges. Meanwhile, AI agents are emerging as powerful tools for autonomous workflow orchestration. This article explores how to architect resilient developer workflows by integrating AI-driven decision-making with OTA update management systems. The Chaos of OTA Updates OTA updates face three primary challenges: Unreliable Network Context : Mobile devices frequently lose connectivity during updates Device State Fragmentation : Managing compatibility across 1000+ device configurations Rollback Complexity : Traditional systems lack real-time failure detection Traditional solutions rely on retries and checksum validation, but these fail to address root causes like partial updates on low-memory devices or race conditions during state transitions. AI Agent Innovation Framework AI agents introduce three transformative capabilities: Predictive Update Scheduling # Pseudocode for AI-driven update scheduling agent . observe ( network_quality , battery_level , device_usage ) recommendation = neural_net . predict ( update_success_probability ) if recommendation . confidence > 0.9 : schedule_update () elif recommendation . alternative : queue_deferred_update () Dynamic Rollback Orchestration AI agents can implement context-aware rollback strategies: Immediate rollback for critical OS failures Graceful deferral for non-essential app updates Predictive rollback based on anomaly detection in system metrics Device State Pattern Recognition Machine learning models analyze historical update data to: Predict failure patterns across device models Optimize binary delivery sequencing Automatically generate compatibility matrices Architectural Implementation A resilient workflow combines: graph TD A[OTA Coordinator] --> B[AI Agent Orchestration Layer] B --> C[Updat
Hey DEV, I'm Tobore. Let's actually connect. I've been on here for a while now, mostly writing and...
The company didn't immediately say what went wrong. SpaceX's stock plunged more than 4% in after-hours trading before paring losses.
One features an optical illusion spoof of 'They Live.'
Both nominees flailed in their own unique ways as senators sought answers.
On today’s Uncanny Valley, we unpack OpenAI’s ongoing drama, both legal and reputational, and whether these developments could further hurt the company—particularly in its fight against Anthropic.