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The point-and-click adventure game based on the horror anthology series arrives in August.

If you've ever tried building a sports betting application, odds tracker, arbitrage scanner, value betting tool, or sports analytics dashboard, you've probably experienced the same thing: You start with the exciting part. The idea. The algorithm. The UI. The business logic. And then reality hits. The Hidden Problem Nobody Talks About Most developers assume the hardest part of a betting-related project is the prediction model or arbitrage logic. In practice, the real challenge is data infrastructure. Before your project can calculate anything, you need: Live events Accurate odds Multiple bookmakers Consistent market structures Historical updates Reliable refresh rates And suddenly your "weekend project" turns into a full-time data engineering job. The Scraping Trap Most developers begin by scraping bookmaker websites. At first it seems simple: Open DevTools Find the API request Parse the response Save the data Done, right? Not quite. Within a few weeks you'll likely encounter: Changed endpoints Rate limits Cloudflare protection Different JSON formats Missing markets Broken parsers Increased maintenance costs Instead of improving your product, you're fixing scrapers. Again. And again. And again. Every Bookmaker Speaks a Different Language Let's say you want to compare odds from five sportsbooks. You quickly discover that every provider structures data differently. One bookmaker might return: { "home" : "Liverpool" , "away" : "Arsenal" } Another might return: { "team1" : "Liverpool" , "team2" : "Arsenal" } A third one could use: { "participants" : [ "Liverpool" , "Arsenal" ] } Now multiply that problem across: dozens of bookmakers hundreds of leagues thousands of events You end up spending more time normalizing data than building features. Real-Time Data Changes Everything Many projects work perfectly during testing. Then live data arrives. Odds can move multiple times within a minute. If your system refreshes too slowly: arbitrage opportunities disappear alerts become

What This Repository Is A complete, structured, beginner-friendly Node.js learning path. 30 sessions. Each session has Clear learning objectives Step-by-step explanations Working code examples Practice exercises Interview questions Summary of key points No fluff. No assumptions. Just code. The Complete Curriculum Phase 1 - Node.js Fundamentals (Sessions 1-5) Session Topic What You Will Build 01 Introduction to Node.js Your first Node.js program 02 Project Setup and npm package.json, node_modules 03 How Node.js Works Event loop, blocking vs non-blocking 04 Modules and Imports Your first custom module 05 File System Module Read, write, update, delete files Sample code from Session 05 const fs = require ( " fs " ); // Create a file fs . writeFileSync ( " student.txt " , " Welcome To Node.js " ); // Read the file const data = fs . readFileSync ( " student.txt " , " utf8 " ); console . log ( data ); // Welcome To Node.js // Append to file fs . appendFileSync ( " student.txt " , " \n New line added " ); // Delete file fs . unlinkSync ( " student.txt " ); Phase 2 - Core Modules (Sessions 6-10) Session Topic What You Will Build 06 Path Module Cross-platform file paths 07 OS Module System information 08 Events and EventEmitter Custom event handling 09 HTTP Module Create a server 10 Multi-Route Server Multiple routes, JSON responses Sample code from Session 10 const http = require ( " http " ); const server = http . createServer (( req , res ) => { if ( req . url === " / " ) { res . end ( " Home Page " ); } else if ( req . url === " /about " ) { res . end ( " About Page " ); } else if ( req . url === " /products " ) { res . setHeader ( " Content-Type " , " application/json " ); res . end ( JSON . stringify ([{ id : 1 , name : " Laptop " }])); } else { res . statusCode = 404 ; res . end ( " Page Not Found " ); } }); server . listen ( 3000 ); Phase 3 - Building REST APIs (Sessions 11-15) Session Topic What You Will Build 11 CRUD with Dummy Data Complete REST API using array 12

Your API hands out 50 records at a time across 400 pages. You need all of them. You do not need them all at once. Here's a very familiar situation that shows up constantly on the backend. Some API returns data in pages, 50 or 100 records at a time, and you need to walk every page: sync them to your database, export them to a file, run a report. The endpoint gives you a cursor or a page number and you keep asking until there's nothing left. The way most of us write it the first time looks like this: async function getAllRecords () { const all = []; let cursor = 0 ; while ( cursor !== null ) { const { records , nextCursor } = await fetchPage ( cursor ); all . push (... records ); cursor = nextCursor ; } return all ; } const everything = await getAllRecords (); for ( const record of everything ) { process ( record ); } It works. At four hundred records it's fine. The trouble starts when the dataset grows, and it has three separate problems hiding in it. It holds the entire dataset in memory before you touch a single record. It's all or nothing: if page 380 fails, you've thrown away the 19,000 records you already fetched . And it's eager. You can't start processing record one until the very last page has landed , even if all you wanted was the first ten. There's a shape in JavaScript built for exactly this, and if you read the first two posts in this series you already have both halves of it. Two ideas you've already seen In the CSV post , we pulled rows out of a huge file one at a time with a generator, so the file never fully loaded into memory. Lazy. Pull-based. You ask for the next row, you get the next row, nothing more. In the async/await post , we saw that a generator can pause at a yield and resume later.A generator can hold its place across an asynchronous gap. Put those together. A generator that pulls data lazily, and can pause to await something between pulls. That's an async generator, and it's the natural tool for walking a paginated API. You pull records

How I Built My Indie AI Stack — A Practical Guide for 2026 A few months ago I hit a wall. I was bootstrapping a side project, burning through API credits way faster than my wallet could handle, and honestly questioning whether shipping a product as a solo dev in 2026 was even realistic anymore. The big-name providers were charging me an arm and a leg, and I kept reading about indie hackers who somehow made it work. So I went down a rabbit hole — tested dozens of models, tracked every dollar, and built what I now call my "indie AI stack." Let me show you exactly what I landed on, why it works, and how you can copy it. Why This Stack Exists (And Why I Almost Gave Up) Here's the thing nobody tells you when you're starting out: the default path — just throwing GPT-4o at everything — will quietly drain your runway. When you're an indie dev, every cent matters. I remember watching my first invoice roll in and doing actual math on whether I could sustain this for six months. The answer was no. So I started experimenting. I tested 184 different AI models (yes, really) through Global API, ran them against real workloads from my product, and started measuring not just quality but cost-per-useful-output. That's the metric that actually matters. The result? I landed on a stack that delivers 40-65% cost reduction versus just slamming GPT-4o on every request. Quality stayed comparable — sometimes better. Average latency sits at around 1.2 seconds with 320 tokens per second throughput. And the whole setup took me under 10 minutes. Let me walk you through it. The Models That Actually Made The Cut After weeks of testing, I narrowed my shortlist down to five models that form the backbone of my indie stack. Here's the pricing breakdown I'm working with today: DeepSeek V4 Flash — $0.27 input / $1.10 output, 128K context DeepSeek V4 Pro — $0.55 input / $2.20 output, 200K context Qwen3-32B — $0.30 input / $1.20 output, 32K context GLM-4 Plus — $0.20 input / $0.80 output, 128K context GPT

I have been doing a lot of work lately tightening up my diagnostic suite: the mechanics, the workflow, the way it runs against target repos, the way it helps narrow a repair instead of letting everything turn into a fog machine. And because I work with Codex as my coding agent, I have also become very familiar with a specific kind of AI-agent behavior. The “I am helping so hard I am about to make this worse” behavior. If you work with coding agents, you probably know the vibe. You ask for one thing. The agent does that thing. Then it also adjusts a helper. Then it updates a fixture. Then it “notices” a nearby pattern. Then it starts explaining three other improvements you never asked for. And now you’re staring at the diff like: “Why are you in that file?” “I did not tell you to touch that.” “That was not the repair lane.” “Please stop being useful for one second.” I am not proud of how many times I have verbally threatened a language model. But here we are. The funny thing is, I am building Scarab partly because I already expect this kind of drift. I know that when an AI coding agent is given too much uncertainty, it tries to solve the uncertainty itself. Sometimes that is useful. Sometimes it is a raccoon with a soldering iron. The challenge is that while I am developing the diagnostic system, I cannot always use the diagnostic system to supervise itself. So there are moments where I have to manually hold the line. That means a lot of conversations with Codex that sound like: “Do not widen the patch.” “Do not change the diagnostic output to make the diagnostic pass.” “Do not fix the test by changing what the test means.” “Do not touch SDS mechanics while repairing the target repo.” “Stay in the target.” “Stay in the lane.” “Why are you like this?” Very normal. Very calm. Very professional. Then something changed At some point, after a lot of tightening, the workflow started to feel different. Scarab had enough of the diagnostic work under control that I could tell

submitted by /u/riklaunim [link] [留言]

I turned off Siri on the Mac years ago and never looked back. Similarly, I found Apple Intelligence so fruitless I never engage with it. But the new Siri AI coming to macOS 27 Golden Gate has at least got me slightly rethinking things. I'm still early in testing Siri AI, as I've only had […]

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You can use your AirPods as a remote control for your iPhone's camera. Here's how.

Mike Rugnetta is a writer, podcast host, producer, audio engineer, educator, musician, sound designer, and father. In short, the man wears a lot of hats. He's the cocreator and host of the award-winning Never Post, an absolutely must-listen podcast about the internet, as well as Fun City, a TTRPG podcast where he's the GM. He's […]

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As my backend engineering internship wraps up, I’ve been reflecting on the tasks that pushed me the hardest. Building minimum viable products is one thing, but making them resilient, scalable, and fault-tolerant is an entirely different beast. Here are two of the most memorable tasks from my time here—one solo dive into system scaling, and one team effort tackling asynchronous voice processing. Task 1: Scaling the Insighta Labs+ Query Engine (Individual) What it was Insighta Labs+ is a demographic intelligence platform where analysts and engineers run structured queries on user profiles via a CLI and a Web Portal (backed by GitHub OAuth and RBAC). My task was to take a functional MVP and evolve it into a robust query engine capable of handling tens of millions of records and hundreds of concurrent queries per minute. The problem it was solving The initial architecture worked flawlessly for a few thousand records, but under scale, it started showing cracks. Latency : Without indexing, every filter query triggered a full-table scan. Redundancy : Identical queries from different users wasted CPU and DB cycles. Write-Pressure : Users needed to bulk-upload CSVs containing up to 500,000 rows. Processing these synchronously locked the database, bringing read operations to a halt. How I approached it Instead of blindly throwing more server power at the problem, I focused on doing less work. Targeted Indexing : I added indexes only to frequently filtered columns. Caching & Normalization : I introduced Redis for TTL-based caching. To maximize cache hits, I built a query normalization layer. Whether a user queried "young males" or "men under 30" , the parser normalized the filter object into a canonical form before hashing the cache key. Connection Pooling : I set up PgBouncer to manage database connections and prevent exhaustion under high concurrency. Chunked Ingestion : For the massive CSV uploads, I implemented chunked streaming. Rows were validated individually; valid row

If you write Kotlin Multiplatform code that involves integer division, you may have already hit this: the exact same expression behaves completely differently depending on which platform compiles it. 🐛 The problem Take this innocuous expression: val quotient = 12 / 0 val remainder = 12 % 0 On JVM and Native , both lines throw an ArithmeticException . That is the behavior most Kotlin developers expect and design around. On JavaScript , both lines execute without any exception and silently return 0 . Here is a concrete illustration drawn directly from the Kotlin test suites for each platform: // Kotlin/JS check ( 12 / 0 == 0 ) // passes — no exception check ( 12 % 0 == 0 ) // passes — no exception // Kotlin/JVM and Kotlin/Native val quotient : Result < Int > = runCatching { 12 / 0 } val remainder : Result < Int > = runCatching { 12 % 0 } check ( quotient . exceptionOrNull () is ArithmeticException ) // passes check ( remainder . exceptionOrNull () is ArithmeticException ) // passes Summary table: Expression JVM / Native JavaScript 12 / 0 ArithmeticException 0 12 % 0 ArithmeticException 0 🤔 Why it happens On Kotlin/JS, Int values are represented as JavaScript numbers, and 12 / 0 evaluates to Infinity while 12 % 0 evaluates to NaN . Kotlin/JS truncates Int arithmetic to 32 bits using JavaScript's | 0 operator, and per the ECMAScript ToInt32 conversion, both Infinity | 0 and NaN | 0 evaluate to 0 — so the division-by-zero result silently becomes 0 , with no exception thrown. JVM and Native follow Java's long-standing contract: integer division by zero is always an ArithmeticException . The practical consequence is that any guard you write and test on JVM — a try/catch(ArithmeticException) or a pre-condition check that relies on an exception — is silently bypassed when the same code runs on JS. No compile error, no warning, just a wrong result. ✅ The fix: Integer from Kotools Types 5.1.1 The Integer type in Kotools Types explicitly checks for a zero divisor before delegat

If you have made it this far in 100 Days of Solana, you have been working in JavaScript and on the command line. You have been calling RPC methods, building instructions, signing transactions, and reading and writing account data in JavaScript, and most recently minting and sending tokens and NFTs from the CLI. Either way, you have been driving Solana with tools that let you assign a value and move on with your life. Soon the ground shifts. You are going to open a file called lib.rs , and it is going to be Rust, and for a day or two it is going to feel like you forgot how to program. That feeling is normal, it is temporary, and it is not a sign you are in the wrong place. Here is the thing nobody says out loud: you do not need to learn all of Rust to write Solana programs. Rust is a big language with a steep reputation, but the slice of it that shows up in an Anchor program is small and repetitive. You will see the same handful of patterns on almost every line. Learn those patterns and the wall turns back into a floor. This post is that handful. Not a Rust course, just the parts you need to read your first Anchor program and understand what every line is doing. Next week we start Arc 9, the Anchor introduction, where this all becomes real. This week is about making the language stop being scary before you get there. Why it feels like a wall JavaScript is dynamically typed and garbage collected. You write const x = 5 , you never tell anyone it is a number, and when you are done with it the runtime quietly cleans up. The language trusts you and sorts out the consequences at runtime, which is why a typo surfaces as undefined is not a function three minutes into a demo. Rust is the opposite philosophy. It is compiled and statically typed, so every value has a type the compiler knows about before the program ever runs, and it has no garbage collector, so it tracks who is responsible for every piece of memory through a system called ownership. The trade is blunt: Rust mak

Hi, friends! Welcome to Installer No. 132, your guide to the best and Verge-iest stuff in the world. (If you're new here, welcome, happy soccer, and also you can read all the old editions at the Installer homepage.) This week, I've been preparing for a month of getting absolutely nothing done during the World Cup. […]

Echo Isle is heavily inspired by The Legend of Zelda, and it's not afraid to show it: The retro graphics bear a striking resemblance to Link's Awakening, the main character wears a blue tunic and wields a sword, and he navigates dungeons to collect items and keys to fight bosses and gather magical MacGuffins. But […]

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The rest of Dyson’s promised 2026 vacuum lineup is here, from the new Dyson V16 Piston Animal to an updated version of the favored Dyson V8 Cyclone.

Researchers have quantified the length and mass of arbuscular mycorrhizal fungal networks globally.