标签：#us

We have all been there. You are sitting at your desk late at night, your code is throwing errors that...

Sony shared an announcement with the console market: physical disc production for all PlayStation games will completely stop in January 2028. You can read the official announcement on the PlayStation Blog . From a pure engineering perspective, modern internet infrastructure has rendered physical distribution redundant. We no longer need plastic circles to transport megabytes. The gamer community response isn't about data transfer speeds. It is over true digital ownership, consumer rights, and software preservation. In this article, we break down the details, look at the history leading to this moment and explore why console makers would pursue this direction. 🔍 The Announcement Break Down The 2028 Deadline: The mandate strictly applies to new games launching after January 1, 2028. Legacy Back Catalog: Discs pressed before this date will still function (assuming future hardware maintains optical drive compatibility). "Code-in-a-Box" Retail: Stores will still sell physical cases on shelves, but they will contain a paper download voucher instead of a disc. I am no sustanability poster boy, seems wasteful to preserve retail shelf presence. 🛑 The Illusion of Ownership: "Buying" vs. "Renting" When you hit "Buy" on a digital storefront, you aren't purchasing a game. You are purchasing a conditional license to stream or download it—a long-term rental agreement that can be unilaterally altered or revoked. No Secondary Market: Players completely lose the ability to resell, trade, or lend games to friends. Monopoly Pricing: Eliminating discs removes competitive pricing from retailers like GameStop, JB Hi-Fi, or Amazon, leaving users locked to a single proprietary storefront. Delisting Vulnerability: If a publisher loses IP rights, the software vanishes instantly. 🎮 Case Study: My Close Call with Digital Erasure Look no further than Star Trek: Resurgence for proof of how fragile digital stores are. In April 2026, the publishers suddenly lost their IP distribution rights. Within

From order, chaos. From courage, fear. From strength, weakness. — The 36 Stratagems, "Make a Sound...

I’ve wanted to build a text editor for a long time. Not because I thought the world needed another one — it clearly doesn’t — but because editors are one of those projects where you end up touching everything: rendering, input handling, text buffers, undo, plugins, configuration, even OS integration. It felt like the most honest way to learn how these tools actually work. So I finally did. cdin is a lightweight, keyboard-centric text editor with Vim-style modal editing. It started as a fork of lite , but over time it became something more personal. I kept the parts I liked, removed the parts I did not, and reshaped the rest to match the way I actually work. A big reason for that was my computer. I have a weak machine, and that made heavier text editors feel frustrating to use. They were often slow, laggy, or just too much for what I needed. That is how I discovered lite in the first place. It was close to what I wanted, but not quite there. So I forked it, renamed it to cdin, and started making it mine. That meant more than just small tweaks. I removed features I did not need, changed the things that felt awkward, moved from SDL2 to SDL3, and rewired a lot of the project structure along the way. The result is cdin: a small editor built around speed, simplicity, and hackability. The name itself is simple too. cdin means “CODE in”. The code is split between C and Lua. The C side handles the window, renderer, and SDL bindings. Everything else — behavior, plugins, keybindings, config — is loaded in Lua at runtime. That keeps the editor flexible without making it feel heavy. If you want to explore the project, here are the main docs: Overview · Getting Started · Building from Source · Configuration · Vim Keybindings · Plugins · Command Reference There is still a lot I want to improve, but cdin already feels like something that belongs to me in a way no other editor ever did. If you check it out, please leave a star, fork it, or send an Issue or PR if you find a bug or wa

Why I'm Building the Fast Series I'm building the Fast Series because creator software has gotten too complicated. Plenty of tools are powerful, but they make you fight the software before you can make anything. You want to record a tutorial, stream a game, clip a useful moment, compress a file, or turn an idea into a short video. Instead, you're digging through settings, codecs, plugins, device permissions, export presets, and cryptic error messages. That's the problem I keep running into, and the Fast Series is my attempt to solve it: practical Windows software where each tool does one job clearly and reliably. Not everything needs to be a giant all-in-one platform. Sometimes the better product is a small tool that opens quickly, gives you sensible defaults, explains what's happening, and gets out of your way. That's the direction I'm taking with Sturm Technologies. The Problem With Creator Tools There are already great tools for recording, streaming, editing, clipping, and compressing. OBS is powerful. Professional editors are powerful. FFmpeg is powerful. There are cloud tools, browser tools, AI tools, and creator suites that promise to do everything. But power is not the same thing as clarity. Most creators don't want to become experts in capture APIs, bitrate math, encoder settings, audio routing, or export pipelines. They want to make something and publish it. The pain usually shows up in small moments. You record a video and the audio is missing. You compress a file and it still doesn't meet the upload limit. You spend more time scrubbing a long video than actually clipping it. You hit an error and the app hands you a technical dump instead of telling you what to fix. That's where I think there's room for better software. Not bigger software. Better software. Start With FastCast The first product in the series is FastCast , a Windows recording and streaming app for people who want OBS-level practicality without OBS-level setup. FastCast focuses on screen cap

Unpopulate opinion: Fewer PRs done with proper prompting, review, and refinement usually win long term. 3 thoughtful PRs a day > 40 poorly thought ones no matter how many AI agents reviewed them.

The $149 Dune keyboard can be a meeting controller at least and a script-executing keypad at best.

During negotiations on Wednesday, employees voiced frustrations with what they consider an unwillingness among executives to engage meaningfully with the prospect of unionization.

Cloudflare details Town Lake, an internal unified data platform, and Skipper, an AI analytics agent unifying access to operational, billing, security, and business data. The platform processed ~91K billing queries, with billing forming majority usage. Built on a lakehouse architecture using Trino, Iceberg, R2, and DataHub, it enables governed cross-system analytics and natural language access. By Leela Kumili

GitHub热门项目 | Lakehouse native graph engine with git-style workflows | Stars: 524 | 47 stars today | 语言: Rust

Introduction As data volumes continue to grow, running aggregation queries directly on raw datasets becomes increasingly expensive. Business dashboards, analytics platforms, and reporting systems often execute the same calculations repeatedly—such as total sales, daily active users, page views, or revenue trends. While ClickHouse® is designed to process analytical workloads at remarkable speed, repeatedly scanning billions of records still consumes valuable CPU, memory, and storage resources. This is where AggregatingMergeTree proves its value. Rather than calculating aggregates every time a query is executed, AggregatingMergeTree stores intermediate aggregation states that are merged automatically in the background. This approach allows analytical queries to read compact, pre-aggregated datasets, resulting in dramatically faster response times and reduced infrastructure costs. In this guide, you'll learn how AggregatingMergeTree works, why aggregate states matter, how to build an automated aggregation pipeline using Materialized Views, and when this engine is the right choice for your ClickHouse® workloads. What is AggregatingMergeTree? AggregatingMergeTree is a specialized ClickHouse® table engine designed to store aggregate function states instead of raw records. Unlike the standard MergeTree engine, which stores every inserted row, AggregatingMergeTree keeps partially aggregated values that ClickHouse combines during background merge operations. This significantly reduces the amount of data that must be processed when generating analytical reports. Because much of the computational work happens during data ingestion, dashboards and reporting applications can retrieve summarized information much more efficiently. Typical scenarios include: Sales reporting Website traffic analytics Financial summaries IoT sensor monitoring Business KPI dashboards Application observability metrics Why Use AggregatingMergeTree? Imagine an online marketplace processing millions of tr

Are you a football fan? Since the FIFA hype is at its absolute peak at this moment, it is hard to...

There is a ghost haunting the tech industry right now, and nobody wants to talk about it: The Junior Developer role is disappearing. With tools like GitHub Copilot, ChatGPT, and advanced coding agents becoming standard issue in every IDE, senior developers are suddenly 10x more productive. They no longer need a junior developer to write boilerplate code, write unit tests, or scaffold out basic UI components. The AI does it instantly. So, if you are a junior developer, or aspiring to break into tech, how do you survive? 1. Stop Memorizing Syntax, Start Thinking Architecturally AI is incredible at writing syntax, but it is terrible at system design. If your only skill is writing a for loop in React, you are competing with an AI that works for $20/month. Instead, focus on understanding how systems fit together. Learn about cloud architecture, database indexing, and distributed systems. The AI can write the function, but you have to know where that function lives and how it scales. 2. Become a "Domain Expert" Developer AI doesn't understand the nuanced business logic of the healthcare industry, or the strict compliance regulations of fintech. If you combine coding skills with deep industry knowledge, you become irreplaceable. 3. Embrace the Tools (Be the Orchestrator) Don't fight the AI. Master it. The developers who thrive in the next decade will be the ones who treat AI agents like a team of junior developers reporting to them. Learn how to craft the perfect prompts, how to use Retrieval-Augmented Generation (RAG), and how to orchestrate multiple LLMs to build complex applications. The barrier to entry for writing code has dropped to zero. But the barrier to entry for building valuable software remains exactly the same. Are you terrified of AI replacing you, or are you using it to level up?

TL;DR Welcome back to Dev Opportunity Radar. This is a weekly series where I share opportunities,...

Google has released A2UI v0.9, a framework-agnostic standard for AI agents to declare user interface intent across multiple platforms without arbitrary code. The update emphasizes alignment with existing design systems. It includes a new SDK for Python, improved error handling, and various transport methods. Migration guidance and evolution specifications are also provided. By Daniel Curtis

Over the past year, AI has become part of many developers' daily workflow. It can generate code, explain unfamiliar frameworks, review pull requests, and even suggest architectural patterns. But I've noticed that the biggest impact isn't on writing code faster. It's on how we think about software architecture. With AI handling repetitive implementation tasks, it feels like architects and senior engineers are spending more time on system design, scalability, security, integrations, and long-term maintainability rather than syntax and boilerplate. At the same time, AI-generated code isn't always production-ready. It still requires strong engineering judgment, careful reviews, and a solid understanding of the underlying architecture. I'm curious how other developers are experiencing this shift. Has AI changed the way you design software systems? Do you trust AI when making architectural decisions? Which parts of software architecture do you think should always remain human-led? Have AI tools improved your team's productivity, or introduced new challenges? I'd love to hear real-world experiences, lessons learned, and different perspectives from the community.

The trust problem nobody scopes correctly When companies talk about trust in AI, they almost always mean trust in the model. Is the output accurate? Is it hallucinating? Can we rely on what it says? Those are valid questions but they're the wrong starting point. The trust that actually determines whether AI gets adopted or quietly abandoned inside an organization isn't about the model. It's about the system surrounding it. The four questions that determine Every team evaluating AI in a production workflow eventually runs into the same four questions. Not about model quality. About operational control. Can we understand the outputs? Not just "does the answer look right" but can someone on the team explain why this output was produced and whether it's appropriate for this specific context. An AI that generates correct-looking code or recommendations that nobody can verify is a system that runs on hope. Hope doesn't survive the first incident. Can we validate the decisions? When the AI recommends an action or generates an output that feeds into a business process, is there a way to check it against the actual requirement? Or does the team just trust the output because questioning it is harder than accepting it? The second one is more common than anyone admits. Can we intervene when needed? When something goes wrong, how fast can a human step in? Is there a kill switch? Is there a fallback path? Or does the AI output flow directly into downstream systems with no circuit breaker? The teams that skip this question are the ones that discover the answer during an incident. Can we trace what happened afterward? When an AI-generated decision produces a bad outcome, can you reconstruct the chain? What input went in, what output came out, what context was available, what wasn't? Without traceability, post-mortems hit a dead end, and the same failure happens again. Why opaque systems don't survive real operations There's a tempting argument that opacity is fine as long as the sy

A government customer of NSO Group used the company's Pegasus spyware to hack into the phone of a European politician, who at the time was serving on an EU committee tasked with investigating the spyware industry.

When I started learning iOS development, I thought the hardest part would be writing Swift code. I...

You need to hand a dataset of Chilean RUTs to an outside analytics team. They will join it against other tables by identifier, run the cohort analysis, and hand back a model. They do not need to know, and should never learn, who any of these people are. Asterisk the RUT column and the join dies on contact: **********-K matches every other asterisked RUT in the file. Not almost every one. Every one. You need the same input to reappear as the same output, shaped like a real, check-digit-valid identifier the rest of your schema still recognizes, and eight weeks later, when a fraud investigator needs the original RUT back for one row, you need to be able to give it to them. Irreversible masking cannot do any of this. Hashing gets you consistency but not the format, and never the value back. What you need is format-preserving encryption: run a digit string through a cipher and get out another digit string, same length, same shape, that decrypts to the original under the key you hold. Nothing else. What FPE actually does MaskOps exposes this as mask_pii_fpe . It masks digit-based PII, cards, phones, RUT, CPF, Argentine DNI, in place, and gives back something the same length and shape: import maskops import secrets key = secrets . token_bytes ( 32 ) # AES-256, client holds this tweak = secrets . token_bytes ( 7 ) # per-column/per-dataset context df . with_columns ( maskops . mask_pii_fpe ( " rut_column " , key , tweak )) 76.354.771-K becomes some other RUT-shaped, check-digit-valid string of the same length, under this key and tweak. Run it back through with the same key and tweak and it decrypts. Non-digit PII, IBAN, VAT, email, IP, EU national IDs, gets none of this. It always asterisks. There is no clean digit domain to encrypt into, so MaskOps does not pretend there is. The key never touches MaskOps' output. The client generates it, holds it, and passes it in at call time, and because MaskOps makes no network call and keeps no storage layer, there is nowhere for that k