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By spring 2026, the division of labor between human engineers and AI had become precise enough to describe. Not speculate about. Describe. Delegate these 7 immediately: Boilerplate generation: CRUD scaffolding, config files, standard patterns. Near-human accuracy. Review required is a naming scan, not a logic audit. Test generation: 40-60% faster test development with no measurable decline in coverage quality, provided the tests are reviewed by someone who understands the domain. Documentation: 67% of companies rely on AI-assisted doc generation in 2026. The first draft is a solved problem. Your job is verifying and contextualizing. Code translation: Python to TypeScript. React to Vue. Framework migrations that once consumed sprint cycles now take hours. Routine bug fixing: Claude Code, Devin, BugBot can resolve 60% of reported bugs autonomously. Resolution time down 30-50%. Automated code review: First-pass filter before human review. Misses context issues. Doesn't replace human review. Eliminates noise so you focus on signal. Commit hygiene: Messages, PR summaries, changelog entries. Fully automatable. No meaningful error rate. Never delegate these 6: Architecture and system design: AI proposes. You decide. The tradeoffs require organizational context, team capability assessment, and long-horizon thinking no model possesses. Business context translation: The spec says "export to CSV." You ask: which users, under what conditions, with what compliance implications? AI cannot know the specification is wrong. You can. Security architecture: AI generates vulnerabilities as readily as it detects them. Adversarial thinking is not statistical. It is human. Long-horizon product thinking: What to build and why. Not how. Multi-stakeholder navigation: The politics, the relationships, the conversation with the PM that keeps the sprint on track. No model has stakes in the outcome. Agent orchestration: Designing, managing, and correcting the AI systems themselves. This is the ne

Separately, neither could compete. Now they hope they can.

In Java, sorting is an important operation when working with collections such as ArrayList, LinkedList, and other data structures. For primitive data types, Java already knows how to sort values. However, for custom objects like Student, Employee, or Product, Java needs instructions on how objects should be compared. To achieve this, Java provides two interfaces: Comparable – Used for natural sorting. Comparator – Used for custom sorting. Comparable Interface Comparable is an interface available in the java.lang package. It is used to define the natural ordering of objects. The sorting logic is written inside the class itself using the compareTo() method. Method int compareTo(T obj) Return Values Negative - Current object comes before the given object Zero - Both objects are equal Positive - Current object comes after the given object When to Use Comparable? Use Comparable when: A class has one default sorting order. The sorting logic is a natural property of the object. The sorting criteria rarely change. Comparator Interface Comparator is an interface available in the java.util package. It is used to define custom sorting logic outside the class. Multiple comparators can be created for the same class. Method int compare(T o1, T o2) Return Values Negative - First object comes before second object Zero - Both objects are equal Positive - First object comes after second object When to Use Comparator? Use Comparator when: Multiple sorting criteria are required. You don't want to modify the original class. Different sorting orders are needed at different times.

Originally published on rikuq.com . Republished here for Dev.to's readers. I dropped my $100/month Claude Max subscription and migrated entirely back to Antigravity. If you want the verdict upfront: Claude Desktop is still the best tool for beginners who need the AI to guess their intent from clumsy prompts. But if you have solid documentation discipline and cost efficiency is a serious factor for your SaaS, Antigravity is now the clear winner. I'm a Chartered Accountant by trade with zero formal coding experience. I’ve shipped three production AI SaaS— Prism , Citare , and BatchWise —relying entirely on AI tools. I started with VSCode, moved to Antigravity (when it was just an IDE), and eventually landed on the Claude Desktop App. Claude was incredible; it operated in the background, handled my stack, and I didn't need to know what was happening under the hood. But the bills started stacking up. When my Claude usage consistently hit $100 a month, efficiency became a priority. I fired up the new version of Antigravity and found the recent updates had completely transformed it. It is no longer just an IDE—it is a full agentic desktop experience that mirrors what made Claude so good. TL;DR — The 2026 Reality Feature Claude Desktop App Antigravity (New Update) Best for Beginners, unlimited budgets, "pure performance" Experienced AI directors, cost-conscious solo founders Pricing $100+/mo (Claude Max) $20/mo (Gemini Advanced) Agentic Workflow Exceptional. The benchmark. Identical. Background execution, zero friction. Context Handling Better at anticipating intent from messy prompts Huge total memory, but requires tighter prompting MCP Support Native Native (handles them just as well) Verdict Keep it if cost doesn't matter Switch to it if efficiency is the goal The Catalyst for Switching My path to Antigravity wasn't a calculated feature comparison. It was pure economics combined with a pleasant surprise. I had previously dropped Antigravity when it was just an IDE. When

ArrowJS, developed by Justin Schroeder, is a reactive UI library that has reached its 1.0 release after three years in development. It utilizes core web technologies, avoids JSX and compilers. Notable features include an optional WASM sandbox for executing untrusted code. The framework's minimalism is highlighted by its reliance on three main functions: reactive, html, and component. By Daniel Curtis

When I first started learning how to code, I spent most of my time practicing and working on small...

Coding agents are no longer just autocomplete with a longer prompt. GitHub describes Copilot cloud agent as software that can research a repository, create an implementation plan, make code changes on a branch, run in an ephemeral GitHub Actions-powered environment, and let a developer review or create a pull request afterward. OpenAI's Codex GitHub integration similarly positions code review as a repository-aware review pass that follows AGENTS.md guidance and focuses comments on serious issues. That shift changes the buyer question. The useful question is not "does the agent usually write code?" It is "can the team detect when the agent drifts away from the developer's intent before the change reaches production?" A May 2026 arXiv paper, "How Coding Agents Fail Their Users" , gives teams a better vocabulary for that review. The authors studied 20,574 real IDE and CLI coding-agent sessions across 1,639 repositories and define misalignment as a breakdown that becomes visible through developer correction or pushback. The paper reports seven recurring symptom categories: wrong project diagnosis, misread developer intent, developer constraint violation, self-initiated overreach, faulty implementation, operational execution error, and inaccurate self-reporting. Effloow Lab also ran a bounded OpenAI API check using three synthetic, non-confidential coding-agent transcript snippets. The run did not measure real-world incidence, compare vendors, or reproduce the paper. It produced a small rubric that maps visible symptoms to review gates such as diff-scope checks, evidence-before-edit checks, acceptance-criteria coverage, and verification-output requirements. The public lab note is available at /lab-runs/coding-agent-misalignment-failure-taxonomy-poc-2026 . This guide turns that research and lab output into a practical QA checklist for teams buying, piloting, or packaging coding-agent workflows. Why This Matters for Agent Buyers Coding-agent procurement often starts with p

Better orchestration, fewer handoffs, faster progress, without a single new knob. The post How we made GitHub Copilot CLI more selective about delegation appeared first on The GitHub Blog .

Competitive programming often looks like a race to write code as fast as possible. But the real secret is simpler: the best competitive programmers are not just faster typists — they are better at choosing the right data structure, the right algorithm, and the right complexity level for the job. Before we jump into recursion, dynamic programming, graphs, or those problems that make your brain do backflips, we need a solid base. This first session is exactly that. Let's begin. 🚀 1. Data Types: What Kind of Data Are You Storing? A data type tells a programming language what kind of value a variable holds and what operations are valid on it. Primitive Data Types The basic building blocks provided by the language itself: Integer — whole numbers: 5 , 100 , -3 Float / Double — decimal values: 3.14 , 99.5 Character — a single symbol: 'A' , 'z' Boolean — true or false User-Defined Data Types When primitive types are not enough, programmers define their own: Structs — group related fields under one name Classes — structs with behaviour (methods) attached Enums — a fixed set of named constants Typedefs / Aliases — rename existing types for clarity A Real-World Example Imagine building a food delivery app: An integer stores the number of items in the cart A float stores the total bill amount A boolean tracks whether the order has been delivered A class represents an entire Order — customer name, address, items, payment status Data types are essentially the labels on your containers. Without them, chaos begins early. 2. Data Structures: How Do You Organise Data? If data types answer what a value is, data structures answer how to organise many values efficiently. This is where competitive programming starts to get interesting. Linear Data Structures Elements arranged one after another, like people queuing at a ticket counter: Arrays — fixed-size, indexed, fast random access Linked Lists — dynamic size, efficient insertions and deletions Stacks — last in, first out (LIFO) Queues

Google's Angular team has released a repository called angular/skills, focusing on Agent Skills that enhance AI coding agents' ability to write modern Angular code. The repository includes skills for generating code and scaffolding applications, reinforcing current Angular conventions. It serves as a snapshot, aiming to improve AI suggestions by providing updated context. By Daniel Curtis

It was a Tuesday afternoon in March 2026. A senior engineer, let's call her Priya, was three slides into a quarterly planning meeting when her phone buzzed. A notification from her terminal. Claude Code had opened a pull request. She'd started a refactor before the meeting. A sprawling authentication module: 14 files, deprecated patterns, a test suite nobody had touched in two years. She gave the agent a brief in plain language, set the parameters, and walked into the room. Forty-five minutes later, the PR was open. The code was clean. The tests passed. The deprecated patterns were gone. She reviewed it that evening, approved it at 6:15 p.m., and closed her laptop. Here's the question that keeps me up at night: Was that engineering? Or was that management? Because if the agent wrote the code, ran the tests, and opened the PR, what exactly did Priya do? She wrote the brief. She set the parameters. She reviewed the output. She made the call to merge. She directed it. And that, directing rather than implementing, is what this entire moment in software engineering is about. I've been a software engineer for 9 years. I've built SaaS products, fintech systems, and DevOps pipelines from scratch. I watched Copilot arrive and thought "neat autocomplete." Then Cursor arrived and I realised something had fundamentally shifted. Not because the tools were impressive. Because I finally understood what they were. They are not smart colleagues. They are not replacements. They are the most powerful leverage mechanism software engineering has ever produced for engineers who understand them deeply enough to wield them. That's what this book is about. For the next 20 days I'm going to share an excerpt from each chapter. Some days will make you uncomfortable. Some days will change how you work on Monday morning. All of them are grounded in what's actually happening in engineering teams in 2026, not hype, not fear, just the territory as it is. Tomorrow: The one sentence about AI that cha

TL;DR - Getting an app to run is now the easy part. AI is very good at producing something that...

There is a moment, about ten minutes into using Lovable, where you feel like the future has arrived. You type a few sentences, and a real website appears. It looks good. It works. You did not write a line of code. We get it. That moment is genuinely impressive, and Lovable deserves the credit it gets for it. But a website is not a launch. It is a thing you live with. You update your hours. You add a blog post. You publish a case study. You change a price. You hire someone and want them to handle the news page without breaking anything. That is where the two platforms stop looking alike. So instead of comparing the first ten minutes, this post compares the next ten months. What Lovable actually builds Lovable is an AI coding tool. When you describe your site, it writes a React application: components, state, routing, build tooling. Your content, the actual words and images on your pages, lives inside that code. This is a fine architecture for a web app. It is an awkward one for a website, because every future change is a code change. Want to fix a typo in a testimonial? That sentence is a string inside a React component. You can ask the AI to change it, and it usually will. But you are editing software to edit a sentence. Your marketing person is not going to do that. Your client definitely is not. And there is a quieter problem underneath. The site Lovable generates depends on a specific framework, a specific set of packages, and a build pipeline. Frameworks move fast. The React app that builds cleanly today may need dependency updates a year from now just to keep working. Someone has to own that, and it is probably you. What SleekCMS builds SleekCMS starts from a different assumption: most businesses do not need a web application. They need a website, and a website is mostly content. So when you describe your site to SleekCMS, you get two things: First, your content as structured data. Your pages, your services, your team bios, your blog posts all live in a CMS, in

AI coding agent startup Niteshift has raised a $7 million seed round from a who's who of angels. It's betting companies will want power over, not lock-in with model makers.

The demo is impressive. ✅ The demo works in your environment, with your data, with you watching. ✅ Production? Silent failures. Cost overruns. Wrong tool calls. Stuck loops. No fallback. ❌ Agents in 2026: The Real Problem Here is the thing most people are not talking about when they ship AI agents: A demo agent and a production agent are completely different things. A demo is: "watch this work once." A production agent is: "what happens when it is wrong, stuck, expensive, over-permissioned, or called 10,000 times by real users?" That second question is what separates a cool technical proof-of-concept from something a business can actually rely on. Demos are not systems. 1️⃣ The 7 Things That Break in Prod In every agent hardening sprint I run, the same failures show up: Failure Mode What It Costs No logging You have no idea what the agent did or why No eval set You cannot measure quality or catch regressions Unlimited tool access Agent calls tools it should never touch No retry logic Transient failures become permanent failures No memory rules Context leaks between sessions or inflates cost No fallback path Agent loops or crashes instead of escalating No cost checks 1 misconfigured prompt → $400 API bill overnight If your agent is in production with 3 or more of those missing — you are one bad prompt away from a very expensive incident. 2️⃣ The Production Hardening Checklist Before you call an agent production-ready, run through this: Eval set exists — at least 20 test cases covering happy path + edge cases Structured logging — every tool call, every input, every output, every error — logged and searchable Retry logic — transient API failures handled gracefully, not crashed Tool limits — agent cannot call tools outside its defined scope Memory rules — what carries over between sessions, what gets cleared, how context is compressed Fallback paths — when the agent gets stuck or uncertain, it has an exit: escalate to human, return partial result, surface an error Cost

GitHub shipped a small changelog entry this week that says more about the future of coding agents than most of the launch demos. Security validation for third-party coding agents is now generally available. Not just for GitHub's own Copilot cloud agent. For third-party agents too, including Claude and OpenAI Codex. The feature sounds boring in the best possible way. When an agent creates code, GitHub can run CodeQL, check new dependencies against the GitHub Advisory Database, and use secret scanning to detect tokens, API keys, and other sensitive material. If it finds a problem, the agent tries to fix it. That is not the flashy part of agentic coding. It is the important part. Because once agents are allowed to act inside repos, the question stops being "which model wrote this diff?" and becomes "can the repository apply the same policy to every automation actor?" authorship is the wrong abstraction We still talk about generated code as if authorship is the primary thing that matters. Was this written by Copilot? Claude? Codex? A human with tab completion? A human who pasted something from a chat window and cleaned it up? A junior engineer following a Stack Overflow answer from 2018? Those distinctions matter for procurement and product marketing. They matter less for the repository. The repository has a simpler problem: a change is trying to enter the system. It may introduce a vulnerability, add a risky dependency, leak a secret, violate an internal rule, or be perfectly fine. That is why the GitHub change is interesting. It moves the useful boundary from "our approved coding assistant" to "any coding agent operating in this repository." the agent is now an actor For years, repository automation was mostly boring and legible. CI ran tests. Dependabot opened dependency updates. Release bots bumped versions. Linters complained. Security scanners commented. Humans reviewed. The automation could be annoying, but its shape was predictable. Coding agents are different.

A useful technical idea, repeated often enough, eventually generates an unuseful philosophical claim. The current example is grammar-constrained decoding. The technique is straightforward — at each generation step, the language model's next-token logits are masked so that only tokens whose continuation can satisfy a formal grammar remain selectable; the output is, by construction, structurally valid. JSON parses. SQL is well-formed. Function-call signatures match. There is a real engineering payoff and a healthy ecosystem of libraries that deliver it. The drift is not in the engineering. It is in the rhetorical move that follows the engineering. A growing corner of 2025-2026 AI writing argues, more or less explicitly, that constraining a model's output is making the model approach meaning — that filtering linear sequences is somehow building structure, and that structure is somehow building understanding. I want to take that drift seriously, because it is the same conflation Chomsky and collaborators flagged in their March 2023 essay in the New York Times , and the engineering literature on constrained decoding agrees with Chomsky on the substantive question, even when the marketing copy doesn't. What grammar-constrained decoding actually is A language model produces output one token at a time. At each step, the model emits a probability distribution over its vocabulary, and the decoding strategy (greedy, top-k, nucleus, etc.) picks one token. Without modification, the model is free to emit any continuation; the resulting text might happen to be valid JSON, or it might not. Grammar-constrained decoding intervenes in that step. A formal grammar — typically a context-free grammar, sometimes a regular expression, sometimes a JSON schema or Pydantic model — defines what counts as valid output. At each generation step, the constraint engine computes which next tokens could lead to a continuation that is still satisfiable under the grammar, masks the logits for all other

Lovable says it has now surpassed $500 million in annualized run-rate revenue and its users are building businesses and replacing internal software.

AI coding agents feel sharp when a project is small. They can scan a few files, understand the shape, and make useful changes. In that phase, the project still fits inside the agent’s short-term memory. The architecture is obvious. The dangerous files are nearby. The blast radius is small. But something changes when a project reaches MVP size. The agent still sounds confident, but it starts guessing. It finds a nearby file and assumes it is the right one. It trusts stale documentation. It misses hidden callers. It forgets architecture boundaries. It edits something that was not really part of the task. I kept running into that problem while building larger projects. Source-level guardrails help. A CONTRIBUTING.md, AGENTS.md, or project instruction file can tell the agent how to behave. But those are still instructions. They are not facts. That is where the idea for CodeMeridian came from. What CodeMeridian is CodeMeridian is a local code knowledge graph for AI coding tools. It indexes a codebase into Neo4j and exposes that graph through MCP, so tools like GitHub Copilot, Claude Code, Codex-style agents, or other MCP-compatible clients can ask better questions before editing. The basic idea is: The assistant is the AI. CodeMeridian is the project map. It does not replace the coding assistant. It gives the assistant a structured way to ask about the codebase. Examples: What calls this method? What tests cover this area? What files are likely in scope for this feature? Is the graph stale before I trust it? How is this frontend component connected to backend code? Why a graph? Code is already a graph. Methods call methods. Classes implement interfaces. Tests cover production paths. Frontend components call API clients. API handlers touch services. Services use repositories. Docs mention symbols. Projects depend on other projects. A normal file search can find text. A graph can answer relationship questions. That matters because many AI coding mistakes are relationship m

I got fired from my first job, took down a database server with a badly written query, and was...