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Despite predictions that AI agents could make traditional apps obsolete, developers are shipping new software faster than ever. From smarter bookmarking tools and neighborhood marketplaces to digital pen pals and nature journals, here are the latest App Store finds worth adding to your Home Screen.

The investment comes after speculation that Saudi Arabia may take Lucid Motors private -- which the EV maker has denied.

After a lovely and productive conversation with your client, with still ringing ears, you check the coding agent's last log messages on a ticket that adds a discount to a product. The message was: "Done, I added the 10% discount and all tests pass. Stopping. " Well ... you know it's just not true, so you dig further and quickly realize that the discount functionality was never actually added and the tests it reported passing had never been run. The agent reached the end of the loop, looked at its own work, and called it finished. That call is the thing that shipped. This has a name. A paper published this June, From Confident Closing to Silent Failure , calls it false success: the agent asserts the task is complete while the actual state of the system says otherwise. It is common, and it holds up across capable models. On AppWorld, a benchmark for long-horizon coding agents, 75.8% of the runs that actually failed still ended with the agent claiming it was done. The researchers then put five different LLM judges on those completion claims, varying the prompts each time, and every one of them landed barely above a coin flip, because the thing each judge was reading was the closing sentence, and the closing sentence reads as confident whether the work happened or not. What told a real done apart from a false one turned out to be cheap and mechanical: a look at the actual state of the system. A lightweight deterministic state check caught four to eight times more false successes than the best of the judges. The paper has a name for the mechanism underneath, a hallucination of verification: the model narrates having checked something it never checked, and that narration is indistinguishable, sentence for sentence, from a report of a check that really ran. That gap, between what the agent said and what the system did, is what this piece is about. A loop runs five arms: generate, check, steer, retry, stop. The series opener named them; four pieces since took the check that

Cómo montar un motor de contenidos que no te arruine (julio 2026) Si sigues pagando 300 euros al mes por herramientas "todo en uno" de marketing, estás tirando el dinero. A mediados de 2026, la tecnología para automatizar ha bajado tanto de precio que los costes de infraestructura de contenidos son casi ridículos. La clave no es la herramienta cara, es conectar piezas pequeñas con APIs baratas. Aquí tienes cómo tengo montado mi flujo de trabajo ahora mismo. La pila tecnológica (el stack) Para automatizar sin gastar, olvida las plataformas de marketing tipo HubSpot o plataformas cerradas. Mi setup actual es este: Cerebro: Claude 3.5 Sonnet (vía API). Es mejor razonando que GPT-4o para tono editorial. Orquestador: n8n (corriendo en una VPS de 5 euros al mes en Hetzner). Base de datos: Notion (vía API para gestionar el calendario). Distribución: Ghost para el blog y la API de LinkedIn/X para el alcance. Coste total: Menos de 15 euros al mes. Paso 1: El disparador (el calendario en Notion) No uses un Excel. Usa una base de datos de Notion con cuatro columnas: Estado , Título , Prompt_Contexto y Fecha_Publicación . Cuando cambias el estado de "Borrador" a "Listo para generar", el webhook de n8n se dispara. Aquí es donde empieza el ahorro. No envías toda la base de datos, envías solo el registro nuevo. Paso 2: El prompt como código, no como texto La mayoría de la gente comete el error de pedirle a la IA: "escribe un post sobre X". Sale basura genérica. En 2026, si no das contexto, el contenido no posiciona ni recibe interacción. En tu nodo de n8n, construye el prompt de forma dinámica. Así es como envío la estructura a la API: { "model" : "claude-3-5-sonnet-20260620" , "system" : "Eres un redactor técnico senior especializado en SaaS B2B. Tu estilo es directo, sin paja, sin adjetivos innecesarios. Evitas los clichés de marketing de 2024. Tu objetivo es educar, no vender." , "messages" : [ { "role" : "user" , "content" : "Escribe un artículo corto basado en este punto clav

Every tool in the East Africa coordination infrastructure stack started from the same scaffold. Here's exactly how to build and publish one yourself. What You're Building An MCP server is a Python package that exposes tools to AI assistants. When a user installs it and connects it to Claude, the AI can call your tools as naturally as answering a question. pip install your-mcp-server # Then Claude can: # "Check NHIF coverage for outpatient surgery" → calls your tool → returns structured result Step 1: Set Up the Project (2 min) your-mcp-server/ ├── src/ │ └── your_package/ │ ├── __init__.py │ └── main.py ├── pyproject.toml ├── README.md └── .github/ └── workflows/ └── publish.yml mkdir your-mcp-server && cd your-mcp-server mkdir -p src/your_package touch src/your_package/__init__.py src/your_package/main.py Step 2: Write Your Tool (10 min) # src/your_package/main.py from __future__ import annotations from typing import Annotated from fastmcp import FastMCP mcp = FastMCP ( name = " your-mcp-server " , instructions = " Describe what your server does in one paragraph. " , ) @mcp.tool ( description = ( " What this tool does in plain language. " " Include the Western parallel if applicable. " " Note if it uses DEMO data. " ) ) def your_tool ( param1 : Annotated [ str , " Description of param1 " ], param2 : Annotated [ int , " Description of param2 " ] = 0 , ) -> dict : # Your logic here return { " result " : f " Processed { param1 } " , " note " : " DEMO — replace with real data source in production " , " source " : " your-mcp-server " , } def main (): mcp . run () if __name__ == " __main__ " : main () Step 3: Configure pyproject.toml (3 min) [build-system] requires = ["setuptools> = 61.0 "] build-backend = "setuptools.build_meta" # ← exact string, no variation [project] name = "your-mcp-server" version = "0.1.0" description = "One-line description" authors = [{name = "Your Name" , email = "you@example.com" }] license = { text = "MIT" } readme = "README.md" requires-pytho

If you run more than a handful of OpenTelemetry Collectors, you already know the pain: a config change means SSHing into boxes, redeploying DaemonSets, or babysitting a Git pipeline per cluster, and you never quite trust that every agent is running the config you think it is. OpAMP fixes exactly that. It is a protocol that lets a central server push configuration to a fleet of Collectors, watch their health, and roll changes out in stages, without you touching each host. This post walks through how OpAMP works, the two ways a Collector can speak it, and the config you need to wire one up. The problem OpAMP solves A single Collector is easy. A hundred of them, spread across clusters, VMs, and edge nodes, is a fleet-management problem that has nothing to do with telemetry itself. Every observability team eventually builds some version of the same thing: a way to ship a new pipeline config, confirm it actually applied, and back it out when a processor starts dropping spans. Without a management protocol you end up gluing that together from ConfigMaps, Ansible runs, and dashboards that only tell you an agent is alive, not what config it is actually running. Config drift creeps in. One node keeps an old sampling rate for months because its rollout quietly failed and nobody noticed. OpAMP, the Open Agent Management Protocol, is the OpenTelemetry answer to this. Splunk donated it to the project in 2022, and it has since become the standard control channel for the Collector. It is worth pairing with a clear-eyed view of what a Collector actually is versus lighter agents; the OpenTelemetry Collector vs Grafana Alloy comparison covers that trade-off if you are still choosing a data plane. What OpAMP actually is OpAMP is a client/server network protocol for remote management of large fleets of data-collection agents. It is transport-flexible: agents connect to the server over either plain HTTP or a WebSocket, and the WebSocket path gives you a persistent bidirectional channel

A Live Linux system such as SystemRescue generally has the following structure: ISO9660 ├── EFI/, boot/, syslinux/, grub/ ← Bootloader ├── vmlinuz ← Kernel ├── initramfs ← Initial RAM disk └── airootfs.sfs / filesystem.squashfs └── Actual root filesystem Because SquashFS is read-only, the basic process is as follows: Extract the ISO ↓ Extract the SquashFS ↓ Edit the rootfs or enter it with chroot ↓ Rebuild the SquashFS ↓ Replace the SquashFS inside the ISO ↓ Rebuild it as a bootable ISO ↓ Test with BIOS and UEFI However, with SystemRescue, it is safer not to rebuild airootfs.sfs directly from the outset, but to select a method in the following order of priority: YAML configuration in sysrescue.d Overlay using an SRM (SystemRescueModule) Direct reconstruction of airootfs.sfs Full build from the SystemRescue source The official SystemRescue documentation also recommends sysrescue-customize for modifying ISO images. An SRM is an additional layer in SquashFS format, and files at the same paths in the SRM take precedence over those in the base rootfs. ( SystemRescue ) 1. Preparing the Working Environment It is easiest to perform this work on Linux. On Debian/Ubuntu-based systems, install the following: sudo apt update sudo apt install squashfs-tools xorriso rsync file It is also useful to install QEMU for testing: sudo apt install qemu-system-x86 ovmf The official SystemRescue customization script also lists xorriso and squashfs-tools among its main dependencies. It can also be run under WSL. ( SystemRescue ) Create a working directory: mkdir -p ~/work/systemrescue cd ~/work/systemrescue cp /path/to/systemrescue.iso original.iso Ensure that you have at least several times the original ISO size in free space. When rebuilding from within SystemRescue itself, the official documentation notes that the Copy-on-Write area may require approximately three times the ISO size. ( SystemRescue ) Method A: Use the Official SystemRescue sysrescue-customize Tool For SystemRescue, this

I was two hours into a bug and completely certain it was mine. Properties I'd added on the Java side of an application weren't showing up on the JavaScript side. I'd just touched that code. It had to be my change — that's not a hunch, that's just how these things go, you break the thing you were last inside of. I spent the better part of an hour re-reading my own diff, convinced the answer was somewhere in it, because it obviously had to be. It wasn't in my diff. It was a legacy codegen sync script, three steps removed from anything I'd touched, quietly failing to invalidate an old artifact. I didn't find that out by getting smarter. I found it out by walking away from my own certainty, twice, guided by a checklist I'd set long before I ever opened that file. Here's that checklist, the same one every time. I go through this checklist anytime I'm about to dig into a problem that I know might be tricky. Before you start — while you're calm, not while you're stuck — decide how long you're willing to work under pressure before you're required to stop. I typically set this at two hours . Decide what activity you'll do when the timer goes off. Something calibrated to wherever you happen to be that day: a walk or a coffee run at the office, cooking dinner or picking up a controller at home. Set the timer and get to work. When the timer goes off, stop. Immediately. No snooze button, no "just five more minutes," especially when you feel close. Get up and perform the activity from step two. Then loop back to step three. If the day's ending and the work isn't done, "call it done for today" and return to the checklist tomorrow. That's the whole thing. It reads like it belongs on a sticky note, and I want to own that up front instead of pretending it's more sophisticated than it looks. Why you need a plan instead of just trying harder I built this checklist to get unstuck. What it's actually for is disrupting confirmation bias, and I didn't fully understand that until I'd used i

The flow will be: Authentication foundation Session vs JWT JWT deep dive JWT security Access/Refresh tokens OAuth2 relationship with JWT End-to-end production flow PKCE Storage strategies summary 1. Authentication Fundamentals Every secure application needs answers to two questions: Authentication "Who are you?" Example: User enters: username password MFA System verifies identity. Result: User is Bhargav Authorization "What are you allowed to do?" Example: User: Bhargav Permissions: READ_ORDERS CREATE_ORDER DELETE_ORDER Authentication happens first. Authorization happens after. Authentication | v Authorization 2. Traditional Session-Based Authentication (Stateful) Before JWT, applications commonly used sessions. Flow User logs in: Browser | | username/password | v Server Server creates: Session ID = abc123 Stores: Database / Memory abc123 | | User: Bhargav Role: ADMIN Browser receives: Cookie: SESSION_ID=abc123 Every Request Browser sends: GET /orders Cookie: SESSION_ID=abc123 Server: Receive Session ID | v Search session storage | v Find user | v Allow request Problems with Sessions 1. Server maintains state The server must remember: Session ID | v User Information 2. Scaling problem Imagine multiple servers: Load Balancer / \ Server A Server B User logs in: Server A Session stored here Next request: Server B No session found Solutions: Sticky sessions Shared session database 3. JWT Authentication (Stateless) JWT solves this by putting information inside the token. JWT: JSON Web Token It is a compact, signed representation of claims between two parties. Example: eyJhbGciOiJIUzI1Ni... JWT vs Session Session Server stores user state: Server Session ID | v User Data JWT Token contains information: JWT Header + Payload + Signature Server does not need to store session information. 4. JWT Structure A JWT has three parts: HEADER.PAYLOAD.SIGNATURE Example: xxxxx.yyyyy.zzzzz Part 1: Header Contains metadata. Example: { "alg" : "RS256" , "typ" : "JWT" } Meaning: JWT uses RS

Use a private bucket with short-lived presigned URLs when an avatar belongs to exactly one user, and reach for a public CDN-backed bucket only when the images are genuinely public and you'd rather pay for cache hits than for signatures. For a Node.js SaaS that is the entire decision, and everything after it is plumbing: which S3-compatible provider you point at, how long a signature should live, and what happens to the stored object on the day a user deletes their account. Avatars are small. That removes half the hard problems. The half that's left is the half I get paged for, because an avatar key is written by an untrusted client, read on nearly every page render, cached in three places you don't control, and referenced from a database row that has its own opinion about which object is current. So the questions I ask a storage vendor aren't about upload throughput. They're about whether a partial write can ever be visible to a reader, what the durability number is actually measuring, and how I reconcile the bucket with my user table after a failed deploy. I've never watched a team lose avatar bytes. I've watched several lose track of which bytes were current, which is the same outage with a friendlier root-cause section. How should a Node.js SaaS store private user avatars in object storage? Three moves, in this order. Create one private bucket for the whole tenant base, write each avatar under a key that carries a random component, and mint a presigned GET at display time instead of persisting any URL. Store the key in your database, on the user row, and nothing else, because keys are stable and signatures expire — a URL you saved last Tuesday is a support ticket waiting to happen. Serving the image then costs you one signing call per render, which you can cache in Redis for slightly less than the signature's own lifetime. That random component does more work than it looks like it does. Overwriting a fixed path like users/8821/avatar.png puts you in a read-modify

After a domain migration or HTTPS switch, "all plugin settings are gone" or "Elementor layouts are broken" is a common outcome. The cause, in most cases, is running a string replacement against the WordPress database without accounting for PHP serialized data. WordPress stores plugin configurations, custom field values, and widget settings in PHP’s serialized format. Standard SQL replacements — phpMyAdmin’s find-and-replace, raw UPDATE statements, sed on a .sql dump — rewrite the string value without updating the length metadata that serialization embeds alongside it. The result is a database that appears intact but returns false on every read of the affected values. wp search-replace handles this correctly. Understanding why makes the pre- and post-execution steps more deliberate. What PHP serialization stores alongside the value A serialized entry in WordPress looks like this: a : 2 : { s : 4 : "home" ; s : 22 : "http://example.com/top" ; s : 5 : "title" ; s : 8 : "My Site" ;} The segment s:22:"http://example.com/top" means "a string of 22 bytes." The s:N: prefix records the byte length. When a simple string replacement changes http://example.com to https://example.com : Before: s:22:"http://example.com/top" (22 bytes) After: s:22:"https://example.com/top" (23 bytes) The s:22 stays unchanged even though the actual string is now 23 bytes. PHP’s unserialize() detects this mismatch and returns false . The plugin reads false instead of its configuration array and behaves as though the settings were never saved. phpMyAdmin’s find-and-replace executes a SQL UPDATE at the storage layer. No PHP context exists there — it can’t know the column contains serialized data, and it doesn’t adjust the length prefix. How wp search-replace handles it wp search-replace operates at the PHP layer, not the SQL layer: Reads each column value Checks whether it’s serialized using is_serialized() If serialized: calls unserialize() to expand it into a PHP array or object Applies the string r

When an application starts using more than one language model provider, the hard part is rarely the first API call. The hard part is everything that follows: separate credentials, different request shapes, provider-specific errors, billing dashboards, and model migrations scattered across the codebase. A useful way to reduce that surface area is to keep one OpenAI-compatible client contract and move provider choice into configuration. This guide shows the smallest working setup with Routara , plus the production checks I recommend before sending real traffic. 1. Keep the SDK, change the endpoint If your project already uses the OpenAI Python SDK, the client initialization is the only part that needs to change: import os from openai import OpenAI client = OpenAI ( api_key = os . environ [ " ROUTARA_API_KEY " ], base_url = " https://api.routara.ai/v1 " , ) response = client . chat . completions . create ( model = " deepseek-chat " , messages = [ { " role " : " user " , " content " : " Explain idempotency in two sentences. " } ], ) print ( response . choices [ 0 ]. message . content ) Store the key in an environment variable. Do not put it in browser code, a public repository, screenshots, or support messages. The same pattern works in Node.js: import OpenAI from " openai " ; const client = new OpenAI ({ apiKey : process . env . ROUTARA_API_KEY , baseURL : " https://api.routara.ai/v1 " , }); const result = await client . chat . completions . create ({ model : " deepseek-chat " , messages : [{ role : " user " , content : " Return one short test sentence. " }], }); console . log ( result . choices [ 0 ]. message . content ); 2. Treat model IDs as configuration Do not spread model names throughout the application. Put them in environment variables or a typed configuration object: model_id = os . environ . get ( " ROUTARA_MODEL " , " deepseek-chat " ) That makes model evaluation and rollback much safer. Routara's live model catalog is the source of truth for current availa

INTODUCTION Creating Greenwood academy database is essential for managing the students, subject and exam results efficiently. PostgreSQL, a powerful open-source relational database system, offers the perfect foundation for such a project. The main areas areas in SQL covered in this projects are : 1. DDL (Data Definition Language) DDL commands define, modify, and change the physical structure of database objects like tables and schemas. The first step is to create a greenwood academy schema using the create command. create schema greenwood_academy ; set search_path to greenwood_academy ; Next is to crete tables in the schema; The schema has 3 tables students,subject and exam results. create table greenwood_academy . students ( student_id INT PRIMARY key , first_name VARCHAR ( 50 ) NOT null , last_name VARCHAR ( 50 ) NOT null , gender VARCHAR ( 1 ), date_of_birth DATE , class VARCHAR ( 10 ), city VARCHAR ( 50 ) ); create table greenwood_academy . subject ( subject_id INT PRIMARY key , subject_name VARCHAR ( 100 ) NOT null unique , department VARCHAR ( 50 ), teacher_name VARCHAR ( 100 ), credits INT ); create table greenwood_academy . exam_results ( result_id INT PRIMARY key , student_id INT NOT null , subject_id INT NOT null , marks INT NOT null , exam_date DATE , grade VARCHAR ( 2 ) ); ALTER - This command changes the structure of tables in a database. Core Actions You Can Perform Add columns : Insert a new column and its data type into a table. The school realised that the nthey forgot to add phone numbers in the students table. The following command is used to add the data alter table greenwood_academy . students add column phone_number VARCHAR ( 20 ); Rename colums : Change the name of a table or a column. The column credit has to be changed to credit hours alter table greenwood_academy . subject rename column credits to credit_hours ; Drop columns : Delete an unwanted column from a table. Later the school relised that the phone number column is nolonger needed. a

Apple is facing a lawsuit from three users who say they collectively lost more than $1.8 million after downloading a fraudulent crypto wallet from the App Store, challenging the company’s longstanding claims that its app review process keeps users safe from scams.

You already run Claude Code by hand: copy issues into a prompt, watch it work, check the diff, and if something breaks halfway through, you restart it. This works fine for one task at a time, but it falls apart when you have 10 tasks simultaneously. Claude Code is good at handling routine engineering tasks: bug fixes, dependency bumps, and small features, when the prompt is clear and the task is scoped. But when it comes to scaling, you need an infrastructure with isolated workspaces, retry logic, state that survives a restart, and tracker integration, not to waste time on babysitting. Sortie removes the manual work. You label an issue, Sortie picks it up, creates an isolated workspace, runs the agent, retries it if it stalls, and opens a pull request when it's done. This article describes how to set the entire process from an empty directory to a GitHub issue turning into a PR without you touching the keyboard in between. What you need A GitHub repository you control Export two environment variables: ANTHROPIC_API_KEY - authenticates Claude Code GITHUB_TOKEN - it's read by tracker.api_key: $GITHUB_TOKEN for polling/updating issues, and it's the same token gh pr create inside the after_run hook uses to open the PR, so it needs Issues: read/write, Contents: read, and Pull requests: read/write scopes on that repository, all on one fine-grained PAT. Push access to the repository over SSH. The after_create hook below clones with git@github.com:... , so git authenticates with your SSH key, not with GITHUB_TOKEN . Verify with ssh -T git@github.com . If you'd rather stay on one credential, swap the clone URL for https://${GITHUB_TOKEN}@github.com/yourorg/yourrepo.git and give the token Contents: read/write. In your repository, create the agent-ready label — you need it to exist before you can put it on an issue, and query_filter finds nothing without it. Creating in-progress , review , and done up front is also worth doing: GitHub does create a missing label when Sortie ap

Meme generator may have screwed up by using templates in outputs, expert says.

Clear a corner of your workbench and gather a handful of parts, because this palm-sized television is an afternoon build, not a semester project. Here is the shopping list for a Scanwheel of your own: A Raspberry Pi Pico to run the show An A4988 stepper driver A 21-02485 stepper motor (or a similar small NEMA-style unit) Five LEDs, plus current-limiting resistors A 3D-printed case and spinning disk The Scanwheel, built by a maker who goes by [Ancient], is a mechanical TV that fits in your hand. Instead of a glowing panel, it leans on persistence of vision: your eye holds each flash of light for a fraction of a second, so a row of blinking LEDs seen through a moving slit reads as a solid picture. Spin the disk fast enough and the flicker melts into an image. How the picture actually forms The disk sitting on top of the case carries 20 small holes spaced evenly around its edge, each drilled at a slightly different height. As the motor turns, only one hole passes in front of the LEDs at a time, so light escapes in a scanning line rather than a wash. The Pico drives the stepper up to roughly 900 RPM through the A4988, then fires the LEDs in a precise order timed to the disk position. Get that timing right and the holes trace out a grid. The payoff is a 20x20 pixel color display in the center, flanked by two more 20x20 black-and-white panels that can each show a different image. Five LEDs feed all three. The whole coordination job lives on the Pico's GPIO pins, which is why the wiring stays simple enough to manage on a breadboard before you commit anything to a soldered protoboard. Small light baffles in the base keep the LEDs from bleeding into each other, a detail worth copying if your first image looks smeared. Give it a spin The full build guide, firmware, and disk files are on the project's GitHub repository , so you can match the hole spacing and LED timing exactly. If your image drifts or tears, start by trimming the RPM and re-checking when each LED switches rela

I tested the Soundcore Nebula P1i, an affordable projector, to see if it could overcome the typical drawbacks that most budget projectors suffer from.

How to design, ship, and operate an AI agent that is reliable, efficient, performant, scalable, and secure enough to serve real companies — from a 5-person startup to a 50,000-person enterprise. This guide distills hard-won lessons from production agents (Claude Code, OpenHands, SWE-agent, GoClaw, Hermes, nanobot, PicoClaw, ZeroClaw, Multica, Paperclip) and grounds them in current engineering guidance from Anthropic and OpenAI plus the security and compliance standards you'll actually be audited against (OWASP Top 10 for Agentic Applications, NIST AI RMF, the EU AI Act, and 2025–2026 prompt-injection research). It focuses on the parts most articles skip: the enterprise tax — governance, security, compliance, integration, cost control, and the operating model — that separates a demo from a system a CISO will sign off on. 📖 How to use this guide Read Parts 0–2 to decide whether and what to build. Most failed agent projects die here. Read Parts 3–7 for the architecture and reliability engineering. Read Parts 8–10 for the enterprise gates: security, compliance, multi-tenancy, observability, cost. Read Parts 11–15 for delivery, scale & rollout: deployment topologies (SaaS/self-hosted/hybrid), how to adopt from pilot to org-wide, how to handle thousands of concurrent requests, the operating model, and a 30/60/90 plan. Every part ends with an ✅ Actionable checklist . Skim those for a design review. 📋 Table of Contents 🧮 Part 0 — The Core Equation 🧭 Part 1 — Decide Before You Build: Workflow vs Agent, Build vs Buy 🏛️ Part 2 — The Enterprise Tax: What Actually Changes 🏗️ Part 3 — Reference Architecture: The Layered Stack 🔄 Part 4 — The Reliable Kernel: The Agent Loop 🛠️ Part 5 — Tools & Enterprise Integration 🧠 Part 6 — Context & Memory: The Cost Center 🛟 Part 7 — Reliability Engineering 🔐 Part 8 — Security, Compliance & Governance 🧱 Part 9 — Multi-Tenancy & Isolation 📊 Part 10 — Observability, Evals & Cost Governance 🚀 Part 11 — Deployment & Delivery Models 📈 Part 12 — The

Disclosure: I work on the team behind SynapEditor. 🧩 TL;DR: Moving from CKEditor 5 to SynapEditor is a one-to-one swap in three steps: installation, toolbar config, and content/event APIs. The main reason to consider it is Office document fidelity (Word, PowerPoint, Excel import/export). Full runnable example at the end. Switching rich text editors sounds like a big job, but most of the work is a straightforward, one-to-one swap. This guide walks through moving an existing CKEditor 5 integration over to SynapEditor: loading the library, wiring up the toolbar and content APIs, and a complete working example you can copy and run. ⚖️ Which is better: CKEditor or SynapEditor? Both CKEditor and SynapEditor are mature, capable editors. If you already have CKEditor running, it clearly does a lot right. So the question isn't really "which is better" in the abstract, it's which one fits where your product is heading. Two things tend to drive the decision: 📜 Licensing and support. CKEditor 4 reached end of life in 2023, and security fixes now sit behind a paid Extended Support agreement. If you're revisiting the integration anyway, it's a natural moment to reconsider the editor itself. 📄 Office documents. This is where SynapEditor differs most. It imports a broad range of office formats: MS Word (.doc, .docx), PowerPoint (.ppt, .pptx), Excel (.xls, .xlsx, ODT, and HTML, and exports back to Word (.docx) with formatting preserved. If your users upload real documents and expect the layout to survive, that's worth weighing. CKEditor 5 SynapEditor Core editing ✅ ✅ CKEditor 4 still supported Paid ESM only n/a Word / PPT / Excel import-export Limited ✅ Native With that out of the way, let's migrate. 📋 What you'll need [ ] An existing CKEditor 5 integration [ ] A SynapEditor license and API key (free at Get Started ) [ ] About 15 minutes for a basic swap ⚙️ 1. Installation CKEditor 5 loads from a single script. SynapEditor loads from a script and a stylesheet: the UI is styled by tha