标签：#automation

How a Product Sync Automation Project Transformed Customer Onboarding When people think about impactful engineering work, they often imagine distributed systems, high-scale infrastructure, or complex algorithms. One of the most impactful projects I worked on wasn't any of those. It was solving a seemingly simple problem: Keeping product data in sync across multiple retail systems. Years later, our CEO still remembers how much smoother customer onboarding became after this project. The Context: What is Commerce Connect? At Casa Retail AI, we have an internal platform called Commerce Connect (CC) . Commerce Connect acts as the central Product Information Management (PIM) system and serves as the source of truth for product information. Under the hood, it is built on top of a customized version of the open-source e-commerce platform Spree Commerce , extended with multi-vendor and multi-tenant capabilities. Its primary responsibility is simple: Collect product information from multiple retail ecosystems and distribute it to every Casa product that needs it. Once product data enters Commerce Connect, it is synchronized to multiple downstream systems. Why Product Data Matters Many applications inside Casa depend on product information. Product Consumers Once product data enters Commerce Connect, it is distributed to multiple systems across the Casa ecosystem. Customer-Facing Applications Several products rely on product information to provide context and improve customer experience: Lead management applications use product information during customer interactions. Ticket management systems link customer issues to specific products. Digital receipts display product names, images, and related details. Analytics & Reporting Product data powers business dashboards and reports, helping retailers answer questions such as: Which categories perform best? Which products attract the most attention? Which products generate the most complaints? It is also used for filtering and segme

In this blog, I’ll give a clear brief summary of the n8n beginner course . You can watch the full video course on the official n8n website (link in the references below). What is n8n? n8n is a powerful workflow automation platform that combines AI capabilities with business process automation. It offers a node-based visual interface while giving you full control to write custom JavaScript or Python code directly in the canvas. APIs and Webhooks Understanding APIs An API (Application Programming Interface) allows different applications to communicate with each other. Almost every modern app has an API you can connect to. Example: Google Sheets API lets you read or update data in spreadsheets. When working with APIs, we make requests and receive responses . Components of an HTTP Request There are four main components: URL – The unique address of the resource (page, image, data, etc.). Includes: Scheme, Host, Port (optional), Path, Query Parameters (optional). Method – Defines the action you want to perform: GET – Retrieve data POST – Send data PUT / PATCH / DELETE – Update data (less common) Headers – Provide additional context (language, device type, location, etc.). Body – Contains data being sent (used mainly with POST requests). Authentication (Credentials) To prove you’re allowed to make a request: API Key (via query parameter or header) OAuth (most secure common method) HTTP Response Components Status Code – Tells if the request was successful: 200 = Success 401 = Unauthorized 404 = Not Found 500 = Server Error Headers – Metadata about the response (content type, length, expiration, etc.). Body – The actual data returned (usually JSON, HTML, or binary). What are Webhooks? Webhooks are used when an external service needs to notify your workflow automatically (e.g., every time a payment is made in Stripe). You provide a URL that receives a POST request when the event occurs. Nodes in n8n Nodes are the building blocks of every workflow. There are three main categor

Based on real QA scenarios. About what happens when AI-generated metrics replace real testing, and the quiet engineer in the back row has been running his own numbers the whole time. Act 1: The Review Meeting I was sitting at the back of the long table, a ThinkPad in front of me, screen dimmed. On the big screen, Zhang Lei was presenting the acceptance data for his "AI Automated Testing Platform." His delivery was smooth. Every slide was a beautiful chart — coverage trends, automation rate improvements, regression testing time curves. All three lines pointed up and to the right, exactly like the textbook ideal curves. "In the past three months, the AI testing platform has executed 47,000 test cases, achieving 97.3% functional coverage. Regression testing time has dropped from 12 hours to 2.1 hours." Sparse applause. Zhang Lei added the final slide: "Monthly savings: approximately 200 person-days in labor cost." General Manager Zhou nodded and started the applause. That number was what he cared about most. I glanced at the other end of the table — the client's representative from RuiJie Technology. Chief Engineer Shen. Early fifties, thinning on top, silver-rimmed glasses. He hadn't said a word through the entire presentation. Hands folded on the table, occasionally jotting notes in a small book. Zhang Lei opened the Q&A slide and looked around the room: "Any questions?" Chief Engineer Shen flipped through the printed materials in front of him, stopped at the appendix, and looked up. "Page 47, Table 3.2 — what's the confidence interval on that 97.3% coverage?" The room went silent for about 15 seconds. Not the kind of silence where people are thinking. The kind where nobody had ever thought about it. Zhang Lei stood by the projector, clicker still in his hand, paused for two seconds: "Uh... the model confidence is quite high. The specific number is in the technical report." "Which page?" "I'll need to look it up." Chief Engineer Shen didn't push further. He looked do

Hey there! If you've been keeping up with the AI space lately, you know we're in the middle of something genuinely historic. What used to be science fiction is becoming production code — and it's happening fast. The Big Shift: Agents Over Assistants For years, we've been building chatbots. Helpful little assistants that answer questions. But something changed in 2026, and honestly, it happened so quietly that most people missed it. Agents aren't chatbots. A chatbot waits for you to ask. An agent sees an objective and acts on it. Autonomously. That's the difference. And the market just woke up to it. What's Actually Happening Right Now DBS Bank + Visa's Agentic Commerce Tests In February, these giants quietly completed trials of AI-driven agents executing credit card transactions automatically. No human in the loop. No confirmation needed. Just agents doing their job. If you're thinking "That sounds risky" — yeah. But it worked. BridgeWise's AI Wealth Agent A US fintech company just unveiled an AI agent that personalizes investment portfolios at scale . Something that would take a team of human financial advisors years to do, this agent does in minutes. Microsoft's Supply Chain Agents They're operating over 100 AI agents in their own supply chain. And they're planning to equip every employee with AI support by end of 2026. The Emergence of "Freelance Agentics" This one's wild. Solopreneurs are using AI agents to do the work of 10-person teams. Legal, accounting, architecture — fields that were supposedly "too complex" for automation are getting flipped upside down by a single person + a good agent framework. Why This Matters for Developers Here's what I think is important: This isn't hype. These are real companies running real agents in production. If you're a developer in 2026 and you don't understand how to build with agents, you're going to feel left behind. Not because everyone's obsessed with them — but because they're genuinely useful . The frameworks are solid

RAG SOTA, Agent Harnessing, and Langfuse Observability for AI Frameworks Today's Highlights Today's top stories delve into optimizing RAG performance with open-source benchmarks, designing robust AI agent systems, and implementing best practices for LLM observability in production. RAG SOTA: I Tested 7 Pipelines and Built SEQUOIA (Open Source) (Dev.to Top) Source: https://dev.to/__2ddbae6bb7d/--5cec This article presents a comprehensive benchmark of seven Retrieval-Augmented Generation (RAG) pipelines, culminating in the development and open-sourcing of SEQUOIA, a new RAG system. The author details over 20 hours of compute time spent locally to rigorously test different RAG configurations against real-world tasks, providing valuable insights into their performance characteristics. The technical deep dive includes discussions on various components like chunking strategies, embedding models, vector databases, and re-rankers, along with their impact on retrieval quality and generation coherence. Readers gain an understanding of the trade-offs involved in designing effective RAG systems and the empirical evidence supporting different architectural choices. The release of SEQUOIA as an open-source project means developers can directly implement and experiment with a battle-tested RAG pipeline, offering a tangible starting point for their own projects. Comment: This is an invaluable resource for anyone building RAG. Benchmarking 7 pipelines and open-sourcing a well-performing one provides immediate practical value and a solid foundation for further experimentation. Stop Upgrading the Model. Start Engineering the Harness. (Dev.to Top) Source: https://dev.to/tacoda/stop-upgrading-the-model-start-engineering-the-harness-194 This insightful article argues that instead of solely focusing on larger or "better" base models, teams should invest in "engineering the harness" around their AI agents to improve performance. The author highlights that the supporting architecture—compri

Asana will incorporate StackAI into its growing suite of AI workflow tools.

AI workflow automation looks simple in demos. A form submission comes in. An AI model reads it. The CRM gets updated. A Slack message goes out. An email is sent. But once you move from demo to production, the workflow becomes more sensitive. What happens if the AI summary is wrong? What happens if the CRM is updated with incomplete data? What happens if the customer request needs human approval before the next step? What happens when a workflow fails halfway? That is where AI workflow automation needs better architecture. In one recent project, we designed an AI workflow automation system using: Make.com for workflow orchestration FastAPI for custom backend logic OpenAI/GPT APIs for summarization and structured output Monday.com CRM for record management Slack for internal notifications Gmail for email-based communication Human review steps for approval and control The goal was not to build a chatbot. The goal was to reduce repetitive manual review work while keeping the workflow controlled, traceable, and practical for daily business use. The workflow problem The original workflow had several manual steps: A new request came in. Someone reviewed the request manually. Important information was extracted. A CRM record was created or updated. The internal team was notified. A follow-up email was prepared or sent. The team tracked the workflow manually. This kind of workflow is common in service businesses, operations teams, sales teams, and CRM-heavy processes. The pain was not that any one step was too difficult. The pain was that the same steps repeated again and again. That makes the workflow slow, inconsistent, and dependent on manual copy-paste work. Why not fully automate everything? The obvious idea is: Let AI read the request and update everything automatically. But that can be risky. AI-generated output can be incomplete, overconfident, or slightly wrong. That may be acceptable if the output is only a draft. It is not acceptable if the output directly updates

Probabilistic Graph Neural Inference for deep-sea exploration habitat design for extreme data sparsity scenarios Introduction: The Abyssal Classroom It was 3 AM, and I was staring at a screen filled with bathymetric data from the Mariana Trench—or rather, the absence of it. The dataset I had painstakingly compiled from oceanographic surveys, autonomous underwater vehicle (AUV) logs, and satellite altimetry had 97% missing values. My initial approach—a standard deep learning model for habitat design—failed catastrophically, producing predictions that were physically impossible (like habitats floating 200 meters above the seafloor). That night, as I watched the loss curve plateau into nonsense, I realized something profound: deep-sea exploration habitat design isn't just an engineering challenge; it's an inference problem under extreme uncertainty. My learning journey into probabilistic graph neural inference began that night. While exploring how to model the sparse, irregularly sampled data from hydrothermal vent fields, I discovered that traditional neural networks treat observations as independent, ignoring the inherent relational structure of the deep-sea environment. Through studying geometric deep learning and Bayesian inference, I realized that graph neural networks (GNNs) could capture the complex dependencies between seafloor features—but only if we could handle the missing data probabilistically. This article documents what I learned from building a probabilistic graph neural inference system for deep-sea habitat design, where data sparsity isn't a bug but a feature. Technical Background: Why Graph Neural Networks for the Abyss? Deep-sea habitats—from hydrothermal vent chimneys to cold seep mounds—are not randomly distributed. They form interconnected networks governed by geological processes, fluid dynamics, and biological colonization patterns. In my research, I found that this relational structure is perfectly suited for graph neural networks. However, th

The numbers just dropped. April ecommerce growth came in at 11% more than double the total retail sales growth rate for the same period. For developers building ecommerce infrastructure, this isn't just a market stat. It's a load test result. And a lot of backends are failing it quietly. Here's what 11% ecommerce growth actually means technically and the five infrastructure decisions that determine whether your client captures it or gets buried by it. What 11% growth means at the infrastructure level 11% more orders. 11% more simultaneous channel requests. 11% more concurrent inventory mutations across every connected platform. The sync architecture that handled last year's volume handles this year's volume — until it doesn't. The failure mode is predictable: javascript// Last year's volume const ordersPerDay = 500; const syncWindowsPerDay = (24 * 60) / 15; // 96 const ordersPerWindow = ordersPerDay / syncWindowsPerDay; // 5.2 // This year's volume at 11% growth const ordersPerDayNow = ordersPerDay * 1.11; // 555 const ordersPerWindowNow = ordersPerDayNow / syncWindowsPerDay; // 5.8 // During a flash sale at 10x velocity const peakOrdersPerWindow = ordersPerWindowNow * 10; // 57.8 // 57 orders processed against potentially stale stock per 15-minute window // Up from 52 last year seemingly small, meaningfully worse at the tail The difference between 52 and 58 orders per window sounds minor. At the tail peak flash sale velocity, multiple channels firing simultaneously — it's the difference between manageable oversell exposure and a crisis. The five infrastructure decisions that matter Sync architecture polling vs event-driven This is the highest leverage decision. Everything else builds on it. javascript// Polling — what most systems still run // Sync lag: up to 15 minutes // Cost at 11% growth: proportionally worse setInterval(async () => { const stock = await getSourceOfTruth(); await syncToAllChannels(stock); }, 15 * 60 * 1000); // Event-driven — sync lag approache

Most trading ideas start as vague thoughts. "Buy when RSI is oversold and price bounces from support." It sounds reasonable. But the moment you try to test or automate it, the ambiguity becomes obvious. What exactly counts as oversold? How is support defined? What qualifies as a bounce? When do you exit? Without precise answers, the idea cannot be tested, measured, or executed consistently. This gap between intuition and execution is exactly what no-code strategy builders are designed to close. Why vague trading ideas fail Most traders think in concepts rather than rules. "Buy the dip." "Trade strong momentum." "Enter when the trend looks healthy." These ideas feel intuitive, but they are unusable in practice unless translated into explicit logic. Without clear definitions, you cannot backtest a strategy, cannot repeat decisions consistently, and cannot diagnose why results change over time. Ambiguity leads to second-guessing. Second-guessing leads to inconsistent execution. Inconsistent execution makes performance impossible to evaluate. What a no-code strategy builder actually does A no-code strategy builder is a visual system that forces clarity. Instead of writing code, you select indicators, define conditions, combine logic using AND/OR rules, specify entries and exits, and then test the strategy on historical data. Conceptually, it works like assembling building blocks. Each block represents a condition such as "RSI below 30" or "price above moving average." When combined, those blocks form a complete, testable trading system. The key benefit is precision. From idea to testable strategy The transformation follows a predictable workflow. You begin with a loose idea, such as buying when a stock is oversold and starting to recover. You then break that idea into components. What defines oversold? What signals recovery? How do you enter? How do you exit? How much do you risk? Once those questions are answered, the idea becomes a set of explicit rules. For example,

Salesforce on Tuesday launched an entirely rebuilt version of Slackbot , the company's workplace assistant, transforming it from a simple notification tool into what executives describe as a fully powered AI agent capable of searching enterprise data, drafting documents, and taking action on behalf of employees. The new Slackbot, now generally available to Business+ and Enterprise+ customers, is Salesforce's most aggressive move yet to position Slack at the center of the emerging "agentic AI" movement — where software agents work alongside humans to complete complex tasks. The launch comes as Salesforce attempts to convince investors that artificial intelligence will bolster its products rather than render them obsolete. "Slackbot isn't just another copilot or AI assistant," said Parker Harris , Salesforce co-founder and Slack's chief technology officer, in an exclusive interview with Salesforce. "It's the front door to the agentic enterprise, powered by Salesforce." From tricycle to Porsche: Salesforce rebuilt Slackbot from the ground up Harris was blunt about what distinguishes the new Slackbot from its predecessor: "The old Slackbot was, you know, a little tricycle, and the new Slackbot is like, you know, a Porsche." The original Slackbot, which has existed since Slack's early days, performed basic algorithmic tasks — reminding users to add colleagues to documents, suggesting channel archives, and delivering simple notifications. The new version runs on an entirely different architecture built around a large language model and sophisticated search capabilities that can access Salesforce records, Google Drive files, calendar data, and years of Slack conversations. "It's two different things," Harris explained. "The old Slackbot was algorithmic and fairly simple. The new Slackbot is brand new — it's based around an LLM and a very robust search engine, and connections to third-party search engines, third-party enterprise data." Salesforce chose to retain the Slackbo

Anthropic released Cowork on Monday, a new AI agent capability that extends the power of its wildly successful Claude Code tool to non-technical users — and according to company insiders, the team built the entire feature in approximately a week and a half, largely using Claude Code itself. The launch marks a major inflection point in the race to deliver practical AI agents to mainstream users, positioning Anthropic to compete not just with OpenAI and Google in conversational AI, but with Microsoft's Copilot in the burgeoning market for AI-powered productivity tools. "Cowork lets you complete non-technical tasks much like how developers use Claude Code," the company announced via its official Claude account on X. The feature arrives as a research preview available exclusively to Claude Max subscribers — Anthropic's power-user tier priced between $100 and $200 per month — through the macOS desktop application. For the past year, the industry narrative has focused on large language models that can write poetry or debug code. With Cowork , Anthropic is betting that the real enterprise value lies in an AI that can open a folder, read a messy pile of receipts, and generate a structured expense report without human hand-holding. How developers using a coding tool for vacation research inspired Anthropic's latest product The genesis of Cowork lies in Anthropic's recent success with the developer community. In late 2024, the company released Claude Code , a terminal-based tool that allowed software engineers to automate rote programming tasks. The tool was a hit, but Anthropic noticed a peculiar trend: users were forcing the coding tool to perform non-coding labor. According to Boris Cherny , an engineer at Anthropic, the company observed users deploying the developer tool for an unexpectedly diverse array of tasks. "Since we launched Claude Code, we saw people using it for all sorts of non-coding work: doing vacation research, building slide decks, cleaning up your email,