Vite now officially supports Module Federation 2.0, turning a previously missing micro‑frontend capability into a runtime‑based infrastructure that enables dynamic module loading, shared dependencies, and independent deployment across multiple front‑end applications.
The article reviews Vite 8’s rapid rollout, highlighting its Rust‑based Rolldown bundler, dramatic build‑time reductions (120 s to 8 s), enhanced tree‑shaking, native Import Maps, and migration steps, positioning Vite 8 as a new performance baseline for modern frontend toolchains.
This article reviews five leading micro‑frontend approaches for Vite+Vue3 in 2025, explains why Vite+Vue3 is essential, provides practical configuration examples, compares strengths and weaknesses, offers a selection guide, and highlights common pitfalls to help teams choose the right solution.
Rspack 1.5 introduces experimental lazy‑barrel support, a native Rust file‑watcher, browser‑ready builds, Rust‑based plugins, constant and enum inlining, type‑reexport analysis, a built‑in virtual‑module system, module‑federation runtime boosts, install‑size reductions, seal‑stage speedups, and a host of ecosystem updates such as dropping Node 16, stabilizing lazy compilation, and new releases for Rslint, Rsbuild, Rslib, Rspress, Rsdoctor, and Rstest.
This article explores the evolution from Module Federation 1.0 to 2.0, detailing its architecture, pain points, new features, supported build tools, performance improvements, and how developers can adopt it across web and native platforms.
Learn how to implement Webpack’s Module Federation using Vite and Vue, covering core concepts, advantages over traditional micro‑frontend solutions, detailed setup steps, code examples, and common pitfalls such as dependency conflicts and version mismatches.
This article explains how to build a decentralized micro‑frontend system for Vue 3 using the Vite‑based @originjs/vite-plugin-federation, covering architecture concepts, configuration, dynamic module loading, shared routing, state management with Pinia, and deployment strategies, complete with code examples.
This article explains what micro frontends are, the problems they address, suitable application scenarios, key technical concerns such as communication, state management, sandboxing, routing, and pre‑loading, and compares popular implementations like nginx forwarding, pure iframe, qiankun, micro‑app, Module Federation, and wujie.
Module Federation 2.0, released by ByteDance Web Infra and the original author, introduces best‑practice documentation, runtime‑tool decoupling, TypeScript type safety, a devtool, manifest protocol, and cross‑tool support to make micro‑frontend module sharing more flexible and developer‑friendly.
This article describes the design, implementation, and benefits of a low‑intrusion micro‑module framework that enables cross‑stack code reuse, dynamic loading, fast deployment, and robust monitoring for large‑scale front‑end applications, while addressing challenges such as React version compatibility and incremental packaging.
The DeWu customer service ticket frontend was re‑architected by aggregating APIs, splitting fast and slow interfaces, adopting Module Federation, implementing a single‑instance design and schema‑driven dynamic rendering, which cut render times from seconds to sub‑second, reduced memory usage, eliminated TypeScript bugs and boosted 客服 satisfaction to 80 %.
This article introduces the concept and motivation behind Webpack's Module Federation, explains host and remote roles, outlines practical use cases such as micro‑frontend architecture and resource sharing, and provides a step‑by‑step code walkthrough—including configuration, shared dependencies, and runtime loading—to help developers quickly adopt this decentralized module‑sharing technique.
This article explains the concept, motivation, and application scenarios of Webpack 5 Module Federation, walks through a concrete project structure and configuration, demonstrates runtime code integration, analyzes the generated bundles, and provides resources for further learning, offering a practical entry point into micro‑frontend development.
This article explains how a growing React‑based admin panel was split into independent micro‑frontends using Webpack Module Federation, covering the background, reasons for choosing federation, three integration patterns, step‑by‑step setup, routing, shared state, hot‑reload, deployment considerations and practical code examples.
Micro frontends decompose large monolithic front‑end applications into independent, technology‑agnostic sub‑apps, detailing their background, advantages, suitable scenarios, and various implementation approaches—including MPA, server‑side composition, build‑time and runtime composition with module federation, iframe, JS sandbox, CSS isolation, and routing techniques.
This article explains how the WPM (Web Package Manager) was created to enable micro‑frontend resource sharing and hot‑module updates on legacy Webpack 4 projects, detailing the challenges of missing module‑federation support and the custom plugins and loaders that bridge the gap.
This article explores various strategies for sharing code across micro‑frontend applications—including NPM packages, monorepos, Webpack DLLPlugin, Externals, and the powerful Webpack 5 Module Federation—detailing their configurations, performance trade‑offs, and practical implementation steps to achieve efficient, dynamic module sharing.
This article introduces Webpack 5's Module Federation feature, explains its business scenarios, configuration, underlying plugin architecture, and runtime mechanics, provides a practical Vue 3 demo with code snippets, and discusses usage patterns and benefits for micro‑frontend development.
The team replaced a heavy SPA‑plus‑iframe workbench with a micro‑frontend architecture using Qiankun and Webpack 5 Module Federation, enabling independent development, caching, sandboxed isolation, and remote component integration, which cut load time, improved stability, and accelerated releases while highlighting migration challenges.
This article explains how Webpack 5's Module Federation feature enables dynamic code sharing and dependency sharing across micro‑frontend applications, walks through its core concepts, shows practical configuration and code examples, and discusses its advantages, drawbacks, and typical use cases.
This article provides a comprehensive introduction to micro frontends, explaining their definition, benefits such as independence and scalability, detailing various implementation approaches like iframe, Module Federation, EMP, single‑spa, qiankun, icestark, garfish, Fronts and Web Components, and outlining the essential framework functions and suitable scenarios.
This comprehensive guide explains micro‑frontend concepts, the core principles of independent development, deployment and runtime, compares various implementation options, and provides detailed step‑by‑step instructions for using Qiankun—including registration, lifecycle hooks, routing strategies, sandbox isolation, CSS scoping, resource sharing, inter‑app communication, memory management, and deployment workflows—targeted at modern frontend engineers.
Micro‑frontend architecture breaks a monolithic web app into independent, stack‑agnostic sub‑applications that can be developed, deployed, and maintained separately, using techniques such as server‑side or runtime integration and tools like single‑spa, qiankun, or Webpack 5 Module Federation, with qiankun favored for production.
Adopt micro frontends when large, parallel development teams need independent releases, cross‑technology migration, or high‑frequency updates, and design them with a central app shell loading shared dependencies, choosing between iframe, web component, or lifecycle‑hook bundles, managing single‑ or multi‑instance routing, shared state or event‑bus communication, and optimizing performance through lazy rendering and shared library bundling.
This article explores engineering solutions for sharing UI components across different front‑end frameworks and repositories, detailing micro‑frontend approaches with Garfish, component‑level embedding, data synchronization, and alternative strategies like Webpack Module Federation and Bit, while comparing their advantages, limitations, and practical implementation steps.
This article explains how to share UI modules via NPM packages and Module Federation, compares traditional iframe approaches, dives into low‑level and high‑level concepts, demonstrates practical webpack configurations, version‑selection strategies, and runtime loading mechanisms with detailed code examples.
This article provides a comprehensive overview of micro‑frontend concepts, typical system components, governance and development tooling, runtime container responsibilities, various sandbox isolation techniques (including snapshot, Proxy, iframe, Realms, and Shadow DOM), and practical considerations such as technical debt and migration strategies.
This article introduces EMP, a micro‑frontend solution that helps developers build production‑ready micro‑frontend architectures more easily and efficiently by addressing large bundle sizes, team collaboration, and module sharing, and provides detailed usage scenarios, ecosystem support, configuration examples, upgrade guides, and performance comparisons.
This article explains how micro frontends, inspired by micro‑service principles, break down monolithic front‑end applications into independent sub‑applications, covering design motivations, practical implementation steps, sandbox isolation techniques, and code examples to improve maintainability and performance.
With the rise of ESM‑based build tools such as Snowpack and Vite, developers can bypass traditional bundling, achieving faster compilation and leveraging native browser module loading, while Webpack adapts through physical caching and Module Federation, offering flexible module sharing and performance optimizations for modern frontend projects.
This article details the practical upgrade from Webpack 4 to Webpack 5 in the Penguin Tutor H5 project, presenting build‑time comparisons, bundle‑size reductions, and in‑depth analysis of new features such as persistent caching, deterministic IDs, removed Node polyfills, enhanced tree‑shaking, and Module Federation, while also sharing common pitfalls and solutions.
This weekly tech roundup reviews the past ten years of frontend evolution, forecasts the next decade, highlights Vue 3’s beta release and ES2020 finalization, and explores practical CSS math functions and Webpack’s Module Federation, offering concrete insights for developers aiming to stay ahead.
The article introduces Bifrost, Meituan’s Vue‑based micro‑frontend framework, detailing its background, design goals, architecture, implementation code, development practices, deployment workflow, and the benefits and challenges of adopting micro‑frontend architecture in large‑scale enterprise front‑end projects.
This article explains the background, core concepts, advantages, and various implementation approaches of micro frontends, and provides a step‑by‑step guide—including project setup, configuration, communication, and optimization—using Vue, single‑spa, and related tools.
The iQIYI front‑end team built a Vue‑based micro‑frontend framework where a lightweight container supplies shared Vue, router and store globals, dynamically loads each module’s manifest‑listed scripts, merges their routes, and renders them via global functions, yielding a decoupled, maintainable, and extensible application architecture.
