React Materialize for React 17 Applications

React Materialize Requirements and Intended Stack

React Materialize solves the problem of using Material Design components without writing every interaction against Materialize's JavaScript API directly. It is aimed at React applications that want familiar controls such as buttons and modals while keeping component composition in JSX. The documented requirements are specific: React and React DOM 17, Materialize CSS 1.0, and the Material Icons font for components that display icons. This is a narrower compatibility target than a general React component library, so the project is most relevant to applications that can satisfy those versions.

The project is a wrapper around Materialize, not a replacement for Materialize itself. Its documentation describes React components for the CSS framework, while the application must still load Materialize's CSS and JavaScript. The README also states that TypeScript definitions are included, which can help teams use the package in typed React code. However, included definitions do not remove the need to inspect the documented props for each component or to verify compatibility with the application's own React and styling setup.

How React Materialize Uses Materialize's Global Runtime

The central architectural constraint is Materialize's global JavaScript object. The README says that importing materialize-css defines the global M used by React Materialize components to initialize Materialize. That means setup is not limited to adding a stylesheet. The application must load Materialize's JavaScript before rendering the React application, either through imports at the entry point or through CDN link and script tags.

This arrangement creates a boundary between React's declarative component model and Materialize's imperative initialization. A React Materialize component can render markup and provide React props, but some behavior still depends on Materialize being present and initialized correctly. Loading only the CSS can produce styled elements without the expected interactive behavior. The README explicitly permits CDN loading, but requires it to happen before the app renders. Teams should therefore treat load order as part of the component setup, especially in applications that use server-side rendering, delayed mounting, or multiple entry points.

Installation, Entry-Point Setup, and First Modal

Install the wrapper and its Materialize peer dependency with the command documented in the README:

npm install react-materialize materialize-css

At the application entry point, load both parts of Materialize before rendering React:

import 'materialize-css/dist/css/materialize.min.css';
import 'materialize-css';

If the application uses the icon font, add the documented stylesheet to the HTML document:

<link rel="stylesheet" href="https://fonts.googleapis.com/icon?family=Material+Icons">

A first use can then compose a Materialize modal and its trigger button in JSX:

import { Button, Modal } from 'react-materialize';

export default function App() {
  return (
    <Modal header="Hello" trigger={<Button>Open modal</Button>}>
      Lorem ipsum dolor sit amet.
    </Modal>
  );
}

The expected result is a button that opens a Materialize-styled modal containing the supplied text. The repository says that the package ships ES modules, so bundlers include only imported components, and individual components can also be imported from paths such as react-materialize/lib/Button.

Package Entry Points, Build Outputs, and Development Checks

The package metadata exposes separate ES module and CommonJS entry points. The package.json declares ./lib/index.mjs for ES module imports and ./lib/index.js for require, with corresponding declaration files. It also exports component subpaths, including ./lib/*.js and ./lib/*. The package marks itself as side-effect free and publishes the LICENSE, README.md, and lib directory. This packaging is useful when an application wants to import a smaller component surface, but it also means the built lib directory is part of the published contract.

The documented development workflow requires Node 22 or newer. The .nvmrc file is available for selecting the repository's Node version, and package.json enforces >=22. Storybook provides documentation and examples on port 9001. The test suite uses Vitest and Testing Library, while typecheck checks definitions under types/. Linting and formatting use Biome, and build produces the library output. These checks are relevant to contributors and to teams assessing upgrade effort, because a React wrapper can appear small while still needing coordinated updates to types, examples, tests, and build tooling.

Maintenance Signals, Releases, and Upgrade Cost

The repository is not archived, and the last push was on 2026-10-15. The recent releases listed for this state are v4.0.0, v4.0.1, and v4.0.2, all dated 2026-10-15. The README says that versions and the changelog are managed with Changesets. A pull request that changes the published package can run npm run changeset, choose a patch, minor, or major bump, and commit the generated .changeset/*.md file. Documentation, test, and tooling-only changes do not need one according to the README.

The release workflow publishes to npm using trusted publishing with provenance, creates a git tag and GitHub release, and deploys the Storybook documentation to GitHub Pages. This gives an adopter concrete upgrade paths, but it does not mean upgrades are free. A major version can require checking application React compatibility, Materialize behavior, component props, TypeScript declarations, and the load timing of the global Materialize runtime. The README also identifies Materialize as the underlying project and asks users to consider supporting that project, which is relevant when planning dependency upgrades.

Limitations and the Direct Materialize Alternative

The clearest limitation is the fixed compatibility contract. The documented requirements name React and React DOM 17 and Materialize CSS 1.0. An application using a different React version cannot assume compatibility from the generic description that this is a React Material Design library. A second limitation is the dependency on global initialization. Importing or loading the stylesheet alone is not equivalent to loading Materialize's JavaScript, and the README requires the JavaScript to load before rendering. This design can complicate test setup, route-level entry points, or any environment where initialization order is not obvious.

The real alternative is to use Materialize CSS directly and initialize its JavaScript in application code, without React Materialize's wrapper components. That approach removes React Materialize as a package and its component prop layer, but leaves the application responsible for constructing markup, wiring triggers, managing lifecycle behavior, and keeping imperative DOM updates aligned with React state. React Materialize is the better fit when its documented components match the interface and the team accepts React 17 plus global Materialize setup. Direct Materialize is the better fit when the application needs a newer React stack, different DOM ownership, or integration patterns outside the wrapper's documented components. In either case, verify the chosen component's props in the project's documentation rather than assuming parity with every Materialize component.

Editorial conclusion

Adopt React Materialize when an application already uses React 17, Materialize CSS 1.0, and accepts application-managed global initialization. Do not choose it for a newer React stack without first checking compatibility or replacing the Materialize CSS dependency. Verify React and React DOM versions, CSS and JavaScript load order, icon availability, and the exact component props in the documentation before migration.

Frequently asked questions

Official sources

1. License: MIT
2. Project website
3. react-materialize/react-materialize on GitHub
4. README
5. Releases