browserify, jspm, parcel, requirejs, rollup, systemjs, vite, and webpack are tools that help manage JavaScript modules in web applications. They address how code is organized, loaded, and optimized for browsers. Some bundle all code into a single file (like webpack or rollup), others load modules dynamically at runtime (like systemjs or requirejs), and newer tools like vite leverage native ES modules for faster development. These tools differ in configuration complexity, build speed, output format support, and suitability for different project types — from legacy browser support to modern development workflows.
Choosing the right tool to manage JavaScript modules can make or break your frontend architecture. The landscape includes bundlers that combine code (webpack, rollup), loaders that fetch modules at runtime (systemjs, requirejs), and modern dev servers that skip bundling entirely (vite). Let’s cut through the noise with real code and concrete trade-offs.
Some tools bundle everything into one or few files for production. Others load modules dynamically in the browser. This fundamental difference shapes your entire workflow.
These tools process your code ahead of time. You write modular code, and the tool outputs optimized bundles.
// src/index.js
import { greet } from './utils.js';
document.body.innerHTML = greet('World');
All these tools consume this and produce a single script tag in your HTML.
These tools let the browser load modules on demand using a loader script.
<!-- With SystemJS -->
<script src="systemjs/dist/system.js"></script>
<script>
System.import('./main.js');
</script>
Your main.js uses standard or legacy module syntax, and the loader handles fetching and execution.
Vite serves source files directly using native ES modules in development, then bundles with Rollup for production.
<!-- Vite's dev server serves this as-is -->
<script type="module" src="/src/main.js"></script>
No bundling during development means instant startup.
How much setup do you need to get started?
Parcel works out of the box:
npx parcel index.html
Just point it at an HTML file, and it handles JS, CSS, images, etc.
Vite is similarly simple for modern projects:
// vite.config.js (optional)
export default {
root: 'src'
}
Run vite and you’re live.
Rollup needs a config for anything beyond basic JS:
// rollup.config.js
export default {
input: 'src/main.js',
output: { file: 'dist/bundle.js', format: 'es' },
plugins: [/* ... */]
};
Browserify uses command-line transforms:
browserify src/index.js -t babelify -o dist/bundle.js
Webpack requires detailed configuration even for basic setups:
// webpack.config.js
module.exports = {
entry: './src/index.js',
output: { filename: 'bundle.js', path: path.resolve(__dirname, 'dist') },
module: {
rules: [
{ test: /\.js$/, use: 'babel-loader' },
{ test: /\.css$/, use: ['style-loader', 'css-loader'] }
]
}
};
These require bootstrapping scripts but no build step:
// systemjs.config.js
System.config({
map: { 'lodash': 'https://cdn.skypack.dev/lodash' }
});
// requirejs config
require.config({
paths: { 'jquery': 'https://code.jquery.com/jquery-3.6.0.min' }
});
JSPM uses import maps:
<script type="importmap">
{ "imports": { "lodash": "https://jspm.dev/lodash" } }
</script>
Hot module replacement (HMR), startup time, and error messages matter daily.
Vite starts in milliseconds because it doesn’t bundle during development:
// Changes reflect instantly without full rebuild
import { createApp } from 'vue'
createApp(App).mount('#app')
Webpack’s HMR works well but requires config:
// webpack.config.js
module.exports = {
devServer: { hot: true }
};
Parcel has HMR built-in with zero config.
Rollup has no dev server by default (use rollup-plugin-serve).
Browserify, RequireJS, SystemJS, and JSPM have no built-in HMR — you’ll refresh manually or add third-party tools.
How well does the tool minify, split, and tree-shake your code?
Rollup was built for tree-shaking:
// utils.js
export const add = (a, b) => a + b;
export const multiply = (a, b) => a * b;
// main.js
import { add } from './utils.js';
console.log(add(2, 3));
// multiply is excluded from output
Webpack also tree-shakes effectively with proper config.
Parcel and Vite (via Rollup in prod) do good tree-shaking by default.
These don’t optimize output. Browserify bundles everything you require(). The others load modules as-is, so you must optimize upstream.
Need to support IE11 or old mobile browsers?
All can transpile and polyfill for old browsers with Babel and core-js.
Rollup can target older browsers but requires manual setup.
Vite does not support IE11 and targets modern browsers only.
SystemJS can load polyfills for older browsers.
JSPM’s CDN serves modern code by default; legacy support needs extra work.
RequireJS predates modern module standards and isn’t designed for today’s tooling.
Let’s see how each handles a simple app with CSS and JSX.
// src/app.jsx
import './app.css';
export default () => <h1>Hello Vite!</h1>;
/* src/app.css */
h1 { color: blue; }
Needs loaders for JSX and CSS:
// webpack.config.js
module.exports = {
module: {
rules: [
{ test: /\.jsx$/, use: 'babel-loader' },
{ test: /\.css$/, use: ['style-loader', 'css-loader'] }
]
}
};
Requires plugins:
// rollup.config.js
import babel from '@rollup/plugin-babel';
import css from 'rollup-plugin-css-only';
export default {
plugins: [babel({ extensions: ['.jsx'] }), css()]
};
Zero config — just run:
parcel src/app.jsx
Install @vitejs/plugin-react, then:
// vite.config.js
import react from '@vitejs/plugin-react';
export default { plugins: [react()] };
Needs transforms:
browserify src/app.jsx -t [ babelify --extensions .jsx ] -t css-modulesify -o dist/bundle.js
These don’t process JSX or CSS natively. You’d need to precompile JSX to JS and handle CSS separately (e.g., via <link> tags or CSS-in-JS).
| Scenario | Best Tool |
|---|---|
| New app, modern browsers, fast DX | Vite |
| Library authoring, minimal bundles | Rollup |
| Enterprise app, full control, legacy support | Webpack |
| Quick prototype, no config | Parcel |
| Micro-frontends with mixed module formats | SystemJS |
| Legacy AMD codebase maintenance | RequireJS (migrate soon) |
| Simple CommonJS in browser, small project | Browserify |
| CDN-based ESM prototyping | JSPM |
For new projects, start with Vite unless you have specific constraints. It gives you the best balance of speed, simplicity, and modern features.
If you’re publishing a library, use Rollup — it’s the industry standard for clean, tree-shakable output.
For large, complex applications with custom requirements (e.g., code splitting strategies, asset pipelines), Webpack’s ecosystem is unmatched, despite its config burden.
Avoid RequireJS and Browserify for new work. SystemJS and JSPM solve real problems but only in specialized contexts — don’t reach for them by default.
The future is native ES modules, and tools like Vite prove you don’t need heavy bundling during development to be productive. Choose accordingly.
Choose browserify if you need to use Node.js-style require() in the browser and are working on a small-to-medium project without complex asset handling. It’s simple to set up but lacks built-in support for modern features like HMR or CSS processing, so you’ll need additional transforms. Avoid it for new projects targeting modern browsers where native ES modules are preferred.
Choose jspm if you want a package manager and module loader that works directly with native ES modules in the browser without a build step during development. It excels at dynamic imports and CDN-based workflows using its own registry. However, it has a steeper learning curve and less community tooling compared to mainstream bundlers, making it better suited for specific use cases like prototyping or micro-frontend architectures.
Choose parcel if you want zero-configuration bundling with fast builds and built-in support for HTML, CSS, assets, and modern JavaScript. It’s ideal for prototypes, small apps, or teams that want to avoid complex config files. However, customization can be harder when you need fine-grained control over the build process, and large projects may hit performance limits.
Do not use requirejs in new projects. It was designed for AMD (Asynchronous Module Definition) in pre-ES6 environments and is now largely obsolete. Modern browsers support native ES modules, and current tooling assumes ESM or CommonJS. If maintaining a legacy AMD codebase, consider migrating to a modern bundler instead of starting fresh with RequireJS.
Choose rollup if you’re building libraries or applications that benefit from tree-shaking and minimal output bundles. It’s widely used in the ecosystem (e.g., Vue, Svelte) and produces clean, efficient code by default. However, it requires plugins for non-JS assets and lacks built-in dev server features, so it’s less ideal for full application development without additional setup.
Choose systemjs only if you need to load multiple module formats (AMD, CommonJS, UMD, ESM) dynamically in the same browser environment, such as in micro-frontend architectures or legacy system integrations. It’s actively maintained but niche; for most new projects, native ES modules or bundlers like Vite are simpler and faster.
Choose vite if you want near-instant startup and hot reloads by leveraging native ES modules in development and using rollup for production builds. It supports modern frameworks out of the box, TypeScript, CSS preprocessing, and more with minimal config. It’s ideal for new projects targeting modern browsers and developers who value fast feedback loops.
Choose webpack if you need maximum flexibility and control over every aspect of your build pipeline, especially for large, complex applications with diverse asset types. Its rich plugin ecosystem handles almost any scenario, but this comes with significant configuration overhead. It remains a solid choice for enterprise apps requiring custom optimizations or legacy browser support.
require('modules') in the browser
Use a node-style require() to organize your browser code
and load modules installed by npm.
browserify will recursively analyze all the require() calls in your app in
order to build a bundle you can serve up to the browser in a single <script>
tag.

If you're new to browserify, check out the browserify handbook and the resources on browserify.org.
Whip up a file, main.js with some require()s in it. You can use relative
paths like './foo.js' and '../lib/bar.js' or module paths like 'gamma'
that will search node_modules/ using
node's module lookup algorithm.
var foo = require('./foo.js');
var bar = require('../lib/bar.js');
var gamma = require('gamma');
var elem = document.getElementById('result');
var x = foo(100) + bar('baz');
elem.textContent = gamma(x);
Export functionality by assigning onto module.exports or exports:
module.exports = function (n) { return n * 111 }
Now just use the browserify command to build a bundle starting at main.js:
$ browserify main.js > bundle.js
All of the modules that main.js needs are included in the bundle.js from a
recursive walk of the require() graph using
required.
To use this bundle, just toss a <script src="bundle.js"></script> into your
html!
With npm do:
npm install browserify
Usage: browserify [entry files] {OPTIONS}
Standard Options:
--outfile, -o Write the browserify bundle to this file.
If unspecified, browserify prints to stdout.
--require, -r A module name or file to bundle.require()
Optionally use a colon separator to set the target.
--entry, -e An entry point of your app
--ignore, -i Replace a file with an empty stub. Files can be globs.
--exclude, -u Omit a file from the output bundle. Files can be globs.
--external, -x Reference a file from another bundle. Files can be globs.
--transform, -t Use a transform module on top-level files.
--command, -c Use a transform command on top-level files.
--standalone -s Generate a UMD bundle for the supplied export name.
This bundle works with other module systems and sets the name
given as a window global if no module system is found.
--debug -d Enable source maps that allow you to debug your files
separately.
--help, -h Show this message
For advanced options, type `browserify --help advanced`.
Specify a parameter.
Advanced Options:
--insert-globals, --ig, --fast [default: false]
Skip detection and always insert definitions for process, global,
__filename, and __dirname.
benefit: faster builds
cost: extra bytes
--insert-global-vars, --igv
Comma-separated list of global variables to detect and define.
Default: __filename,__dirname,process,Buffer,global
--detect-globals, --dg [default: true]
Detect the presence of process, global, __filename, and __dirname and define
these values when present.
benefit: npm modules more likely to work
cost: slower builds
--ignore-missing, --im [default: false]
Ignore `require()` statements that don't resolve to anything.
--noparse=FILE
Don't parse FILE at all. This will make bundling much, much faster for giant
libs like jquery or threejs.
--no-builtins
Turn off builtins. This is handy when you want to run a bundle in node which
provides the core builtins.
--no-commondir
Turn off setting a commondir. This is useful if you want to preserve the
original paths that a bundle was generated with.
--no-bundle-external
Turn off bundling of all external modules. This is useful if you only want
to bundle your local files.
--bare
Alias for both --no-builtins, --no-commondir, and sets --insert-global-vars
to just "__filename,__dirname". This is handy if you want to run bundles in
node.
--no-browser-field, --no-bf
Turn off package.json browser field resolution. This is also handy if you
need to run a bundle in node.
--transform-key
Instead of the default package.json#browserify#transform field to list
all transforms to apply when running browserify, a custom field, like, e.g.
package.json#browserify#production or package.json#browserify#staging
can be used, by for example running:
* `browserify index.js --transform-key=production > bundle.js`
* `browserify index.js --transform-key=staging > bundle.js`
--node
Alias for --bare and --no-browser-field.
--full-paths
Turn off converting module ids into numerical indexes. This is useful for
preserving the original paths that a bundle was generated with.
--deps
Instead of standard bundle output, print the dependency array generated by
module-deps.
--no-dedupe
Turn off deduping.
--list
Print each file in the dependency graph. Useful for makefiles.
--extension=EXTENSION
Consider files with specified EXTENSION as modules, this option can used
multiple times.
--global-transform=MODULE, -g MODULE
Use a transform module on all files after any ordinary transforms have run.
--ignore-transform=MODULE, -it MODULE
Do not run certain transformations, even if specified elsewhere.
--plugin=MODULE, -p MODULE
Register MODULE as a plugin.
Passing arguments to transforms and plugins:
For -t, -g, and -p, you may use subarg syntax to pass options to the
transforms or plugin function as the second parameter. For example:
-t [ foo -x 3 --beep ]
will call the `foo` transform for each applicable file by calling:
foo(file, { x: 3, beep: true })
Many npm modules that don't do IO will just work after being browserified. Others take more work.
Many node built-in modules have been wrapped to work in the browser, but only
when you explicitly require() or use their functionality.
When you require() any of these modules, you will get a browser-specific shim:
Additionally, if you use any of these variables, they will be defined in the bundled output in a browser-appropriate way:
You can just as easily create a bundle that will export a require() function so
you can require() modules from another script tag. Here we'll create a
bundle.js with the through
and duplexer modules.
$ browserify -r through -r duplexer -r ./my-file.js:my-module > bundle.js
Then in your page you can do:
<script src="bundle.js"></script>
<script>
var through = require('through');
var duplexer = require('duplexer');
var myModule = require('my-module');
/* ... */
</script>
If you prefer the source maps be saved to a separate .js.map source map file, you may use
exorcist in order to achieve that. It's as simple as:
$ browserify main.js --debug | exorcist bundle.js.map > bundle.js
Learn about additional options here.
If browserify finds a required function already defined in the page scope, it
will fall back to that function if it didn't find any matches in its own set of
bundled modules.
In this way, you can use browserify to split up bundles among multiple pages to
get the benefit of caching for shared, infrequently-changing modules, while
still being able to use require(). Just use a combination of --external and
--require to factor out common dependencies.
For example, if a website with 2 pages, beep.js:
var robot = require('./robot.js');
console.log(robot('beep'));
and boop.js:
var robot = require('./robot.js');
console.log(robot('boop'));
both depend on robot.js:
module.exports = function (s) { return s.toUpperCase() + '!' };
$ browserify -r ./robot.js > static/common.js
$ browserify -x ./robot.js beep.js > static/beep.js
$ browserify -x ./robot.js boop.js > static/boop.js
Then on the beep page you can have:
<script src="common.js"></script>
<script src="beep.js"></script>
while the boop page can have:
<script src="common.js"></script>
<script src="boop.js"></script>
This approach using -r and -x works fine for a small number of split assets,
but there are plugins for automatically factoring out components which are
described in the
partitioning section of the browserify handbook.
You can use the API directly too:
var browserify = require('browserify');
var b = browserify();
b.add('./browser/main.js');
b.bundle().pipe(process.stdout);
var browserify = require('browserify')
browserify([files] [, opts])Returns a new browserify instance.
files and opts are both optional, but must be in the order shown if both are
passed.
Entry files may be passed in files and / or opts.entries.
External requires may be specified in opts.require, accepting the same formats
that the files argument does.
If an entry file is a stream, its contents will be used. You should pass
opts.basedir when using streaming files so that relative requires can be
resolved.
opts.entries has the same definition as files.
opts.noParse is an array which will skip all require() and global parsing for
each file in the array. Use this for giant libs like jquery or threejs that
don't have any requires or node-style globals but take forever to parse.
opts.transform is an array of transform functions or modules names which will
transform the source code before the parsing.
opts.ignoreTransform is an array of transformations that will not be run,
even if specified elsewhere.
opts.plugin is an array of plugin functions or module names to use. See the
plugins section below for details.
opts.extensions is an array of optional extra extensions for the module lookup
machinery to use when the extension has not been specified.
By default browserify considers only .js and .json files in such cases.
opts.basedir is the directory that browserify starts bundling from for
filenames that start with ..
opts.paths is an array of directories that browserify searches when looking
for modules which are not referenced using relative path. Can be absolute or
relative to basedir. Equivalent of setting NODE_PATH environmental variable
when calling browserify command.
opts.commondir sets the algorithm used to parse out the common paths. Use
false to turn this off, otherwise it uses the
commondir module.
opts.fullPaths disables converting module ids into numerical indexes. This is
useful for preserving the original paths that a bundle was generated with.
opts.builtins sets the list of built-ins to use, which by default is set in
lib/builtins.js in this distribution.
opts.bundleExternal boolean option to set if external modules should be
bundled. Defaults to true.
When opts.browserField is false, the package.json browser field will be
ignored. When opts.browserField is set to a string, then a custom field name
can be used instead of the default "browser" field.
When opts.insertGlobals is true, always insert process, global,
__filename, and __dirname without analyzing the AST for faster builds but
larger output bundles. Default false.
When opts.detectGlobals is true, scan all files for process, global,
__filename, and __dirname, defining as necessary. With this option npm
modules are more likely to work but bundling takes longer. Default true.
When opts.ignoreMissing is true, ignore require() statements that don't
resolve to anything.
When opts.debug is true, add a source map inline to the end of the bundle.
This makes debugging easier because you can see all the original files if
you are in a modern enough browser.
When opts.standalone is a non-empty string, a standalone module is created
with that name and a umd wrapper.
You can use namespaces in the standalone global export using a . in the string
name as a separator, for example 'A.B.C'. The global export will be sanitized
and camel cased.
Note that in standalone mode the require() calls from the original source will
still be around, which may trip up AMD loaders scanning for require() calls.
You can remove these calls with
derequire:
$ npm install derequire
$ browserify main.js --standalone Foo | derequire > bundle.js
opts.insertGlobalVars will be passed to
insert-module-globals
as the opts.vars parameter.
opts.externalRequireName defaults to 'require' in expose mode but you can
use another name.
opts.bare creates a bundle that does not include Node builtins, and does not
replace global Node variables except for __dirname and __filename.
opts.node creates a bundle that runs in Node and does not use the browser
versions of dependencies. Same as passing { bare: true, browserField: false }.
Note that if files do not contain javascript source code then you also need to specify a corresponding transform for them.
All other options are forwarded along to module-deps and browser-pack directly.
Add an entry file from file that will be executed when the bundle loads.
If file is an array, each item in file will be added as an entry file.
Make file available from outside the bundle with require(file).
The file param is anything that can be resolved by require.resolve(),
including files from node_modules. Like with require.resolve(), you must
prefix file with ./ to require a local file (not in node_modules).
file can also be a stream, but you should also use opts.basedir so that
relative requires will be resolvable.
If file is an array, each item in file will be required.
In file array form, you can use a string or object for each item. Object items
should have a file property and the rest of the parameters will be used for
the opts.
Use the expose property of opts to specify a custom dependency name.
require('./vendor/angular/angular.js', {expose: 'angular'}) enables require('angular')
Bundle the files and their dependencies into a single javascript file.
Return a readable stream with the javascript file contents or
optionally specify a cb(err, buf) to get the buffered results.
Prevent file from being loaded into the current bundle, instead referencing
from another bundle.
If file is an array, each item in file will be externalized.
If file is another bundle, that bundle's contents will be read and excluded
from the current bundle as the bundle in file gets bundled.
Prevent the module name or file at file from showing up in the output bundle.
If file is an array, each item in file will be ignored.
Instead you will get a file with module.exports = {}.
Prevent the module name or file at file from showing up in the output bundle.
If file is an array, each item in file will be excluded.
If your code tries to require() that file it will throw unless you've provided
another mechanism for loading it.
Transform source code before parsing it for require() calls with the transform
function or module name tr.
If tr is a function, it will be called with tr(file) and it should return a
through-stream
that takes the raw file contents and produces the transformed source.
If tr is a string, it should be a module name or file path of a
transform module
with a signature of:
var through = require('through');
module.exports = function (file) { return through() };
You don't need to necessarily use the through module. Browserify is compatible with the newer, more verbose Transform streams built into Node v0.10.
Here's how you might compile coffee script on the fly using .transform():
var coffee = require('coffee-script');
var through = require('through');
b.transform(function (file) {
var data = '';
return through(write, end);
function write (buf) { data += buf }
function end () {
this.queue(coffee.compile(data));
this.queue(null);
}
});
Note that on the command-line with the -c flag you can just do:
$ browserify -c 'coffee -sc' main.coffee > bundle.js
Or better still, use the coffeeify module:
$ npm install coffeeify
$ browserify -t coffeeify main.coffee > bundle.js
If opts.global is true, the transform will operate on ALL files, despite
whether they exist up a level in a node_modules/ directory. Use global
transforms cautiously and sparingly, since most of the time an ordinary
transform will suffice. You can also not configure global transforms in a
package.json like you can with ordinary transforms.
Global transforms always run after any ordinary transforms have run.
Transforms may obtain options from the command-line with subarg syntax:
$ browserify -t [ foo --bar=555 ] main.js
or from the api:
b.transform('foo', { bar: 555 })
In both cases, these options are provided as the second argument to the transform function:
module.exports = function (file, opts) { /* opts.bar === 555 */ }
Options sent to the browserify constructor are also provided under
opts._flags. These browserify options are sometimes required if your transform
needs to do something different when browserify is run in debug mode, for
example.
Register a plugin with opts. Plugins can be a string module name or a
function the same as transforms.
plugin(b, opts) is called with the browserify instance b.
For more information, consult the plugins section below.
There is an internal labeled-stream-splicer pipeline with these labels:
'record' - save inputs to play back later on subsequent bundle() calls'deps' - module-deps'json' - adds module.exports= to the beginning of json files'unbom' - remove byte-order markers'unshebang' - remove #! labels on the first line'syntax' - check for syntax errors'sort' - sort the dependencies for deterministic bundles'dedupe' - remove duplicate source contents'label' - apply integer labels to files'emit-deps' - emit 'dep' event'debug' - apply source maps'pack' - browser-pack'wrap' - apply final wrapping, require= and a newline and semicolonYou can call b.pipeline.get() with a label name to get a handle on a stream pipeline
that you can push(), unshift(), or splice() to insert your own transform
streams.
Reset the pipeline back to a normal state. This function is called automatically
when bundle() is called multiple times.
This function triggers a 'reset' event.
browserify uses the package.json in its module resolution algorithm, just like
node. If there is a "main" field, browserify will start resolving the package
at that point. If there is no "main" field, browserify will look for an
"index.js" file in the module root directory. Here are some more
sophisticated things you can do in the package.json:
There is a special "browser" field you can set in your package.json on a per-module basis to override file resolution for browser-specific versions of files.
For example, if you want to have a browser-specific module entry point for your
"main" field you can just set the "browser" field to a string:
"browser": "./browser.js"
or you can have overrides on a per-file basis:
"browser": {
"fs": "level-fs",
"./lib/ops.js": "./browser/opts.js"
}
Note that the browser field only applies to files in the local module, and like
transforms, it doesn't apply into node_modules directories.
You can specify source transforms in the package.json in the
browserify.transform field. There is more information about how source
transforms work in package.json on the
module-deps readme.
For example, if your module requires brfs, you can add
"browserify": { "transform": [ "brfs" ] }
to your package.json. Now when somebody require()s your module, brfs will
automatically be applied to the files in your module without explicit
intervention by the person using your module. Make sure to add transforms to
your package.json dependencies field.
When a file is resolved for the bundle, the bundle emits a 'file' event with
the full file path, the id string passed to require(), and the parent
object used by
browser-resolve.
You could use the file event to implement a file watcher to regenerate bundles
when files change.
When a package file is read, this event fires with the contents. The package
directory is available at pkg.__dirname.
When .bundle() is called, this event fires with the bundle output stream.
When the .reset() method is called or implicitly called by another call to
.bundle(), this event fires.
When a transform is applied to a file, the 'transform' event fires on the
bundle stream with the transform stream tr and the file that the transform
is being applied to.
For some more advanced use-cases, a transform is not sufficiently extensible. Plugins are modules that take the bundle instance as their first parameter and an option hash as their second.
Plugins can be used to do perform some fancy features that transforms can't do.
For example, factor-bundle is a
plugin that can factor out common dependencies from multiple entry-points into a
common bundle. Use plugins with -p and pass options to plugins with
subarg syntax:
browserify x.js y.js -p [ factor-bundle -o bundle/x.js -o bundle/y.js ] \
> bundle/common.js
For a list of plugins, consult the browserify-plugin tag on npm.
There is a wiki page that lists the known browserify transforms.
If you write a transform, make sure to add your transform to that wiki page and
add a package.json keyword of browserify-transform so that
people can browse for all the browserify
transforms on npmjs.org.
There is a wiki page that lists the known browserify tools.
If you write a tool, make sure to add it to that wiki page and
add a package.json keyword of browserify-tool so that
people can browse for all the browserify
tools on npmjs.org.
Releases are documented in changelog.markdown and on the browserify twitter feed.
