jsonwebtoken vs passport vs auth0-js vs oidc-client
Authentication Libraries for Web Development Comparison
1 Year
jsonwebtokenpassportauth0-jsoidc-clientSimilar Packages:
What's Authentication Libraries for Web Development?

Authentication libraries are essential tools in web development that help manage user authentication and authorization processes. They provide developers with the necessary functionalities to secure applications by verifying user identities and managing sessions. These libraries simplify the implementation of various authentication strategies, including OAuth, OpenID Connect, and JWT (JSON Web Tokens), allowing developers to focus on building features rather than handling authentication intricacies.

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jsonwebtoken18,700,71717,91643.5 kB1722 years agoMIT
passport3,376,10723,272157 kB390a year agoMIT
auth0-js220,2891,0175.32 MB196 months agoMIT
oidc-client152,6262,433-1164 years agoApache-2.0
Feature Comparison: jsonwebtoken vs passport vs auth0-js vs oidc-client

Authentication Strategy Support

  • jsonwebtoken:

    jsonwebtoken is focused solely on JWT-based authentication. It provides methods for signing and verifying tokens, making it ideal for stateless authentication scenarios where the server does not maintain session state. It does not support other authentication strategies directly.

  • passport:

    Passport is highly extensible and supports a vast array of authentication strategies through its middleware architecture. Developers can easily add new strategies or customize existing ones, making it suitable for applications with diverse authentication needs.

  • auth0-js:

    Auth0.js supports a wide range of authentication strategies, including social logins (Google, Facebook, etc.), enterprise logins, and multi-factor authentication. It provides a unified API for handling different authentication flows, making it easy to implement complex authentication scenarios.

  • oidc-client:

    oidc-client is built specifically for OpenID Connect, allowing developers to implement authentication flows that comply with the OIDC standard. It handles token management, including access and ID tokens, and supports features like silent authentication and token renewal.

Ease of Integration

  • jsonwebtoken:

    jsonwebtoken is straightforward to integrate, as it only requires the installation of the library and basic knowledge of JWTs. However, it does not provide higher-level abstractions for managing user sessions, requiring developers to implement additional logic.

  • passport:

    Passport can be integrated into existing Express applications with minimal effort. However, its modular nature means that developers may need to write additional code to configure and manage different authentication strategies.

  • auth0-js:

    Auth0.js is designed for quick integration with minimal setup. It provides comprehensive documentation and SDKs for various platforms, allowing developers to implement authentication features rapidly without deep knowledge of the underlying protocols.

  • oidc-client:

    oidc-client offers a simple API for integrating OpenID Connect into SPAs. It abstracts many complexities of the OIDC protocol, making it easier for developers to implement secure authentication flows without needing to handle low-level details.

Token Management

  • jsonwebtoken:

    jsonwebtoken does not manage tokens; it only provides functions to create and verify them. Developers must implement their own logic for storing and refreshing tokens, which can lead to security vulnerabilities if not done correctly.

  • passport:

    Passport does not handle token management directly, as it is middleware for authentication. Developers need to implement their own session management strategy, whether using cookies, sessions, or tokens, depending on the chosen authentication strategy.

  • auth0-js:

    Auth0.js automatically handles token storage and renewal, ensuring that tokens are securely managed and refreshed as needed. This reduces the burden on developers to manually manage token lifecycles and enhances security by following best practices.

  • oidc-client:

    oidc-client provides robust token management features, including automatic token renewal and storage. It simplifies the process of managing access and ID tokens, ensuring that applications can maintain secure sessions without manual intervention.

Community and Support

  • jsonwebtoken:

    jsonwebtoken has a large community and is widely used in the Node.js ecosystem. However, as a standalone library, it may lack extensive documentation and support for specific use cases compared to more comprehensive solutions.

  • passport:

    Passport has a vast community and extensive documentation due to its long-standing presence in the Node.js ecosystem. With numerous plugins and strategies available, developers can find support and resources for various authentication needs.

  • auth0-js:

    Auth0.js benefits from strong community support and comprehensive documentation provided by Auth0. The platform also offers a management dashboard and customer support, making it easier for developers to troubleshoot and implement authentication features.

  • oidc-client:

    oidc-client has a growing community and is well-documented, particularly for developers implementing OpenID Connect in SPAs. The library is actively maintained, ensuring that it stays up-to-date with the latest security practices and standards.

Security Features

  • jsonwebtoken:

    jsonwebtoken provides basic security through JWT signing and verification but does not include built-in features for protecting against common vulnerabilities. Developers need to implement additional security measures, such as token expiration and revocation, to enhance security.

  • passport:

    Passport's security features depend on the chosen authentication strategy. While it provides a flexible framework for implementing various strategies, developers must ensure that they follow security best practices for each strategy they implement.

  • auth0-js:

    Auth0.js incorporates advanced security features, including anomaly detection, brute force protection, and secure token storage. It also supports multi-factor authentication, providing an additional layer of security for user accounts.

  • oidc-client:

    oidc-client adheres to the security best practices outlined in the OpenID Connect specification, including secure token handling and validation. It helps developers implement secure authentication flows while managing tokens effectively.

How to Choose: jsonwebtoken vs passport vs auth0-js vs oidc-client
  • jsonwebtoken:

    Opt for jsonwebtoken if you need a lightweight library specifically for creating and verifying JWTs. It is best suited for applications that require stateless authentication, where user sessions are managed through tokens rather than server-side sessions, making it a good fit for microservices architectures.

  • passport:

    Use Passport if you want a flexible and modular authentication middleware for Node.js applications. It supports a wide range of authentication strategies (over 500) and is suitable for applications that need to implement custom authentication mechanisms or integrate with various identity providers.

  • auth0-js:

    Choose Auth0.js if you are looking for a comprehensive solution that provides a full suite of authentication features, including social logins, passwordless authentication, and robust security measures. It is ideal for applications that require quick integration with various identity providers and a user-friendly management dashboard.

  • oidc-client:

    Select oidc-client if your application needs to implement OpenID Connect for authentication. This library is designed for single-page applications (SPAs) and provides features like token management, silent authentication, and automatic token renewal, making it ideal for modern web applications that require secure user authentication flows.

README for jsonwebtoken

jsonwebtoken

| Build | Dependency | |-----------------------------------------------------------------------------------------------------------------------------------------|------------------------------------------------------------------------------------------------------------------------| | Build Status | Dependency Status |

An implementation of JSON Web Tokens.

This was developed against draft-ietf-oauth-json-web-token-08. It makes use of node-jws

Install

$ npm install jsonwebtoken

Migration notes

Usage

jwt.sign(payload, secretOrPrivateKey, [options, callback])

(Asynchronous) If a callback is supplied, the callback is called with the err or the JWT.

(Synchronous) Returns the JsonWebToken as string

payload could be an object literal, buffer or string representing valid JSON.

Please note that exp or any other claim is only set if the payload is an object literal. Buffer or string payloads are not checked for JSON validity.

If payload is not a buffer or a string, it will be coerced into a string using JSON.stringify.

secretOrPrivateKey is a string (utf-8 encoded), buffer, object, or KeyObject containing either the secret for HMAC algorithms or the PEM encoded private key for RSA and ECDSA. In case of a private key with passphrase an object { key, passphrase } can be used (based on crypto documentation), in this case be sure you pass the algorithm option. When signing with RSA algorithms the minimum modulus length is 2048 except when the allowInsecureKeySizes option is set to true. Private keys below this size will be rejected with an error.

options:

  • algorithm (default: HS256)
  • expiresIn: expressed in seconds or a string describing a time span vercel/ms.

    Eg: 60, "2 days", "10h", "7d". A numeric value is interpreted as a seconds count. If you use a string be sure you provide the time units (days, hours, etc), otherwise milliseconds unit is used by default ("120" is equal to "120ms").

  • notBefore: expressed in seconds or a string describing a time span vercel/ms.

    Eg: 60, "2 days", "10h", "7d". A numeric value is interpreted as a seconds count. If you use a string be sure you provide the time units (days, hours, etc), otherwise milliseconds unit is used by default ("120" is equal to "120ms").

  • audience
  • issuer
  • jwtid
  • subject
  • noTimestamp
  • header
  • keyid
  • mutatePayload: if true, the sign function will modify the payload object directly. This is useful if you need a raw reference to the payload after claims have been applied to it but before it has been encoded into a token.
  • allowInsecureKeySizes: if true allows private keys with a modulus below 2048 to be used for RSA
  • allowInvalidAsymmetricKeyTypes: if true, allows asymmetric keys which do not match the specified algorithm. This option is intended only for backwards compatability and should be avoided.

There are no default values for expiresIn, notBefore, audience, subject, issuer. These claims can also be provided in the payload directly with exp, nbf, aud, sub and iss respectively, but you can't include in both places.

Remember that exp, nbf and iat are NumericDate, see related Token Expiration (exp claim)

The header can be customized via the options.header object.

Generated jwts will include an iat (issued at) claim by default unless noTimestamp is specified. If iat is inserted in the payload, it will be used instead of the real timestamp for calculating other things like exp given a timespan in options.expiresIn.

Synchronous Sign with default (HMAC SHA256)

var jwt = require('jsonwebtoken');
var token = jwt.sign({ foo: 'bar' }, 'shhhhh');

Synchronous Sign with RSA SHA256

// sign with RSA SHA256
var privateKey = fs.readFileSync('private.key');
var token = jwt.sign({ foo: 'bar' }, privateKey, { algorithm: 'RS256' });

Sign asynchronously

jwt.sign({ foo: 'bar' }, privateKey, { algorithm: 'RS256' }, function(err, token) {
  console.log(token);
});

Backdate a jwt 30 seconds

var older_token = jwt.sign({ foo: 'bar', iat: Math.floor(Date.now() / 1000) - 30 }, 'shhhhh');

Token Expiration (exp claim)

The standard for JWT defines an exp claim for expiration. The expiration is represented as a NumericDate:

A JSON numeric value representing the number of seconds from 1970-01-01T00:00:00Z UTC until the specified UTC date/time, ignoring leap seconds. This is equivalent to the IEEE Std 1003.1, 2013 Edition [POSIX.1] definition "Seconds Since the Epoch", in which each day is accounted for by exactly 86400 seconds, other than that non-integer values can be represented. See RFC 3339 [RFC3339] for details regarding date/times in general and UTC in particular.

This means that the exp field should contain the number of seconds since the epoch.

Signing a token with 1 hour of expiration:

jwt.sign({
  exp: Math.floor(Date.now() / 1000) + (60 * 60),
  data: 'foobar'
}, 'secret');

Another way to generate a token like this with this library is:

jwt.sign({
  data: 'foobar'
}, 'secret', { expiresIn: 60 * 60 });

//or even better:

jwt.sign({
  data: 'foobar'
}, 'secret', { expiresIn: '1h' });

jwt.verify(token, secretOrPublicKey, [options, callback])

(Asynchronous) If a callback is supplied, function acts asynchronously. The callback is called with the decoded payload if the signature is valid and optional expiration, audience, or issuer are valid. If not, it will be called with the error.

(Synchronous) If a callback is not supplied, function acts synchronously. Returns the payload decoded if the signature is valid and optional expiration, audience, or issuer are valid. If not, it will throw the error.

Warning: When the token comes from an untrusted source (e.g. user input or external requests), the returned decoded payload should be treated like any other user input; please make sure to sanitize and only work with properties that are expected

token is the JsonWebToken string

secretOrPublicKey is a string (utf-8 encoded), buffer, or KeyObject containing either the secret for HMAC algorithms, or the PEM encoded public key for RSA and ECDSA. If jwt.verify is called asynchronous, secretOrPublicKey can be a function that should fetch the secret or public key. See below for a detailed example

As mentioned in this comment, there are other libraries that expect base64 encoded secrets (random bytes encoded using base64), if that is your case you can pass Buffer.from(secret, 'base64'), by doing this the secret will be decoded using base64 and the token verification will use the original random bytes.

options

  • algorithms: List of strings with the names of the allowed algorithms. For instance, ["HS256", "HS384"].

    If not specified a defaults will be used based on the type of key provided

    • secret - ['HS256', 'HS384', 'HS512']
    • rsa - ['RS256', 'RS384', 'RS512']
    • ec - ['ES256', 'ES384', 'ES512']
    • default - ['RS256', 'RS384', 'RS512']
  • audience: if you want to check audience (aud), provide a value here. The audience can be checked against a string, a regular expression or a list of strings and/or regular expressions.

    Eg: "urn:foo", /urn:f[o]{2}/, [/urn:f[o]{2}/, "urn:bar"]

  • complete: return an object with the decoded { payload, header, signature } instead of only the usual content of the payload.
  • issuer (optional): string or array of strings of valid values for the iss field.
  • jwtid (optional): if you want to check JWT ID (jti), provide a string value here.
  • ignoreExpiration: if true do not validate the expiration of the token.
  • ignoreNotBefore...
  • subject: if you want to check subject (sub), provide a value here
  • clockTolerance: number of seconds to tolerate when checking the nbf and exp claims, to deal with small clock differences among different servers
  • maxAge: the maximum allowed age for tokens to still be valid. It is expressed in seconds or a string describing a time span vercel/ms.

    Eg: 1000, "2 days", "10h", "7d". A numeric value is interpreted as a seconds count. If you use a string be sure you provide the time units (days, hours, etc), otherwise milliseconds unit is used by default ("120" is equal to "120ms").

  • clockTimestamp: the time in seconds that should be used as the current time for all necessary comparisons.
  • nonce: if you want to check nonce claim, provide a string value here. It is used on Open ID for the ID Tokens. (Open ID implementation notes)
  • allowInvalidAsymmetricKeyTypes: if true, allows asymmetric keys which do not match the specified algorithm. This option is intended only for backwards compatability and should be avoided.
// verify a token symmetric - synchronous
var decoded = jwt.verify(token, 'shhhhh');
console.log(decoded.foo) // bar

// verify a token symmetric
jwt.verify(token, 'shhhhh', function(err, decoded) {
  console.log(decoded.foo) // bar
});

// invalid token - synchronous
try {
  var decoded = jwt.verify(token, 'wrong-secret');
} catch(err) {
  // err
}

// invalid token
jwt.verify(token, 'wrong-secret', function(err, decoded) {
  // err
  // decoded undefined
});

// verify a token asymmetric
var cert = fs.readFileSync('public.pem');  // get public key
jwt.verify(token, cert, function(err, decoded) {
  console.log(decoded.foo) // bar
});

// verify audience
var cert = fs.readFileSync('public.pem');  // get public key
jwt.verify(token, cert, { audience: 'urn:foo' }, function(err, decoded) {
  // if audience mismatch, err == invalid audience
});

// verify issuer
var cert = fs.readFileSync('public.pem');  // get public key
jwt.verify(token, cert, { audience: 'urn:foo', issuer: 'urn:issuer' }, function(err, decoded) {
  // if issuer mismatch, err == invalid issuer
});

// verify jwt id
var cert = fs.readFileSync('public.pem');  // get public key
jwt.verify(token, cert, { audience: 'urn:foo', issuer: 'urn:issuer', jwtid: 'jwtid' }, function(err, decoded) {
  // if jwt id mismatch, err == invalid jwt id
});

// verify subject
var cert = fs.readFileSync('public.pem');  // get public key
jwt.verify(token, cert, { audience: 'urn:foo', issuer: 'urn:issuer', jwtid: 'jwtid', subject: 'subject' }, function(err, decoded) {
  // if subject mismatch, err == invalid subject
});

// alg mismatch
var cert = fs.readFileSync('public.pem'); // get public key
jwt.verify(token, cert, { algorithms: ['RS256'] }, function (err, payload) {
  // if token alg != RS256,  err == invalid signature
});

// Verify using getKey callback
// Example uses https://github.com/auth0/node-jwks-rsa as a way to fetch the keys.
var jwksClient = require('jwks-rsa');
var client = jwksClient({
  jwksUri: 'https://sandrino.auth0.com/.well-known/jwks.json'
});
function getKey(header, callback){
  client.getSigningKey(header.kid, function(err, key) {
    var signingKey = key.publicKey || key.rsaPublicKey;
    callback(null, signingKey);
  });
}

jwt.verify(token, getKey, options, function(err, decoded) {
  console.log(decoded.foo) // bar
});

Need to peek into a JWT without verifying it? (Click to expand)

jwt.decode(token [, options])

(Synchronous) Returns the decoded payload without verifying if the signature is valid.

Warning: This will not verify whether the signature is valid. You should not use this for untrusted messages. You most likely want to use jwt.verify instead.

Warning: When the token comes from an untrusted source (e.g. user input or external request), the returned decoded payload should be treated like any other user input; please make sure to sanitize and only work with properties that are expected

token is the JsonWebToken string

options:

  • json: force JSON.parse on the payload even if the header doesn't contain "typ":"JWT".
  • complete: return an object with the decoded payload and header.

Example

// get the decoded payload ignoring signature, no secretOrPrivateKey needed
var decoded = jwt.decode(token);

// get the decoded payload and header
var decoded = jwt.decode(token, {complete: true});
console.log(decoded.header);
console.log(decoded.payload)

Errors & Codes

Possible thrown errors during verification. Error is the first argument of the verification callback.

TokenExpiredError

Thrown error if the token is expired.

Error object:

  • name: 'TokenExpiredError'
  • message: 'jwt expired'
  • expiredAt: [ExpDate]
jwt.verify(token, 'shhhhh', function(err, decoded) {
  if (err) {
    /*
      err = {
        name: 'TokenExpiredError',
        message: 'jwt expired',
        expiredAt: 1408621000
      }
    */
  }
});

JsonWebTokenError

Error object:

  • name: 'JsonWebTokenError'
  • message:
    • 'invalid token' - the header or payload could not be parsed
    • 'jwt malformed' - the token does not have three components (delimited by a .)
    • 'jwt signature is required'
    • 'invalid signature'
    • 'jwt audience invalid. expected: [OPTIONS AUDIENCE]'
    • 'jwt issuer invalid. expected: [OPTIONS ISSUER]'
    • 'jwt id invalid. expected: [OPTIONS JWT ID]'
    • 'jwt subject invalid. expected: [OPTIONS SUBJECT]'
jwt.verify(token, 'shhhhh', function(err, decoded) {
  if (err) {
    /*
      err = {
        name: 'JsonWebTokenError',
        message: 'jwt malformed'
      }
    */
  }
});

NotBeforeError

Thrown if current time is before the nbf claim.

Error object:

  • name: 'NotBeforeError'
  • message: 'jwt not active'
  • date: 2018-10-04T16:10:44.000Z
jwt.verify(token, 'shhhhh', function(err, decoded) {
  if (err) {
    /*
      err = {
        name: 'NotBeforeError',
        message: 'jwt not active',
        date: 2018-10-04T16:10:44.000Z
      }
    */
  }
});

Algorithms supported

Array of supported algorithms. The following algorithms are currently supported.

| alg Parameter Value | Digital Signature or MAC Algorithm | |---------------------|------------------------------------------------------------------------| | HS256 | HMAC using SHA-256 hash algorithm | | HS384 | HMAC using SHA-384 hash algorithm | | HS512 | HMAC using SHA-512 hash algorithm | | RS256 | RSASSA-PKCS1-v1_5 using SHA-256 hash algorithm | | RS384 | RSASSA-PKCS1-v1_5 using SHA-384 hash algorithm | | RS512 | RSASSA-PKCS1-v1_5 using SHA-512 hash algorithm | | PS256 | RSASSA-PSS using SHA-256 hash algorithm (only node ^6.12.0 OR >=8.0.0) | | PS384 | RSASSA-PSS using SHA-384 hash algorithm (only node ^6.12.0 OR >=8.0.0) | | PS512 | RSASSA-PSS using SHA-512 hash algorithm (only node ^6.12.0 OR >=8.0.0) | | ES256 | ECDSA using P-256 curve and SHA-256 hash algorithm | | ES384 | ECDSA using P-384 curve and SHA-384 hash algorithm | | ES512 | ECDSA using P-521 curve and SHA-512 hash algorithm | | none | No digital signature or MAC value included |

Refreshing JWTs

First of all, we recommend you to think carefully if auto-refreshing a JWT will not introduce any vulnerability in your system.

We are not comfortable including this as part of the library, however, you can take a look at this example to show how this could be accomplished. Apart from that example there are an issue and a pull request to get more knowledge about this topic.

TODO

  • X.509 certificate chain is not checked

Issue Reporting

If you have found a bug or if you have a feature request, please report them at this repository issues section. Please do not report security vulnerabilities on the public GitHub issue tracker. The Responsible Disclosure Program details the procedure for disclosing security issues.

Author

Auth0

License

This project is licensed under the MIT license. See the LICENSE file for more info.