Security News
JSR Working Group Kicks Off with Ambitious Roadmap and Plans for Open Governance
At its inaugural meeting, the JSR Working Group outlined plans for an open governance model and a roadmap to enhance JavaScript package management.
Base | PSK | Auth | AuthPSK |
---|---|---|---|
✅ | ✅ | ✅ | ✅ |
KEMs | Browser | Node.js | Deno | |
---|---|---|---|---|
DHKEM (P-256, HKDF-SHA256) | ✅ | ✅ | ||
DHKEM (P-384, HKDF-SHA384) | ✅ | ✅ | ||
DHKEM (P-521, HKDF-SHA512) | ✅ | ✅ | ||
DHKEM (X25519, HKDF-SHA256) | ✅ | ✅ | ✅ | @stablelib/x25519 is used until Secure Curves is implemented on browsers. |
DHKEM (X448, HKDF-SHA512) | ✅ | ✅ | ✅ | x449-js is used until Secure Curves is implemented on browsers. |
KDFs | Browser | Node.js | Deno | |
---|---|---|---|---|
HKDF-SHA256 | ✅ | ✅ | ✅ | |
HKDF-SHA384 | ✅ | ✅ | ✅ | |
HKDF-SHA512 | ✅ | ✅ | ✅ |
AEADs | Browser | Node.js | Deno | |
---|---|---|---|---|
AES-128-GCM | ✅ | ✅ | ✅ | |
AES-256-GCM | ✅ | ✅ | ✅ | |
ChaCha20Poly1305 | ✅ | ✅ | ✅ | @stablelib/chacha20poly1305 is used. |
Export Only | ✅ | ✅ | ✅ |
2^53-1
).Using unpkg CDN:
<!-- use the latest stable version -->
<script type="module">
import * as hpke from "https://unpkg.com/hpke-js/esm/mod.js";
// ...
</script>
<!-- use a specific version -->
<script type="module">
import * as hpke from "https://unpkg.com/hpke-js@0.11.0/esm/mod.js";
// ...
</script>
Using jsDelivr CDN:
<!-- use the latest stable version -->
<script type="module">
import * as hpke from "https://cdn.jsdelivr.net/npm/hpke-js/esm/mod.js";
// ...
</script>
<!-- use a specific version -->
<script type="module">
import * as hpke from "https://cdn.jsdelivr.net/npm/hpke-js@0.11.0/esm/mod.js";
// ...
</script>
Using npm:
npm install hpke-js
Using yarn:
yarn add hpke-js
Using deno.land:
import * as hpke from "https://deno.land/x/hpke@v0.11.0/mod.ts";
This section shows some typical usage examples.
Browsers:
<html>
<head></head>
<body>
<script type="module">
// import * as hpke from "https://cdn.jsdelivr.net/npm/hpke-js/esm/mod.js";
import { Kem, Kdf, Aead, CipherSuite } from "https://cdn.jsdelivr.net/npm/hpke-js/esm/mod.js";
globalThis.doHpke = async () => {
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm
});
const rkp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
});
// encrypt
const ct = await sender.seal(new TextEncoder().encode('hello world!'));
// decrypt
const pt = await recipient.open(ct);
// hello world!
alert(new TextDecoder().decode(pt));
}
</script>
<button type="button" onclick="doHpke()">do HPKE</button>
</body>
</html>
Node.js:
const { Kem, Kdf, Aead, CipherSuite } = require("hpke-js");
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm,
});
const rkp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
});
// encrypt
const ct = await sender.seal(new TextEncoder().encode("my-secret-message"));
// decrypt
const pt = await recipient.open(ct);
console.log("decrypted: ", new TextDecoder().decode(pt));
// decrypted: my-secret-message
}
doHpke();
Deno:
import { Kem, Kdf, Aead, CipherSuite } from "https://deno.land/x/hpke@v0.11.0/mod.ts";
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemX25519HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm,
});
const rkp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
});
// encrypt
const ct = await sender.seal(new TextEncoder().encode("my-secret-message"));
// decrypt
const pt = await recipient.open(ct);
console.log("decrypted: ", new TextDecoder().decode(pt));
// decrypted: my-secret-message
}
doHpke();
Node.js:
const { Kem, Kdf, Aead, CipherSuite } = require('hpke-js');
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm
});
const rkp = await suite.generateKeyPair();
const pt = new TextEncoder().encode('my-secret-message'),
// encrypt
const { ct, enc } = await suite.seal({ recipientPublicKey: rkp.publicKey }, pt);
// decrypt
const pt = await suite.open({ recipientKey: rkp, enc: enc }, ct);
console.log('decrypted: ', new TextDecoder().decode(pt));
// decrypted: my-secret-message
}
doHpke();
Node.js:
const { Kem, Kdf, Aead, CipherSuite } = require("hpke-js");
const te = new TextEncoder();
const td = new TextDecoder();
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm,
});
const rkp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
});
// setup bidirectional encryption
await sender.setupBidirectional(
te.encode("seed-for-key"),
te.encode("seed-for-nonce"),
);
await recipient.setupBidirectional(
te.encode("seed-for-key"),
te.encode("seed-for-nonce"),
);
// encrypt
const ct = await sender.seal(te.encode("my-secret-message-s"));
// decrypt
const pt = await recipient.open(ct);
console.log("recipient decrypted: ", td.decode(pt));
// decrypted: my-secret-message-s
// encrypt reversely
const rct = await recipient.seal(te.encode("my-secret-message-r"));
// decrypt reversely
const rpt = await sender.open(rct);
console.log("sender decrypted: ", td.decode(rpt));
// decrypted: my-secret-message-r
}
doHpke();
Node.js:
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.ExportOnly,
});
const rkp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
});
const te = new TextEncoder();
// export
const pskS = sender.export(te.encode('jugemujugemu'), 32);
const pskR = recipient.export(te.encode('jugemujugemu'), 32);
// pskR === pskS
}
doHpke();
Node.js:
const { Kem, Kdf, Aead, CipherSuite } = require("hpke-js");
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm,
});
const rkp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
psk: {
id: new TextEncoder().encode("our-pre-shared-key-id"),
// a PSK MUST have at least 32 bytes.
key: new TextEncoder().encode("jugemujugemugokounosurikirekaija"),
},
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
psk: {
id: new TextEncoder().encode("our-pre-shared-key-id"),
// a PSK MUST have at least 32 bytes.
key: new TextEncoder().encode("jugemujugemugokounosurikirekaija"),
},
});
// encrypt
const ct = await sender.seal(new TextEncoder().encode("my-secret-message"));
// decrypt
const pt = await recipient.open(ct);
console.log("decrypted: ", new TextDecoder().decode(pt));
// decrypted: my-secret-message
}
doHpke();
Node.js:
const { Kem, Kdf, Aead, CipherSuite } = require("hpke-js");
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm,
});
const rkp = await suite.generateKeyPair();
const skp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
senderKey: skp,
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
senderPublicKey: skp.publicKey,
});
// encrypt
const ct = await sender.seal(new TextEncoder().encode("my-secret-message"));
// decrypt
const pt = await recipient.open(ct);
console.log("decrypted: ", new TextDecoder().decode(pt));
// decrypted: my-secret-message
}
doHpke();
Node.js:
const { Kem, Kdf, Aead, CipherSuite } = require("hpke-js");
async function doHpke() {
// setup
const suite = new CipherSuite({
kem: Kem.DhkemP256HkdfSha256,
kdf: Kdf.HkdfSha256,
aead: Aead.Aes128Gcm,
});
const rkp = await suite.generateKeyPair();
const skp = await suite.generateKeyPair();
const sender = await suite.createSenderContext({
recipientPublicKey: rkp.publicKey,
senderKey: skp,
psk: {
id: new TextEncoder().encode("our-pre-shared-key-id"),
// a PSK MUST have at least 32 bytes.
key: new TextEncoder().encode("jugemujugemugokounosurikirekaija"),
},
});
const recipient = await suite.createRecipientContext({
recipientKey: rkp,
enc: sender.enc,
senderPublicKey: skp.publicKey,
psk: {
id: new TextEncoder().encode("our-pre-shared-key-id"),
// a PSK MUST have at least 32 bytes.
key: new TextEncoder().encode("jugemujugemugokounosurikirekaija"),
},
});
// encrypt
const ct = await sender.seal(new TextEncoder().encode("my-secret-message"));
// decrypt
const pt = await recipient.open(ct);
console.log("decrypted: ", new TextDecoder().decode(pt));
// decrypted: my-secret-message
}
doHpke();
We welcome all kind of contributions, filing issues, suggesting new features or sending PRs.
FAQs
A Hybrid Public Key Encryption (HPKE) module for various JavaScript runtimes
We found that hpke-js demonstrated a healthy version release cadence and project activity because the last version was released less than a year ago. It has 1 open source maintainer collaborating on the project.
Did you know?
Socket for GitHub automatically highlights issues in each pull request and monitors the health of all your open source dependencies. Discover the contents of your packages and block harmful activity before you install or update your dependencies.
Security News
At its inaugural meeting, the JSR Working Group outlined plans for an open governance model and a roadmap to enhance JavaScript package management.
Security News
Research
An advanced npm supply chain attack is leveraging Ethereum smart contracts for decentralized, persistent malware control, evading traditional defenses.
Security News
Research
Attackers are impersonating Sindre Sorhus on npm with a fake 'chalk-node' package containing a malicious backdoor to compromise developers' projects.