Produce JS-visible string results as UTF-16 at their source, including
numeric formatting, BigInt and BigFraction formatting, URI encoding,
console formatting, parser errors, regular expression errors, Intl and
Temporal records, LibUnicode locale boundaries, and LibWeb bindings.
Handle fractional radix formatting through the UTF-16 builder view.
Move the remaining LibJS primitive string users to UTF-16 views and
strings. Remove the primitive string UTF-8 accessors and byte-string
coercion paths so new callers cannot rely on the old storage model.
Problem: Crash when generating an RSA key — or serializing one —
whose publicExponent is a typed array whose backing ArrayBuffer has
been detached; for example, by calling transfer() on it.
Cause: Two places with big_integer_from_api_big_integer() reading the
bytes of the backing ArrayBuffer directly. But reading the bytes of a
detached buffer aborts.
Fix: Read the bytes with WebIDL get_buffer_source_copy() — which yields
an empty copy for a detached, or OOB resizable, buffer. The empty array
is already mapped to zero — so generation rejects the zero exponent with
an error, rather than crashing.
Fixes https://github.com/LadybirdBrowser/ladybird/issues/9991
Represent WebIDL C++ types with a single CppType model that tracks
nullability, optional presence, and contained storage.
GC-like values now use GC::Ref/GC::Ptr directly, while containers choose
"plain", "Root", or "Conservative" container types depending on what
they contain. For example, sequence<Element> becomes a RootVector of
GC::Ref values, while sequence<SomeDictionary> becomes a
ConservativeVector only when the dictionary contains GC-like values.
This moves the generated bindings away from wrapping GC values in
GC::Root by default.
This has broad fallout as the types passed to interfaces for GC
objects changes almost fully across the board.
Keep the JsonWebKey dictionary types in line with other dictionary
types in the codebase by putting them in the Crypto namespace
rather than under Web::Bindings.
For private key JWK imports, after decoding both d and x, derive
the public key from d and verify it matches x. A private key that
doesn't correspond to the provided public key doesn't "contain the
private key" as required by RFC 8037 Section 2.
After base64url-decoding the x and d fields during JWK import,
verify the decoded byte length matches the expected key size for
the curve (32 for Ed25519/X25519, 57 for Ed448, 56 for X448).
A truncated value does not "contain the public/private key" as
required by RFC 8037 Section 2.
Ed448 public keys are 57 bytes (456 bits), not 56 bytes (448 bits).
The curve is named "Ed448" after its 448-bit prime field, but per
RFC 8032 Section 5.2.5, the parameter b=456 and both private and
public keys are 57 bytes. This caused importKey to reject valid raw
Ed448 public keys with a DataError.
Note: The spec incorrectly says "not 448" for this check.
See https://github.com/w3c/webcrypto/pull/425#discussion_r3070135408
Add a LibCrypto::Authentication::KMAC helper over OpenSSL.
Add keygen/import/export logic into WebCrypto.
Register KMAC128/KMAC256 operations with SubtleCrypto.
Implement AES-OCB AEAD using OpenSSL and expose it through
the WebCrypto API, including key management and AEAD parameters.
Add WPT:
/encrypt_decrypt/aes_ocb.tentative.https.any.html
The WebCrypto specification does not require the "alg" member
to be present when importing a symmetric JWK, as long as the
key material itself is valid.
Add tests covering JWK import without an "alg" field.
This fixes the following WPT:
WebCryptoAPI/import_export/ChaCha20-Poly1305_importKey
The key_ops vector is pre-sized with ensure_capacity(), so
bounds-checked append() is unnecessary here.
Switch to unchecked_append() to avoid redundant checks.
This change was suggested in a previous pull request #7563.
Add some typo and wrong comment.
Implement ChaCha20-Poly1305 AEAD using OpenSSL and expose it through
the WebCrypto API, including key management and AEAD parameters.
Add WPT:
/encrypt_decrypt/chacha20_poly1305.tentative.https.any.worker.html
AK/Random is already the same as SecureRandom. See PR for more details.
ProcessPrng is used on Windows for compatibility w/ sandboxing measures
See e.g. https://crbug.com/40277768
Introduce a new SHAKE hash wrapper in LibCrypto backed by OpenSSL.
Wire cSHAKE128 and cSHAKE256 into WebCrypto.
Note that cSHAKE with non-empty functionName or customization is
currently rejected due to OpenSSL EVP limitations.
This fixes WPT:
WebCryptoAPI/digest/cshake.tentative.https.any.html
