This project contains known security vulnerabilities. Find detailed information at the bottom.

Crate libp2p-noise

Dependencies

(12 total, 8 outdated, 4 insecure)

CrateRequiredLatestStatus
 bytes^0.51.12.1out of date
 curve25519-dalek ⚠️^15.0.0insecure
 futures^0.3.10.3.34up to date
 lazy_static^1.21.5.0up to date
 libp2p-core^0.14.0-alpha.10.44.0out of date
 log^0.40.4.34up to date
 protobuf ⚠️=2.8.13.7.2insecure
 rand^0.7.20.10.2out of date
 ring ⚠️^0.16.90.17.14insecure
 snow ⚠️^0.6.10.10.0insecure
 x25519-dalek^0.53.0.0out of date
 zeroize^11.9.0up to date

Dev dependencies

(5 total, 4 outdated)

CrateRequiredLatestStatus
 env_logger^0.7.10.11.11out of date
 libp2p-tcp^0.14.0-alpha.10.45.0out of date
 quickcheck^0.9.01.1.0out of date
 sodiumoxide^0.2.50.2.7up to date
 tokio^0.11.53.1out of date

Security Vulnerabilities

snow: Unauthenticated Nonce Increment in snow

RUSTSEC-2024-0011

There was a logic bug where unauthenticated payloads could still cause a nonce increment in snow's internal state. For an attacker with privileges to inject packets into the channel over which the Noise session operates, this could allow a denial-of-service attack which could prevent message delivery by sending garbage data.

Note that this only affects those who are using the stateful TransportState, not those using StatelessTransportState.

This has been patched in version 0.9.5, and all users are recommended to update.

curve25519-dalek: Timing variability in `curve25519-dalek`'s `Scalar29::sub`/`Scalar52::sub`

RUSTSEC-2024-0344

Timing variability of any kind is problematic when working with potentially secret values such as elliptic curve scalars, and such issues can potentially leak private keys and other secrets. Such a problem was recently discovered in curve25519-dalek.

The Scalar29::sub (32-bit) and Scalar52::sub (64-bit) functions contained usage of a mask value inside a loop where LLVM saw an opportunity to insert a branch instruction (jns on x86) to conditionally bypass this code section when the mask value is set to zero as can be seen in godbolt:

A similar problem was recently discovered in the Kyber reference implementation:

https://groups.google.com/a/list.nist.gov/g/pqc-forum/c/hqbtIGFKIpU/m/cnE3pbueBgAJ

As discussed on that thread, one portable solution, which is also used in this PR, is to introduce a volatile read as an optimization barrier, which prevents the compiler from optimizing it away.

The fix can be validated in godbolt here:

The problem was discovered and the solution independently verified by Alexander Wagner [email protected] and Lea Themint [email protected] using their DATA tool:

https://github.com/Fraunhofer-AISEC/DATA

protobuf: Crash due to uncontrolled recursion in protobuf crate

RUSTSEC-2024-0437

Affected version of this crate did not properly parse unknown fields when parsing a user-supplied input.

This allows an attacker to cause a stack overflow when parsing the mssage on untrusted data.

ring: Some AES functions may panic when overflow checking is enabled.

RUSTSEC-2025-0009

ring::aead::quic::HeaderProtectionKey::new_mask() may panic when overflow checking is enabled. In the QUIC protocol, an attacker can induce this panic by sending a specially-crafted packet. Even unintentionally it is likely to occur in 1 out of every 2**32 packets sent and/or received.

On 64-bit targets operations using ring::aead::{AES_128_GCM, AES_256_GCM} may panic when overflow checking is enabled, when encrypting/decrypting approximately 68,719,476,700 bytes (about 64 gigabytes) of data in a single chunk. Protocols like TLS and SSH are not affected by this because those protocols break large amounts of data into small chunks. Similarly, most applications will not attempt to encrypt/decrypt 64GB of data in one chunk.

Overflow checking is not enabled in release mode by default, but RUSTFLAGS="-C overflow-checks" or overflow-checks = true in the Cargo.toml profile can override this. Overflow checking is usually enabled by default in debug mode.