World’s largest virtual agentic engineering & quality conference

WHENAUG 19-21
WHEREVirtual · Global
WATCH NOW

RIPEMD-320 Hash Calculator

RIPEMD-320 reduces whatever string you submit to a fixed 320-bit fingerprint, written as 80 hexadecimal characters. The extra width over RIPEMD-160 comes from keeping that algorithm's two parallel computation lines separate, so collision resistance stays RIPEMD-160-class, and the digest runs one way: it identifies your input without ever revealing it. This tool is built and maintained by TestMu AI (formerly LambdaTest).

Categories

...

3000+ Browsers. One Platform.

See exactly how your site performs everywhere.

Try it free
...

Write Tests in Plain English with KaneAI

Create, debug, and evolve tests using natural language.

Try for free
...
TestMu Conf 2026

World's largest virtual agentic engineering & quality conference

...

AUG 19-21, 2026

WATCH NOW

Enter Value

Output

Hans Dobbertin, Antoon Bosselaers, and Bart Preneel of the Katholieke Universiteit Leuven in Belgium published RIPEMD-320 in 1996. It is part of the RIPEMD hash function family, whose other 1996 members are RIPEMD-128, RIPEMD-160, and RIPEMD-256. The original RIPEMD algorithm was published in 1992, and the 1996 family strengthened and extended it.

The 1996 RIPEMD family was published to shore up the original 1992 RIPEMD, which Wang and co-authors later broke outright in 2004. RIPEMD-320 is the widest member of that family, but extra width is essentially all it adds: it reuses RIPEMD-160's message schedule verbatim and simply keeps the chaining variables of the two parallel computation lines separate instead of combining them, which doubles the output from 160 bits to 320 bits. Its collision resistance therefore stays RIPEMD-160-class rather than scaling with the digest length.

Whatever you type into the Input box is hashed with the RIPEMD-320 algorithm as soon as you press Convert, and the 80-character result appears in the Output box. RIPEMD-320 descends from the European RIPE project rather than from any national standards body, and like every member of the family it is a one-way cryptographic hash function, so the value in the Output box can never be fed back in to recover the text you started with.

What is RIPE MD 320 Hash Generator?

RIPE MD 320 is a checksum and hash generator for web developers and programmers. Hashing is not encryption: this free online tool condenses whatever you submit, a password or any other personal string, into a fingerprint that no key or setting can decode back into the original. The result is a 320-bit message digest printed as 80 hexadecimal characters, however much or little data you enter.

RIPEMD-320 is a cryptographic hash function that takes an input (or 'message') and returns a fixed-size string of characters, which is a 'digest' that serves as a sort of 'fingerprint' for the original data. It is a specific variant of the general class of algorithms known as RIPEMD (RACE Integrity Primitives Evaluation Message Digest) . Its two parallel computation lines are kept separate rather than strengthened, so RIPEMD-320 only inherits RIPEMD-160's collision resistance, an 80-bit-class security level, which means the wider digest is not proportionally stronger. Adoption is narrow too: RIPEMD-160 is the one variant of the family still in meaningful use, most visibly in Bitcoin address derivation, while RIPEMD-320 shows up mainly in legacy interoperability checks and as a fingerprint for detecting accidental changes. Choose SHA-256 or SHA-3 for new general-purpose hashing, and a password-hashing KDF such as bcrypt, scrypt, or Argon2 for stored credentials, since no bare fast hash is suitable for that.

What is the purpose of using RIPE MD 320 Hash Generator?

The goal of using a cryptographic hash function, such as RIPEMD-320, is to take an input (or "message") and generate a fixed-length string of characters, known as the "hash value," that is unique to the input. This can be used for many things, including digital signatures, message authentication, and data integrity.

How does the RIPE MD 320 Hash Generator work?

RIPE MD 320 is one member of a group of hash functions, published in 1996 by Hans Dobbertin, Antoon Bosselaers and Bart Preneel; the original RIPEMD it grew out of dates to 1992. The development idea of RIPEMD was based on MD4, and though MD4 was weak, RIPEMD would work on 32-bit processors.

The following is the procedure for generating a hash value with RIPEMD-320:

  • The padded input message is divided into fixed-size 512-bit blocks, which are processed in sequence.
  • To generate an intermediate value, each block is subjected to a series of logical operations such as bitwise operations and modular additions.
  • The compression function uses that result to update a running chaining value, block by block, and the chaining value left after the last block is the 320-bit hash.
  • The final hash value is a one-of-a-kind representation of the input message, and even minor changes in the input message result in a vastly different hash value.

The logical operations used in RIPEMD-320 are intricate, but none of them are secret: the algorithm was published openly in 1996 and is fully specified in the public literature, which is why independent implementations agree digest for digest. ISO/IEC 10118-3 standardises RIPEMD-128 and RIPEMD-160 rather than the 320-bit variant, so RIPEMD-320 interoperability rests on that published specification instead of a standards-body profile. It employs the Merkle-Damgard construction, in which a one-way compression function takes the current fixed-size chaining value together with the next fixed-size message block and returns an updated chaining value of the same size, the value after the final block being the digest.

Did you find this page helpful?

TestMu AI forEnterprise

Get access to solutions built on Enterprise
grade security, privacy, & compliance

  • Advanced access controls
  • Advanced data retention rules
  • Advanced Local Testing
  • Premium Support options
  • Early access to beta features
  • Private Slack Channel
  • Unlimited Manual Accessibility DevTools Tests