keccak-384 hash generator

You can easily generate the keccak-384 hash

max 2MB

If your input is hexstring, you can select this to convert your hexstring to binary before hashing.
Note: hexstring must have an even length
Note: Make sure there are no leading or trailing spaces.
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Secure Hash Algorithm

The Secure Hash Algorithm (SHA) family represents a collection of cryptographic hash functions designed to ensure data integrity through the creation of a unique digital fingerprint of data inputs. These algorithms are fundamental to various security protocols and systems, including digital signatures, SSL certificates, and blockchain technology. Among the notable members of this family is Keccak, which was selected as the basis for SHA-3 after a public competition.

Origins and Evolution

The SHA family originated from the National Institute of Standards and Technology (NIST) and the National Security Agency (NSA) in the United States. The first version, SHA-0, was quickly succeeded by SHA-1 due to discovered vulnerabilities. As computational power increased, further iterations were developed to enhance security and address weaknesses. These include SHA-2, with its variants (SHA-224, SHA-256, SHA-384, and SHA-512), and the latest addition, SHA-3, which is fundamentally different from its predecessors.

SHA-2: Strengthening the Foundation

Before SHA-3's introduction, SHA-2 was the most widely used and secure version within the SHA family. Despite SHA-1's vulnerabilities, SHA-2 has remained robust against theoretical attacks. Its variants offer different hash sizes, providing flexibility in security level and operational efficiency. The widespread adoption of SHA-2 is evident in modern security protocols and systems, underscoring its reliability and the importance of cryptographic hash functions in digital security.

Keccak and the Birth of SHA-3

Keccak stands out within the SHA family for its unique approach to hashing. Selected in 2012 as the winner of a five-year competition to develop SHA-3, Keccak differs from its predecessors by employing a sponge construction. This method allows for variable output lengths and provides resistance against many attack vectors that could compromise earlier SHA versions.

SHA-3 is not intended to replace SHA-2, as the latter remains secure. Instead, SHA-3 offers a cryptographic alternative that's based on a fundamentally different mathematical approach. This diversification in cryptographic primitives enhances the security ecosystem, providing options to address various threats and scenarios.

Applications and Importance

The SHA family is integral to numerous security measures and protocols across the internet and beyond. Cryptographic hash functions like those in the SHA family ensure data integrity, authenticate information, and secure communications. Their applications range from securing web traffic via HTTPS to verifying the integrity of software downloads and enabling secure transactions on blockchain networks.

Moreover, the inclusion of Keccak as SHA-3 reflects the ongoing evolution of cryptographic practices and the importance of adapting to emerging threats. By offering a distinct approach to hashing, SHA-3 complements existing algorithms, ensuring that the digital world has access to a variety of tools to safeguard information against evolving threats.


The Secure Hash Algorithm family, including Keccak as SHA-3, represents the continuous advancement in cryptographic technology to meet the demands of digital security. From SHA-1's early adoption to SHA-2's robustness and SHA-3's innovative approach, this evolution mirrors the broader trajectory of cybersecurity efforts. As threats become more sophisticated, the SHA family's role in ensuring data integrity and security remains indispensable, underpinning the trust that is crucial for the functioning of digital systems worldwide.