18297623. COMPUTING DEVICE PROVIDING MERKLE TREE-BASED CREDIBILITY CERTIFICATION, STORAGE DEVICE, AND METHOD FOR OPERATING STORAGE DEVICE simplified abstract (SK hynix Inc.)

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COMPUTING DEVICE PROVIDING MERKLE TREE-BASED CREDIBILITY CERTIFICATION, STORAGE DEVICE, AND METHOD FOR OPERATING STORAGE DEVICE

Organization Name

SK hynix Inc.

Inventor(s)

In Jong Jang of Icheon-si (KR)

COMPUTING DEVICE PROVIDING MERKLE TREE-BASED CREDIBILITY CERTIFICATION, STORAGE DEVICE, AND METHOD FOR OPERATING STORAGE DEVICE - A simplified explanation of the abstract

This abstract first appeared for US patent application 18297623 titled 'COMPUTING DEVICE PROVIDING MERKLE TREE-BASED CREDIBILITY CERTIFICATION, STORAGE DEVICE, AND METHOD FOR OPERATING STORAGE DEVICE

Simplified Explanation

The storage device in a computing device provides Merkle tree-based credibility certification by generating random hash values, creating Merkle trees with these values as leaf nodes, generating private keys for super blocks based on root nodes of Merkle trees, and transmitting private key information to a host device for credibility certification.

  • The storage device generates random hash values by hashing an erase count and a seed for each super block.
  • A Merkle tree is created with the random hash value as a leaf node for each super block.
  • Private keys are generated for each super block based on the root nodes of the Merkle trees.
  • The private key information, including the plurality of private keys, is transmitted to a host device for credibility certification.

Potential Applications

This technology can be applied in secure data storage systems, blockchain technology, and digital asset management.

Problems Solved

This technology solves the problem of ensuring the credibility and integrity of data stored in a storage device.

Benefits

The benefits of this technology include enhanced data security, improved credibility certification, and protection against data tampering.

Potential Commercial Applications

The potential commercial applications of this technology include secure cloud storage services, digital asset management platforms, and blockchain-based systems.

Possible Prior Art

One possible prior art for this technology could be the use of Merkle trees in blockchain technology for data verification and integrity checks.

Unanswered Questions

How does this technology impact data storage efficiency?

This article does not address how the implementation of Merkle tree-based credibility certification affects the efficiency of data storage in the computing device.

What are the potential limitations of this technology in real-world applications?

The article does not discuss any potential limitations or challenges that may arise when implementing this technology in practical, real-world scenarios.


Original Abstract Submitted

A storage device included in a computing device which provides Merkle tree-based credibility certification may generate a random hash value by hashing an erase count and a seed of each of a plurality of super blocks, may generate a Merkle tree in which the random hash value is a leaf node, for each of the plurality of super blocks, may generate a plurality of private keys corresponding to the plurality of super blocks, respectively, on the basis of root nodes of Merkle trees of the plurality of respective super blocks, and may transmit private key information including the plurality of private keys to a host device. The host device may use the private key information in credibility certification of the storage device.