Abstract:
A data deduplication process for storage based on collision resistant hash digests is disclosed. The process accesses a first data message from a data storage appliance and accesses a second data message from the data storage appliance. The process then compares the hash digests of the first and second data messages. If the hash digests match, the process determines if the first and second data messages are the same message or if there is a collision between the compared hash digests by forming additional hash digests based on the first and second data messages by hashing the first and second data messages differently. If this new set of hash digests do not result in a collision, then the first and second data messages are different. If this new set of hash digests result in a collision, the first and second data messages are the same message.
Abstract:
An archival blockchain system is disclosed that includes a cache-tier storage level where blockchain blocks for a contiguous blockchain are generated and stored before they have met a first aging criteria, a disk-tier storage level where the blockchain blocks are stored after they have met the first aging criteria, but before they have met a second aging criteria, and a tape-tier storage level where the blockchain blocks are stored after they have met the second aging criteria. This archival blockchain system also includes a blockchain appliance in digital data communication with the cache-tier, disk-tier, and tape-tier storage levels that maintains a blockchain ledger that stores data pointers to the blockchain blocks stored on the cache-tier, disk-tier, and tape-tier storage levels to logically link them into the contiguous blockchain.
Abstract:
The present specification is directed toward the use of hash digests and blockchain technology to secure the integrity of a media file having Group-Of-Picture (GOP) video streams, audio streams, and data streams. For GOP video streams, the use of hash digests and blockchain technology may take the form of an H-Frame that appends a GOP of I, P, and B frames. For audio streams, the use of hash digests and blockchain technology may take the form of an AH-Frame that appends an audio block of information. For data streams, the use of hash digests and blockchain technology may take the form of a DH-Frame that appends a data block of information.
Abstract:
A Material eXchange Format (MXF) digital file generated by a digital electronic processor is disclosed that includes a generic container for a media file. The MXF file also includes a SDTI-CP (Serial Data Transport Interface-Content Package) compatible system item. The SDTI-CP compatible system item has a media file metadata and a blockchain hash digest information formed from the media file. The blockchain hash digest information of the media file may be a blockchain hash digest used to error check the media file. Alternatively, the blockchain hash digest information of the media file may be a link to a cloud-based blockchain hash digest used to error check the media file.
Abstract:
The present invention discloses a system for storing a blockchain on a distributed network. The system includes a distributed network containing a plurality of nodes. The system stripes a blockchain into individual blocks where each individual block is separately encrypted and stored on a different node of the distributed network. The system forms a parity block from the individual blocks striped from the single blockchain. The parity block is separately encrypted and stored on a node of the distributed network separate from the other nodes storing the individual blocks for the blockchain. The system uses a blockchain distributed network map identifying where all of the individual blocks and the parity block are stored on the distributed network to reassemble all of the individual blocks into an undivided single blockchain.
Abstract:
The present invention discloses a system for storing a blockchain on a distributed network. The system includes a distributed network containing a plurality of nodes. The system stripes a blockchain into individual blocks where each individual block is separately encrypted and stored on a different node of the distributed network. The system forms a parity block from the individual blocks striped from the single blockchain. The parity block is separately encrypted and stored on a node of the distributed network separate from the other nodes storing the individual blocks for the blockchain. The system uses a blockchain distributed network map identifying where all of the individual blocks and the parity block are stored on the distributed network to reassemble all of the individual blocks into an undivided single blockchain.
Abstract:
A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes), which are arranged in a substrate to facilitate the reading and writing of information by a read/write head. The substrate may be flexible or rigid. Information is stored on the magnetic nanoparticles via the read/write head of a storage device. These magnetic nanoparticles are arranged into data tracks to store information through encapsulation within the carbon nanotubes. As carbon nanotubes are bendable, the carbon nanotubes may be arranged on flexible or rigid substrates, such as a polymer tape or disk for flexible media, or a glass substrate for rigid disk. A polymer may assist holding the nanoparticle filled carbon-tubes to the substrate.
Abstract:
A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within carbon nanotubes, which are arranged in a substrate to facilitate the reading and writing of information by a read/write head. The substrate may be flexible or rigid. Information is stored on the magnetic nanoparticles via the read/write head of a storage device. These magnetic nanoparticles are arranged into data tracks to store information through encapsulation within the carbon nanotubes. As carbon nanotubes are bendable, the carbon nanotubes may be arranged on flexible or rigid substrates, such as a polymer tape or disk for flexible media, or a glass substrate for rigid disk. A polymer may assist holding the nano-particle filled carbon-tubes to the substrate.
Abstract:
A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within carbon nanotubes, which are arranged in a substrate to facilitate the reading and writing of information by a read/write head. The substrate may be flexible or rigid. Information is stored on the magnetic nanoparticles via the read/write head of a storage device. These magnetic nanoparticles are arranged into data tracks to store information through encapsulation within the carbon nanotubes. As carbon nanotubes are bendable, the carbon nanotubes may be arranged on flexible or rigid substrates, such as a polymer tape or disk for flexible media, or a glass substrate for rigid disk. A polymer may assist holding the nano-particle filled carbon-tubes to the substrate. Magnetic fields may be applied to draw the carbon nanotubes into data tracks and orient the carbon nanotubes within the data tracks. Read/write devices and methods create servo sectors and rotational markers on the magnetic storage medium as well as data.
Abstract:
The present specification discloses a blockchain computer application. This blockchain computer application includes a Graphical User Interface (GUI) that supports the organization and blockchaining of files to a blockchain. This GUI includes a virtual blockchain organizational tool onto which users can drag and drop files and organize them into various virtual blockchain blocks without permanently attaching those files to an actual blockchain until the virtual blockchain is converted to an actual blockchain. The conversion process preserves the organizational structure of the files set within the virtual blockchain. Files may also be automatically blockchained to a specific blockchain by dragging them and dropping them onto a blockchain application desktop icon. Files may also be automatically blockchained to specific blockchains by dragging them and dropping them onto a blockchain icon within the GUI where each blockchain icon is directly associated with a separate blockchain.