An example operation may include one or more of receiving a data block for storage on a blockchain from an orderer node, the data block comprising a full-step hash of a storage request and a reduced-step hash of the storage request, performing an approximate hash verification on the data block based on the reduced-step hash of the storage request included in the data block, and in response to a success of the approximate hash verification, committing the data block among a hash-linked chain of data blocks stored within a distributed ledger of a blockchain.

Various systems and methods for implementing an edge computing system to realize 5G network slices with blockchain traceability for informed 5G service supply chain are disclosed. A system configured to track network slicing operations includes memory and processing circuitry configured to select a network slice instance (NSI) from a plurality of available NSIs based on an NSI type specified by a client node. The available NSIs uses virtualized network resources of a first network resource provider. The client node is associated with the selected NSI. The utilization of the network resources by the plurality of available NSIs is determined using an artificial intelligence (AI)-based network inferencing function. A ledger entry of associating the selected NSI with the client node is recorded in a distributed ledger, which further includes a second ledger entry indicating allocations of resource subsets to each of the NSIs based on the utilization.

A system, method, and machine-readable storage medium for maintaining an object storage system data are provided. In some embodiments, an object manager may receive a request to perform an operation on an object. The object storage system includes a first database of a first type and a second database of a second type. The object manager may identify a first record stored in the first database. The first record includes a name marker indicating a range of object names covered by the second database and includes a file handle referencing the second database. The range of object names includes the object name. Additionally, the object manager may identify a second record stored in the second database. The second record includes the object name and includes a file handle referencing the object. The object manager may perform the operation on the object in accordance with the request.

Systems and methods are described herein for facilitating access to a telecommunications network by a third-party device via one or more available subscriber devices. The network-based systems enable devices associated with subscribers of the telecommunications networks to establish connections with other mobile devices (e.g., third-party mobile devices of users that are not subscribers) over peer to peer (P2P) communication protocols. For example, a subscriber device can, over a P2P connection, act as a Hotspot, Wi-Fi tether, or bridge for a third-party or other device requesting access to the networks.

Example distributed storage systems, delete managers, and methods provide for managing dependent delete operations among data stores. Dependent data operation entries and corresponding dependency sets may be identified in an operations log. Dependent data operations may be identified in each shard and data operation entries. A delete process for the data objects in the dependency set may be delayed until the delete process for the dependent data object completes.

Described is hard link handling when a directory snapshot exists that includes the hard link's connected file object. A hard link is created by allocating a virtual inode number for the hard link, with the virtual inode number mapped to a real inode number that identifies a real inode of the file object; the hard link is assigned weight. A total weight associated with the real inode is increased by the hard link weight, and a hard link data store is updated with an entry for the hard link. Upon receiving data write request to the hard link, weight data determines that the file object is shared as a result of the snapshot; the hard link is disassociated from the real inode file, and associated with a new real inode number and new real inode of a new file object. The data is written based on the new real inode.

Embodiments for providing cache updates in a hierarchical multi-node system, through a service component between a lower level component and a next higher level component by maintaining a ledger storing an incrementing entry number indicating a present state of the datasets in a cache of the lower level component. The service component receives a data request to the lower level component from the higher level component including an appended last entry number accessed by the higher level component, and determines if the appended last entry number matches a current entry number in the ledger for any requested dataset, wherein no match indicates that at least some data in the higher level component cache is stale. In which case, it sends updated data information for the stale data to the higher level component, while the higher level component invalidates its cache entries and updates the appended last entry number to match a current entry number in the ledger.

Techniques for shrinking a storage space involve determining a used storage space in a storage pool allocated to a plurality of file systems, and determining a usage level of a storage space in the storage pool based on the used storage space in and a storage capacity of the storage pool. The techniques further involve shrinking a storage space from one or more of the plurality of file systems based on the usage level of the storage pool. Such techniques may automatically shrink storage space in one or more file systems from the global level of the storage pool, which determines an auto shrink strategy according to overall performance of the storage pool, thereby improving efficiency of auto shrink and balancing system performance and saving space.

Blockchain technology is used to provide distributed authentication, entitlements and trust among different virtual Radio Access Network (vRAN) elements. An enterprise blockchain with interfaces enables multi-vendor vRAN deployment across multiple service providers. In another embodiment, a method is provided for authenticating entities in a virtualized radio access network to ensure various entitles are in fact entitled to participate in various radio access network operations.

Solutions for supporting storage using a multi-writer log-structured file system (LFS) are disclosed that include receiving incoming data from an object of a plurality of objects that are configured to simultaneously write to the LFS from different nodes; based at least on receiving the incoming data, determining whether sufficient free segments are available in a local segment usage table (SUT) for writing the incoming data; based at least on determining that insufficient free segments are available, requesting allocation of new free segments; writing the incoming data to a log; acknowledging the writing to the object; determining whether the log has accumulated a full segment of data; based at least on determining that the log has accumulated a full segment of data, writing the full segment of data to a first segment of the free segments; and updating the local SUT to mark the first segment as no longer free.