Objects are stored in a flat organization without any folders or hierarchical structures typically used in a file system. Similar to a key-value pair in databases, object storage uses every object’s unique identifier (key) to refer to the data payload (value). The metadata specific to each object is customizable and can include any user-defined attributes that will help to streamline file search, query, index, and analytics.
Object storage creates namespaces that provide an easy way to access the data stored as objects. Typically, in an object storage cluster, a global namespace forms a single logical access portal for users and applications. Object storage allows data to be accessed through a variety of protocols including S3, HTTP, NFS, and SMB.
According to IDC, 80% of all the data in the world will be unstructured by 2025. This presents the opportunity for all this data to be stored in either file or object storage. Object storage is usually chosen over file storage when data needs to be preserved in an archive for a long period of time – such as cold/inactive data, backup and replicas, compliance data, analytical data, media files, etc. Object storage is significantly more cost-efficient and scalable than block and file storage and is typically implemented on-premises, as a private cloud or on a pay-per-use model as a public cloud service.
One of the main reasons organizations use object storage is its unprecedented scalability. Object storage clusters can scale from Terabytes to Exabytes and store billions of files accessed by millions of tenants. Instead of storing files in a file system, files are stored as objects in a flat address space.
By decoupling file management from the low-level block management, every disk in the object storage cluster participates in the namespace and data services are layered on top of that. This level of separation provides excellent manageability at scale. In addition, extensible metadata-based data management simplifies data accessibility. This makes object storage practically limitless in terms of handling any capacity of data.
Object storage enables content access to users and applications via various protocols and access methods including S3/HTTP, NFS, SMB, and REST APIs. Distributed access allows multiple users across distributed locations to access files at the same time.
If any change is needed to be performed by a user at an object level, a new version of the object will be created instead of editing the existing one. The number of object versions that can be created is often configurable by the administrator. There is also additional policy-based object locking functionality that restricts modification of an object or group of objects for a specific period of time or indefinitely. This level of flexibility for access, editing, and locking enables true distributed access to end users and control for administrators.
In object storage solutions, the metadata stores information about the data and is used for data retrieval and governance. Object storage allows users to enrich a file’s metadata with any number of custom attributes.
This simplifies content search, indexing, and analytics. Metadata can also be used to set object-level or bucket-level policies that define how data should be protected and stored.
While data availability refers to system uptime, data durability is focused on ensuring long-term data protection. Object storage solutions offer strong data protection capabilities to ensure data durability and eliminate single points of failure.
- Replication of data to one or more nodes ensures data copies are synchronously orasynchronously replicated within the system or externally to a DR (disaster recovery) site. If there is an issue, the object storage system will automatically create additional copies based upon the policy defined to maintain data redundancy. Data copies are also recovered from the DR site in the event of a site failure.
- Erasure coding combines data with parity information and then segments and distributes it across the object storage cluster. In the event of data loss, data is immediately rebuilt from erasure-coded segments and restored to its original state.
This is the capability of the object storage platform to make objects immutable, i.e., not able to be deleted or modified. Immutability helps preserve records and maintain data integrity. When a user tries to edit a file, a new object version gets created and the original object is preserved as-is.
In case of a threat vector (such as a ransomware attack) or accidental deletion or overwrite of data, administrators can easily roll back to the original data. Compliance regulations also demand data is stored on non-erasable and non-rewritable media and legal holds be applied to files for specific periods of time. Immutability helps meet all these requirements and makes object storage WORM (Write-Once-Read-Many)-compliant.
Intelligent Data Management
One of the primary use cases for object storage is as an economical archive; however, it is more than “cheap and deep” storage. Object storage can help manage the data lifecycle from creation, change, deletion, access, collaboration, and protection. Object storage supports creating copies of data through replication, locking and encrypting files, protecting against deletion, applying access controls, searching files with rich metadata, integrating with applications through REST APIs, and more.
Some object storage solutions allow content streaming directly from the storage layer without having to download it to a local repository. An intuitive user interface usually serves as the content portal for users to access files over the internet. This expands the use case of object storage from an archive to a full-fledged content management and delivery platform.
A multi-tenant object storage architecture can be used to share resources across a cluster with multiple tenants (internal users or external subscribers). This is a popular implementation by service providers who are hosting storage resources for their clients from a centralized and shared storage cluster – either in a public cloud or private cloud. Tenants are given different levels of access permissions and controls to access data based on their level of subscription. Even within an organization, when different departments need to store and protect their data based on specific policies, they can adopt a multi-tenant deployment within their data center.
Key characteristics of object storage multi-tenancy include:
- Integration with identity management systems such as AD and LDAP systems to implement access controls and security policies
- Capacity usage quotas and metering to provide the ability to define and manage utilization across different tenants
- Auditing and reporting capabilities to help service providers with billing and account management
- End-user self-servicing options to allow tenant-level management of data with granular access controls, user permissions, quotas, etc.
Media & Entertainment
A content-focused platform enabling secure rich media and digital asset file distribution, access, and tape replacement
Multi-tenant S3 storage that streamlines collaboration and accelerates time to discovery
Scalable medical image archive and patient record management
Secondary storage platform to eliminate storage silos and manage unstructured data growth
Operational and workflow efficiencies for private, public and hybrid cloud data storage
Safeguard data, ensure data integrity, and meet compliance requirements
*NFS ACCESS IS SUPPORTED THROUGH SWARMFS.❘ **SMB ACCESS IS SUPPORTED THROUGH DATACORE FILEFLY.
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