Pure Storage, Inc.

Joshua P Robinson

Emily Potyraj

Robert H Lee

John Colgrove

John Martin Hayes

Igor Ostrovsky

Rusty Sears

Brian Carpenter

Ronald S Karr

Brian Gold

Sergey Zhuravlev

Simon Dodsley

Remko Deenik

Jon Owings

Application migration using data movement capabilities of a storage system, including: executing an application on a first on-premises cloud infrastructure; storing, in a first storage system that is coupled for data communications with the first on-premises cloud infrastructure, data associated with the application; replicating, from the first storage system to a second storage system that is coupled for data communications with a second on-premises cloud infrastructure, the data; and initiating, based on the data, execution of a new instance of the application on the second on-premises cloud infrastructure.

Application migration using data movement capabilities of a storage system

Utilizing data transfer estimates for active management of a storage environment, including: determining an estimated data transfer time from a source storage environment to a destination storage environment; determining whether the estimated data transfer time exceeds a threshold; and performing, in response to the estimated data transfer time exceeding the threshold, a remedial action associated with data transfers between the source storage environment and the destination storage environment.

Utilizing data transfer estimates for active management of a storage environment

Providing persistent storage to transient cloud computing services, including: creating a cloud computing instance, wherein the cloud computing instance is created on on-premises cloud infrastructure; and storing, in non-volatile storage in a storage system that is communicatively coupled to the on-premises cloud infrastructure, data associated with the cloud computing instance.

Providing non-volatile storage to cloud computing services

A method for proactively rebuilding user data in a plurality of storage nodes of a storage cluster in a single chassis is provided. The method includes distributing user data and metadata throughout the plurality of storage nodes such that the plurality of storage nodes can read the user data, using erasure coding, despite loss of two of the plurality of storage nodes. The method includes determining to rebuild the user data for one of the plurality of storage nodes in the absences of an error condition. The method includes rebuilding the user data for the one of the plurality of storage nodes. A plurality of storage nodes within a single chassis that can proactively rebuild the user data stored within the storage nodes is also provided.

Data storage system with rebuild functionality

Application placement for distributed applications, including: identifying, from amongst a plurality of disparate storage environments, a storage environment that contains data that can be utilized by a portion of a distributed application; and initiating execution of the portion of the distributed application in an execution environment that is communicatively coupled to the storage environment.

Intelligent application placement in a hybrid infrastructure

Enabling data portability between systems, including: submitting, to a cloud-based metadata store storing metadata describing data stored in a plurality of storage systems each coupled for data communications with a corresponding on-premises cloud infrastructure of a plurality of on-premises cloud infrastructures, a query; selecting a subset of the data responsive to the query and stored in at least one first storage system coupled to at least one first on-premises cloud infrastructure; and storing, from the at least one first storage system to a second storage system coupled to a second on-premises cloud infrastructure, the subset of the data responsive to the query.

Enabling data portability between systems

A method for proactively rebuilding user data in a plurality of storage nodes of a storage cluster is provided. The method includes distributing user data and metadata throughout the plurality of storage nodes such that the plurality of storage nodes can read the user data, using erasure coding, despite loss of two of the storage nodes. The method includes determining that one of the storage nodes is unreachable and determining to rebuild the user data for the one of the storage nodes that is unreachable. The method includes reading the user data across a remainder of the plurality of storage nodes, using the erasure coding and writing the user data across the remainder of the plurality of storage nodes, using the erasure coding. A plurality of storage nodes within a single chassis that can proactively rebuild the user data stored within the storage nodes is also provided.

Heterogenous memory accommodating multiple erasure codes

Recovery of a container storage provider, including: storing, within a first database, configuration information related to the container storage provider; storing, within a second database, the configuration information; and responsive to detecting that one or more components associated with the container storage provider have become unavailable, creating a replacement component using configuration information contained in the second database.

Growing community of inventors

Madrid, Spain

Joshua P Robinson