Emc IP Holding Company LLC

Dell Products Inc.

Microsoft Technology Licensing, LLC

Intel Corporation

Honeywell International Inc.

Seagate Technology Incorporated

Nutanix, Inc.

Koninklijke Philips Corporation N.v.

Accenture Global Solutions Limited

Bookham Technology Limited

Manish Sharma

Shelesh Chopra

Sunil Kumar Yadav

Aaditya Rakesh Bansal

Upanshu Singhal

Archit Seth

Chandra Prakash

Shivakumar Kunnal Onkarappa

Chakraveer Singh

Kumari Priyanka

Rahul Bhardwaj

Lalita Dabburi

Akansha Purwar

Asif Khan

Shilpa Mehta

Pradeep Mittal

Amit Jain

Sudha Hebsur

Jayashree B Radha

Hareej G Hebbur

Soumen Acharya

Sneha Yadav

Ravi Vijayakumar Chitloor

Navneet Upadhyay

Vipul Gupta

Rajesh Maruti Bhagwat

Nitin Satishchandra Kabra

Kumar Sidhartha

Nilesh Govande

Joe Paul Moolanmoozha

Jayanta Mondal

Aparajita

Arun K Dixit

Oliver Drew Leonard Towers

Siddhesh Dilip Vethe

Supriya A Supugade

John Robert Pao

Amit Kumar

David F Arnone

Sergei L Sochava

Krishnendu Bagchi

Shekhar Dwivedi

Suman Chandra Tokuri

Jayprakash Thakur

Alexander Carl Worrall

Arvind S

Ramaswamy Parthasarathy

Sheeladitya Karmakar

Shubhashish Mallik

Shailendra Singh Chauhan

Ashish Sharma

W Russell Massey

Yogish Mallya

Anantha Narayanan

Sneha Wagh

Venugopala Kilingar Nadumane

Vishram Shriram Pandit

Rajesh Ramesh

Narayan Ayyakad Krishnan

Rintu Kumar Kanp

Challa Dharmateja

Tarandeep Singh Chandhok

Nilesh Mahadeorao Akode

Ajay Sharma

Satish Ramachandra

Franklin Joseph

Eric C Williams

Eric L Montei

Srinivasan Rajagopal

Olavi A Kamppari

Alay Vyomeshbhai Shah

Sanjay Nair

Rajendra S Kumar

Sarabjit Singh Saini

Alok Gupta

Saurabh Gupta

Tsai Chun Huang

ManjeGowda S G

Vishal Kumar

Neel Harkishin Bhatia

Rajiv Panigrahi

Vaibhavdeep Singh

Ravichandra Tungani Chikkabasavaiah

N Nanda Kumar

Abhishek Sharma

Rohit Malaviya

Benoy Joseph

Various examples of improving an in-memory graph query engine using a persisted storage component are provided. The method includes updating data stored in an in-memory graph query engine and, based on updating the data, converting the data to a plain text form that may be more efficiently stored in the persistent storage component. The method further includes updates to additional in-memory graph query engines from the persistent storage component such that in-memory data stored in the graph query engines is synchronized.

Memory graph query engine with persisted storage

A method for performing a backup includes: obtaining a file system backup metadata associated with a target file system of a target production host; processing the file system backup metadata to determine protected data and unprotected data in the target file system; after processing the file system backup metadata, using the file system backup metadata to generate a backup history dataset for the target file system; generating a protection status for each data in the target file system based on the backup history dataset and the determined protected data and unprotected data of the target file system; generating a graphical user interface (GUI) for the target file system showing the data of the target file system along with the protection status of each of the data of the target file system; and displaying, on a display of a computing device and to a user, the GUI.

Systems and method for leveraging backup metadata to provide granular options for data protection

A method for performing a backup includes: obtaining a file system backup metadata associated with a target file system of a target production host; processing the file system backup metadata to determine protected data and unprotected data in the target file system and protection failure details associated with the unprotected data; generating, using the protected data, the unprotected data, and the protection failure details associated with the unprotected data, a graphical user interface (GUI) specifying a protection status of the target file system; and displaying, on a display of a computing device and to a user, the GUI.

Systems and methods for enhanced end user experience for protection status of backed up data

An aspect of the present disclosure facilitates performance of node management actions in a computing infrastructure having diverse node interfaces. In one embodiment, a configuration data is maintained, the configuration data specifying plugins designed to communicate with different node interfaces installed on the nodes of a computing infrastructure. The plugins are corresponding implementations of a common client interface. Upon receiving from the client application, via the common client interface, a management action to be performed on a desired node, the configuration data is inspected to identify a specific plugin corresponding to the node interface installed on the desired node. The node management action is then performed on the desired node using the identified specific plugin. Accordingly, the client application can be implemented agnostic to the specific node interfaces installed on a node.

Facilitating performance of node management actions in a computing infrastructure having diverse node interfaces

A method that is performed for backing up data. The method includes obtaining an asset backup request; and in response to the asset backup request: obtaining an asset and an asset entry associated with the asset backup request; dividing the asset into pseudo-assets using the asset entry; storing the pseudo-assets across backup storages to generate pseudo-asset backups; initiating the merging of the pseudo-asset backups to generate an asset backup; and updating asset backup metadata based on the asset backup.

Method and system for generating backups using pseudo-asset backups

A wave launcher may include a printed circuit board (PCB) that includes a pin that receives a radio frequency (RF) signal. The wave launcher may include a cylinder configured to be electrically coupled to the pin and define an opening. The cylinder may receive the RF signal from the pin, form a transition from coplanar to Goubau line structure with a plate, and generate the surface wave. The wave launcher may include an insulator configured to be physically positioned within the opening and between the cylinder and a power line. The insulator may mechanically isolate the cylinder from the power line and permit the cylinder to launch the surface wave on the power line. The wave launcher may include the plate electrically coupled to a pad and may provide a reference for the pin and the cylinder. The pin and the cylinder may be physically positioned proximate the plate.

Surface wave launcher for high-speed data links over high-voltage power lines with loss compensation structure

In-memory graph query engine with persisted storage

A method for performing data backup includes: receiving a backup request specifying a file where the file is stored in a shared storage. Additionally, in response to the backup request: retrieving, by a primary data node, properties of the file; determining, by the primary data node, resource availability for plurality of secondary data nodes where the primary data node and the plurality of secondary data nodes is operatively connected to the shared storage and a backup storage; logically dividing, by the primary data node, the file into a plurality of segments using at least the properties of the file; and coordinating, by the primary data node, the backup of the file using the plurality of segments and the resource availability of the plurality of secondary data nodes.

Method and system for generating backup of a large file and optimizing resource utilization

Embodiments of the invention relate to generating backups of applications. The user or administrator that monitors the backup is notified of those files and/or folders that have not been backed up in the most recent backup. Further, embodiments of the invention enable alerts to be initiated when a particular file or folder has not been backed up over multiple backups or over a predetermined period. As a result, the user or administrator can have a better understanding of the protection and lack of protection that the present backups are providing.

Smart cataloging of excluded data

A method for performing a data backup process on a cluster includes: obtaining a backup generation request for virtual machines; in response to obtaining the backup generation request: generating a first set of backup groupings based on the backup generation request where each of the first set of backup groupings includes at least one of the virtual machines; issuing a disable migration command to a plurality of production hosts where each of the plurality of production hosts is associated with at least one of the virtual machines; identifying, after the issuing, a virtual machine of the virtual machines that is migrating; removing, based on the identifying, the virtual machine from the first set of backup groupings to obtain a second set of backup groupings where the virtual machine is placed in an excluded group after the removing; and backing up the second set of backup groupings.

Method and system for backing up virtual machines in a cluster shared volume

A method for performing a backup includes: receiving, by a computing device, a native view request for a graphical user interface (GUI) of a local file system; intercepting, by a backup services agent executing on the computing device, the native view request before the GUI is generated; obtaining, by the backup services agent and in response to intercepting the native view request, a file system backup metadata associated with the local file system from a backup storage device and a local file system metadata associated with the local file system from a local storage of the computing device; generating a combined file system content list using the file system backup metadata and the local file system metadata; generating the GUI using the combined file system content list; and displaying, on a display of the computing device and to a user, the GUI.

Systems and methods for leveraging backup metadata to provide granular options for discovery of deleted items and recovery after data backup

Techniques described herein relate to a method for performing data protection services for data stored in a shared storage. The method may include identifying, by a primary data node, a protection policy event initiating performance of data protection services for data stored in the shared storage used by the primary data node and secondary data nodes; in response to identifying the protection policy event: obtaining primary data node monitoring information associated with the primary data node; obtaining secondary data node monitoring information associated with the secondary data nodes; assigning at least one resource limit to the primary data node and the secondary data nodes based on the primary data node monitoring information and the secondary data node monitoring information; and initiating performance of the data protection services by the primary data node and the secondary data nodes based on the assigned at least one resource limit.

Method and system for limiting access of multiple data nodes to shared storage during the performance of data protection services through load balancing

A method for copying source data from a source server to a destination server, that includes initiating, by a source copy manager, a copy operation of the source data, where during the copy operation, the method further includes obtaining resource statistics, setting a data chunk size based on the resource statistics, copying a data chunk to a read queue, where the data chunk includes a portion of the source data, and where the data chunk has the data chunk size, and sending, from the read queue, the data chunk to a network device, and ending the copy operation.

Methods and systems for dynamically adjusting data chunk sizes copied over a network

A method for generating data backups, that includes receiving, by a local backup manager executing on a local storage server, a command to initiate a backup process for a virtual data pool, and in response to receiving the command, identifying a plurality of locations pointing to a plurality of data, respectively, making a first determination that a first location points to a remote data stored on a remote storage server, in response to the first determination, sending a second command, to the remote storage server, to generate a remote backup data of the remote data, making a second determination that a second location points to a local data stored on the local storage server, and in response to the second determination, generating a local backup data of the local data, where the plurality of data backups includes the remote backup data and the local backup data.

Methods and systems for synchronous distributed data backup and metadata aggregation

A backup manager for providing backup services includes persistent storage and a backup orchestrator. The persistent storage includes protection policies. The backup orchestrator generates a backup for a client based on the protection policies; obtains system metadata from the client; generates a backup map for the backup based on the system metadata; generates a backup hierarchy for the backup based on the backup map; and stores the backup and at least one selected from a group consisting of the backup hierarchy and the backup map.

System and method for searching backups

Growing community of inventors

Bengaluru, India

Manish Sharma