Dell Products Inc.

Emc IP Holding Company LLC

American Megatrends International, LLC

Chitrak Gupta

Rama Rao Bisa

Sushma Basavarajaiah

Mainak Roy

Mukund Purshottam Khatri

Chandrasekhar Puthillathe

Rathi Babu

Elie Antoun Jreij

Rajeshkumar Ichchhubhai Patel

Abhirup Seal

Venkatesan Balakrishnan

Shekar Babu Suryanarayana

Anurag Bhatia

Kala Sampathkumar

Chandrashekar Nelogal

Deepaganesh Paulraj

Anurag Sharma

Shinose Abdul Rahiman

Lucky Pratap Khemani

John Ross Palmer

Rajib Saha

Manjunath Vishwanath

Ajay Shenoy

Hari Venkatachalam

Aeiswarjya Pattnaik

Jace William Files

Akkiah Choudary Maddukuri

Chandrasekhar Mugunda

Viswanath Ponnuru

Pavan Kumar Gavvala

Dharma Bhushan Ramaiah

Vineeth Radhakrishnan

Neeraj Joshi

Manjunath Am

Raghavendra Venkataramudu

Komal Kumar Dhote

Chinmay Shripad Hegde

Suresh Vijaykumar

Prasanna Kumar Sahoo

Upendran Boovaraha

Deeder M Aurongzeb

Parminder Singh Sethi

Wade Andrew Butcher

Suren Kumar

Sanjay Rao

Sanjeev Dambal

Jitendra Kumar

Vigneswaran Ponnusamy

Ramesha He

Alonzo Fleming Seay

Ajay Kumar Gupta

Charles D Stracener

Diwahar Natarajan

Christopher Domingo Arzola

Jitendra Kumar Rath

Amrita Nistala

Sreenivasula Reddy G

Richard Lynn Hall

Swapna M

Thomas Mathew

Jo Ann Varble

Ranjan Kumar

Sriparna Som

Rochak Gupta

Nishi

Manikandan Palaniappan

Shirley Heby

Chandrasekhar Puthilathe

Lavy T Moncy

Mohan Murali Gurram

Pavan Kumar G

Kiran Krishnappa

Sushma Baravarajaiah

In an aspect of the disclosure, a method, a computer-readable medium, and a computer system are provided. The computer system includes a primary BMC. The primary BMC determines one or more management endpoints that are to be managed by the primary BMC. The primary BMC manages a host and each of the management endpoints manages a respective device serving the host. The primary BMC determines a mapping of communication interfaces between the primary BMC and the one or more management endpoints. The primary BMC determines, based on the mapping, a first communication interface between a first management endpoint and the primary BMC. The primary BMC collects, from the first management endpoint, device operational data of a first device managed by the first management endpoint.

Aggregation of data for distributed management framework

In an aspect of the disclosure, a method, a computer-readable medium, and a computer system are provided. The computer system includes one or more computing devices. The one or more computing devices provide access to a first firmware image containing firmware of a baseboard management controller (BMC) through a cloud platform. The one or more computing devices receive, from a first device of a first subscriber, a request to retrieve the first firmware image according to a first subscription. The one or more computing devices grant, to the first device, access to the first firmware image.

Cloud based subscription and orchestration of continuous integration and deployment for firmware

In an aspect of the disclosure, a method, a computer-readable medium, and a BMC are provided. The BMC receives an update package containing one or more updated software components of a firmware image of the BMC to replace corresponding existing software components running on the BMC. The BMC shuts down the existing software components and executes the one or more updated software components. The BMC calculates one or more first stability factors of the one or more updated software components. The BMC compares the one or more first stability factors with one or more second stability factors of the corresponding existing software components. The BMC determines whether to keep the updated software components based on a comparison result.

Updating firmware based on firmware stability index

According to one embodiment, a path obfuscation system includes first and second hardware devices, and first and second interfaces configured to provide communication between the first and second hardware devices using a security protocol and data model (SPDM) protocol. The first hardware device comprises computer-executable instructions to receive a message to be transmitted to the second hardware device, segment the message into multiple groups of packets, and randomly select either the first or second interface to transmit each group of packet to the second hardware device.

Communication path obfuscation system and method

A system and a method of offloading and migrating management controller functionalities using containerized services are provided. Specifically, a computing device may request a container image from a container management system by sending an instruction to the container management system to select a group of management functionalities to be provided in the container image. In response to receiving the instruction, the container management system retrieves a corresponding group of the services corresponding to the selected group of management functionalities, and creates the container image using the retrieved services. Upon receiving a request from the computing device for the container image, the container management system sends the container image to the computing device, such that the container image may be executed on the computing device to provide a virtual management device thereon. The container image is also capable of being migrated from the computing device to another computing device.

System and method of offloading and migrating management controller functionalities using containerized services and application thereof

In an aspect of the disclosure, a method, a computer-readable medium, and a computer system are provided. The computer system includes a BMC. The BMC determines a booting configuration based on setting of the BMC. The BMC determines, from a firmware image and according to the booting configuration, a group of components, of an OS of the BMC, to be loaded into a memory of the BMC. The BMC determines, from the firmware image, storage locations of the group of components. The BMC obtains a first set of components of the group from one or more network locations according to the storage locations.

Customized fit image descriptors for resources stored over the network

An information handling system may include a management controller configured to provide out-of-band management of the information handling system. The management controller may be configured to: receive network traffic from a client information handling system, the network traffic relating to management of the information handling system; and transmit at least a portion of the network traffic to a traffic classifier. The traffic classifier may be configured to: determine a protocol associated with the network traffic; compare the network traffic with protocol-specific classification data based on the determined protocol; and determine, based on the comparison, a likelihood that the network traffic is malicious. Based on the determined likelihood exceeding a threshold, the management controller may be configured to execute a remedial action with respect to the network traffic.

Intelligent detection and prevention of anomalies in interface protocols

A container management infrastructure is provided for deployment of management features using a containerized service on a management device and applications thereof are provided. In operation, the infrastructure receives, from a remote computing device, an instruction to select a group of management functionalities. In response, the infrastructure retrieves a corresponding group of the services corresponding to the selected group of management functionalities from a first cloud network, creates a container image using the retrieved group of the services, and deploy the container image to a second cloud network. The second cloud network receives and stores the container image. Upon receiving a request from a remote computing device for the container image, the second cloud network sends the container image to the remote computing device, such that the container image may be executed on the remote computing device to provide a virtual management device thereon.

Deployment of management features using containerized service on management device and application thereof

An Information Handling System (IHS) includes multiple hardware devices, and a baseboard Management Controller (BMC) in communication with the plurality of hardware devices. The BMC includes executable instructions for identifying at least one non-registered hardware device from among the multiple hardware devices that is not registered for use within the IHS by the BMC. For this non-registered hardware device, the BMC generates power profile data. Using the power profile data of the non-registered hardware device, the BMC determines a level of electrical power to sufficiently supply the plurality of hardware devices of the IHS, and controls one or more power supply units to supply the determined level of electrical power to the plurality of hardware devices.

System and method for highly granular power/thermal control in information handling systems

An Information Handling System (IHS) includes multiple hardware devices, and a Baseboard Management Controller (BMC) in communication with the hardware devices. The BMC includes executable code to cause the BMC to receive a message associated with a non-registered hardware device that is not registered to be managed by the BMC in which the message formatted according to a native protocol of the BMC. The code further causes the code to transmit the message to a device plugin associated with the non-registered hardware device in which the device plugin comprises custom instructions that, upon execution by a system processor, cause the IHS to convert the message into a protocol associated with the non-registered hardware device, and forward the converted message to the non-registered hardware device using the protocol of the non-registered hardware device.

System and method for secure management of non-registered components of an information handling system using a baseboard management controller

A system for data processing, comprising a first processor operating under algorithmic control and configured to receive audio data during a first session and to convert the audio data into encoded electrical data. A second processor operating under algorithmic control and configured to identify speech data in the encoded electrical data and to convert the speech data to text data. The second processor further configured to process the text data to identify one or more commands and one or more missing parameters of the commands. The second processor further configured to map context data to one or more commands and the one or more missing parameters and to select replacement parameter data corresponding to the missing parameter data from the mapped context data.

Dynamic redfish query URI binding from context oriented interaction

A disclosed method and system for allocating bandwidth among a plurality of virtual network ports assigned to a plurality of virtual machines accesses assignment information indicating which virtual network ports are assigned to which virtual machines. A network bandwidth manager (NBM) receives network utilization information indicating the network utilization of each virtual network port/The NBM further receives virtual machine priority information indicative of a derived priority for each of the plurality of virtual machines. The NBM configures bandwidth parameters for each of the virtual network ports based on the assignment information, network utilization information, and the virtual machine priority information.

Dynamic allocation of bandwidth to virtual network ports

An information handling system may include a processor, one or more accelerators communicatively coupled to the processor, and a management controller communicatively coupled to the processor and the one or more accelerators and configured for out-of-band management of the information handling system, the management controller further configured to receive information regarding the one or more accelerators, determine a criticality factor for each of the one or more accelerators based on the information, determine an accelerator health status for each of the one or more accelerators, and determine an overall system health of the information handling system based on the criticality factors and the accelerator health statuses.

Systems and methods for managing system rollup of accelerator health

A key management system includes a managed system coupled to a management system through a network. The managed system includes managed device locking subsystem(s) coupled to a managed device and a key storage. The managed device locking subsystem(s) retrieve, through the network from the management system, a managed device locking key that is configured to unlock the managed device. The managed device locking subsystem(s) then encrypt the managed device locking key to provide an encrypted managed device locking key, and store the encrypted managed device locking key in the key storage. Subsequent to storing the encrypted managed device locking key, the managed device locking subsystem(s) retrieve the encrypted managed device locking key from the key storage, and decrypt the encrypted managed device locking key to provide a decrypted managed device locking key. The managed device locking subsystem(s) then use the decrypted managed device locking key to unlock the managed device.

Device locking key management system

A device-capability-based locking key management system includes a key management system coupled to a server device via a network. The server device includes storage devices coupled to a remote access controller device. The remote access controller device identifies each of the storage devices, and then identifies a key management profile for each of the storage devices. A first key management profile identified for at least one first storage device is different from a second key management profile identified for at least one second storage device. The remote access controller device then uses the respective key management profile identified for each of the storage devices to create a respective key management sub-client for each of the storage devices, and each respective key management sub-client communicates with the key management system to provide a locking key for its respective storage device.

Device-capability-based locking key management system

Growing community of inventors

Alpharetta, GA, United States of America

Chitrak Gupta