Abstract: An embodiment includes a method of self-election of a node in a subnet. The method includes receiving a first ping message. The first ping message is unicast from a second node, includes direct information related to the second node, and includes indirect information related to a third node. The method includes updating a first status of the second node in a status list stored at the first node consistent with the direct information. The method includes determining whether statuses of a threshold number of nodes have been received. Responsive to the threshold number of nodes being received, the method includes performing a local election operation. The method includes propagating a second ping message to a randomly identified additional node. The second ping message includes direct information regarding the first node and indirect information regarding at least one other node.

Abstract: Disclosed herein are methods, systems, and computer-readable media for integrating a particular external application programming interface (API) with a natural language model user interface. In one embodiment, a method includes receiving a first input at the natural language model user interface, determining the first input includes a request to integrate the particular external application programming interface (API) with the natural language model user interface, identifying the particular external API based on the received input, integrating the particular external API with the natural language model user interface, accessing the particular external API based on the first input or a second input at the natural language model user interface, and transmitting, based on the accessing, a response message to the natural language model user interface, the response message including a result of the accessing.

Abstract: Systems, methods, and other embodiments associated with secure firmware update in a bare metal cloud environment are described. In one embodiment, a trusted device for causing a component of a computing device to accept a firmware update is presented. The device includes a management interface configured to receive a command that authorizes a firmware update to the component. The device further includes a recovery device logic that is configured to generate a signal configured to cause the component to enter a recovery mode. The recovery mode configures the component to accept the firmware update. The device also includes an interface of the device that is configured to pass the signal to the component to cause the component to enter the recovery mode and accept the firmware update.

Abstract: A pipe tensioner for laying or recovering a subsea pipeline comprising at least two opposing continuous tracks able to hold the subsea pipeline, each track having a plurality of pads mounted on the continuous track for contacting the subsea pipeline, characterised in that at least one pad is a load pad comprising one or more load sensors for measuring loading on the load pad during handling of the subsea pipeline.

Abstract: In one embodiment, a method provides a first orchestration service instance for managing a set of containers operating on a controller node where the controller node controls a set of physical nodes. The method also provides a set of second orchestration service instances for managing a set of first services operating in the set of containers where a second orchestration service instance in a container manages a respective first service in the container. The set of physical nodes include a set of third orchestration service instances for managing a set of second services operating on the set of physical nodes. The first orchestration instance, the set of second orchestration service instances, and the set of third orchestration service instances communicate through a shared communication service that maintains a global state of the controller node, the set of containers, and the set of physical nodes.

Abstract: A pipe tensioner for laying or recovering a subsea pipeline comprising at least two opposing continuous tracks able to hold the subsea pipeline, each track having a plurality of pads mounted on the continuous track for contacting the subsea pipeline, characterised in that at least one pad is a load pad comprising one or more load sensors for measuring loading on the load pad during handling of the subsea pipeline.

Abstract: Systems, methods, and other embodiments associated with secure firmware update in a bare metal cloud environment are described. In one embodiment, a trusted device for causing a component of a computing device to accept a firmware update is presented. The device includes a management interface configured to receive a command that authorizes a firmware update to the component. The device further includes a recovery device logic that is configured to generate a signal configured to cause the component to enter a recovery mode. The recovery mode configures the component to accept the firmware update. The device also includes an interface of the device that is configured to pass the signal to the component to cause the component to enter the recovery mode and accept the firmware update.

Abstract: In one embodiment, a method provides a first orchestration service instance for managing a set of containers operating on a controller node where the controller node controls a set of physical nodes. The method also provides a set of second orchestration service instances for managing a set of first services operating in the set of containers where a second orchestration service instance in a container manages a respective first service in the container. The set of physical nodes include a set of third orchestration service instances for managing a set of second services operating on the set of physical nodes. The first orchestration instance, the set of second orchestration service instances, and the set of third orchestration service instances communicate through a shared communication service that maintains a global state of the controller node, the set of containers, and the set of physical nodes.

Abstract: In one embodiment, a method provides a first orchestration service instance for managing a set of containers operating on a controller node where the controller node controls a set of physical nodes. The method also provides a set of second orchestration service instances for managing a set of first services operating in the set of containers where a second orchestration service instance in a container manages a respective first service in the container. The set of physical nodes include a set of third orchestration service instances for managing a set of second services operating on the set of physical nodes. The first orchestration instance, the set of second orchestration service instances, and the set of third orchestration service instances communicate through a shared communication service that maintains a global state of the controller node, the set of containers, and the set of physical nodes.

Abstract: In one embodiment, a method receives a software command from a software element in a main computer at a management computer via an application programming interface (API) included in the management computer. The management computer manages the main computer, and the main computer controls services for a distributed computing system. The management computer then determines a hardware device associated with the software command where the management computer includes a communication pathway to the hardware device. The management computer translates the software command to a hardware command that the hardware device can process where the hardware device cannot process the software command. Then, the management computer sends the hardware command to the hardware device via the communication pathway where the management computer provides the API to allow the software element to communicate with the hardware element without the software element having to translate the software command to the hardware command.

Abstract: In one embodiment, a method receives a software upgrade package for a management computer and main computer. The management computer upgrades software of the management computer using the software upgrade package where the upgrading replaces an image of the software of the management computer with an image from the software upgrade package. Upon upgrade of the management computer, the management computer initiates an upgrade of the main computer. The main computer withdraws use of the services, and upon the withdrawing, the management computer reboots the main computer. Then, the main computer upgrades software of the main computer using the software upgrade package upon rebooting where the upgrading replaces an image of the software of the main computer with an image from the software upgrade package. Upon the upgrading, the main computer restores the use of the services.

Abstract: In one embodiment, a method receives a software command from a software element in a main computer at a management computer via an application programming interface (API) included in the management computer. The management computer manages the main computer, and the main computer controls services for a distributed computing system. The management computer then determines a hardware device associated with the software command where the management computer includes a communication pathway to the hardware device. The management computer translates the software command to a hardware command that the hardware device can process where the hardware device cannot process the software command. Then, the management computer sends the hardware command to the hardware device via the communication pathway where the management computer provides the API to allow the software element to communicate with the hardware element without the software element having to translate the software command to the hardware command.

Abstract: In one embodiment, a method receives a software command from a software element in a main computer at a management computer via an application programming interface (API) included in the management computer. The management computer manages the main computer, and the main computer controls services for a distributed computing system. The management computer then determines a hardware device associated with the software command where the management computer includes a communication pathway to the hardware device. The management computer translates the software command to a hardware command that the hardware device can process where the hardware device cannot process the software command. Then, the management computer sends the hardware command to the hardware device via the communication pathway where the management computer provides the API to allow the software element to communicate with the hardware element without the software element having to translate the software command to the hardware command.

Abstract: In one embodiment, a method receives a software upgrade package for a management computer and main computer. The management computer upgrades software of the management computer using the software upgrade package where the upgrading replaces an image of the software of the management computer with an image from the software upgrade package. Upon upgrade of the management computer, the management computer initiates an upgrade of the main computer. The main computer withdraws use of the services, and upon the withdrawing, the management computer reboots the main computer. Then, the main computer upgrades software of the main computer using the software upgrade package upon rebooting where the upgrading replaces an image of the software of the main computer with an image from the software upgrade package. Upon the upgrading, the main computer restores the use of the services.

Abstract: In one embodiment, a method receives a software upgrade package for a management computer and main computer. The management computer upgrades software of the management computer using the software upgrade package where the upgrading replaces an image of the software of the management computer with an image from the software upgrade package. Upon upgrade of the management computer, the management computer initiates an upgrade of the main computer. The main computer withdraws use of the services, and upon the withdrawing, the management computer reboots the main computer. Then, the main computer upgrades software of the main computer using the software upgrade package upon rebooting where the upgrading replaces an image of the software of the main computer with an image from the software upgrade package. Upon the upgrading, the main computer restores the use of the services.

Abstract: In one embodiment, a method receives a software upgrade package for a management computer and main computer. The management computer upgrades software of the management computer using the software upgrade package where the upgrading replaces an image of the software of the management computer with an image from the software upgrade package. Upon upgrade of the management computer, the management computer initiates an upgrade of the main computer. The main computer withdraws use of the services, and upon the withdrawing, the management computer reboots the main computer. Then, the main computer upgrades software of the main computer using the software upgrade package upon rebooting where the upgrading replaces an image of the software of the main computer with an image from the software upgrade package. Upon the upgrading, the main computer restores the use of the services.

Abstract: In one embodiment, a method receives a software command from a software element in a main computer at a management computer via an application programming interface (API) included in the management computer. The management computer manages the main computer, and the main computer controls services for a distributed computing system. The management computer then determines a hardware device associated with the software command where the management computer includes a communication pathway to the hardware device. The management computer translates the software command to a hardware command that the hardware device can process where the hardware device cannot process the software command. Then, the management computer sends the hardware command to the hardware device via the communication pathway where the management computer provides the API to allow the software element to communicate with the hardware element without the software element having to translate the software command to the hardware command.

Abstract: In one embodiment, a method provides a first orchestration service instance for managing a set of containers operating on a controller node where the controller node controls a set of physical nodes. The method also provides a set of second orchestration service instances for managing a set of first services operating in the set of containers where a second orchestration service instance in a container manages a respective first service in the container. The set of physical nodes include a set of third orchestration service instances for managing a set of second services operating on the set of physical nodes. The first orchestration instance, the set of second orchestration service instances, and the set of third orchestration service instances communicate through a shared communication service that maintains a global state of the controller node, the set of containers, and the set of physical nodes.