An embodiment of the present disclosure includes an RPC architecture that includes a central manager gateway with a client-facing side that allows for client access via web services protocols such as SOAP and REST. The central manager gateway further includes a server-facing side that can communicate with a plurality of network elements, with each network element implementing a common IDL architecture and RPC manager instance. Each of the network elements, and in particular their RPC manager instance, may communicate with other RPC manager instances to ‘learn’ the network topology for the system and maintain a topology database for purposes of exposing a naming service, e.g., a CORBA naming service. The network elements may elect one master element while the others remain as slaves. The central manager gateway may automatically locate the master network element and forward client requests to the same for servicing.

A management method and apparatus are provided. The method includes: obtaining, by a second management unit, affinity information. The affinity information is used to configure affinity and/or anti-affinity between a target object and another object, or is used to configure affinity and/or anti-affinity between a child object of the target object and another object. The method further includes sending, by the second management unit, a management request of the target object to a first management unit. The management request carries the affinity information. The method further includes managing, by the first management unit, the target object according to the affinity information, after receiving the management request of the target object and sent by the second management unit.

A management method and apparatus are provided. The method includes: obtaining, by a second management unit, affinity information. The affinity information is used to configure affinity and/or anti-affinity between a target object and another object, or is used to configure affinity and/or anti-affinity between a child object of the target object and another object. The method further includes sending, by the second management unit, a management request of the target object to a first management unit. The management request carries the affinity information. The method further includes managing, by the first management unit, the target object according to the affinity information, after receiving the management request of the target object and sent by the second management unit.

Broadly speaking, the present techniques relate to a computer implemented method comprising: receiving, at a first server, one or more device identifiers from a device; determining, with the first server, the availability of a resource template for the device based on or in response to the one or more device identifiers; when the resource template is available for the device: provisioning, from the first server to the device, a template identifier to enable the device to register with a second server using the template identifier.

A method for validating an Ethernet configuration of an automation system including several industrial devices, the method includes obtaining a device identifier for each of the industrial devices and indications of device ports and of device port connections. The method further includes obtaining device Ethernet parameters and instantiating a system object model of the Ethernet configuration of the automation system based on the device identifiers, the device ports and device port connections and the Ethernet parameters. The system object model allows applying predefined rules for generating a graph model representative of the Ethernet configuration. To the generated graph model cycle detection as known from graph theory may be applied by means of depth-first search. Based on the outcome of the cycle detection a validation result may be indicated. A generic Ethernet object model and a topology manager also are disclosed.

A single API is provided for all network and cloud infrastructure management, automation, and operations, such that any remote device may be used as a self-organizing network (SON) controller. Infrastructure engineers, managers, and executives can manage and administer any component of enterprise IT infrastructure from a remote or IOT device. Machine learning and artificial intelligence (ML/AI) are leveraged for auto healing and network operations.

Disclosed herein are methods, systems, and processes to provide flexible associativity for multitenant applications operating in clustered computing environments. One such method involves updating a configuration file to produce an updated configuration file by generating new relationship information based on associations between a dependent application represented by a parent object and a dependee application represented by a child object. In certain embodiments, the new relationship information is stored in a metadata object.

An embodiment of the present disclosure includes an RPC architecture that includes a central manager gateway with a client-facing side that allows for client access via web services protocols such as SOAP and REST. The central manager gateway further includes a server-facing side that can communicate with a plurality of network elements, with each network element implementing a common IDL architecture and RPC manager instance. Each of the network elements, and in particular their RPC manager instance, may communicate with other RPC manager instances to ‘learn’ the network topology for the system and maintain a topology database for purposes of exposing a naming service, e.g., a CORBA naming service. The network elements may elect one master element while the others remain as slaves. The central manager gateway may automatically locate the master network element and forward client requests to the same for servicing.

An embodiment of the present disclosure includes an RPC architecture that includes a central manager gateway with a client-facing side that allows for client access via web services protocols such as SOAP and REST. The central manager gateway further includes a server-facing side that can communicate with a plurality of network elements, with each network element implementing a common IDL architecture and RPC manager instance. Each of the network elements, and in particular their RPC manager instance, may communicate with other RPC manager instances to ‘learn’ the network topology for the system and maintain a topology database for purposes of exposing a naming service, e.g., a CORBA naming service. The network elements may elect one master element while the others remain as slaves. The central manager gateway may automatically locate the master network element and forward client requests to the same for servicing.

Examples described herein include systems and methods for multi-tenant event sourcing and audit logging in a cloud-based computing infrastructure. In an example method, an event package can be received from a first microservice of an application. The event can describe any action performed within the computing infrastructure and can include various types of information. For example, it can include an event type, event ID, object type, object ID, and parent event ID. The event package can be associated with a tenant and only provided to tenant-approved recipients. The recipient can use the event package to automatically carry out steps to recreate and configure an object, or to determine the source of an event or failure within the system.