A storage request accepting unit 11 acquires correspondence information in which a service, a slice, and context information are associated with each other. A status acquiring unit 13 acquires positional information of a UE 130 and identifies staying information from the positional information. An assignment unit 14 assigns a slice corresponding to a service used by the UE 130 and context information represented by the correspondence information. In this case, a slice management device 10 assigns a slice to a service in accordance with the context information such as a staying status or the like of the UE 130, and accordingly, a slice assigned to the service can be dynamically changed.

An apparatus in one embodiment comprises a processing platform that includes a plurality of processing devices each comprising a processor coupled to a memory. The processing platform is configured to implement virtual resources of one or more clouds for use by applications of at least one application management domain. The processing platform further comprises an application manager configured in accordance with a multi-layer application management architecture including at least a component control layer, a system control and inner orchestration layer, an access and routing layer, an external system orchestration layer, and a presentation layer. The virtual resources and applications comprise respective controlled components under control of the component control layer. The applications are managed utilizing interactions between the layers of the multi-layer application management architecture, such as interactions between inner orchestration engines of the system control and inner orchestration layer and controllers of the component control layer.

A service resource management system, including: a cloud data unit for storing a resource collected from a cloud service; a service group management unit for allocating the resource included in the cloud data unit to set a service group for providing a service; and a service group automatic generation module for automatically generating the service group for classifying the resource according to the setting thereof with the name including a key value or a tag value.

Embodiments include a resource allocation system for managing execution of a computing task by a hierarchically-arranged computing infrastructure. In embodiments, the resource allocation system can comprise a resource map, an index processor, and an allocation manager. The resource map can include data elements that are associated with each service provider, including parent-child relationships. Workloads can be assigned to providers based on one or more optimization indexes calculated for each service provider based on a plurality of level-specific performance metrics received from one or more monitoring engines

The present disclosure provides a resource allocation method of a heterogeneous network under intermediate processing constraints. The method includes: generating a preference list for each intermediate node; obtaining network topology information of the heterogeneous network, and calculating a transmission path length of the data stream passing through the intermediate node according to the network topology information; obtaining a quasi-service list of each intermediate node; obtaining a mapping relationship between the intermediate nodes and the data flows according to the quasi-service list of each intermediate node, and sequentially scheduling the data flows according to the mapping relationship and the preference list of each intermediate node. A device for resource allocation of a heterogeneous network under intermediate processing constraints and a non-transitory computer storage medium are also disclosed.

Disclosed is a communication method, a zone scheduler performing thereof, and an inter-zone scheduling coordinator (IZSC). A communication method performed by a zone scheduler may include transmitting an inter-zone scheduling request to an IZSC in response to an occurrence of an inter-zone traffic with respect to another zone scheduler, receiving an inter-zone matching pattern and information on a time slot from the IZSC, and transmitting the inter-zone traffic to the other zone scheduler by performing scheduling based on the inter-zone matching pattern in the time slot.

A resource orchestration framework may include vertices representing physical network nodes and a resource orchestrator. The resource orchestrator may obtain a service function chain specifying, for multiple service functions, mappings of the service functions to respective physical nodes along a specified forwarding path, and a first starting time at which to instantiate resources for a first service function in the chain on the first mapped physical node. The resource orchestrator may instantiate the resources for the first service function on the first mapped physical node at the first starting time, prior to arrival of a first packet in a packet flow for the service function chain at the first mapped physical node and, subsequently, instantiate resources for a second service function in the chain on the second mapped physical node at a second starting time, prior to arrival of the first packet at the second mapped physical node.

The present application provides virtual shortest path tree establishment and processing methods and a path computation element, so as to improve a resource utilization rate in a process of establishing and processing a virtual shortest path tree. In a process of establishing the virtual shortest path tree, a cost of an established path from a root node (a destination node) to a leaf node is compared with a cost threshold, and a new path branch is added to the VSPT when the cost is less than the cost threshold. In a process of processing the virtual shortest path tree, a resource occupied by a path branch in the VSPT that does not belong to an optimal path is released after the optimal path is obtained.

Techniques are provided for a high availability solution (e.g., a network attached storage (NAS) solution) with address preservation during switchover. A first virtual machine is deployed into a first domain and a second virtual machine is deployed into a second domain of a computing environment. The first and second virtual machines are configured as a node pair for providing clients with access to data stored within an aggregate comprising one or more storage structures within shared storage of the computing environment. A load balancer is utilized to manage logical interfaces used by clients to access the virtual machines. During switchover, the load balancer preserves an IP address used to mount and access a data share of the aggregate used by a client.

A method and a system may automatically compute optimized target resources and identify configurations given discovered source properties and dependencies of machines, while prioritizing performance in the target environment. An algorithm and/or tools for programmatically identifying and locating business application instances in an infrastructure, based on weighted similarity metric may be also provided.