61 results about "Service virtualization" patented technology

Selective virtualization of resources is provided, where the resources may be intercepted and services or the resources may be intercepted and redirected. Virtualization logic monitors for a first plurality of requests that are initiated during processing of an object within the virtual machine. Each of the first plurality of requests, such as system calls for example, is associated with an activity to be performed in connection with one or more resources. The virtualization logic selectively virtualizes resources associated with a second plurality of requests that are initiated during the processing of the object within the virtual machine, where the second plurality of requests is lesser in number than the first plurality of requests.

The invention relates to a multi-agent reinforcement learning scheduling method, a multi-agent reinforcement learning scheduling system and electronic equipment. The method comprises the following steps: step a, collecting server parameters of a network data center and virtual machine load information running on each server; b, establishing a virtual simulation environment by using the parametersof the server and the load information of the virtual machine, and establishing a deep reinforcement learning model of multiple agents; c, performing offline training and learning by utilizing the deep reinforcement learning model of the multiple agents and a simulation environment, and training an agent model for each server; and d, deploying the agent model to a real service node, and schedulingaccording to the load condition of each service node. The service running on the server is virtualized through the virtualization technology, load balancing is carried out in a virtual machine scheduling mode, resource distribution is more macroscopic, and a strategy that multiple agents generate cooperation in a complex dynamic environment can be achieved.

A service governance framework may provide a platform for development and hosting of virtual service offerings and generation of interfaces to operations thereof, dependent on configurable functional parameters and/or non-functional aspects associated therewith. Virtualization techniques may be applied at an endpoint level, binding level, message level, operation level, and/or service level at design time, and supported with corresponding changes at runtime. Users having various roles may access the framework to specify operations of services provided by computing service sources to include in a virtual service offering, specify configuration parameter values associated with them, and/or specify a contract of non-functional aspect clauses for the virtual service offering. The framework may produce the interface by modifying an interface provided by the computing service sources (e.g., a WSDL). The framework may include aspect enforcement methods and an underlying common information model, and may support versioning and life cycles of service offerings and/or components.

Guest domains (virtual machines) may execute at a virtualization server. During execution, the guest domains may request various services to facilitate their operation. The virtualization server may disaggregate the services requested by the guest domains among various service domains. A service domain may be configured to provide one the services. The virtualization server may also maintain a pool of partially initialized service domains. When a guest domain requests a particular service, one of the partially initialized service domains may be selected from the pool, and the partially initialized service domain may complete initialization to become an initialized service domain. The initialized service domain may thus be configured to provide the service requested by a guest domain. The virtualization server may periodically replenish the pool of partially initialized service domains to ensure that a partially initialized service domain is available upon demand from one of the guest domains.

A security system and method for the Internet of Things integrates a multitude of devices and protocols. The security system includes an OAS security gateway that protects the local IoT devices from external network-based attacks through remote attestation requests to a remote attestation server. The remote attestation message is used by the remote attestation server to analyze the software execution history of the local IoT device, so as to detect malware or insecure software. A cryptographic chip operatively integrates in the security gateway. The security system also performs data packet encryption and decryption of communications between the local IoT devices and remote user devices with an encryption engine. A service virtualization engine converts incompatible communication protocols between the IoT device and the remote user device. A network traffic sanitization engine filters data packet communications between the local IoT device and the remote attestation server.

In one implementation, a host provides virtualized computing to one or more customer networks. The virtualized computing may include hardware virtualization quantified in the resources of the virtual machines, services virtualization quantified in the quantity or types of services performed on host, or processing virtualization quantified by process occurrences. When the host receives a request for computing virtualization from a user device, the host derives an authentication value and accesses a virtualization service level from a memory. The host is configured to deliver the computing virtualization to the user device according the virtualization service level.

In a service emulation method, a transaction library storing a plurality of messages communicated between a system under test and a target system upon which the system under test depends is accessed responsive to receiving a request from the system under test. One of the messages stored in the transaction library is identified as corresponding to the received request based on a distance measure therebetween, and a response to the received request is generated using the one of the messages that was identified. Related systems and computer program products are also discussed.

The invention discloses a secure virtualization system suitable for use in a trusted execution environment (TEE). The system includes at least one virtual machine, at least one trusted application (TA) and the at least one trusted execution environment. The virtual machine is built through Micro Hypervisor. The trusted execution environment is run on the virtual machine. The trusted application isrun in the trusted execution environment of the virtual machine. The trusted execution environment is configured to access the virtual machine in a first mode to realize calling of resources. Under the first mode, the virtual machine allows accessing of the trusted execution environment to the resources after it is determined that the trusted execution environment has access authority. The systemhas the advantages of: on the basis of trusted virtualization technology, building the virtual machine through the Micro Hypervisor, and running the GP (Global Platform) TEE and the corresponding TAon the virtual machine. Both the TEE and the TA are run on the respective virtual machine, thus complete isolation is realized, and security is greatly improved.

Virtualizing a service is disclosed. A request to access a service from a first server is received from a client. A secret data associated with the first server is used to process the received request. The processed request is sent to a second server. The first and second servers are associated with a virtualization; and wherein the processed request can be used by the second server to authenticate the client.

The invention provides a storage virtualization system. The storage virtualization system comprises servers, local disks, a Raid card, Raid disk arrays, virtual disks and distributed head cards, wherein the servers are used for providing software operating environments and a virtual machine control platform for a virtual machine and are provided with all-in-one machine managing units; a virtual Raid array is formed by local disks of all the servers through the Raid card by the all-in-one machine managing units; and a Raid disk array is formed by the local disks through an ISCSI (Internet Small Computer System Interface) channel by the Raid card, and a virtual memory is formed by the plurality of virtual Raid arrays through a network. According to the storage virtualization system provided by the invention, the problem of the shared storage in the conventional low-cost desktop virtualization scheme is solved, the high-reliability functions of the virtual HR (Human Resource) are realized, the shared storage is disaffiliated, and the stability and the reliability of a desktop are achieved; and meanwhile, the installation and maintenance cost of the system is lowered as well.

The invention provides an emergency command cloud service implementation method and system based on a microkernel cluster. Various kinds of services with specific business processing capacity is virtually encapsulated into the microkernel cluster, mutual synergy is performed according to the service plans generated according to upper module application, and the microcosmic services provided each member in the cluster are combined and encapsulated to convert into macroscopic service manners capable of realizing emergency treatment task planning. The system comprises a physical resource layer, an emergency resource cloud pool, a platform service layer, a module application layer and a user layer. By the emergency command system built by the service method, dynamic searching of valuable emergency service resources in various fields can be achieved, the system capabilities of massive dynamic information and knowledge reasoning, complex function and process recombination calculation, storage and service are improved, and diversified emergency tasks such as emergency cross-department and cross-field real-time information processing, large-range public opinion analysis, complex module deduction, dynamic disaster situation prediction and remote monitoring can be achieved.

The invention provides a method and a device for realizing dual-live disaster recovery for a server virtualization system. The method includes: configuring a server virtualization system ICS, and creating a CFS storage domain and a shared storage pool; Modifying the storage domain profile to set the heartbeat timeout to be greater than the dual live storage recovery time. The device comprises a license adding module, which is used for adding an ICS license of a server virtualization system; A host adding module, configured to add a server virtualization system host; A storage domain creation module for creating a server virtualized system storage domain; A storage pool creation module for creating a server virtualization system storage pool; A virtual machine creation module for creating avirtual machine; The storage domain background configuration module used for modifying the storage domain background configuration file and setting the heartbeat timeout time to be greater than the dual-live storage recovery time. The invention enhances the safety of data access, more adapts to the needs of enterprise-level customers, and promotes the perfection of the functions of the company'svirtualized products.

The invention discloses a cluster virtualization data forwarding method, device and system based on VPP, and the method comprises the steps: obtaining a plurality of service containers, forming a containerized cluster, wherein the service containers are obtained through the virtualization of a safety access service; registering all the service containers in a load balancing process, and enabling the load balancing process to provide a unique service address and a unique port number for the outside; when it is monitored that the load balancing process receives an access request sent by a certain client, controlling the load balancing process to communicate with a corresponding service container through a DPDK forwarding driver in the VPP under a kubernetes container framework according to a preset working mode and a polling algorithm, and completing data forwarding. In the invention, the receiving and sending packet drive of all data is based on the DPDK, and the message copy from the user mode to the kernel mode is not involved, so that the performance of the traditional gateway access service based on the DPDK forwarding drive is not influenced.

A system used for end-to-end cloud service virtualization is disclosed. The system comprises a central operation panel. The central operation panel is outside an individual virtual machine or in an individual virtual machine, and is used for establishing, updating, deleting, monitoring and regulating all virtual cloud service activities. By the scheme, the system can virtualize a plurality of cloud services through the central operation panel, and one client can visit a plurality of cloud services without the need of establishing and using a plurality of clients.

Disclosed are examples of observing and measuring virtual machine (VM) activity in a VM communication system environment. According to one example embodiment, an example operation may include transmitting a request from a physical host device to monitor at least one virtual machine among various virtual machines currently operating in a virtual communication system. Additional operations may include determining which of the virtual machines are actively accessing a predetermined virtual application, such as a virtual storage application. The operations may also include receiving present operating activity results regarding the virtual machines responsive to the transmitted request.

A method and apparatus for mix orchestration of services are provided in embodiments of that present invention. The method includes: logically associating one or more components of service virtualization components corresponding to the first virtual platform and/or logically associating one or more components of service containerization components corresponding to the second virtual platform according to the services received by the first virtual platform and/or the second virtual platform; logically associating one or more components of a common component with one or more components of a business virtualization component and/or one or more components of a business containment component; based on logical associations of components in a business virtualization component and/or logical associations of components in a business containment component, and logical associations of the common component with the service virtualization component and/or logical associations with the service containerization component, deploying the service, thus solving the problem of mixed orchestration of the service of the first virtual platform and the second virtual platform.

A device virtualization system is described herein that separates common computer processing tasks of an embedded device from the application-specific peripherals of the embedded device to allow at least some functions of the device to be offloaded to servers or other computing devices. The device virtualization system greatly simplifies management, configuration, and control of virtual embedded devices. Because much of the software of the device runs on the virtualization server, information technology (IT) personnel can be assigned to manage the virtualization server and to apply any updates and diagnose any problems that occur. Moreover, a single server or group of servers can be used to provide virtualization services for a wide variety of virtualized embedded devices for a wide variety of users. Thus, the system enhances the usefulness of embedded devices and allows a longer lifetime and wider variety of uses than embedded devices today.