Patent classifications
H04L67/10015
Cloud-network integration oriented multi-access edge computing architecture
The present application discloses a cloud-network integration (CNI) oriented multi-access edge computing (MEC) architecture. An access network (AN) side of the architecture is provided with a plurality of edge computing nodes, a physical channel of the AN side is split into a plurality of subchannels with each of the subchannels supporting a media access control (MAC) access mode, and a software defined network (SDN) controller is arranged in the architecture and is configured to allocate resources of the subchannels at a physical layer and protocols at an MAC layer and control offloading at the edge computing nodes or a cloud center by a terminal user. The present application can carry out fine-grained control and cooperative management on network resources and computing resources, and achieve more effective computation offloading and service enhancement.
SYSTEM AND METHOD FOR IMPLEMENTING APPLICATION FUNCTIONALITY WITHIN A NETWORK INFRASTRUCTURE
A system and method for implementing functionality within a network on behalf of first and second devices communicating with each other through the network. A front-end device is provided within the network that communicates data traffic with the first device. A back-end device is also implemented within the network and communicates data traffic with the second device. A communication channel couples the front-end device and the back-end device. Data traffic may be encoded into a different type or protocol for transport through the communication channel by the front-end device and back-end device. The front-end device and back-end device exchange quality of service information and may alter characteristics of the data traffic through the communication channel according to the quality of service information.
Global hosting system
Network architecture supports hosting and content distribution on a global scale. The architecture allows a Content Provider to replicate and serve its most popular content at an unlimited number of points throughout the world. The inventive framework comprises a set of servers operating in a distributed manner. The actual content to be served is preferably supported on a set of hosting servers (sometimes referred to as ghost servers). This content comprises HTML page objects that, conventionally, are served from a Content Provider site. A base HTML document portion of a Web page is served from the Content Provider's site while one or more embedded objects for the page are served from the hosting servers, preferably, those hosting servers near the client machine. By serving the base HTML document from the Content Provider's site, the Content Provider maintains control over the content.
System and method for surge protection and rate acceleration in a traffic director environment
Described herein are systems and methods for use with a load balancer or traffic director, and administration thereof. In accordance with an embodiment the system comprises a traffic director having one or more traffic director instances, which is configured to receive and communicate requests, from clients, to origin servers having one or more pools of servers. A traffic monitor, at the traffic director, monitors traffic, including the number of connections, between the traffic director instances and one or more of the resource servers within the origin servers. The traffic director can set a traffic rate which controls the traffic, including the number of connections, to provide surge protection, or rate acceleration/deceleration.
DYNAMICALLY MANAGING A SYSTEM OF SERVERS
A method and system for managing servers. A message received by a first server specifies multiple servers to be updated via an update. The message identifies a server type of each specified server, an old server name of each specified server prior to the update, and a corresponding new server name of each specified server after the update. First servers of the multiple servers are identified. Second servers that have a corresponding old server name within a local configuration of the first server are identified. For each server of the second servers, local configuration changes are scheduled to update the corresponding old server names with corresponding new server names at corresponding specified times. Each corresponding old server name is replaced with corresponding new server names.
Message Processing Method and Apparatus, and Message Processing System
A message processing method and apparatus on a cloud computing platform, and a message processing system on a cloud computing platform are provided. In the message processing method, after an input request message sent to an active server and a standby server is received, the input request message is sent to all active servers and standby servers. After input response messages returned by the active server and the standby server are received, one of the input response messages is sent to an external device.
Dynamic HTTP load balancing
A load balancer computer for configuring a load balancing program in the load balancer for a cluster of servers to dispatch client requests to the servers in the cluster. The load balancer computer includes one or more storage devices and program instructions stored on the storage devices. The program instructions are: to detect that the cluster cannot handle the client requests with a predetermined level of performance, and in response, automatically request configuration information for another server not currently active in the cluster, to configure the load balancing program for adding the other server to the cluster to handle client requests; and to automatically configure the load balancing program for the cluster to add the other server to the cluster in accordance with the configuration information received for the other server. The configuration information configures the load balancing program for the other server based on a cookie affinity rule.
Dynamically managing a system of servers
A method and system for managing servers. A message received by a first server specifies multiple servers to be updated via an update. The message identifies a server type of each specified server, an old server name of each specified server prior to the update, and a corresponding new server name of each specified server after the update. First servers of the multiple servers are identified based on the first server being a consumer of services provided by a server type corresponding to each specified server of the first servers. Second servers that have a corresponding old server name within a local configuration of the first server are identified. For each server of the second servers, local configuration changes are scheduled to update the corresponding old server names with corresponding new server names at corresponding specified times. Each corresponding old server name is replaced with corresponding new server names.
Prioritization of third party access to an online commerce site
Providing prioritization of user online access to an online commerce site. Third party applications using API function calls to access an online commerce site are restricted to specific services by an access rule. An access rule defines which API server on the online commerce site a specific third party application may access when using a specific API function call. In this way, the operator of the online commerce site may prioritize server access per service level agreements based on a specific third party application and API function call.
System and method for dynamic cache data decompression in a traffic director environment
Described herein are systems and methods for use with a load balancer or traffic director, and administration thereof, wherein the traffic director is provided as a software-based load balancer that can be used to deliver a fast, reliable, scalable, and secure platform for load-balancing Internet and other traffic to back-end origin servers, such as web servers, application servers, or other resource servers. In accordance with an embodiment, the traffic director can be configured to compress data stored in its cache, and to respond to requests from clients by serving content from origin servers either as compressed data, or by dynamically decompressing the data before serving it, should a particular client prefer to receive a non-compressed variant of the data. In accordance with an embodiment, the traffic director can be configured to make use of hardware-assisted compression primitives, to further improve the performance of its data compression and decompression.