This application discloses a decentralization processing method, which are applied to a microservice system. A first communication proxy in the microservice system receives a first microservice request sent by a first microservice application, the first communication proxy determines, based on a target control plane rule, a microservice access address corresponding to the first microservice request, and sends the first microservice request to the second communication proxy having the microservice access address, where the second communication proxy is used to forward the first microservice request to the second microservice application. The first communication proxy can send the microservice request to the corresponding second communication proxy, and a control plane does not need to route the microservice request, so that traffic for routing the microservice request by the control plane is effectively reduced, and impact of a burst of microservice requests on the control plane is effectively avoided.

Stream-based data deduplication is provided in a multi-tenant shared infrastructure but without requiring “paired” endpoints having synchronized data dictionaries. Data objects processed by the dedupe functionality are treated as objects that can be fetched as needed. As such, a decoding peer does not need to maintain a symmetric library for the origin. Rather, if the peer does not have the chunks in cache that it needs, it follows a conventional content delivery network procedure to retrieve them. In this way, if dictionaries between pairs of sending and receiving peers are out-of-sync, relevant sections are then re-synchronized on-demand. The approach does not require that libraries maintained at a particular pair of sender and receiving peers are the same. Rather, the technique enables a peer, in effect, to “backfill” its dictionary on-the-fly. On-the-wire compression techniques are provided to reduce the amount of data transmitted between the peers.

Stream-based data deduplication is provided in a multi-tenant shared infrastructure but without requiring “paired” endpoints having synchronized data dictionaries. Data objects processed by the dedupe functionality are treated as objects that can be fetched as needed. As such, a decoding peer does not need to maintain a symmetric library for the origin. Rather, if the peer does not have the chunks in cache that it needs, it follows a conventional content delivery network procedure to retrieve them. In this way, if dictionaries between pairs of sending and receiving peers are out-of-sync, relevant sections are then re-synchronized on-demand. The approach does not require that libraries maintained at a particular pair of sender and receiving peers are the same. Rather, the technique enables a peer, in effect, to “backfill” its dictionary on-the-fly. On-the-wire compression techniques are provided to reduce the amount of data transmitted between the peers.

Systems and methods of operation modes for mobile traffic optimization and management of concurrent optimized and non-optimized traffic are disclosed. One embodiment includes classifying and handling traffic sent to and from mobile device applications running on a mobile device, the method includes, analyzing, on the mobile device, requests from the mobile device applications for recurrent patterns; traffic having a recurrent pattern is optimizable traffic and traffic with an unidentifiable pattern is non optimizable traffic, managing the optimizable traffic to reduce an amount of wireless data and signaling traffic sent to and from the mobile device and/or routing the non optimizable traffic from the mobile device applications to a service provider. In one embodiment, upon determining a problem communicating with the server, request are routed from the one or more mobile device applications directly to a service provider, the routed traffic bypassing a client-side proxy.

Systems and methods for providing data beacons are disclosed. In some embodiments the system can include a first node and a second node. Each node includes a read queue, a write queue and a parallel file system. Data is written from the write queue on the first node to the parallel file system on the second node and from the write queue on the second node to the parallel file system on the first node. The read queue on each node receives data from the parallel file system on the node itself.

Systems and methods for providing data beacons are disclosed. In some embodiments the system can include a first node and a second node. Each node includes a read queue, a write queue and a parallel file system. Data is written from the write queue on the first node to the parallel file system on the second node and from the write queue on the second node to the parallel file system on the first node. The read queue on each node receives data from the parallel file system on the node itself.

A method and system for workload migration across a hybrid network is provided. The method and system are directed to migrating a workload to a cloud by transferring the workload computing processes to the cloud, streaming workload data as necessary to execute the workload processes in the cloud, transferring the remaining workload data in a background process to cloud storage, and then completing migration by switching the primary data source of the workload computing processes to the cloud storage.

A connection management message that uses a proxy attribute is received, wherein the connection management message includes information on a first proxy queue pair and a second proxy queue pair, wherein the first proxy queue pair provides communication between a proxy node and an initiator node in a switchless network, and wherein the second proxy queue pair provides communication between the proxy node and a target node in the switchless network. The connection management message that uses the proxy attribute, channels datagrams received from the initiator node to the target node in the switchless network.

In a network where there are two local area networks (LANs) connected over a wide area network (WAN) by paralleled LAN to WAN devices at each end of the WAN, Transmission Control Protocol (TCP) connections may be requested by a first near end LAN to WAN device and received at a first far end LAN to WAN device but the acknowledgement may be returned to a second far end LAN to WAN device. The second far end LAN to WAN device contacts the first far end LAN to WAN device and the TCP connection is moved to the second far end LAN to WAN device, which provides the acknowledgement to the first near end LAN to WAN device to complete the TCP connection. Similar operations occur during active TCP connection operation but with certain queued data being flushed during the TCP connection transfer.

A method, an apparatus, and a device for transmitting a file based on a BMC, and a medium are provided. The method includes: receiving, by a second BMC, a preset command sent by a first BMC, where the preset command indicates that transmission of a file is to be initiated; parsing the preset command, and stopping an IPMI process running based on a UART interface in response to the preset command; and receiving, by using a communication function of the UART interface, a data file transmitted by the first BMC. With the method, when the data file is transmitted between the BMCs, the data file is not intercepted and verified by the preset command processing function of the IPMI process running based on the UART interface, and the IPMI process is prevented from being blocked and crashing, thereby implementing transmission of data files between BMCs.