A device transmits a request to access image data stored in a cloud and then receives an access path to the image data. If the image data are in a first data format, the device reads the image data via the access path, converts them into the second data format, and stores the converted image data in the cloud. It also modifies the access path according to a modification rule and stores the modified access path in the cloud. If the image data are in the second data format, the device either always reads the image data in the second data format via the access path or checks whether a special instruction has been defined. On the basis of the special instruction, the device either reads the image data in the second data format via the access path or remodifies the access path using the modification rule.

A system for allocating a different class of service to each network connection in a plurality of network connections, where each network connection corresponds to one or more virtual channels. The system can include a plurality of virtual channels that connect a first computer and a second computer. Each virtual channel can service at least a portion of the network traffic generated using a remote-display protocol. The system can also include a plurality of network connections, where each network connection corresponds to at least one of the virtual channels. Each network connection of the system can have an assigned port number and an assigned class of service that corresponds to a transmission priority level. The class of service assigned to each network connection can be unique from the classes of service assigned to other network connections.

Systems and methods for mapping a time-based data acquisition (DAQ) to an isochronous data transfer channel of a network. A buffer associated with the isochronous data transfer channel of the network may be configured. A clock and a local buffer may be configured. A functional unit may be configured to initiate continuous performance of the time-based DAQ, transfer data to the local buffer, initiate transfer of the data between the local buffer and the buffer at a configured start time, and repeat the transferring and initiating transfer in an iterative manner, thereby transferring data between the local buffer and the buffer. The buffer may be configured to communicate data over the isochronous data transfer channel of the network, thereby mapping the time-based DAQ to the isochronous data transfer channel of the network.

The disclosure includes a system and method for allocating a workflow for an application between a server and a client based on user context in usage of the application, and customizing user views based on the execution of the workflow. A customization module receives user input, identifies a type of an application based on the user input, determines a workflow for the application, partitions the workflow to a first portion of the workflow executed on a client and a second portion of the workflow executed on a server, and generates one or more user interfaces corresponding to the execution of the first portion of the workflow, wherein the execution of the first portion of the workflow on the client is based on the execution of the second portion of the workflow on the server.

Methods and apparatus, including computer program products, are provided for flow control. In one aspect, there is provided a method, wherein the method may include monitoring, by an external flow controller, a workflow at a first cloud application to determine whether at least one condition is satisfied to extend the workflow to a second cloud application external to the first cloud application; diverting, by the external flow controller, when the at least one condition is satisfied; handling, by the external flow controller, a request to divert the workflow to the second cloud application by at least formatting the request in accordance with configuration information at the external flow controller; sending, by the external flow controller, the workflow to the second cloud application; receiving, by the external flow controller, a result to incorporate into the workflow at the first cloud application; and/or proceeding with the workflow at the first cloud application.

A flow tagging technique includes tagging a data flow at a plurality of points in the data flow. For example, the data flow can be tagged at a socket and at a proxy manager API. By tagging the data flow at multiple points, it becomes possible to map network service usage activities to the appropriate initiating applications.

An access control unit includes packet buffers provided for each of users, a packet identification unit that stores received packets in a corresponding packet buffer, a scheduling unit that decides a packet buffer to be the object of transfer, a transfer control unit that, in a case that updating of reference data can be performed at an application processing circuit, and also the packet buffer decided by the scheduling unit is different from the current packet buffer that is the object of transfer, updates to reference data corresponding to the packet buffer decided by the scheduling unit, and a buffer selection unit that connects the packet buffers decided to be the object of transfer to the packet transfer unit when updating of reference data is completed.

A method for joint optimization of resource allocation includes: obtaining network data volumes of two services; obtaining queue statuses at a time t; computing sub-channel slices; computing a local CPU speed scaling, a user association, a sub-carrier assignment, and a power allocation of service 1; computing a user association, a video quality decision, and a sub-carrier assignment of service 2; obtaining an initial sub-carrier assignment and an initial power allocation; obtaining the user association; obtaining the power allocation and the sub-carrier assignment of service 1; obtaining the video quality decision; obtaining the sub-carrier assignment of service 2; obtaining an optimal data transmission rate and the user association to obtain a data rate allocation; and obtaining an optimal CPU speed scaling, an optimal user association, an optimal sub-carrier assignment, an optimal power allocation, an optimal video quality decision and an optimal sub-channel allocation.

A resource allocation method can be applied to a terminal, and include: determining an application currently running on the terminal and determining network resources required by the application; requesting and acquiring resources allocated by a network side according to the network resources required by the application. By applying to the network device according to the network resources required by the application, waste of resources and power consumption can be reduced.

Novel tools and techniques are provided for implementing network application programming interface (“API”), and, more particularly, API to provide network metrics and network resource control to users. In some embodiments, a computing system might receive customer network telemetry data from a first network via a gateway API, might receive service provider network telemetry data from a second network(s) via a network API, might compile the customer network telemetry data and the service provider network telemetry data, might receive a request from a user to access information regarding network services associated with the user, might filter the compiled customer network telemetry data and the compiled service provider network telemetry data to isolate first telemetry data and second telemetry data, respectively, might provide the user with access to at least one of the first telemetry data or the second telemetry data, and might provide the user with options to control network resources.