Abstract:
Embodiments described include a method for providing context-aware input across network applications. The method can include establishing a plurality of sessions for a user with a plurality of network applications via an embedded browser within a client application. The method can include storing input activities of the user across the plurality of network applications to a data storage. The method can include detecting input focus on an input element of a network application of the plurality of network applications, the input element having a type of data to be inputted. The method can include identifying one or more inputs of the type of data used in another network application of the plurality of network applications stored in the data storage. The method can include providing the one or more inputs from another network application as selectable input for the input element of the network application.
Abstract:
Embodiments described include systems and methods for executing in an embedded browser an application script for network applications of different origins. A client application can establish a first session with a first network application of a first entity at a first origin via an embedded browser within the client application and a second session with a second network application of a second entity at a second origin via the embedded browser within the client application. A scripting engine within the client application of a client device of a user at a third origin can identify an application script having instructions to interact with the first network application and the second network application, and can execute the instructions to perform a task across the first network application of the first entity at the first origin and the second network application of the second entity at the second origin.
Abstract:
The present disclosure is directed towards systems and methods for managing application delivery in a network. A device intermediary to a client and one or more servers that provide a plurality of applications, receives a request from the client to access a first application of the plurality of applications. The device holds the request and retrieves, while holding the request, configuration information for an instance of the first application from a configuration repository. The device configures a virtual internet protocol (“VIP”) server using the configuration information for the instance of the first application. The device processes the request via the VIP server.
Abstract:
The present solution is related to a method for distributing flows of network traffic across a plurality of packet processing engines executing on a corresponding core of a multi-core device. The method includes receiving, by a multi-core device intermediary to clients and servers, a packet of a first flow of network traffic between a client and server. The method also includes assigning, by a flow distributor of the multi-core device, the first flow of network traffic to a first core executing a packet processing engine and distributing the packet to this core. The flow distributor may distribute packets of another or second flow of traffic between another client and server to a second core executing a second packet processing engine. When a packet for the flow of traffic assigned to the first core is received, such as a third packet, the flow distributor distributes this packet to the first core.
Abstract:
Systems and methods for configuring and evaluating policies that direct processing of one or more data streams are described. A configuration interface is described for allowing users to specify object oriented policies. These object oriented policies may allow any data structures to be applied with respect to a payload of a received packet stream, including any portions of HTTP traffic. A configuration interface may also allow the user to control the order in which policies and policy groups are executed, in addition to specifying actions to be taken if one or more policies are undefined. Systems and methods for processing the policies may allow efficient processing of object-oriented policies by applying potentially complex data structures to unstructured data streams. A device may also interpret and process a number of flow control commands and policy group invocation statements to determine an order of execution among a number of policies and policy groups. These policy configurations and processing may allow configuration and processing of complex network behaviors relating to load balancing, VPNs, SSL offloading, content switching, application security, acceleration, and caching.
Abstract:
A technique enables a user to participate in an online meeting. The technique involves receiving, by processing circuitry of a vehicle, a join instruction to join the online meeting. The technique further involves performing, by the processing circuitry of the vehicle, a communications exchange with a remote online meeting server in response to the join instruction, the communications exchange establishing an online meeting session with the remote online meeting server to join the processing circuitry of the vehicle to the online meeting. The technique further involves outputting, after the online meeting session is established and by the processing circuitry of the vehicle, video of the online meeting on a display screen which is integrated with the vehicle. Along these lines, the display screen can output a static image while the vehicle is moving and moving video while the vehicle is not moving (e.g., parked).
Abstract:
The present solution is related to a method for distributing flows of network traffic across a plurality of packet processing engines executing on a corresponding core of a multi-core device. The method includes receiving, by a multi-core device intermediary to clients and servers, a packet of a first flow of network traffic between a client and server. The method also includes assigning, by a flow distributor of the multi-core device, the first flow of network traffic to a first core executing a packet processing engine and distributing the packet to this core. The flow distributor may distribute packets of another or second flow of traffic between another client and server to a second core executing a second packet processing engine. When a packet for the flow of traffic assigned to the first core is received, such as a third packet, the flow distributor distributes this packet to the first core.
Abstract:
Embodiments described include systems and methods for encoding and decoding data for a network application. A client application may include an embedded browser. The embedded browser may establish a session with a network application. The client application may identify a policy specifying a type of data to encode upon input. The embedded browser may detect the type of data of an input field of the network application being displayed in the embedded browser. The embedded browser may, responsive to the detection and the policy, encode the data inputted into the input field or decode encoded data displayed in the input field.
Abstract:
In some aspects, a method for mediation of a screenshot capture by a client application based on policy includes identifying, by a client application on a client device, a policy for mediating one or more screenshots of content displayed via the client application. An embedded browser within the client application accesses a network application of one or more servers. The method further includes intercepting, by the client application, a request to capture a screenshot of at least a portion of the network application being displayed, determining, by the client application, one or more mediation actions to perform on the screenshot responsive to the policy, performing, by the client application, the one or more mediation actions on the screenshot, and providing, by the client responsive to the request, the screenshot resulting from the one or more mediation actions.
Abstract:
A client application installed on a client device may monitor communications flows between embedded browsers of the client application and one or more servers, including enterprise servers and non-enterprise servers, at upper layers of a network stack of the client device including the application layer, session layer, and presentation layer. Communications to different endpoints may be classified as enterprise or non-enterprise, measured, and aggregated to provide disambiguation of enterprise and non-enterprise communications of the device transiting a single communications link (e.g. cellular data connection). Server and network policies may be applied in accordance with the measurements with higher accuracy than policies based on total bandwidth utilized by the device without regard to its classification. These policies may include load balancing, communication pooling, multiplexing, buffering, pre-fetching or edge caching of data, instantiating or halting execution of virtual machines in a cloud environment, or other such functions.