Abstract: The present technology pertains to displaying a version of a content item and an indication of differences between that version and another version of the content item. For example, a content management system can iterate through portions of a first version of a content item and attempt to match those portions with portions of a second version of the content item. The content management system can analyze these matches to determine differences between the respective portions and to classify and categorize the differences (e.g., do they represent a significant change or do they change the meaning of the content item). A client device can then represent a clean version of the content item in a first application and the differences and characteristics in a second application in coordination with the first application.

Abstract: Various systems and methods described herein relate to server-based computing, where the systems and methods provide a client with access to an application executing remotely from the client device and having access to data (e.g., one or more files) residing on a cloud-based storage (e.g., provided by a third-party cloud-based storage service, such as Dropbox, Box, or Google® Docs). For some systems and methods, the application may be remotely executed and provided to the client such that the application has in-application/embedded access (hereafter, referred to as “native access”) to the cloud-based storage and files residing on the cloud-based storage.

Abstract: The present technology pertains to displaying a version of a content item and an indication of differences between that version and another version of the content item. For example, a content management system can iterate through portions of a first version of a content item and attempt to match those portions with portions of a second version of the content item. The content management system can analyze these matches to determine differences between the respective portions and to classify and categorize the differences (e.g., do they represent a significant change or do they change the meaning of the content item). A client device can then represent a clean version of the content item in a first application and the differences and characteristics in a second application in coordination with the first application.

Abstract: Server-side systems and methods may: execute a virtualized application instance based on a version of the application in a virtual computing environment; capture first object data regarding an application object of the virtualized application instance; transmit to a remote client device the first object data; receive from the remote client device second object data relating to a client-side object at the remote client device, the client-side object representing the application object; and synchronize the application object with the client-side object based on the second object data.

Abstract: Various systems and methods described herein relate to server-based computing, where the systems and methods provide a client with access to an application executing remotely from the client device and having access to data (e.g., one or more files) residing on a cloud-based storage (e.g., provided by a third-party cloud-based storage service, such as Dropbox or Box). For some systems and methods, the application may be remotely executed and provided to the client such that the application has in-application/embedded access (hereafter, referred to as “native access”) to the cloud-based storage and files residing on the cloud-based storage. Additionally, some systems and methods may enable a remotely executed application to receive a gesture user input, even when the remotely executed application is not natively configured to receive such user input.

Abstract: Server-side systems and methods may: execute a virtualized application instance based on a version of the application in a virtual computing environment; capture first object data regarding an application object of the virtualized application instance; transmit to a remote client device the first object data; receive from the remote client device second object data relating to a client-side object at the remote client device, the client-side object representing the application object; and synchronize the application object with the client-side object based on the second object data.

Abstract: Various systems and methods described herein relate to server-based computing, where the systems and methods provide a client with access to an application executing remotely from the client device and having access to data (e.g., one or more files) residing on a cloud-based storage (e.g., provided by a third-party cloud-based storage service, such as Dropbox, Box, or Google® Docs). For some systems and methods, the application may be remotely executed and provided to the client such that the application has in-application/embedded access (hereafter, referred to as “native access”) to the cloud-based storage and files residing on the cloud-based storage.

Abstract: Various systems and methods described herein relate to server-based computing, where the systems and methods provide a client with access to an application executing remotely from the client device and having access to data (e.g., one or more files) residing on a cloud-based storage (e.g., provided by a third-party cloud-based storage service, such as Dropbox or Box). For some systems and methods, the application may be remotely executed and provided to the client such that the application has in-application/embedded access (hereafter, referred to as “native access”) to the cloud-based storage and files residing on the cloud-based storage. Additionally, some systems and methods may enable a remotely executed application to receive a gesture user input, even when the remotely executed application is not natively configured to receive such user input.

Abstract: In one embodiment, a method includes receiving packet flow optimization (PFO) configuration data that associates each rule name of multiple PFO rule names with a corresponding method for processing a data packet in a communications network based on data in a payload of a layer 3 protocol of the data packet. A first policy message is received from a policy management process in the communications network. The first policy message includes rule data that indicates a signaled rule name associated with a particular network address in the communications network. In response to receiving the first policy message, a data packet of the particular network address is processed according to a particular method associated with a particular rule name selected based on the signaled rule name. As a result, a PFO policy is controlled from the policy management process.

Abstract: In one embodiment, a method includes receiving packet flow optimization (PFO) configuration data that associates each rule name of multiple PFO rule names with a corresponding method for processing a data packet in a communications network based on data in a payload of a layer 3 protocol of the data packet. A first policy message is received from a policy management process in the communications network. The first policy message includes rule data that indicates a signaled rule name associated with a particular network address in the communications network. In response to receiving the first policy message, a data packet of the particular network address is processed according to a particular method associated with a particular rule name selected based on the signaled rule name. As a result, a PFO policy is controlled from the policy management process.

Abstract: An apparatus for charging a network subscriber's prepaid network usage account in real time. The apparatus has a service engine, a service manager and a quota manager. The service engine is operable to analyze network traffic flow through the apparatus and to identify a network transaction corresponding to the account. The service engine is further operable to determine a usage quota for the subscriber. The service manager is operable to maintain information related to the subscriber and the account. The quota manager is operable to communicate with an external prepaid server.

Abstract: A method of detecting a signaling congestion situation in a transmitter within a communications switch and for handling and recovering from the congestion. The method functions to (1) monitor the level of the transmit queue for each output port and (2) to monitor the level of the signaling message buffer memory pool for all ports. When the levels of either pass predetermined thresholds, the signaling congestion state is declared. Once the signaling congestion state is declared, the call control or equivalent entity in the communications device stops routing new calls from/towards all ports that are in the signaling congestion state. The call control continues to handle existing calls from/towards ports that are in the signaling congestion state.

Abstract: VC multicast implementation scheme utilizing VP tunneling over public ATM VP switched networks utilizing P2P and P2M connections to provide VC multicast capability to the attached private ATM networks. The border ATM VC switch in each private ATM network is connected to the ATM VP switch in the public ATM network via a physical interface adapted to carry one or more P2P VP tunnels. A P2P VP tunnel is established from each VC switch to all other VC switches connected to the public ATM network. A dedicated P2M VP tunnel is established between the source VC switch to each of the destination VC switches connected to the public ATM network. For each multicast connection to be established, a VPI/VCI value pair is allocated over the dedicated P2M VP tunnel used to transmit data associated with all P2M calls for all the P2P VP tunnels carried by the physical interface.

Abstract: A system comprising a single sender SMS for forwarding multicast traffic is collocated in the same device as the LEC thus creating an optimal distribution path for multicast traffic. This reduces the latency of transmission of multicast traffic from sender to receivers by eliminating the need to transmit cells from the LEC to the SMS via the network and reassemble cells into frames and segment frames into cells. The SMS functions as a private SMS for exclusive use by the LEC alone. The SMS of the present invention enables a LEC to distribute multicast traffic in a very efficient manner. The LEC communicates with the SMS directly via the operating system internal messaging subsystem or equivalent. The multicast traffic is sent on a P2M connection from the sending LEC via the SMS to all the receiving LECs interested in listening to a given MMAC. In a first embodiment, the LEC internally has knowledge of the existence of the private SMS and is inhibited from issuing a LE_ARP_REQ to find the SMS.

Abstract: A method of calculating a complex node representation for logical nodes in a hierarchical peer group in a PNNI based ATM network. The summary information for default spokes, exceptions and bypasses is determined in a way that closely represents the underlying metrics associated with the peer group. A list of all border nodes in the peer group is generated and maintained and a matrix of tables is generated, one table for each metric per each class of service. The table is populated by the best value associated with the corresponding metric for a particular pair of border nodes within a particular class of service. Once the table is populated, each element is placed in a group or bin. The bins are generated by dividing the full range of the metric into a plurality of smaller subgroups or bins. The bin having a count greater than a threshold count is selected and 80% of the worst value for that group is used as the default spoke.

Abstract: A method of determining an efficient route to a well known address that is particularly applicable to networks that do not have the capability of source routing for calculating routes to specific addresses such as ATM networks based on the IISP protocol. The well known address may represent any entity in the network that provides distributed services (e.g., network server applications) that are to be shared among many nodes and applications on the network, such as LECSs. The method of functions to automatically and dynamically register ‘well known’ addresses on the ports of each node that implements the invention. This permits applications on the network to route to the destination in the shortest possible path thus utilizing network resources in an efficient manner. If there is more than one location with the well known address, e.g., a redundant LECSs in the network, or more than one route to the location then the optimum location will be the one routed to.