Abstract: Systems and methods for reducing latency in use of mobile applications include creating a list of potential internet requests from a mobile application based on an analysis of the mobile application. The systems and methods include creating a trigger map that maps each of a plurality of trigger points of the mobile application with a corresponding target internet request to be prefetched from the list of potential internet requests. The systems and methods include creating a URL map that maps each of a plurality of the potential internet requests with corresponding URL values. The systems and methods include identifying that a current app function matches a trigger point of the plurality of trigger points. The systems and methods include performing the potential internet request in response to identifying that the current app function matches the trigger point prior to the target request being received in order to reduce latency.

Abstract: A system for providing increased security in a mobile operating system includes at least one mobile device and a remote computing device that is remote from the mobile device. The remote computing device receives a list of two or more applications that are currently installed or intended to be installed on the mobile device's operating system. The remote computing device identifies vulnerable inter-component communication (ICC) paths by analyzing files associated with each of the two or more applications. A list of the vulnerable ICC paths is stored in memory of the mobile device. The mobile processor compares the list of the vulnerable ICC paths to intents sent by the components of the two or more applications and identifies a potential unsecure intent that matches one of the list of the vulnerable ICC paths. Unsecured intents can then be blocked by the user.

Abstract: Systems and methods for reducing latency in use of mobile applications include creating a list of potential internet requests from a mobile application based on an analysis of the mobile application. The systems and methods include creating a trigger map that maps each of a plurality of trigger points of the mobile application with a corresponding target internet request to be prefetched from the list of potential internet requests. The systems and methods include creating a URL map that maps each of a plurality of the potential internet requests with corresponding URL values. The systems and methods include identifying that a current app function matches a trigger point of the plurality of trigger points. The systems and methods include performing the potential internet request in response to identifying that the current app function matches the trigger point prior to the target request being received in order to reduce latency.

Abstract: A system for providing increased security in a mobile operating system includes at least one mobile device and a remote computing device that is remote from the mobile device. The remote computing device receives a list of two or more applications that are currently installed or intended to be installed on the mobile device's operating system. The remote computing device identifies vulnerable inter-component communication (ICC) paths by analyzing files associated with each of the two or more applications. A list of the vulnerable ICC paths is stored in memory of the mobile device. The mobile processor compares the list of the vulnerable ICC paths to intents sent by the components of the two or more applications and identifies a potential unsecure intent that matches one of the list of the vulnerable ICC paths. Unsecured intents can then be blocked by the user.

Abstract: A method and system for privacy-preserved distributed computing on large networks using a tile-based architecture is disclosed. An expression for a tile seed assembly characterizing a problem, such as an NP-complete problem, may be determined. The solution to the tile seed assembly is a full tile assembly including a plurality of tile types. In a network of participating nodes, a tile type may be assigned to each node. A description of a tile type specific to a node may be provided to each node. A tile seed assembly may be established on selected nodes. Through progressive recruitment and replication, the tile assembly may mature, in response to the problem being solvable, into a full tile assembly having a solution. The solution may be received by the client computer.

Abstract: Multiple architects may concurrently create and modify a model of computer software, each on their own client at a different location. Each change that is made to a model is forwarded to a server for analysis. The server may determine whether the change creates a conflict. If no conflict is detected, the change may be approved, saved, and propagated by the server to all of the other clients that are working on the same model. If a conflict is detected, on the other hand, the change may not be approved by the server. The server may instead provide notice of the conflict.

Abstract: A method and system for privacy-preserved distributed computing on large networks using a tile-based architecture is disclosed. An expression for a tile seed assembly characterizing a problem, such as an NP-complete problem, may be determined. The solution to the tile seed assembly is a full tile assembly including a plurality of tile types. In a network of participating nodes, a tile type may be assigned to each node. A description of a tile type specific to a node may be provided to each node. A tile seed assembly may be established on selected nodes. Through progressive recruitment and replication, the tile assembly may mature, in response to the problem being solvable, into a full tile assembly having a solution. The solution may be received by the client computer.