7 results about "Application logic" patented technology

A computer-implemented system coordinates multiple concurrent interactive applications via a central communication router maintaining sessions identified by session identifiers and application identifiers. The router directs messages between client devices without interpreting content. A session management module generates session identifiers paired with application identifiers. An onboarding module produces machine-readable codes enabling participants to join by scanning codes. An engine instantiation module creates engine instances executing application logic within isolated environments. A lifecycle management module suspends instances when inactive, saves states through serialization, and restores instances by deserializing saved states when devices reconnect. Client devices are assigned roles including host console, heads-up display, or controller. A shared service layer provides artificial intelligence integration, globalization, localization, and authentication accessible to all sessions. This unified architecture enables multiple distinct applications to operate concurrently under shared infrastructure without requiring separate backend systems for each application.

The application discloses an Android application logic bomb semantic detection method and device based on LLM, and belongs to the technical field of intelligent terminal security; the device comprises an APK reverse analysis graph extraction module, a sensitive API knowledge base construction and suspicious CFG generation module, a cross-function semantic correlation and structured representation module, an LLM semantic reverse reasoning identification and explainability analysis module; through converting a target Android APK into an LLM understandable semantic expression form, LLM understandable APK program semantic information is generated; a logic bomb sensitive API knowledge base is constructed and a suspicious CFG is generated; cross-function call context semantic information of the suspicious CFG is constructed and is subjected to serialization and structured processing; a reverse reasoning identification logic bomb based on factual evidence semantic features and an evidence report are generated; the application can convert an APK file into an LLM easily understandable semantic expression form, and then effectively identify a logic bomb hidden in an intelligent terminal application, and has good explainability.

Systems, methods, and instrumentalities are disclosed for performing haptic data transmission. A first haptic device can determine a set of parameters based on at least one of application logic or information associated with a second haptic device. The first haptic device can send a provision message to the second haptic device. The provision message can include the set of parameters associated with a plurality of portions of a haptic media bitstream. The first haptic device can receive a reply message from the second haptic device. The reply message can include an indication(s) of a subset of parameters selected from the set of parameters initially provided by the first haptic device. Based on the selection of parameters, the first haptic device can select a portion of the haptic media bitstream and send the selected portion of the haptic media bitstream to the second haptic device.

Method for transmitting data communication between two communication participants (2) connected to each other in a network (1) via a network connection (3), wherein the network connection (3) is connected to a network interface (4) of the communication participant (2), wherein the network interface (4) is configured to transmit data via an MII interface (8) of the communication participant (2) or to receive data via an MII interface (8) of the communication participant (2), wherein the MII interface (8) is a media-independent interface that transmits or receives data regardless of the type of network connection (3), and wherein the following procedure is carried out for transmitting the data communication in the network interfaces (4): a) Sending the data communication; i) Receiving the data communication (23) of the sending communication participant (2) from the MII interface (8) of theCommunication participant (2); ii) Receiving application-specific status and control information (25); iii) Completely converting the data communication (23) into a data stream with a format suitable for transmission over chip-to-chip connections; iv) Incorporating the status and control information into the data stream; and v) Sending the data to the receiving communication participant (2) via the network connection (3); b) Receiving the data communication: i) Receiving the transmitted data via the network connection (3); ii) Extracting the application-specific status and control information (25); iii) Completely converting the data communication back to its original format; iv) Outputting the status and control information (25) to the application logic; and v) Passing the data communication (23) to the MII interface (8) of the communication participant (2), wherein the network interfaces (4) in which steps a) and b) are performed are provided by other microcontrollers orThe communication endpoints (5) of the communication participant (2) are independent.

A method for providing object-based serverless computing across distributed computing infrastructure includes receiving one or more class definitions that encapsulate application logic as methods, application state as attributes, and Quality of Service (QoS) requirements as declarative service level agreements (SLAs), selecting one or more runtime templates based on said SLAs that define a deployment architecture optimized for specific combinations of quality-of-service requirements, instantiating one or more class runtimes from said selected runtime templates across one or more computing tiers, deploying application components across said computing tiers according to said class runtimes, and automatically enforcing said SLAs through resource allocation and runtime adaptation without manual configuration.

A method for providing object-based serverless computing across distributed computing infrastructure includes receiving one or more class definitions that encapsulate application logic as methods, application state as attributes, and Quality of Service (QoS) requirements as declarative service level agreements (SLAs), selecting one or more runtime templates based on said SLAs that define a deployment architecture optimized for specific combinations of quality-of-service requirements, instantiating one or more class runtimes from said selected runtime templates across one or more computing tiers, deploying application components across said computing tiers according to said class runtimes, and automatically enforcing said SLAs through resource allocation and runtime adaptation without manual configuration.

A method in one embodiment comprises implementing a first process for carrying out an application deployment configuration change using a deployment repository, and implementing a second process for carrying out an application logic change using a source repository, the second process being different than the first process. The method further comprises identifying a particular type of change to be made to at least one application, and controlling execution of a particular sequence of one or more instances of at least one of the first process and the second process responsive to identification of the particular type of change to be made to the at least one application. The deployment repository and the source repository are illustratively part of a continuous integration / continuous deployment (CI / CD) system. The CI / CD system controls software code for applications executed by host devices of a host platform coupled to the CI / CD system over at least one network.