Abstract: A method of filesystem-based communication of computer applications is provided. The method implemented using a filesystem communications interface (FCI) computer device coupled to a first computer and a second computer on which computer applications are installed. The method includes mounting file systems on the first computer and second computer by installing communications interface drivers, receiving a data transfer command that includes a data unit from the first computer, identifying that the data transfer command corresponds to a filesystem-based data transfer protocol, generating another data transfer command by converting the first data transfer command into a first network-based data transfer protocol, receiving the data unit from the first computer, and transmitting, using the second communications interface driver, the data unit to the second computer application by the using a third data transfer command.

Abstract: Technologies are presented that allow application events to be recorded and replayed in a reliable and deterministic manner. A computing system may include a memory and a processor communicatively coupled with the memory. The processor may execute application logic of an application, record events associated with the application based on invocation of functions associated with the events, and store the recorded events in the memory for future playback. Recorded events may include, for example, user interactions, timing events, network downloads, callbacks, web worker tasks, etc. The recording of the events may include recording top-level functions of each event according to their order, and recording associated data including function parameters and/or return values. The recorded events may be replayed in order using the recorded associated data while suppressing non-recorded events.

Abstract: Viewing and editing operations on a file having an unsupported file type are enabled through a method of opening the file through a remoting session. The method includes the steps of receiving login information from a user and determining if there is a recent open file request. In response to determining there is a recent open file request, the method includes the step of determining whether the file is synchronized. If the file is synchronized, the method includes the steps of launching an application within which the file can be opened, and opening the file within the application.

Abstract: System and techniques for multifactor intelligent agent control are described herein. A workload request may be received from a user device via a network. The workload may be instantiated in an isolated environment on an edge computing platform. Here, the isolated environment may be a container or a virtual machine. The instantiation of the workload may include using a hardware security component (SEC) of the mobile edge computing platform to prevent access to data or code of the workload from other environments hosted by the mobile edge computing platform. The workload may then be executed in the isolated environment and a result of the workload returned to the user device.

Abstract: A computer-implemented method for generating an application programming interface (API) includes receiving metadata describing one or more source files of a program. The source files define a plurality of modules, and a first module is selected from among the plurality of modules. A chain of modules is traversed beginning at the first module, based on the metadata, where the chain of modules represents nested module calls described in the metadata. The traversing includes maintaining a set of common include files that are common to each module visited in the traversal of the chain of modules. Each include file in the set of common include files is placed into at least one of a request file list and a response file list. An API is generated for the module by submitting the set of common include files, the request file list, and the response file list to an API generator.

Abstract: Technology for implementing a system for customizing software recipes or applets is described. In some implementations, a method, implemented using a computing device, may include receiving request to execute a software recipe from a first software application operated by a first user and determining whether the software recipe includes a connection placeholder for a recipe connection to a second software application. The method may then determine whether a first connection to the second software application exists for the first user, retrieve first connection details of the first connection to the second software application from a recipe connection data store, and execute the software recipe using the first connection details in place of the connection placeholder for the recipe connection to the second software application. In some implementations, interaction with and execution of the software recipes is performed using bots in a chat environment.

Abstract: A data distribution computer system. The system comprises a data store, a non-transitory memory, a processor, and a data propagation application stored in the non-transitory memory. When executed by the processor, the application initiates execution of a plurality of data propagation agents in a restricted runtime environment and provides information to the agents identifying data that is available in the data store via a discovery application programming interface (API). The application further provides data from the data store to the agents via a data access API, where the data propagation application manages the scheduling of the agents and restricts the data in the data store that is propagated to the agents based on an access policy for each agent.

Abstract: A method and apparatus of a network element that installs a device driver used to manage hardware of the network element is described. In an exemplary embodiment, the network element detects, with a functionality of a network element operating system, the hardware of a data plane of the network element, where at least one component of the network element operating system is executing in a first container as a first set of processes. The network element further determines a device driver for the hardware and installs the device driver in a kernel of the host operating system. The network element additionally manages the data, with the network element operating system, using the device driver.

Abstract: A memory stores: a communication driver that is a software program which runs in an operating system and communicates with a host; and a storage service program that is a software program which runs on the operating system and controls retention of data by a storage apparatus as a storage. The processor is capable of configuring a plurality of queue pairs which transmit information in inter-process communication between the communication driver and the storage service program, and the processor further configures command distribution information which associates a queue pair and a logical volume with each other, specifies a queue pair corresponding to a logical volume that is an access destination of a command requested by the host, and enqueues a command request of the command to the specified queue pair.

Abstract: A method and system for interoperability between mark-up language applications executable within a browser container, including accessing exchange scripts in each application and executing a microservices module in communication with the first application and the second application, the microservices module disposed between the applications and the browser container. The method and system, based on an interaction between the first application and the microservices module, emits a strand including both a data field and a command field. The method and system accessing a rules engine to determine at least one rule associated with the strand, generates modified strand based on the at least one rule and broadcasting the modified strand to the second application via the second exchange script, and converts the modified strand to an action command and performing a processing operation in the second application based on the action command.

Abstract: The presentation of data models (a story) on a mobile device having limited memory and processing resources includes instantiating widgets one at a time for interaction with a user. When the user completes their interaction, the instance of that widget is removed from memory (destroyed); widgets are therefore stateless. A context framework that manages the application of filters to widgets that comprise the story. When a filter is applied, widget snapshot images used to display corresponding widgets in a collection view can be updated to reflect state changes of affected corresponding widgets so that users can see the state changes despite the widget being stateless.

Abstract: In some examples, application startup control may include determining a relationship between a first page and a second page of an application, and generating a first code file for the first page based upon the determined relationship. Application startup control may further include generating a second code file for the second page. The first code file may include code to load the second code file in response to the first code file being loaded and executed.

Abstract: A data pipeline architecture is integrated with an analytics processing stack. The data pipeline architecture may receive incoming data streams from multiple diverse endpoint systems. The data pipeline architecture may include converter interface circuitry with multiple dynamic converters configured to convert the diverse incoming data stream into one or more interchange formats for processing by the analytics processing stack. The analytics processing stack may include multiple layers with insight processing layer circuitry above analysis layer circuitry. The analysis layer circuitry may control analytics models and rule application. The insight processing layer circuitry may monitor output from the analysis layer circuitry and generate insight adjustments responsive to rule changes and analytics model parameter changes produced at the analysis layer circuitry.

Abstract: Devices and systems supporting more than one Virtual Assistant (VA) are able to initiate and collaborate with multiple virtual assistants within the same session and at the same time. This system allows application specific virtual assistants to register and listen for intents from a general purpose virtual assistant. When the general purpose virtual assistant raises an intent, control can be passed to an interested application specific virtual assistant for handling. The system of registering new intents increases the knowledge of the general purpose virtual assistant, or overloads the handling of an existing intent.

Abstract: Various embodiments are directed to systems and methods for automatically constructing executable workflows comprising a plurality of executable modules. The system comprises a workflow assembly platform configured to review metadata associated with each of the plurality of executable modules to be included within the workflow and to automatically generate links for passing data between the selected executable modules such that execution of the workflow by an execution platform results in data flow from a workflow input, through each of the included executable modules, to generate and execute a workflow.

Abstract: Aspects of the subject disclosure may include, for example, a method in which first performance data and second performance data are obtained for a first virtual machine and a second virtual machine on a network, the performance data is analyzed, performance of the first virtual machine is predicted, and a performance trend for the first virtual machine is determined. Performance of the second virtual machine is predicted in accordance with analyzing of the second performance data and a potential transfer of execution of an application from the first virtual machine to the second virtual machine. Execution of the application is transferred to the second virtual machine after determining an expected improvement in execution of the application relative to the first virtual machine. Other embodiments are disclosed.

Abstract: Embodiments of the invention provide systems and methods for managing processing, memory, storage, network, and cloud computing to significantly improve the efficiency and performance of processing nodes. More specifically, embodiments of the present invention are directed to an instruction set of an object memory fabric. This object memory fabric instruction set can include trigger instructions defined in metadata for a particular memory object. Each trigger instruction can comprise a single instruction and action based on reference to a specific object to initiate or perform defined actions such as pre-fetching other objects or executing a trigger program.

Abstract: Novel tools and techniques for tracing application execution and performance. Some of the tools provide a framework for monitoring the execution and/or performance of applications in an execution chain. In some cases, the framework can accomplish this monitoring with a few simple calls to an application programming interface on an application server. In other cases, the framework can provide for the passing of traceability data in protocol-specific headers of existing inter-application (and/or intra-application) communication protocols.

Abstract: Techniques for an application programming interface (API) notebook tool are disclosed. In some implementations, an API notebook is a tool, framework, and ecosystem that enables easy exploration of services that expose APIs, creation and documentation of examples, use cases and workflows, and publishing and collaboration of APIs. In some embodiments, systems, processes, and computer program products for an API notebook tool include receiving a request for a client for calling an API for a service, and dynamically generating the client for the API for the service.

Abstract: A method for managing application programming interface (API) keys associated with third-party software development kits (SDKs). The method includes: receiving, from an application developer machine, a plurality of notifications identifying a plurality of third-party SDKs selected for installment in a mobile application under development; sending a plurality of API key provisioning requests to a plurality of third-party service providers including a plurality of third-party APIs corresponding to the plurality of third-party SDKs; receiving a plurality of API keys for the mobile application under development from the plurality of third-party service providers; and storing the plurality of API keys.