Abstract: Embedding applications, or parts thereof, into other applications, or parts thereof, is described. In an example, an engagement with a first application, or a part thereof, can be detected, which can trigger a second application, or a part thereof, to be initialized in response to the engagement. In at least one example, the first application, or a part thereof, can provisionally transfer to the second application, or a part thereof. Based at least in part on detecting a user interaction with the second application, or a part thereof, a portion of the user interaction can be embedded in the first application, or a part thereof, and the embedded portion of the user interaction can be presented via a user interface associated with the first application, or part thereof, via a user computing device.

Abstract: Methods and systems for providing configuration management using customized request headers. One system includes an electronic processor configured to receive, from a requesting device, a request including a customized request header, the customized request header including a custom configuration parameter. The electronic processor is also configured to perform a fraud analysis function based on the request. The electronic processor is also configured to generate a response including a customized response body based on the customized request header. The electronic processor is also configured to transmit the response to the requesting device, where the requesting device performs functionality based on information included in the customized response body.

Abstract: Systems, apparatuses and methods provide technology for batch-level parallelism, including partitioning a graph into a plurality of clusters comprising batched clusters that support batched data and non-batched clusters that fail to support batched data, establishing an execution queue for execution of the plurality of clusters based on cluster dependencies, and scheduling inference execution of the plurality of clusters in the execution queue based on batch size. The technology can include identifying nodes of the graph as batched or non-batched, generating a batched cluster comprising a plurality of batched nodes based on a relationship between two or more of the batched nodes, and generating a non-batched cluster comprising a plurality of non-batched nodes based on a relationship between two or more of the non-batched nodes. The technology can also include generating a set of cluster dependencies, where the cluster dependencies are used to determine an execution order for the clusters.

Abstract: An information processing apparatus includes a first obtaining unit that references a first storage unit and obtains a communication method of communication data corresponding to a transmission source information and transmission destination information included in data received by a reception unit, and a second obtaining unit that references a second storage unit and obtains the content of transmission destination corresponding to the transmission source information and the transmission destination information included in the received data. The content of the transmission destination indicates destination information used in the obtained communication method, and a transmission unit transmits, to a container or a process of the transmission destination indicated by the transmission source information included in the received data, the communication data according to the communication method obtained by the first obtaining unit and the content of transmission destination obtained by the second obtaining unit.

Abstract: The disclosure relates to processing application programming interface (API) requests. Embodiments include receiving, at an API wrapper, from a first caller, a first call to an API and sending the first call to the API. Embodiments include receiving, by the API wrapper, from one or more second callers, a second one or more calls to the API prior to receiving a response from the API to the first call. Embodiments include receiving, by the API wrapper, the response from the API to the first call and responding to the first call from the first caller with the response from the API to the first call. Embodiments include responding, by the API wrapper, to the second one or more calls from the one or more second callers with the response from the API to the first call without sending the second one or more calls to the API.

Abstract: Disclosed herein are system, method, and computer program product embodiments for self-paced migration of an application programming language (API) gateway. An embodiment operates by applying a policy chain comprising a first set of policies to an API request received at a first API gateway. The embodiment forwards the API request to a second API gateway and applies, at the second gateway, a virtual policy chain comprising a second set of policies to the API request. The embodiment then forwards the API request to the first API gateway and routes the API request to a corresponding backend API.

Abstract: A system can host APIs for a plurality of different tenants and receive requests from many different client devices. As requests are received, an associated tenant can be identified, and a router can determine if a container instance is available to service the request. A container instance may be an empty container instance including an internal endpoint, a Web server, and a runtime environment. An empty container instance can be unassociated with a particular tenant. To associate a container instance with a tenant, a data store, such as a key-value data store can retrieve configuration files that turn the agnostic container instance into a container instance that is associated with particular tenant and includes configuration code to perform the requisite API functions. The pool of empty and populated containers can be managed efficiently.

Abstract: Receive, by a central controller engine, a user request to perform one or more operations associated with user data, wherein the user data includes first data and second data. Select, by the central controller engine based on the user request, a first service provider interface (SPI) integrated into a first service, the first SPI being configured to operate on the first data in a first datastore associated with the first service. The first SPI including a first service interface component configured based on a uniform access specification. Obtain, by the first SPI, the first data, the first data being formatted according to a first service data specification. Transform, by the first SPI based on the uniform access specification, the first data, thereby generating transformed first data formatted according to the uniform access specification. Provide, by the first SPI, the transformed first data to a target service.

Abstract: In a system and method for distribution of media content, a cable provider gateway cooperates with a broker API, one or more streaming provider gateways, and one or more streaming applications to locally cache and display media content from the streaming provider gateways even when the streaming applications do not have connectivity to their gateways.

Abstract: An approach to generating end-to-end visualizations of invocations from coarse granular application programming interface (API) requests within a containerized environment may be presented. A coarse-granular API request may be intercepted. The coarse-granular API request may receive a unique identifier, which will be assigned to all invocations associated with the coarse-granular API request. Any invocations associated with the coarse-granular API within the containerized environment may be monitored. Detected invocations resulting from the coarse-granular API request may be annotated with a sequence number and the unique ID of the associated coarse-granular API request. An invocation flow for the coarse-granular API request may be generated based on the unique ID, relationship between the invocations and microservices, and the sequence number of the invocations.

Abstract: Techniques are disclosed for implementing system calls in a virtualized computing environment. An interface is configured to abstract partitions in the virtualized computing environment. A system call is received that is to be executed across a system boundary in a localized computing environment. Based on a declarative policy, one or more of a device type, device path, or process identity associated with the system call is determined. The system call is executed in the virtualized computing environment.

Abstract: An example operation may include a method comprising one or more of receiving a VNF instance creation request from a NFVO, retrieving one or more VNFC Module LCM scripts and software loads, reserving one or more NFVI VM/container resources required for a VNF instance, instantiating one or more VNFCIs associated with the VNF instance wherein installation includes at least one or more of deploying the one or more VNFC module LCM scripts and software loads to the one or more reserved NFVI VM/containers, installing the VNFC modules on the one or more VM/containers, and starting the VNFC modules on the one or more VM/containers, sending a VNF instance creation completed notification.

Abstract: Disclosed embodiments are directed at systems, methods, and architecture for providing execution order and execution for plugins installed on an API gateway associated with a microservices application. In application architectures where features of microservices are implemented as plugins and migrated to an API gateway, the relevant APIs are able to be built lighter weight than otherwise. However, the migration of the features to plugins introduces the potential for error states in the microservice application. To resolve the potential issues, the API gateway takes into consideration a set of native instructions in each of the plugins to determine the execution order thereof. The execution order is determined dynamically in response to requests by the APIs of the microservice application.

Abstract: The present disclosure involves systems, software, and computer implemented methods for resolving data location for queries in a multi-system instance landscape. One example method includes receiving a request for data for at least one entity that includes a qualified identifier that includes a system tenant qualifier and a local identifier. The system tenant qualifier identifies a system tenant in a multi-system tenant landscape and the local identifier identifies an entity instance of an entity in the system tenant. A routing policy table configured for the multi-system tenant landscape is identified and a cell is located in the routing policy table that corresponds to the entity and the system tenant. A routing policy is determined for routing the request based on the cell. The routing policy is used to determine a target system tenant to which to route the request and the request is provided to the target system tenant.

Abstract: A system determines that resource activity notifications, including at least a first notification and a second notification, are to be sent to a client device operated by a user. The first notification includes a first user interface element, and the second notification includes a second user interface element. The system determines, based on content of the resource activity notifications, that a subset of the resource activity notifications are contextually related, the subset including at least the first notification and the second notification. The system provides the first subset of the resource activity notifications to the client device as a first group, thus enabling the user to operate a user interface of the client device to select the first user interface element to take a first action and to select the second user interface element to take a second action.

Abstract: A data processing method and apparatus, where one or more applications run in an operating system of a first device, there is a plurality of paths between the first device and a second device, and the paths correspond to the one or more applications. In a data receiving process, the one or more applications obtain data on the paths through a system call, and further obtain data in a plurality of packets from at least one path. In a data sending process, the one or more applications distribute data to corresponding paths through a system call.

Abstract: Disclosed is an execution information sharing system that duplicates execution information to a provider target (and other targets) as it is being loaded to a consumer target. A consumer account of a data sharing platform executes an application shared with it by a provider account of the platform. Consumer and provider configurations indicating consumer and provider targets respectively are generated. The consumer configuration and provider configurations are provided to an event context to generate a first and second event unloaders respectively, wherein the event context maintains a mapping linking both the first event unloader and the second event unloader to the application. In response to receiving execution information from the application, the first event unloader and the second event unloader are retrieved. The execution information is then written to the consumer target and the provider target using the first event unloader and the second event unloader respectively.

Abstract: A method and system for automatically retrieving and integrating one or more supplemental software programs into at least one of an existing software program may include receiving a request to open a document via the existing software program, retrieving a list of supplemental software programs for the document, the list of supplemental software programs including an identification for each of the supplemental software programs and an application source from which the supplemental software programs can be retrieved, embedding the list of supplemental software programs into a data structure for the document, embedding a program for processing the list of supplemental software programs into a data structure for the document, and transmitting the data structure to a component for processing. The program is configured to retrieve the supplemental software programs from the application source and automatically integrate the supplemental software programs into the data structure.

Abstract: Methods and systems for securing an application programming interface (API) are presented. The method comprises: receiving API workflow data associated with an API testing tool and generating a scan configuration file using the API workflow data; crawling the collection of API requests by identifying and retrieving a link associated with the collection of API requests; and crawling the link to generate a crawled link response. The method also includes executing one or more vulnerability tests on the crawled link response including applying at least one passive detection rule to the crawled link response and fuzzing the link. The fuzzed link may be transmitted in a request to an application server following which scan data indicative of at least one vulnerability associated with a response from the application server may be generated. The scan data may be used to generate a vulnerability report.

Abstract: A method is described. The method includes calculating electric and/or magnetic fields in free space in response to: i) respective positions and motions of one or more charges and/or one or more current loops in the free space; ii) charges on nodes in the electrical circuit in the free space; iii) charge motions in the electrical circuit. The method includes calculating new respective positions and motions of the one or more charges and/or one or more current loops in the free space in response to respective forces applied to the one or more charges and/or the one or more current loops by the electric and/or magnetic fields. The method includes calculating new charges on nodes within the electrical circuit and new charge motions within the electrical circuit in response to the new positions and motions of the one or more charges and/or one or more current loops in free space, the charges on the nodes in the electrical circuit and the charge motions in the electrical circuit.