Abstract: A method and system for modifying network addresses of at least one cloud application. The method comprises receiving a webpage sent to a client device from the at least one cloud application, wherein a webpage designates at least one script loaded to the client device during runtime; injecting a piece of code to the webpage; receiving, by the injected piece of code, an attempt to load each of the at least one script; modifying the at least one script by suffixing each network address designated in the at least one script with a predefined network address; and sending the modified at least one script to the client device, wherein runtime execution of the modified at least one script on the client device causes redirection of future requests from the client device to the cloud application to the suffixed network address.

Abstract: A method and system for dynamically testing a web page. A change to the web page is received and in response, the web page is accordingly changed. A delta vector of a change in position of a user interface control in a web browser window is determined. The change in position occurred between a first time before the change to the web page was received and a second time after the change was applied to the web page to change the web page. A user interface control weight value is determined for the user interface control having undergone the change in position. A disruptiveness factor value is determined based on the determined delta vector and the corresponding user interface control weight. A test pattern to be applied to the changed web page is selected depending on the determined disruptiveness factor. The web page is tested in accordance with the test pattern.

Abstract: The technique herein substantially improves productivity of Annotator developers by providing methods and systems to develop and test Annotators without having to run a full pipeline every time changes are made to a particular Annotator. To this end, preferably a running pipeline is instrumented to enable automated recording of static configuration and dynamically-generated event data as the pipeline is executed. Based on these data, a reusable data model is generated that captures code and other dependencies in the pipeline (e.g., configuration parameters, intermediary CASes, program flow, annotations, and the like). The data model is then used to facilitate testing of Annotators without using the full pipeline (or even major sub-pipelines therein).

Abstract: A difference in configuration definition between different systems is efficiently extracted. A difference detection device (100) includes a configuration definition acquisition unit (110) and a configuration comparison unit (140). The configuration definition acquisition unit (110) acquires, with respect to different systems, configuration definitions (210) each including components of a system and a reference relation between the components. The configuration comparison unit (140) classifies, based on the reference relation between the components in configuration definition (210) of each of the different systems, the components in each configuration definition (210) into a common component and a difference component between the different systems, and outputs a result of classification.

Abstract: Techniques are described for providing a non-blocking application object framework allowing parallelization of operation and function calls throughout an application executing within the framework. In one example, a dependency model associated with an application in a non-blocking application object framework is identified, where the application is associated with a plurality of operations and the dependency model defines at least one dependency between at least two of the operations. At runtime of the non-blocking application object framework, the identified dependency model is interpreted. An optimized execution plan of the application is automatically generated in the non-blocking application object framework based on the interpreted dependency model, wherein at least a first portion of the operations of the application are optimized in a sequential execution order based on dependencies defined in the dependency model.

Abstract: A system and method for facilitating construction of and/or adaptation of a dynamic software model. One embodiment provides for generating software models by mapping user selections to one or more model features as specified by feature definitions. An initial software model is used to obtain the user selections. Artifacts are associated with the initial business planning model according to the selections by mapping the selections to model features according to previously determined feature definitions.

Abstract: Described herein is a framework for developing Internet of Things (IoT) applications. In accordance with one aspect, the framework retrieves metadata and at least one predefined project template. Source code for different Internet of Things (IoT) applications is generated via an integrated development environment (IDE) based on the project metadata and the project template. The framework receives configuration data associated with the IoT applications and associated IoT targets. In response to a single user input received via the IDE, the IoT applications are deployed to the IoT targets substantially and simultaneously, based on the configuration data.

Abstract: Systems and methods for providing an update to a natively rendered application installed on a mobile device are provided. A method includes sending a message to a server, wherein the message includes identifying information about the application. The method also includes receiving an update from the server in response to the message, wherein the update comprises a module of code that corresponds to less than the entire application. The method further includes updating the application using the received update. The method additionally includes executing the application after the updating. The method also includes, based on the executing the application, natively rendering the application using the operating system of the mobile device.

Abstract: Embodiments of the present invention disclose a method, computer program product, and system for comparing screenshots of an application interface. In one embodiment, the method includes receiving test scenario parameters, wherein the parameters include a first screenshot of an application interface, one or more page objects associated with the first screenshot, generating a second screenshot of an updated application interface, identifying one or more page objects within the second screenshot based on a scope of each of the page objects associated with the first screenshot, comparing a section of the second screenshot to a section of the first screenshot that includes one or more page objects associated with the first screenshot that correspond to one or more page objects included in the section of the second screenshot, and determining whether the section of the second screenshot matches, within a predetermined tolerance level, the section of the first screenshot.

Abstract: A system for conducting a code review of program source code including translation of content in the program source code may include a source control system. The system may also include a resource file translator to facilitate translation of the content from a first language into second languages. Upon receipt of a code review request, the source control system may notify a workflow manager that the resource files contain the content for translation, and the workflow manager may notify a resource file translator that the program source code contains the content for translation. The resource file translator may cause translation of the resource files into translated resource files. The source control system may receive program source code under review from a code reviewer interface, and the resource file translator may update the program source code under review with the translated resource files.

Abstract: A method, system and computer program product, the method comprising: obtaining an open source class and archive database; receiving an Android Application Package (APK); retrieving one or more class comprised in the APK; matching each of the classes against the open source class and archive database, to obtain a corresponding archive collection, such that each archive in the archive collection comprises at least one of the classes; and reporting the respective archive collection.

Abstract: Computer program, methods, and systems for code modification of a programming language platform and a software application in an intermediate language at different times are disclosed. The methods and system may modify a portion of the programming language platform in the intermediate language at a first time to alter a functionality of or add a new functionality to the programming language platform; and may modify the software application in the intermediate language at a second time different from the first time, where the software application may be modified based on a runtime analysis rule that uses the altered or added new functionality of the programming language platform. The modified programming language platform may be included in a first package, and the modified software application may be included in a second package, and executed on the modified programming language platform.

Abstract: Embodiments include methods, systems, and computer program products for using static analysis to issue complaints. Aspects include generating, using a processing unit, a first complaint during static analysis of program code, wherein the first complaint corresponds to a program error. Aspects also include generating, using the processing unit, a second complaint when the first complaint is not encountered during subsequent static analysis of the program code. Aspects further include outputting, using the processing unit, the second complaint to a non-transitory computer readable medium.

Abstract: An implementation of an abstract data type is automatically selected by a compiler of high-level language source code. The compiler chooses an implementation for each instance of an abstract data type in a program based on operations performed in the instance within the program. The compiler rewrites and compiles the high-level language source code in response to selecting the implementation.

Abstract: Processor hardware detects when memory aliasing occurs, and assures proper operation of the code even in the presence of memory aliasing. Because the hardware can detect and correct for memory aliasing, this allows a compiler to make optimizations such as register promotion even in regions of the code where memory aliasing can occur. The result is code that is more optimized and therefore runs faster.

Abstract: A minimum set of process engine components needed to perform a process application is determined. An executable code that includes the determined minimum set of process engine components and omits at least a subset of process engine components not included in the determined minimum set of process engine components is compiled. The executable code is deployed to a device.

Abstract: A code testing system determines mistyped identifiers in computer language code. For identifiers of objects in the code, such as variables and functions, the instances of the identifiers are identified in the code and recorded in an occurrence table. Uses of an identifier may be identified as copies of one another based on a hash value of the instance and its location in a function. Hash values for an identifier that are not unique may not be recorded in the instance table. For identifiers that are associated with a single occurrence or a single group of copies, these identifiers are identified as candidates for correction. Suggested corrections are determined based on a comparison with other identifiers in the occurrence table to determine similar identifiers in the occurrence table. If so, the candidate identifier may be identified as likely mistyped and the similar identifier is suggested as a correction.

Abstract: An action sequence including a plurality of actions and a corresponding input dictionary are obtained. A first container, running an image for a first one of the actions implemented in a first programming language, is instantiated, and the image is executed on the input dictionary to obtain a first action result; the input dictionary is then updated with the first action result to obtain an updated input dictionary. A second container, running an image for a second one of the actions implemented in a second programming language, different than the first programming language, is instantiated, and the image is executed on the updated input dictionary to obtain a second action result; the updated input dictionary is further updated with the second action result to obtain a further updated input dictionary. The input dictionaries are independent of the programming languages.

Abstract: An action sequence including a plurality of actions and a corresponding input dictionary are obtained. A first container, running an image for a first one of the actions implemented in a first programming language, is instantiated, and the image is executed on the input dictionary to obtain a first action result; the input dictionary is then updated with the first action result to obtain an updated input dictionary. A second container, running an image for a second one of the actions implemented in a second programming language, different than the first programming language, is instantiated, and the image is executed on the updated input dictionary to obtain a second action result; the updated input dictionary is further updated with the second action result to obtain a further updated input dictionary. The input dictionaries are independent of the programming languages.

Abstract: A method for compact data marshaller generation includes determining a plurality of data types having a same memory layout from data to be marshalled using a processor, each of the plurality of data types being associated with one or more separate data marshallers. The one or more separate data marshallers are unified to provide a single data marshaller for the plurality of data types for compact data marshaller generation.