Abstract: A solution providing for the dynamic design, use, and modification of models using a declarative software application meta-model that provides for self-modification of a collection of the models is provided. The solution can enable continuous real-time testing, simulation, deployment, and modification of the collection of the models. A model in the collection of the models can represent an entity or a function and can be included in a set of related models. Additionally, a set of related models can include a plurality of sets of related models. The collection of the models can represent, for example, one or more software applications, processes, and/or the like.

Abstract: The method includes identifying, by one or more computer processors, a first container with first software stack and a valid multipath configuration, wherein the first software stack is a first path of the valid multipath configuration. The method further includes creating, by one or more computer processors, a second container, wherein the second container has the same rules as the first container. The method further includes creating, by one or more computer processes, a second software stack in the second container, wherein the software stack is a redundant software stack of the first software stack. The method further includes creating, by one or more computer processors, a second path from the first container to the second software stack, wherein the second path bypasses the first software stack.

Abstract: Aspects of the disclosure relate to managing a set of warning data with respect to a development phase in a computing environment. In embodiments, the computing environment may include a distributed computing environment or a stream computing environment. The set of warning data may be detected with respect to the development phase. In embodiments, the set of warning data may be used to develop an application. By analyzing the set of warning data, a relationship between the set of warning data and a component of the application may be identified. In embodiments, the component of the application may include a computing artifact or a computing object. An indication of the relationship between the set of warning data and the component of the application may be provided for utilization to develop the application.

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: In order to realize a method for analyzing an impact of change with less misidentification and missing, an apparatus for analyzing an impact of change for investigating a change impact range caused by a change in requirements and specifications includes: a storage unit that stores design information and keywords; an input unit that inputs a trace condition including the design information representing an origin of a change impact analysis in design conditions stored in the storage unit and the keywords stored in the storage unit; a CPU that receives the trace condition including the design information representing the origin of the change impact analysis and the keywords from the input unit, and calculates an influence score representing a probability of the influence caused by the change in the requirements and the specifications for each of the design information; and a display unit that outputs a result calculated by the CPU.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises runtime metadata associated with the application, converting, using the runtime metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by simulating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: Aspects of the disclosure relate to managing a set of warning data with respect to a compilation phase in a computing environment. In embodiments, the computing environment may include a distributed computing environment or a stream computing environment. The set of warning data may be detected with respect to the compilation phase. By analyzing the set of warning data, it may be identified that the set of warning data relates to a computing object. In embodiments, the computing object may include a set of implementation code. The set of warning data may be established in association with the computing object.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises runtime metadata associated with the application, converting, using the metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by creating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises at least business rule metadata associated with the application, converting, using the at least business rule metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by creating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A method and system are provided including a parser module; a display; a memory storing processor-executable process steps; and a parser processor coupled to the memory, and in communication with the parser module and operative to execute the processor-executable steps to cause the system to: provide a user interface to a user via the display, the user interface including one or more data-entry fields; receive an expression in the one or more data-entry fields; transform the expression into a tree structure, wherein the tree structure is usable by two or more different runtime engines; and output the tree structure. Numerous other aspects are provided.

Abstract: A method includes receiving first information that is information on a control program from a control unit which executes the control program for controlling equipment loaded onto an automobile, the control unit being loaded onto the automobile, calculating second information that is a state of the control program when applying a correction program on the control program to the control unit on the basis of the received first information, transmitting the correction program to the control unit, receiving from the control unit third information that is information on a state of the control program after applying the transmitted correction program to the control unit, comparing the received third information with the calculated second information, and judging whether or not processing of applying the correction program to the control unit has succeeded on the basis of a result of the comparison.

Abstract: A method for compiling software code comprises scanning call sites within the code to identify a function that is called with at least one constant argument and creating a list of each call site associated with the function and sets of constant arguments passed to the function. If any common subsets of the constant arguments are shared across a plurality of call sites, a size of the function is estimated. selecting any sets of constant arguments that are used only in one call site. The sizes of specialized functions covering sets of constant arguments that are used in only one call site is estimated. The method comprises creating a first set of specialized versions of the function covering one or more sets of constant arguments that are used in only one call site, and if any common subsets of the constant arguments exist, creating a second set of specialized versions of the function.

Abstract: The invention relates to a method for live rule deployment with a deployment log. The method includes executing rules of a first rules package in response to one or more requests from applications. Also, the method includes receiving an identifier. The identifier is received from a configuration service, and the identifier identifies a location from which a latest rules package can be obtained. The method further includes determining, using the identifier, that a new rules package is available for deployment. Still yet, the method includes, in response to determining that the new rules package is available, requesting, using the location, a second rules package from a rules package manager. Further, the method includes receiving the second rules package from the rules package manager, and replacing the first rules package with the second rules package by deploying the second rules package.

Abstract: A test environment as described herein allows for testing webpages prior to deployment to a website. More particularly, a virtual test environment allows a developer to virtually test webpages instantiated from representations of webpages stored in a repository. In an example of testing, upon a change to a webpage of a website, one or more virtual test environments may be instantiated to test the webpage and associated webpages. In an example of test environment functionality, the test environment may generate templates representing webpages from a base template representing a set of features common to the webpages. Furthermore, a centralized computer may be used to coordinate templates representing webpages by, for example, managing naming. The centralized computer may further track virtual test environments. In a further example of test environment functionality, templates representing webpages may be generated from webpage source code of the webpages.

Abstract: Techniques are disclosed for reducing the time needed to deploy updated versions of an application using a deployment pipeline. To do so, a deployment manager may collect statistics reflecting how often any given stage of the deployment pipeline is completed successfully in deploying updates to the application. In cases where a current stage has a sufficient approval percentage, the deployment pipeline may begin deploying an updated version of the application into an environment specified for a subsequent stage of the deployment pipeline, before the current stage of the pipeline is complete. Provided the current stage completes successfully, the subsequent stage can be initiated by activating the pre-deployed versions of the application.

Abstract: A system and method for performing regression testing on source code provides a data sample to one or more candidate instances executing a candidate version of source code for a code base and provides the data sample to plurality of baseline instances executing a baseline version of the source code. The baseline version of the source code and the candidate version of the source code differ. The regression testing system and method obtains candidate outputs from the one or more candidate instances and obtains baseline outputs from the plurality of baseline instances based on the provided data sample. One or more faults in the candidate version of the source code can be determined by comparing the candidate outputs the baseline outputs. A filter for excluding one or more data fields from the comparison can be generated based on a comparison between baseline outputs from one of the plurality of baseline instances and baseline outputs from another of the plurality of baseline instances.

Abstract: A device common model interface is described that translates a schema describing a resource in a fabric network into a common object model and one or more target-specific data models, using a specification of a target application environment and a specification of a communication protocol. Elements of the schema that are useful for an application are extracted to generate the common object model and the one or more target-specific data models are provided to the application. The application interacts with an interface of the resource using the API of the target-specific data model, which performs operations that are specific to communicating with the resource in the target application environment and using the communication protocol.

Abstract: Defect classification and association in a software development environment. The embodiments herein relates to a software development environment, and more particularly to managing defects in a software development environment. The defect management engine may use information present in the code repository to create a master list of features and/or sub-features. Using the master list, the defect management engine may scan and parse all reported defects (which may be present in the defect repository). The defect management engine may associate defects with features present in the master list. The defect management engine may then extract the test cases and map the test cases to the defects. The defect management engine may determine the test coverage metric and the test case sufficiency metric. The defect management engine may also label unmapped defects as orphan defects.

Abstract: A printer having multiple processor cores, and a firmware rewriting method for the printer, enable rewriting firmware in a short time. A first rewrite controller controls rewriting the firmware of the first core by the boot program of the first core; a second rewrite controller controls rewriting the firmware of a second core, which is one of the multiple cores other than the first core, by the boot program of the first core; and a reset unit resets the printer after rewriting the firmware of the first core and the firmware of the second core by the boot program of the first core ends.

Abstract: A data-serialization system initially uses a recursive serialization algorithm to serialize a hierarchy of nested data objects by translating those objects into a serial stream of data. The system determines that a stack-overflow error is likely to occur whenever the number of objects serialized by the system exceeds a threshold value, or whenever the stack has reached an unacceptable level of utilization. When the system determines that a stack-overflow error is likely or if the system detects that a stack-overflow error will definitely occur if another object is serialized, the system either transfers control to a nonrecursive algorithm that does not require a stack data structure or reduces stack utilization by transferring contents of the stack to a variable-size queue-like data structure.