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.

Described herein is an issue tracking system (ITS) comprising: one or more processors; one or more non-transitory computer-readable storage media storing sequences of instructions which, when executed by the one or more processors, cause the one or more processors to: render a user interface including a plurality of user interface elements each listing an external service from which the ITS can receive external objects and associate the received external object with one or more issues maintained by the ITS; determine, in response to a user interaction with one of the user interface elements, whether an issue maintained by the ITS is associated with an external object received from the listed external service; and render within the ITS, a user interface for an application marketplace, the application marketplace user interface including a listing of one or more integration applications that, once installed, connect the listed external service to the ITS and associate external objects received from the listed external service with one or more issues maintained by the ITS.

A programming language framework may be enhanced to provide for dynamic validation. Dynamic validation allows the validator function for any variable to be selected at runtime rather than statically declared at programming-time. Instead of annotating a variable with an annotation that refers to a specific validator function or constraint type, programmers can annotate a variable with an annotation that indicates that the validator function will be selected dynamically at runtime. When a runtime instance of the variable is created, the programming language framework may identify the dynamic validation annotation on the variable, and then use the runtime values in the variable to determine which validator function(s) should be used.

According to an aspect of an embodiment, operations include creating object-oriented software platform by performing a textual analysis of a documentation corpus associated with a set of APIs. The operations further include generating a set of API call objects for an API endpoint of a first API of the set of APIs and constructing a set of natural language descriptors corresponding to the set of API call objects based on the textual analysis. The operations further include generating a set of business objects. Each business object encapsulates conditions applicable on a set of input/output parameters associated with a corresponding API call object of the set of API call objects. The operations further include constructing a software package that encapsulates the set of API call objects, the set of natural language descriptors, and the set of business objects.

Case management systems and techniques are disclosed. In various embodiments, for each of a plurality of case nodes comprising a case model a trait definition comprising a corresponding set of traits associated with that case node is received. The respective trait definitions are used to bind each set of traits to the case node with which the set of traits is associated in case instances created based on the case model.

A design assistance tool, which assists a design of at least two processes includes a database and a display, and is configured to: define a metamodel using one or more metaclass in each of the at least two processes; and perform a design of each process using the corresponding metamodel. The metamodel in one process has a derivation relationship and a different relationship with the metamodel in another process, the database stores the metamodel in one process and the metamodel in another process in associated manner according to the derivation relationship and the different relationship. In the derivation relationship, which is used as trace information, the one or more metaclass in one process is defined based on content of the one or more metaclass in another process. A design result of the process and the derivation relationship used as trace information are displayed in a view of the display.

A system and method to automatically generate source code for a software microservice executable in a computing environment. A configuration specification defining the characteristics of the microservice is received. Based on the specification, at least one pattern template for the microservice is selected from a repository of templates. The pattern templates provide source code patterns usable to build the microservice. A first set of source code for a first software project is outputted and corresponds to a first aspect of the microservice, the first aspect including a definition for an interface. A second set of source code for a second software project is also outputted that corresponds to a second aspect of the microservice, the second aspect relates to a function of the microservice.

A system comprises at least one hardware processor and a memory storing instructions. When executed, the instructions cause the at least one hardware processor to perform operations comprising receiving, in a computing process, a Java user-defined table function (Java UDTF), the Java UDTF including code related to a process method to be performed that includes receiving one or more input tables and transforming the one or more input tables to an output table; determining, using at least a security policy, whether performing one or more portions of the process method are permitted; and performing portions of the process method determined to be permitted.

A method of simulating codes that form a program configured to control a control target includes causing a processor to execute the following: first-setting a first process of executing a simulation of an operation of a code group excluding a specific code among the codes; second-setting a second process of executing a simulation of an operation of a specific model obtained by modeling the specific code; first-simulating, in the first process, a first simulation of a code preceding the specific code in the code group; second-simulating, in the second process, a second simulation of the specific model through use of an execution result of the first simulation by inter-process communication between the first process and the second process; and third-simulating, in the first process, a third simulation of a code succeeding the specific code through use of an execution result of the second simulation by the inter-process communication.

Performing usage-based software library decomposition is disclosed herein. In some examples, a processor device generates a first library graph representing a first software library including multiple functions. The first library graph comprises a plurality of nodes that each correspond to a function of the first software library. The processor device identifies a function within the first software library (“invoked function”) that is directly invoked by an application that depends on the first software library, then generates a call graph including nodes within the first library graph (“dependency nodes”) corresponding to either the invoked function or another function invoked by the invoked function during application execution. Using the call graph, the processor device generates a second software library including only functions of the first software library corresponding to dependency nodes of the call graph.