## 3 An Integrated Functional Architecture  
So far, we suggested the necessity of the conceptual integration with the analysis function of the Building subsystem and the discovery function of the Miningtime subsystem. Based upon that clear and reasonable conceptual goal, we need to devise a concrete integration approach and architecture in this section. Additionally, we describe the details of implementing the devised integrated architecture as a system. Consequently, in the next consecutive subsections we exogitate the details of the concrete goal and functional scope for developing the integrated architecture and system supporting the process mining functionality and the sophisticated process analyzing functionality. Figure 1 illustrates a situational snapshot of the process-aware enterprise and organization working with the Miningtime subsystem supporting the process discovery and rediscovery functions [26; 27], and the Buildtime subsystem supporting the structural analysis functions and the visual-simulation functions. Particularly, we emphasize that the discovery is to explore business-activity processes from the event logs of the executions of the traditional information systems, while the rediscovery is to do mining of the enacted business-activity processes from the event logs and traces stored whenever the corresponding business-activity processes are enacted and executed by their process management system. In this section, we focus on proposing a concrete integration approach of  
the rediscovery function through the Miningtime subsystem and the analysis and simulation functions through the Buildtime subsystem. Basically, the functional integration of the process mining and the process analyzing is to pursue seamless operations from the rediscovery functions to the simulation-based analysis functions. More precisely, the process mining is to rediscover process models from process enactment event log datasets. The process analyzing is to fulfill the structural and simulation-based analysis on those rediscovered SICN process models. Note that in this paper we especially focus on the process visual-simulation analysis that supports the simulation-based performative properness on the rediscovered process models. The rediscovered process models of the process mining are represented in a mathematical form of the structured information control nets (SICN) [14] and in a graphical form of the GraphML [28] file format with the Graphviz graph visualization open source library. Our experimental cases are also based upon those SICN process models discovered from XES-formatted datasets of process enactment event logs and traces, which are chosen from the 4 TU.Centre for Research Data [17]. Therefore, the functional integration between the process mining and the process analyzing ought to be realized seamlessly through transforming the graphical form of Graphviz and GraphML into the textual form of XPDL [10] of the discovered SICN process models. The overall integrated architecture and its components are illustrated in Figure 2. The upper part of the figure shows an integrated architecture consisting of the process mining subsystem and the process analyzing subsystem, and the lower part shows the functional components of the integrated architecture and system, such as report generators, structural analyzers, a performative simulator, and a visualizer. In particular, the XPDL process instance tracing functionality of the performative simulator ought to be a focal function that is provided by the integration of the process mining and the process analyzing. Conclusively, the scope and goal of the paper is to develop the XPDL process's structural analyzer and performative simulator in conjunction with the SICN process mining system. In the consecutive sections, we describe the design and implementation details of these architectural components. The eventual goal of the integrated architecture is to analyze the structural and behavioral aspects of a SICN process model rediscovered from an enactment event log dataset.