Automated Component Discovery from Source Code
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Solution Overview
Problem
Manual component discovery in large-scale applications is challenging due to complexity and variability, often leading to inconsistent results and difficulties in achieving a component-level view, especially when documentation is lacking or outdated.
Innovation Solution
An automated component discovery system that analyzes object-oriented source code to identify business classes, extract features, estimate similarity, cluster classes, determine interfaces, and generate a visual depiction of components, using machine-readable instructions to facilitate objective component identification and visualization without requiring runtime information or empirical tests.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If manual component discovery is used in large-scale applications, then human understanding and flexibility are maintained, but the process becomes challenging and inconsistent due to complexity and lack of documentation
Solution Approach 1:
The patent replaces manual mechanical analysis with automated static analysis technology. The system uses machine learning models and algorithms to automatically discover components, interfaces, and dependencies from source code without requiring human execution or runtime information, thereby improving consistency and accuracy while reducing manual effort
Solution Approach 2:
The system enables the codebase to reveal its own structure through automated analysis. By extracting features directly from source code and using clustering algorithms, the system allows the application itself to define its component boundaries and relationships without external manual intervention, achieving objective and reproducible results
2Reliability
If automated component discovery is implemented, then consistency and accuracy are improved, but the system complexity increases due to multiple analysis steps and algorithms
Solution Approach 1:
The patent divides the component discovery process into distinct modular stages: feature extraction, similarity estimation, clustering, and validation. Each stage handles a specific aspect of the analysis, making the overall complex system manageable and maintainable while ensuring consistent and reliable results through structured processing
Solution Approach 2:
The system employs a unified static analysis framework that can handle multiple types of code elements (classes, methods, interfaces) and generate comprehensive component views simultaneously. The same core algorithms and processing pipeline work across different codebases and application types, reducing the need for separate specialized tools and simplifying the system architecture
3Productivity
If static analysis without runtime information is used, then productivity is improved by avoiding empirical tests, but measurement precision may be affected by lack of execution data
Solution Approach 1:
The system performs comprehensive feature extraction and analysis on the static codebase before any runtime execution. By pre-computing all necessary features, dependencies, and relationships from source code alone, the system prepares complete component models in advance, achieving both high productivity and accurate functional understanding without requiring empirical tests
Solution Approach 2:
The patent introduces feature extraction and similarity estimation algorithms as intermediaries between the static source code and the final component models. These intermediaries transform raw code into meaningful representations that capture functional relationships, enabling accurate component discovery purely from static analysis without needing runtime behavior data
Data Source
AI summary
A method for component discovery from source code may include receiving source code, and determining business classes by excluding packages and classes in the source code identified as belonging to a presentation layer, as belonging to a data access layer, as models and/or as utilities. The method may further include extracting multi-dimensional features from the business classes, estimating similarity for business class pairs based on the extracted multi-dimensional features, clustering the business classes based on the similarity and mapping functional concepts to the clusters. The clusters generated by the clustering may represent components of the source code. The method may also include determining interfaces for the components based on the clustering.


