Graphical Program Analyzer for User-Defined Test Framework
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Solution Overview
Problem
Traditional text-based programming environments require users to possess advanced programming skills, creating a barrier for non-technical users and reducing the efficiency of computer system utilization, as they often need to master different skills for conceptualization and implementation, leading to inefficiencies in programming complex processes.
Innovation Solution
A graphical program analyzer software that enables programmatic analysis of graphical programs through user-defined and built-in tests, allowing users to identify performance issues, errors, and adherence to style or design standards, thereby facilitating easier debugging and optimization.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If traditional text-based programming environments are used, then programming flexibility and power are improved, but user accessibility and ease of operation deteriorate
Solution Approach 1:
The programming system is segmented into two distinct interfaces: a text-based programming environment for advanced users requiring full flexibility, and a graphical programming environment for non-technical users requiring ease of operation. This segmentation allows each interface to be optimized for its specific user group without compromising the other.
Solution Approach 2:
A program analysis module serves as an intermediary between the graphical program and the underlying text-based code. This module analyzes the graphical program's block diagram, data flow graph, and front panel to generate detailed reports about programming standards compliance, potential errors, and optimization opportunities, thereby bridging the gap between the simplified graphical interface and the complex text-based implementation.
2Ease of operation
If graphical programming environments are used, then ease of operation and user accessibility are improved, but program analysis capability deteriorates
Solution Approach 1:
The manual code review process is replaced with an automated program analysis module that programmatically examines the graphical program's internal structure. The module traverses the block diagram, analyzes data flow relationships, and evaluates compliance with programming standards, providing comprehensive analysis capabilities that would be extremely difficult to achieve through manual inspection of graphical elements.
Solution Approach 2:
The program analysis module acts as an intermediary that translates the graphical program's visual structure into analyzable data representations. By converting the block diagram, data flow graph, and front panel into structured formats, the module enables sophisticated analysis of programming standards, potential errors, and optimization opportunities while maintaining the ease of graphical programming interface.
3Manufacturing precision
If users must master both conceptualization and programming skills, then implementation precision is improved, but productivity and efficiency deteriorate
Solution Approach 1:
The skill requirements are segmented into two distinct pathways: conceptualization skills for designing the program logic using graphical interfaces, and programming skills for advanced text-based development. Non-technical users can achieve sufficient implementation precision through graphical programming without needing to master text-based programming, thereby improving overall productivity.
Solution Approach 2:
The program analysis module provides automated feedback to users about their graphical programs, identifying compliance issues, potential errors, and optimization opportunities. This feedback mechanism ensures implementation precision by catching problems early while maintaining high productivity by eliminating the need for users to manually review and debug their own code.
Data Source
AI summary
A system and method for enabling programmatic analysis of a graphical program, where the programmatic analysis includes user-defined tests. A software program referred to herein as a graphical program analyzer may be operable to programmatically analyze a graphical program by programmatically performing various tests on the graphical program. Some of the tests may be built in to the graphical program analyzer. The graphical program analyzer may also allow a user to add various user-defined tests. Adding user-defined tests to the graphical program analyzer may allow the functionality of the graphical program analyzer to be extended. When programmatically analyzing a graphical program, the graphical program analyzer may be operable to perform the user-defined tests in addition to the built-in tests.