Test Framework Automates Protocol-Specific Software Testing
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Solution Overview
Problem
Current software test automation methods require duplicating test scenarios in multiple programming languages and protocols, leading to excessive implementation and maintenance costs, as well as being error-prone and inefficient, especially when testing applications across different platforms and protocols.
Innovation Solution
A computer-implemented method that uses a test framework to interpret test scenarios and generate executable software applications in appropriate programming languages for the target system, allowing for automated testing across multiple protocols and platforms without manual intervention, with the ability to adapt to new protocols by implementing them only in the test framework.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If test scenarios are manually implemented in different programming languages for each protocol, then testing coverage across multiple protocols is achieved, but implementation and maintenance costs increase excessively
Solution Approach 1:
The test framework is designed to be universal and protocol-agnostic, capable of executing test scenarios across multiple protocols (JDBC, ODBC, native protocols) without requiring separate manual implementations. The framework automatically adapts to different protocols through configuration files, allowing a single test scenario definition to work across all supported protocols, thereby reducing implementation and maintenance costs while maintaining broad testing coverage.
Solution Approach 2:
The test framework acts as an intermediary layer between the test scenarios and the target software system's various protocols. It translates high-level test scenario definitions into protocol-specific operations automatically, eliminating the need for manual implementation in each programming language. The framework handles protocol-specific details through configuration files, serving as a mediator that shields users from protocol complexity.
2Reliability
If test scenarios are duplicated in multiple programming languages to cover all protocols, then comprehensive testing is achieved, but error-proneness and inefficiency increase
Solution Approach 1:
The framework provides a universal test execution engine that handles all protocols through a single interface. Test scenarios are defined once in a protocol-agnostic format, and the framework automatically adapts them to the specific protocol being tested. This eliminates manual duplication across programming languages, reducing errors and improving efficiency while maintaining comprehensive testing coverage through automated protocol-specific adaptations.
Solution Approach 2:
The test framework performs self-service by automatically generating and executing protocol-specific test code based on the provided configuration files and test scenario definitions. It autonomously handles the complexity of translating generic test scenarios into protocol-specific operations, eliminating manual intervention and reducing human error while maintaining comprehensive testing across all protocols.
3Reliability
If manual implementation of applications in protocol-specific languages is performed, then protocol-specific testing is achieved, but automation is inhibited
Solution Approach 1:
The test framework serves as an intermediary that enables automation while maintaining protocol-specific testing accuracy. It automatically translates high-level test scenario definitions into protocol-specific executable code based on configuration files. This intermediary layer handles all protocol-specific details automatically, eliminating the need for manual implementation while preserving the ability to test each protocol's specific behavior accurately through automated code generation and execution.
4Ease of manufacture
If a single test framework is used for multiple protocols, then maintenance effort is reduced, but adaptability to protocol-specific requirements may be compromised
Solution Approach 1:
The test framework implements local quality by allowing protocol-specific configurations while maintaining a unified test execution engine. Each protocol can have its own configuration file with protocol-specific parameters, data types, and operation mappings, while the core framework remains consistent. This enables the framework to adapt to local protocol requirements without compromising the overall maintenance benefits of a single unified system. Changes in one protocol do not affect others, and each protocol's specific needs are addressed through localized configuration.
Data Source
AI summary
In an approach for testing a software application on a target system, a computer provides a test framework being executed on a test framework system, the system being coupled with the target system via network and receives a test scenario by the test framework, the scenario including information regarding a software application to be tested, the target system on which said software application should be executed and regarding one or multiple protocols supported by the target system. The computer interprets information included in said scenario by said test framework and deriving properties associated with at least one software application to be generated based on said information interpretation. The computer then generates an executable software application in a programming language, said application being adapted to the target system by using said derived software application properties. The computer triggers execution of said application thereby obtaining test results, and evaluates said results.