Traditional vs. ML-Based System Testing: Unraveling the Key Differences and Unique Challenges

Traditional vs. ML-Based System Testing: Unraveling the Key Differences and Unique Challenges

Traditional system testing and ML-based system testing differ significantly due to the nature of the systems they evaluate. Here’s a breakdown of the differences between the two:

Traditional System Testing

Traditional system testing focuses on evaluating deterministic systems where the behavior is predefined and predictable based on the input. It includes:

  1. Unit Testing:? Tests individual components or functions in isolation. Results are binary (pass/fail) based on expected outcomes.
  2. Integration Testing: Tests interactions between integrated units or components to ensure they work together as intended. Tests are deterministic, with expected input and output.
  3. System Testing: Tests the entire system as a whole to verify that it meets specified requirements. Involves end-to-end testing in a complete environment, ensuring all system components work together. Again, results are deterministic.

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ML Based System Testing

ML-based system testing includes traditional testing components but adds additional layers due to the unique nature of machine learning models. ML systems are often probabilistic and data-driven, which introduces new challenges. ML-based system testing includes:

Traditional System Testing components -

  1. Unit Testing: Focuses on testing individual functions or methods within the ML pipeline, such as data preprocessing functions or feature extraction.
  2. Integration Testing: Ensures that different components of the ML pipeline (like data ingestion, feature engineering, and model training) work well together.
  3. System Testing: Evaluates the entire ML application, ensuring it performs correctly in a real-world scenario.

Model Testing:

Specifically tests the machine learning model itself. Key characteristics -

  1. Accuracy & Performance: Evaluates the model’s accuracy, precision, recall, F1-score, and other metrics to ensure it performs as expected on training, validation, and test datasets.
  2. Robustness: Tests how the model performs with outliers, noisy data, or adversarial inputs to ensure it generalizes well.
  3. Bias & Fairness: Checks for any biases in the model’s predictions, ensuring fairness across different demographic groups or classes.
  4. Explainability and Interpretability: Tests how well the model’s predictions can be explained or interpreted (transparency & trust)

ML Infrastructure Testing:

Tests the infrastructure and environment where ML model is deployed. Key characteristics -

  1. Scalability: Ensures the system can handle increased loads - more users, more data.
  2. Monitoring & Logging:? Ensures proper monitoring for model performance (like drift detection) and logging for auditing and debugging purposes.
  3. Data pipeline testing: Ensures that the data pipeline from ingestion to preprocessing and feeding into the model works as intended.
  4. Deployment testing: Tests deployment pipelines for automating the release of new models


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