Tech Term Decoded: Model Explainability

Definition

Model Explainability is a concept that a machine learning model and its output can be explained in a way that makes it easily understandable to a human at an acceptable level. Usually, ‘Explainability’ and ‘interpretability’ are often used interchangeably. They have something in common, which is to understand the model. Interpretability is the extent to which an observer can understand the cause of a decision. It is how accurately humans can anticipate the result of an AI output, while explainability goes beyond that and looks at how the AI arrived at the result.

For example, your bank account needs BVN to remain active. That is interpretability. Understanding how the biometric database cross-matches fingerprints, validates identity across multiple banks, and prevents fraudulent account openings is known as explainability.

Model Explainability in AI

Illustration of model explainability process [1].

Origin

The concept of model explainability originated from the emergence of complex AI algorithms and the need to understand their decision-making processes. As time passed, with AI applications spreading into critical sectors such as healthcare and finance, the demand for transparent and interpretable AI models increased dramatically. The development of the explainable AI framework sought to address these issues, making interpretability a core requirement in the design of AI systems.

With the rising awareness of the potential risks associated with black-box AI models, stakeholders, including regulatory bodies and industry experts, have stressed the importance of model explainability in guaranteeing the responsible use of AI [2].

Context and Usage

Model explainability promotes transparency and interpretability, enabling stakeholders to understand how decisions are made by AI systems. This makes Model explainability key in fields that use AI. Utilizing model explainability results to improved accountability, better user trust, and optimized model performance across various industries. Some of their applications are as follows;

  • Autonomous vehicles: Model explainability clears up how AI systems make navigation and decision-making choices, promoting safety.
  • Finance: It is used for risk assessment and credit scoring where understanding model predictions is vital for regulatory compliance.
  • Healthcare: By making model decisions clear and interpretable, it improves trust in AI-driven diagnostics.
  • Legal: Ensuring fairness in automated decision-making systems by providing explanations for outcomes.
  • Marketing: Optimizing targeted advertising strategies through insights gained from explainable models [3].

Why it Matters

The importance of machine learning explainability cannot be overemphasized. As machine learning models, especially deep learning models, become more complex, their decision processes often become a “black box”, unclear and incomprehensible. This lack of transparency creates problems in critical applications where knowing how a model reaches a decision is necessary for ethical, legal, and practical reasons. This is where explainability comes in. Explainability builds trust among users, facilitates regulatory approval, and ensures that AI systems operate in a fair, unbiased manner. Furthermore, it plays a pivotal role in the development and deployment phases by enabling developers to debug and improve models more effectively [4]. 

In Practice

TFX is an example of a real-life case study of model explainability in action. TFX is a machine learning platform from Google. It provides data validation, preprocessing, model training, and model serving tools. TFX also includes TensorFlow Model Analysis (TFMA), which offers model evaluation and explainability capabilities, such as computing feature attributions and evaluating fairness metrics [5].

See Also

Related Model Training and Evaluation concepts:

  • Model Evaluation: Process of assessing how well a model performs on test data and other metrics
  • Model Interpretability: Ability to understand and explain how a model makes decisions
  • Model Monitoring: Ongoing tracking of model performance and behavior in production environments
  • Model Training: Process of teaching an AI model to make predictions by learning from data
  • Model Versioning: Practice of tracking and managing different iterations of AI models over time

References

  1. Sharma, S., K. (2024). Explainable AI (XAI): Model Interpretability, Feature Attribution, and Model Explainability
  2. Lark Editorial Team. (2023). Model Explainability in AI
  3. Lyzr Team. (2025). Model Explainability
  4. Deepchecks. (2025). Model Explainability
  5. Boluwatife, V., O. (2023). Explainability in AI and Machine Learning Systems: An Overview 

Kelechi Egegbara

Kelechi Egegbara is a Computer Science lecturer with over 12 years of experience, an award winning Academic Adviser, Member of Computer Professionals of Nigeria and the founder of Kelegan.com. With a background in tech education, he has dedicated the later years of his career to making technology education accessible to everyone by publishing papers that explores how emerging technologies transform various sectors like education, healthcare, economy, agriculture, governance, environment, photography, etc. Beyond tech, he is passionate about documentaries, sports, and storytelling - interests that help him create engaging technical content. You can connect with him at kegegbara@fpno.edu.ng to explore the exciting world of technology together.

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