Learning

Machine Learning Interpretability and Trust: Bridging the Explainability Gap in Algorithmic Decision-Making Abstract As machine learning (ML) models increasingly influence critical decisions across healthcare, finance, and criminal justice, the relationship between interpretability and trust has become paramount. This paper examines the theoretical and practical dimensions of ML interpretability as a foundational requirement for establishing trust in algorithmic systems. Through synthesis of current literature and empirical evidence, we demonstrate that interpretability functions as both an epistemic necessity—enabling understanding of model behavior—and a practical requirement for responsible deployment. We identify three primary dimensions of interpretability: transparency (how models work), explainability (why models make specific decisions), and accountability (ensuring decisions can be justified). Our analysis reveals significant gaps between technical interpretability methods and stakeholder trust requirements, particularly in high-stakes domains. We conclude that effective trust in ML systems requires not merely post-hoc explanations but integrated interpretability throughout the model development lifecycle. Future research must address the heterogeneous trust needs of diverse stakeholders and develop domain-specific interpretability frameworks. ...

Machine Learning Interpretability and Trust: Bridging the Gap Between Model Transparency and User Confidence Abstract The proliferation of machine learning systems in high-stakes domains such as healthcare, finance, and cybersecurity has created an urgent need to understand the relationship between model interpretability and user trust. While interpretability—the ability to comprehend how a model reaches its decisions—is often positioned as a prerequisite for trust, empirical evidence suggests this relationship is more complex than commonly assumed. This paper examines the theoretical foundations and practical challenges of building trustworthy machine learning systems through interpretability mechanisms. We analyze three primary approaches: rule-based machine learning, mechanistic interpretability, and explainable AI frameworks. Our analysis reveals that interpretability alone is insufficient for generating trust; rather, trust emerges from the integration of transparency, verifiable alignment, robustness, and ethical principles. We identify critical gaps in current interpretability research, particularly regarding quantifiable measures of interpretability quality, domain-specific constraints in security applications, and the active inclusion of affected populations in system design. This paper concludes that achieving trustworthy AI requires moving beyond explanations to encompass mechanistic understanding, adversarial robustness, and participatory design practices. ...

Machine Learning Interpretability and Trust: Bridging the Gap Between Algorithmic Opacity and Human Understanding Thesis Statement While machine learning systems have become increasingly powerful and pervasive in high-stakes decision-making domains, their inherent opacity creates a fundamental barrier to trust. This paper argues that interpretability—the capacity to understand and explain model decisions—is not merely a technical feature but a prerequisite for trustworthy AI systems. We propose that a multi-layered approach combining mechanistic interpretability, rule-based methods, and rigorous validation protocols can substantially bridge the transparency-trust gap, though significant challenges remain in translating technical interpretability into meaningful human understanding and genuine fairness. ...