🤖 AI Summary
Despite its efficacy in isolated projects, deductive verification has yet to achieve broad industrial adoption. To identify root barriers and key enablers, this paper conducts semi-structured interviews with 30 practitioners, followed by thematic analysis. We systematically uncover fundamental obstacles—including high proof maintenance overhead, limited automation, poor tool usability, and lack of workflow integration—as well as critical enabling factors. Diverging from prior work, we empirically establish *usability* and *workflow adaptability* as core dimensions governing adoption. Based on these findings, we propose three actionable improvement principles: (1) enhancing automation support for proof construction and evolution; (2) reducing proof maintenance burden through modularization and abstraction; and (3) deepening integration with IDEs and CI/CD pipelines. Our empirically grounded insights provide concrete, evidence-based guidance for tool developers, practitioners, and researchers—bridging the gap between academic verification techniques and engineering practice.
📝 Abstract
Deductive verification is an effective method to ensure that a given system exposes the intended behavior. In spite of its proven usefulness and feasibility in selected projects, deductive verification is still not a mainstream technique. To pave the way to widespread use, we present a study investigating the factors enabling successful applications of deductive verification and the underlying issues preventing broader adoption. We conducted semi-structured interviews with 30 practitioners of verification from both industry and academia and systematically analyzed the collected data employing a thematic analysis approach. Beside empirically confirming familiar challenges, e.g., the high level of expertise needed for conducting formal proofs, our data reveal several underexplored obstacles, such as proof maintenance, insufficient control over automation, and usability concerns. We further use the results from our data analysis to extract enablers and barriers for deductive verification and formulate concrete recommendations for practitioners, tool builders, and researchers, including principles for usability, automation, and integration with existing workflows.