Developer Interaction Patterns with Proactive AI: A Five-Day Field Study
Nadine Kuo, Agnia Sergeyuk, Valerie Chen, Maliheh Izadi
TL;DR
The paper addresses the challenge of prompting-heavy in-IDE AI tools by introducing ProAIDE, a proactive code-quality assistant embedded in Fleet. It reports a five-day field study with 15 professional developers, analyzing 5,732 interaction points and 229 proactive interventions to understand when proactive suggestions are most receptive. Key findings show that timing matters: post-commit interventions achieve about 52% engagement, while mid-task prompts are often dismissed, and proactive suggestions are interpreted faster than reactive ones, indicating improved workflow efficiency. The study provides actionable design implications for timing, context-awareness, explainability, and user control in production IDEs, and offers replication materials to guide future development of proactive AI in software engineering.
Abstract
Current in-IDE AI coding tools typically rely on time-consuming manual prompting and context management, whereas proactive alternatives that anticipate developer needs without explicit invocation remain underexplored. Understanding when humans are receptive to such proactive AI assistance during their daily work remains an open question in human-AI interaction research. We address this gap through a field study of proactive AI assistance in professional developer workflows. We present a five-day in-the-wild study with 15 developers who interacted with a proactive feature of an AI assistant integrated into a production-grade IDE that offers code quality suggestions based on in-IDE developer activity. We examined 229 AI interventions across 5,732 interaction points to understand how proactive suggestions are received across workflow stages, how developers experience them, and their perceived impact. Our findings reveal systematic patterns in human receptivity to proactive suggestions: interventions at workflow boundaries (e.g., post-commit) achieved 52% engagement rates, while mid-task interventions (e.g., on declined edit) were dismissed 62% of the time. Notably, well-timed proactive suggestions required significantly less interpretation time than reactive suggestions (45.4s versus 101.4s, W = 109.00, r = 0.533, p = 0.0016), indicating enhanced cognitive alignment. This study provides actionable implications for designing proactive coding assistants, including how to time interventions, align them with developer context, and strike a balance between AI agency and user control in production IDEs.
