AI-POWERED ANALYSIS
Cooperative In-Vehicle Intelligent Voice Agents in Level 4 Automation
Level 4 automated vehicles (AVs) are entering real-world urban traffic, where they must coexist and coordinate with human-driven vehicles. Although prior research has addressed automated driving scenarios, it largely focuses on isolated human-vehicle interaction or single-exposure studies, offering limited insight into cooperative behavior in mixed-traffic and multi-driver settings. This dissertation investigates voice-based interaction as a mechanism for communicating AV intent during cooperative driving situations. Co-operation is framed as a social and temporal process shaped by how AV passengers interpret voice-based communication and how this understanding manifests in vehicle behavior that surrounding human drivers must anticipate. Using a user-centered, mixed-methods approach, the research combines multi-driver driving simulation with a longitudinal simulator study. The work examines perceived safety, interpretation of cooperative intent, and coordination in mixed traffic, as well as how these processes evolve over repeated interaction. The dissertation contributes empirical evidence and methodological guidance for cooperative interaction in multi-driver simulation.
Author: Cansu Demir
Keywords: In-Vehicle Intelligent Agents, Automated Driving, Human-Vehicle Interaction, SAE Level 4 Automation
CCS Concepts: Human-centered computing → Laboratory experiments; User studies; Collaborative interaction.
Executive Impact & Key Metrics
This research addresses critical challenges in autonomous vehicle deployment by focusing on cooperative human-AV interaction, leading to tangible benefits in safety and efficiency.
Deep Analysis & Enterprise Applications
Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.
The research examines how voice-based communication influences perceived safety (comfort, risk perception) during cooperative maneuvers (merging, yielding) in mixed-traffic for both AV passengers and surrounding manual drivers.
It investigates how AV passengers interpret voice-based communication of AV intent and how this shapes coordination behavior, including anticipation of AV behavior and response timing with surrounding human drivers.
This objective explores how AV passengers' perception, trust, and cooperative behavior evolve over repeated interactions, focusing on learning effects and changes in reliance or skepticism towards voice-based communication over time.
Enterprise Process Flow
Key Contributions to Human-AI Interaction
This dissertation makes significant advancements by:
• Providing robust empirical evidence on cooperative interaction in complex multi-driver, mixed-traffic environments, moving beyond isolated human-vehicle studies.
• Offering concrete methodological guidance for employing multi-driver driving simulations, enabling deeper investigation into emergent interaction phenomena.
• Unveiling a longitudinal understanding of how AV passengers adapt to and form trust in voice-based communication over repeated interactions, addressing long-term user behavior.
How to frame cooperative driving research findings for a broader HCI audience, specifically those working on human-AI interaction, cooperative systems, and safety-critical interaction.
Seeking guidance on scoping, measuring, and effectively communicating change over time in longitudinal simulator studies to maximize rigor and feasibility.
Feedback on transparently communicating the strengths and limitations of multi-driver simulation, particularly regarding realism, control, and complexity, within CHI community expectations.
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Your AI Implementation Roadmap
A structured approach to integrating intelligent voice agents for enhanced cooperative human-AV interaction.
Discovery & AI Strategy Alignment
Define core cooperative scenarios (merging, yielding). Identify key AV intent communication points. Map desired AV voice agent behaviors and utterances.
Prototype Development & Simulation Integration
Develop voice agent prototypes with context-specific messages. Integrate prototypes into multi-driver driving simulator environment. Design and validate experimental scenarios.
Longitudinal User Studies & Data Collection
Conduct multi-driver simulation sessions with AV passengers and manual drivers. Execute longitudinal studies to observe adaptation and trust evolution. Collect telemetry, behavioral, and qualitative interview data.
Advanced Data Analysis & Insight Generation
Analyze data for perceived safety, coordination, interpretation, and adaptation. Iteratively refine voice agent design based on findings. Disseminate empirical evidence and methodological guidance.
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