International Journal of Human-Computer Interaction· 2026Q1
Determining Voice Control Boundaries for in-Vehicle Functions: A User-Engineer-Expert Assessment Framework
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- Q1SCImago
- 2026year
Short summary
A novel six-dimensional weighted adaptability assessment model (SWAAM) rapidly evaluated 30 in-vehicle voice control functions, identifying 15 for priority release, 3 for prohibition, and 12 for scenario-based release, with high consistency between model scores and functional lists.
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Key points
- A six-dimensional weighted adaptability assessment model (SWAAM) was developed, prioritizing safety risk (30%) and operational complexity (20%).
- User preference for voice control is highly stratified: >98% for comfort functions vs. <60% for safety-critical functions.
- The assessment identified 15 functions for a 'whitelist' (priority release), 3 for a 'blacklist' (prohibited), and 12 for a 'graylist' (scenario-based release).
- Expert consensus established design specifications, including prohibiting voice control for core driving functions and requiring secondary confirmation for safety-related actions.
AI-generated from the title and abstract; the full text is not read.
Abstract
Efficiently adapting voice control functions in smart vehicles remains a practical challenge in human-computer interaction. This study established a three-source, lightweight research system comprising user questionnaire survey (N = 326), engineer evaluation from the corporate sector (N = 12), and expert interviews from the industry (N = 8). A six-dimensional weighted adaptability assessment model(SWAAM) was designed (safety risk 30%, operational complexity 20%, usage frequency 15%, command clarity 15%, feedback requirements 10%, and technical feasibility 10%). Within 15 days, a systematic evaluation of 30 vehicle control functions was completed. The results indicate that user voice preference exhibits significant stratification: preference rates for high-frequency comfort functions such as navigation, air conditioning, and media exceed 98%, while preference rates for safety-critical functions such as driver assistance and chassis control are below 60%. Through triangulation validation, 15 items were identified for the whitelist (priority for release), 3 for the blacklist (prohibited from release), and 12 for the graylist (requiring scenario-based release, e.g., window control limited to speeds below 80 km/h, special scenario modes restricted to parking only). Expert consensus established safety red lines and design specifications, including “prohibition of voice control for core driving functions,” “adoption of the “action + object” command format,” and “requirement for secondary confirmation for safety-related functions.” The weighted total score across the six dimensions showed high consistency with the functional list (whitelist ≥ 7 points, blacklist <4.0 points), validating the model’s effectiveness. This method ensures scientific rigor while reducing the adaptation cycle to 15 days. It provides a practical, lightweight framework for rapid iteration in mass-production voice interaction projects.
The authors' abstract, as published at the source. International Journal of Human-Computer Interaction, 2026 · DOI ↗
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Field: Human Factors and Ergonomics
Human Factors and ErgonomicsSocial Sciences