HCI in Mobility, Transport and Automotive Systems Best Paper Award

The Best Paper Award of the 8th International Conference on HCI in Mobility, Transport and Automotive Systems

has been conferred to

Max Buettner (Munich University of Applied Sciences, Germany), Philipp Schardt (Ergosign GmbH, Germany), Erik Schuetz, Constantin Selzer (Munich University of Applied Sciences, Germany), Rainer Haffner, Stefan Kiefer, Lukas Flohr (Ergosign GmbH, Germany) and Fabian Flohr (Munich University of Applied Sciences, Germany)

for the paper entitled

"Beyond the Dashboard: A Collaborative UI Framework for Autonomous Systems Engineering and Design Research"

Max Buettner
(presenter)

 

HCI in Mobility, Transport and Automotive Systems Best Paper Award. Details in text following the image.

Best Paper Award for the 8th International Conference on HCI in Mobility, Transport and Automotive Systems, in the context of HCI International 2026, Montreal, Canada, 26 - 31 July 2026

Certificate for best paper award of the 8th International Conference on HCI in Mobility, Transport and Automotive Systems. Details in text following the image

Certificate for Best Paper Award of the 8th International Conference on HCI in Mobility, Transport and Automotive Systems presented in the context of HCI International 2026, Montreal, Canada, 26 - 31 July 2026

Paper Abstract
Developing robust autonomous driving systems requires the iterative evaluation of complex AI algorithms, a process fundamentally hampered by a persistent workflow gap between engineering, research, and design teams. Engineers struggle with high cognitive load during in-field data collection, while designers lack access to the live data and algorithm parameters needed to create and validate meaningful end-user human-machine interface (HMI) concepts. To bridge this critical gap, this paper presents a comprehensive case study on the development of an “Engineering-UI”, a flexible, web-based framework created through a structured, multi-method collaborative design process involving academic institutions, two large original equipment manufacturers (OEMs), and a UX design agency. The Engineering-UI is architected to serve two critical, integrated functions: first, it provides engineers with intuitive, touch-based controls for in-field data collection, real-time algorithm evaluation, and system parameterization. Second, it acts as a powerful backend for design researchers, enabling the rapid deployment and transparent testing of diverse end-user UI concepts using live system data. We detail the iterative development of this framework and validate its flexibility across two distinct research platform types: a camera and LiDAR-equipped vehicle with a vast sensor suite and a minimalist sensor-equipped bicycle with three sensors. We conclude by distilling a set of critical, actionable lessons learned from the real-world integration process, focusing on the friction of parallel development, the challenges of live-data performance, and the competing requirements of design and engineering. This work offers a practical model for effective interdisciplinary development. The source code is publicly available at Engineering-UI.

The full paper is available through SpringerLink, provided that you have proper access rights.