When: Posters can be set-up at the start of the work-in-progress session and need to be removed at the end of the session. Each poster will have a specific location assigned.
Poster size: Max A0, attached with material provided by the organizers. Posters should have:
Even more details on size: On the left you can see Stella next to an example poster board: As you can see, it consists of two panels. Each panel has the following dimensions:
So, the two combined boards have an area of roughly 115 cm wide x 165 cm height
Number | Title | Corresponding Author |
101 | The First Co-Drive Experience Prototype | Boffi, Laura |
102 | Lessons from Oz: Design Guidelines for Automotive Conversational User Interfaces | Large, David R. |
103 | Visual Aided Speech Interface to Minimize Driver's Distraction | Kim, Guiyoung |
104 | HMI-Testing for (Non-) Automated Vehicles in Urban Connected Mixed Traffic: Cooperative Lane Change | Springer, Sabine |
105 | Effects of Gesture-based Interfaces on Safety in Automotive Applications | van Nimwegen, Christof |
106 | Including People with Impairments from the Start: External Communication of Autonomous Vehicles | Colley, Mark |
107 | Driving Behavior Model Considering Drivers Over-trust in Driving Automation System | LIU, Hailong |
108 | A Tactile Interaction Concept for In-Car Passenger Infotainment Systems | Pfleging, Bastian |
109 | Shared Control and the Democratization of Driving in Autonomous Vehicles | van Zoelen, Emma |
110 | Improving Target Selection Accuracy for Vehicle Touch Screens | Ito, Kosuke |
111 | Can We Predict Driver Distraction Without Driver Psychophysiological State? A Feasibility Study on Noninvasive Distraction Detection in Manual Driving | de Salis, Emmanuel |
112 | Shared Vehicles: User Expectations and Implications for Designing the User Experience | Pfleging, Bastian |
113 | Evaluation of Driving Behavior on Highway Entries | Sauer, David |
114 | An Empirical Investigation Of Measures For Well-Being In Highly Automated Vehicles | Sauer, Vanessa |
115 | Gesture-Based Interaction Between Pedestrians and Automated Vehicles in Virtual Reality | Gruenefeld, Uwe |
116 | Convey Situation Awareness in Conditionally Automated Driving with a Haptic Seat | Capallera, Marine |
117 | Designing a Naturalistic In-Car Tutor System for the Initial Use of Partially Automated Cars: Taking Inspiration from Driving Instructors | Boelhouwer, Anika |
118 | First Attempt to Build Realistic Driving Scenes using Video-to-video Synthesis in OpenDS Framework | Peng, Xiangjun |
119 | Secondary Task and Situation Awareness, a Mobile Application for Conditionally Automated Vehicles | Capallera, Marine |
120 | Bringing the Thrill to Automated Vehicles: An Evaluation of Thrill-Seeking Driving Displays | Becerra, Zoe |
122 | Where We Come from and Where We Are Going: A Review of Automated Driving Studies | Forster, Yannick |
123 | Left Foot Music Controls in Car Infotainment Systems | Wiltingh, Stijn |
124 | Factors Influencing Older Adults' Acceptance of Fully Automated Vehicles | Haghzare, Shabnam |
125 | Comparing User Requirements For Automated Vehicle Interiors In China And Germany | Sauer, Vanessa |
126 | Mining Consumer Complaints to Identify Unsuccessful Interactions with Advanced Driver Assistance Systems | Tefft, Brian |
127 | Designing Emotion-Aware In-Car Interactions for Unlike Markets | Li, Jingyi |
128 | Stuck Behind a Truck: A Cooperative Interaction Design Approach to Efficiently Cope with the Limitations of Automated Systems | Pichen, Jürgen |
129 | In-Car Distractions and Automated Driving: A Preliminary Simulator Study | Brumby, Duncan |
130 | Inducing Erroneous Behavior in a Driving Simulator with Gamification | Maurer, Steffen |
Number | Title | Corresponding Author |
201 | Increasing Awareness Through Translucency on Windshield Displays | Pfleging, Bastian |
202 | Spatial Visualization of Sensor Information for Automated Vehicles | Yan, Fei |
203 | Cognitive Psychological Approach for Unraveling the Take-Over Process during Automated Driving | Scatturin, Lara |
204 | Measuring Susceptibility to Alerts while Encountering Mental Workload | Janssen, Christian |
205 | Effect of On-Road Virtual Visual References on Vehicle Control Stability of Wide/Narrow FOV Drivers | Utsumi, Akira |
206 | How Do Humans Respond When Automated Vehicles Request an Immediate Vehicle Control Take-over? | Yang, Ji Hyun |
207 | A Real-world Driving Experiment to Collect Expert Knowledge for the Design of AR HUD Navigation Concepts | Schneider, Matthias |
208 | LeadingDisplay: Robotic Versatile Display for Infotainment in Autonomous Vehicle | Ishiguro, Yoshio |
209 | Supervising the Self-Driving Car: Situation Awareness and Fatigue During Automated Driving | McKerral, Angus |
210 | A Framework of the Non-critical Spontaneous Intervention in Highly Automated Driving Scenarios | Wang, Chao |
211 | Driving-Task-Related Human-Machine Interaction in Automated Driving: Towards a Bigger Picture | Walch, Marcel |
212 | Driving with an Agent in Autonomous Driving: Speech Style and Embodiment | Lee, Seul Chan |
213 | Providing Contextual Information When Encountering Traffic Interruptions During Automated Driving: A Preliminary Study | Techer, Franck |
214 | Talk to Me! Exploring Stereoscopic 3d Anthropomorphic Virtual Assistants in Automated Vehicles | Weidner, Florian |
215 | Takeover Response: Differences between US and Slovenia | Miller, Erika |
216 | Effect of Human-Machine Cooperation on Driving Comfort in Highly Automated Steering Maneuvers | Kuramochi, Hiroaki |
217 | Modeling the Effects of Auditory Display Takeover Requests on Drivers' Behavior in Autonomous Vehicles | Ko, Sangjin |
218 | ATHENA - Supporting UX of Conditionally Automated Driving with Natural Language Reliability Displays | Frison, Anna-Katharina |
219 | Personalized User Profiles for Autonomous Vehicles | Trende, Alexander |
220 | Exploring the Impact of Transparency on the Interaction with an In-Car Digital AI Assistant | Neuhaus, Robin |
Number | Title | Corresponding Author |
301 | Uncovering Perceived Identification Accuracy of In-Vehicle Biometric Sensing | El Ali, Abdallah |
302 | Tangible Virtual Reality in a Multi-User Environment | Bielecki, Konrad |
303 | Designing HMIs for an Active Safety System on Bicycles | Lindström, David |
304 | Effects on the Perception of Speed and Normality When Virtual Reality Scenes | Sakai, Yusuke |
305 | Towards a Frustration-Aware Assistant for Increased In-Vehicle UX: F-RELACS | Oehl, Michael |
306 | Using Gaze-Based Interactions in Automated Vehicles for Increased Road Safety | Schmidt, Holger |
307 | Comparing CNNs for Non-Conventional Traffic Participants | Mukhopadhyay, Abhishek |
308 | Analyzing High Decibel Honking Effect on Driving Behavior Using VR and Bio-Sensors | Agrawal, Mayank |
309 | Online Experiments as a Supplement of Automated Driving Simulator Studies: A Methodological Insight | Hock, Philipp |
310 | Applying Participatory Design to Symbols for SAE Level 2 Automated Driving Systems | Perrier, Mickaël |
311 | A Classification Framework Based on Driver’s Operations of In-car Interaction | Zhou, Yaqi |
312 | The Effect of Incentives in Driving Simulator Studies | Hock, Philipp |
313 | Don't You See Them? Towards Gaze-Based Interaction | Walch, Marcel |
314 | Switching between Augmented Reality and a Manual-Visual Task: A Preliminary Study | Fereydooni, Nadia |
315 | Virtual Reality Passenger Experiences | McGill, Mark |
316 | Using the Wizard of Oz Paradigm to Prototype Automated Vehicles: Methodological Challenges | Müller, Andrea |
317 | Why did not this Voice User Interface Understand Me?: Recovery Strategy from Non-understanding Error | Lee, Seul Chan |
318 | Physical Fights Back: Introducing a Model for Bridging Analog Digital Interactions | Heijboer, Stefan |
319 | For a Better (Simulated) World: Considerations for VR in External Communication Research | Colley, Mark |
320 | Driving Simulator Studies at Home: Promises, Potholes, and Pitfalls | Mirnig, Alexander |
321 | Introducing Automated Driving to the Generation 50+ | Li, Jingyi |