IEEE INTELLIGENT VEHICLES SYMPOSIUM

Anchorage, Alaska, USA June 4 – 7, 2023

SceGen: Workshop on Scenario Generation for Testing

Autonomous Vehicles (WS10)

About

Autonomous vehicles (AVs) must be rigorously tested for safety before being deployed in the real world. Scenario-based testing of AVs is a promising approach since it evaluates the response of the complete AV system. Significant research has been conducted in this area. Scenarios are an essential form of data to represent environments in simulation and the real world. Simulation testing provides a faster feedback loop to AV developers since it is highly accessible, controllable, and cheaper to run tests in relative to the real world. In a simulation, to provide a comprehensive evaluation of the safety of an AV, the AV would need to be tested on a large number of desirable scenarios. Desirable scenarios would typically expose hazardous or risky AV responses in the simulation itself. Scenarios broadly contain static components (such as roads and roadside objects) and dynamic components (such as vehicle and pedestrian behaviors). Further, they are broadly defined at varying levels of abstraction. There’s a need to represent them in a 3D photorealistic environment to evaluate perception responses and in physics-based environments to evaluate vehicle control responses. This has been addressed in the development of several game engine-based simulators such as CARLA  and BeammNG.tech. Scenario standards are currently being developed (such as in the case of OpenDRIVE and OpenSCENARIO) and iterated upon.

While the field has primarily settled on terminology and initial standards existing for roads and scenarios, the current emphasis is shifting to creating scenarios from naturalistic datasets, adding greater dynamism to scenarios via interactive NPC cars and pedestrian models, and using procedural content generation methods. Further, much work remains to represent the astonishing diversity of roads, pedestrian and driver behavior, and situations encountered across the globe. Significant discussion is required in the design of the aforementioned models and processes. 

Topics

Schedule and Location

We start the workshop with invited talks and end with a panel discussion covering research needs, open questions, current progress, and future scope of work. Each invited talk will be 30 minutes, including a 20-minute presentation and a 10-minute QA.

The workshop will be hybrid. Zoom links will be sent out to attendees. Each accepted paper will need at least one of the authors present in the workshop. 

Below is the schedule in Alaska Time, USA (GMT - 8h). The workshop starts at 13:40 p.m. and ends at 17:50 p.m. The floorplan will be shared soon.



Submission Guidelines

Paper submission link: https://edas.info/newPaper.php?c=30459&track=115618

The workshop code is WS10 and the title is "WS10 - Workshop on Scenario Generation for Testing Autonomous Vehicles" in the submission page.

Important Deadlines:

Paper Format:

Submitted papers shall not exceed six pages (two additional pages allowed with a fee) as a PDF file in IEEE two-column format. All presented papers will be published by the IEEE, and the conference proceedings will be submitted to the IEEE Xplore digital library, as long they follow the same review process of IEEE IV 2023 so that each paper will undergo a peer-reviewing process by at least two members of the International Program Committee. Contributions will be reviewed according to relevance, originality and novel ideas, technical soundness, and quality of presentation. The templates for papers can be found here: https://www.ieee.org/conferences/publishing/templates.html

Accepted Contributions:



Detail Submission Guidelines: https://2023.ieee-iv.org/paper-submission/

Registration


Invited Speakers

Prof Gustav Markkula


University of Leeds, UK

Prof. Gustav Markkula is an engineer by training, and applies quantitative methods and models to the study of human behaviour and cognition in road traffic. He has a background in automotive industry R&D (Volvo), and is currently Chair in Applied Behaviour Modelling at the Institute for Transport Studies, University of Leeds, UK. In his research, he specialises in the adoption and integration of models from computational cognitive neuroscience, to support development and testing of safe and human-acceptable technology and automation. 

Prof Leilani Gilpin


University of California, Santa Cruz

Leilani H. Gilpin is an Assistant Professor in the Department of Computer Science and Engineering at UC Santa Cruz. Her research focuses on the design and analysis of methods for autonomous systems to explain themselves. Her work has applications to robust decision-making, system debugging, and accountability. She holds a PhD in Computer Science from MIT, an M.S. in Computational and Mathematical Engineering from Stanford University, and a B.S. in Mathematics (with honors), B.S. in Computer Science (with highest honors), and a music minor from UC San Diego. Outside of research, Leilani enjoys swimming, cooking, hiking, and org-mode.

Dr. Chrysanthi Papamichail


Lead Research Software Engineer, BeamNG


Dr Chrysanthi Papamichail contributes currently to the simulation industry (BeamNG GmbH) as Lead Research and Software engineer. Her activity aims to develop further and validate the company's simulator to meet the needs of relevant academic research and industrial projects. She has industrial experience in R&D on sensor data fusion and perception for ADAS/AD technologies, for car manufacturer (Renault–Nissan–Mitsubishi Alliance). Her doctoral research was in Applied Mathematics & Statistics, for stochastic models of mechanical engineering problems (Université de Technologie de Compiègne).

Lukas Birkemeyer


Technische Universität Braunschweig

Lukas Birkemeyer is a PhD student and researcher at the Technische Universität Braunschweig in Germany. He is part of the “Responsible AI in the Digital Society” program, funded by the Ministry for Science and Culture of Lower Saxony. Lukas has a background in electrical engineering and information technology and has worked in the automotive industry. His research focuses on verifying and validating ADAS and ADS. He aims to develop a systematic approach for generating scenarios in line with the SOTIF standard (ISO 21448) to ensure the reliability and safety of these systems. Lukas’ work is crucial in advancing technology in the automotive industry.

Organizing Committee

Prof. Jim Whitehead

University of California, Santa Cruz

Prof. Alessio Gambi

IMC University of Applied Science Krems 

Golam Md Muktadir

University of California, Santa Cruz


Ishaan Paranjape

University of California, Santa Cruz

Abdul  Jawad

University of California, Santa Cruz

For more information or any questions please contact Ishaan Paranjape (iparanja@ucsc.edu).