RSS 2020 – all the papers and videos!

RSS 2020 was held virtually this year, from the RSS Pioneers Workshop on July 11 to the Paper Awards and Farewell on July 16. Many talks are now available online, including 103 accepted papers, each presented as an online Spotlight Talk on the RSS Youtube channel, and of course the plenaries and much of the workshop content as well. We’ve tried to link here to all of the goodness from RSS 2020.

The RSS Keynote on July 15 was delivered by Josh Tenenbaum, Professor of Computational Cognitive Science at MIT in the Department of Brain and Cognitive Sciences, CSAIL. Titled “It’s all in your head: Intuitive physics, planning, and problem-solving in brains, minds and machines”.

Abstract: I will overview what we know about the human mind’s internal models of the physical world, including how these models arise over evolution and developmental learning, how they are implemented in neural circuitry, and how they are used to support planning and rapid trial-and-error problem-solving in tool use and other physical reasoning tasks. I will also discuss prospects for building more human-like physical common sense in robots and other AI systems.

RSS 2020 introduces the new RSS Test of Time Award given to highest impact papers published at RSS (and potentially journal versions thereof) from at least ten years ago. Impact may mean that it changed how we think about problems or about robotic design, that it brought fully new problems to the attention of the community, or that it pioneered new approach to robotic design or problem solving. With this award, RSS generally wants to foster the discussion of the long term development of our field. The award is an opportunity to reflect on and discuss the past, which is essential to make progress in the future. The awardee’s keynote is therefore complemented with a Test of Time Panel session devoted to this important discussion.

This year’s Test of Time Awards goes to the pair of papers for pioneering an information smoothing approach to the SLAM problem via square root factorization, its interpretation as a graphical model, and the widely-used GTSAM free software repository.

• Frank Dellaert: Square Root SAM. Proceedings of Robotics: Science and Systems I, 2005.
• Frank Dellaert and Michael Kaess: Square Root SAM: Simultaneous localization and mapping via square root information smoothing. International Journal of Robotics Research, 25, 1181-1203, 2006.

Abstract: Many estimation, planning and optimal control problems in robotics have an optimization problem at their core. In most of these optimization problems, the objective function is composed of many different factors or terms that are local in nature, i.e., they only depend on a small subset of the variables. 10 years ago the Square Root SAM papers identified factor graphs as a particularly insightful way of modeling this locality structure. Since then we have realized that factor graphs can represent a wide variety of problems across robotics, expose opportunities to improve computational performance, and are beneficial in designing and thinking about how to model a problem, even aside from performance considerations. Many of these principles have been embodied in our evolving open source package GTSAM, which puts factor graphs front and central, and which has been used with great success in a number of state of the art robotics applications. We will also discuss where factor graphs, in our opinion, can break in

The RSS 2020 Plenary Sessions highlighted Early Career Awards for researchers, Byron Boots, Luca Carlone and Jeanette Bohg. Byron Boots is an Associate Professor in the Paul G. Allen School of Computer Science and Engineering at the University of Washington. Luca Carlone is the Charles Stark Draper Assistant Professor in the Department of Aeronautics and Astronautics at the Massachusetts Institute of Technology, and a Principal Investigator in the Laboratory for Information & Decision Systems (LIDS). Jeannette Bohg is an Assistant Professor of Computer Science at Stanford University.

Title: Perspectives on Machine Learning for Robotics

Abstract: Recent advances in machine learning are leading to new tools for designing intelligent robots: functions relied on to govern a robot’s behavior can be learned from a robot’s interaction with its environment rather than hand-designed by an engineer. Many machine learning methods assume little prior knowledge and are extremely flexible, they can model almost anything! But, this flexibility comes at a cost. The same algorithms are often notoriously data hungry and computationally expensive, two problems that can be debilitating for robotics. In this talk I’ll discuss how machine learning can be combined with prior knowledge to build effective solutions to robotics problems. I’ll start by introducing an online learning perspective on robot adaptation that unifies well-known algorithms and suggests new approaches. Along the way, I’ll focus on the use of simulation and expert advice to augment learning. I’ll discuss how imperfect models can be leveraged to rapidly update simple control policies and imitation can accelerate reinforcement learning. I will also show how we have applied some of these ideas to an autonomous off-road racing task that requires impressive sensing, speed, and agility to complete.

Title: The Future of Robot Perception: Certifiable Algorithms and Real-time High-level Understanding

Abstract: Robot perception has witnessed an unprecedented progress in the last decade. Robots are now able to detect objects and create large-scale maps of an unknown environment, which are crucial capabilities for navigation, manipulation, and human-robot interaction. Despite these advances, both researchers and practitioners are well aware of the brittleness of current perception systems, and a large gap still separates robot and human perception.

This talk discusses two efforts targeted at bridging this gap. The first focuses on robustness. I present recent advances in the design of certifiable perception algorithms that are robust to extreme amounts of noise and outliers and afford performance guarantees. I present fast certifiable algorithms for object pose estimation: our algorithms are “hard to break” (e.g., are robust to 99% outliers) and succeed in localizing objects where an average human would fail. Moreover, they come with a “contract” that guarantees their input-output performance. I discuss the foundations of certifiable perception and motivate how these foundations can lead to safer systems.

The second effort targets high-level understanding. While humans are able to quickly grasp both geometric, semantic, and physical aspects of a scene, high-level scene understanding remains a challenge for robotics. I present our work on real-time metric-semantic understanding and 3D Dynamic Scene Graphs. I introduce the first generation of Spatial Perception Engines, that extend the traditional notions of mapping and SLAM, and allow a robot to build a “mental model” of the environment, including spatial concepts (e.g., humans, objects, rooms, buildings) and their relations at multiple levels of abstraction.
Certifiable algorithms and real-time high-level understanding are key enablers for the next generation of autonomous systems, that are trustworthy, understand and execute high-level human instructions, and operate in large dynamic environments and over and extended period of time

Title: A Tale of Success and Failure in Robotics Grasping and Manipulation

Abstract: In 2007, I was a naïve grad student and started to work on vision-based robotic grasping. I had no prior background in manipulation, kinematics, dynamics or control. Yet, I dove into the field by re-implementing and improving a learning-based method. While making some contributions, the proposed method also had many limitations partly due to the way the problem was framed. Looking back at the entire journey until today, I find that I have learned the most about robotic grasping and manipulation from observing failures and limitations of existing approaches – including my own. In this talk, I want to highlight how these failures and limitations have shaped my view on what may be some of the underlying principles of autonomous robotic manipulation. I will emphasise three points. First, perception and prediction will always be noisy, partial and sometimes just plain wrong. Therefore, one focus of my research is on methods that support decision-making under uncertainty due to noisy sensing, inaccurate models and hard-to-predict dynamics. To this end, I will present a robotic system that demonstrates the importance of continuous, real-time perception and its tight integration with reactive motion generation methods. I will also talk about work that funnels uncertainty by enabling robots to exploit contact constraints during manipulation.

Second, a robot has many more sensors than just cameras and they all provide complementary information. Therefore, one focus of my research is on methods that can exploit multimodal information such as vision and touch for contact-rich manipulation. It is non-trivial to manually design a manipulation controller that combines modalities with very different characteristics. I will present work that uses self-supervision to learn a compact and multimodal representation of visual and haptic sensory inputs, which can then be used to improve the sample efficiency of policy learning. And third, choosing the right robot action representation has a large influence on the success of a manipulation policy, controller or planner. While believing many years that inferring contact points for robotic grasping is futile, I will present work that convinced me otherwise. Specifically, this work uses contact points as an abstraction that can be re-used by a diverse set of robot hands.

Inclusion@RSS is excited to host a panel “On the Future of Robotics” to discuss how we can have an inclusive robotics community and its impact on the future of the field. Moderator: Matt Johnson-Roberson (University of Michigan) with Panelists: Tom Williams (Colorado School of Mines), Eduard Fosch-Villaronga (Leiden University), Lydia Tapia (University of New Mexico), Chris Macnab (University of Calgary), Adam Poulsen (Charles Sturt University), Chad Jenkins (University of Michigan), Kendall Queen (University of Pennsylvania), Naveen Kuppuswamy (Toyota Research Institute).

The RSS community is committed to increasing the participation of groups traditionally underrepresented in robotics (including but not limited to: women, LGBTQ+, underrepresented minorities, and people with disabilities), especially people early in their studies and career. Such efforts are crucial for increasing research capacity, creativity, and broadening the impact of robotics research.

The RSS Pioneers Workshop for senior Ph.D. students and postdocs, was modelled on the highly successful HRI Pioneers Workshop and took place on Saturday July 11. The goal of RSS Pioneers is to bring together a cohort of the world’s top early career researchers to foster creativity and collaborations surrounding challenges in all areas of robotics, as well as to help young researchers navigate their next career stages. The workshop included a mix of research and career talks from senior scholars in the field from both academia and industry, research presentations from attendees and networking activities, with a poster session where Pioneers will get a chance to externally showcase their research.

Content from the various workshops on July 12 and 13 may be available through the various workshop websites.

RSS 2020 Accepted Workshops

Monday, July 13

RSS 2020 Accepted Papers

The RSS Foundation is the governing body behind the Robotics: Science and Systems (RSS) conference. The foundation was started and is run by volunteers from the robotics community who believe that an open, high-quality, single-track conference is an important component of an active and growing scientific discipline.

Silicon Valley Robotics is an industry association supporting innovation and commercialization of robotics technologies.

Silicon Valley Robotics is an industry association supporting innovation and commercialization of robotics technologies.