Michael Rubenstein Curriculum Vitae

Transcription

1 Michael Rubenstein Curriculum Vitae McCormick School of Engineering Northwestern University Evanston, IL web: users.eecs.northwestern.edu/~mrubenst/ Research Interests and Experience Multi-Robot Systems & Swarm Robotics Modular Self-Reconfigurable Robots Multi-Agent Systems Bio-Inspired Robots Self-Assembling & Self-Healing Systems Embedded Systems Education Robots Education Ph.D. Computer Science, University of Southern California, Los Angeles, CA 2009 Thesis: Self-Assembly and Self-Healing for Robotic Collectives Advisor: Wei-Min Shen M.S. Electrical Engineering, University of Southern California, Los Angeles, CA 2005 Area of Concentration: Robotics B.S. Electrical Engineering Purdue University, West Lafayette, IN 2003 Areas of Concentration: Control, Microprocessor Systems Professional Appointments Assistant Professor Department of Electrical Engineering and Computer Science Department of Mechanical Engineering Northwestern University 2015-Present Researcher School of Engineering and Applied Sciences Wyss Institute for Biologically Inspired Engineering Harvard University Postdoctoral Fellow School of Engineering and Applied Sciences Wyss Institute for Biologically Inspired Engineering Harvard University Research Assistant Polymorphic Robotics Laboratory University of Southern California, Information Sciences Institute Teaching Assistant University of Southern California CS 561: Foundations of Artificial Intelligence 2006 CS 547: Sensing and Planning in Robotics 2004

2 Grants, Awards, and Notable Achievements Report published in the journal Science, August 15, Funded grant: Engineering Self Organizing Systems: Investigating Top Down Synthesis of Resilient Collectives Using a 1000 Robot Experimental Platform, DARPA (BAA-FP-027) Funded grant: Collective Robotics for Life Scientists, NSF (DUE ) st place winner, AFRON Ultra Affordable Education Robot Design Challenge, 2012, Kilobot robot commercially licensed to K-TEAM Corporation, starting September Submitted grant: Living Architectures: From Army Ants to Self-assembling Robot Swarms, NSF Robust Intelligence program (submitted Nov 2014). Journal Publications Michael Rubenstein, Alejandro Cornejo, Radhika Nagpal. Programmable Self -Assembly in a Thousand Robot Swarm. Science, Vol. 345, no 6198, 15 Aug Michael Rubenstein, Christian Ahler, Nick Hoff, Adrian Cabrera, Radhika Nagpal. Kilobot: A Low Cost Robot with Scalable Operations Designed for Collective Behaviors. Robotics and Autonomous Systems, 62, no. 7: , Michael Rubenstein, Ying Sai, Cheng-Ming Choung, Wei-Min Shen. Regenerative Patterning in Swarm Robots: Mutual Benefits of Research in Robotics and Stem Cell Biology. The International Journal of Developmental Biology, 53: , Wei-Min Shen, Maks Krivokon, Harris Chiu, Jacob Everist, Michael Rubenstein, Jagadesh Venkatesh. Multimode Locomotion for Reconfigurable Robots. Autonomous Robots, 20(2): , Peer Reviewed Conference Publications Michael Rubenstein, Bo Cimino, Radhika Nagpal, Justin Werfel. AERobot: An Affordable One - Robot-Per-Student System for Early Robotics Education. IEEE Intl. Conf. on Robotics and Automation (ICRA), Lucian Cucu, Michael Rubenstein, Radhika Nagpal. Towards Self-Assembled Structures with Mobile Climbing Robots. IEEE Intl. Conf. on Robotics and Automation (ICRA), Michael Rubenstein, Adrian Cabrera, Justin Werfel, Golnaz Habibi, James McLurkin, Radhika Nagpal. Collective Transport of Complex Objects by Simple Robots: Theory and Experiments. Intl. Conf on Autonomous Agents and Multi-Agent Systems (AAMAS), Aaron Becker, Golnaz Habibi, Justin Werfel, Michael Rubenstein, James McLurkin. Massive Uniform Manipulation: Controlling Large Populations of Simple Robots with a Common Input Signal. IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Michael Rubenstein, Christian Ahler, Radhika Nagpal. Kilobot: A Low Cost Scalable Robot System for Collective Behaviors. IEEE Intl. Conf. on Robotics and Automation (ICRA), Michael Rubenstein, Wei-Min Shen. Automatic Scalable Size Selection for the Shape of a Distributed Robotic Collective. IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Michael Rubenstein, Radhika Nagpal. Kilobot: A Robotic Module for Demonstrati ng Collective Behaviors. Modular Robotics Workshop, IEEE Intl. Conf. on Robotics and Automation (ICRA),

3 Michael Rubenstein, Wei-Min Shen. Scalable Self-Assembly and Self-Repair in a Collective of Robots. IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Harris Chi Ho Chiu, Bo Ryu, Hua Zhu, Pedro Szekely, Rajiv Maheswaran, Craig Rogers, Aram Galstyan, Behnam Salemi, Mike Rubenstein, Wei-Min Shen. TENTACLES: Self-Configuring Robotic Radio Networks in Unknown Environments. IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Wei-Min Shen, Robert Kovac, Michael Rubenstein. SINGO: A Single-End-Operative and Genderless Connector for Self-Reconfiguration, Self-Assembly and Self-Healing. IEEE Intl. Conf. on Robotics and Automation (ICRA), Michael Rubenstein, Wei-Min Shen. A Scalable and Distributed Approach for Self-Assembly and Self-Healing of a Differentiated Shape. IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Michael Rubenstein, Wei-Min Shen. A Scalable and Distributed Model for Self-Organization and Self-Healing. Intl. Conf on Autonomous Agents and Multi-Agent Systems (AAMAS), Wei-Min Shen, Harris Chiu, Michael Rubenstein, Behnam Salemi. Rolling and Climbing by the Multifunctional Superbot Reconfigurable Robotic System. Space Technology and Applications Intl. Forum (STAIF), Harris Chiu, Michael Rubenstein, Wei-Min Shen. Deformable Wheel - A Self-Recovering Modular Rolling Track. Intl. Symposium on Distributed Robotic Systems (DARS), Harris C. H. Chiu, Michael Rubenstein, Wei-Min Shen. Multifunctional Superbot with Rolling Track Configuration. Workshop on Self-Reconfigurable Robots, IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Wei-Min Shen, Maks Krivokon, Harris Chiu, Jacob Everist, Michael Rubenstein, Jagadesh Venkatesh. Multimode Locomotion Via Superbot Robots. IEEE Intl. Conf. on Robotics and Automation (ICRA), Michael Rubenstein, Maks Krivokon, Wei-Min Shen. Robotic Enzyme-Based Autonomous Self- Replication. IEEE Intl. Conf. on Intelligent Robots and Systems (IROS), Michael Rubenstein, Kenneth Payne, Peter Will, Wei-Min Shen. Docking Among Independent and Autonomous CONRO Self-Reconfigurable Robots. IEEE Intl. Conf. on Robotics and Automation (ICRA), Research Projects Self-assembly in 1024 Robot Swarm Harvard University Self-assembly enables nature to build complex forms, from multicellular organisms to complex animal structures such as flocks of birds, through the interaction of vast numbers of limited and unreliable individuals. Creating this ability in engineered systems poses challenges in the design of both algorithms and physical systems that can operate at such scales. In this work I demonstrated programmable self-assembly of complex two-dimensional shapes with a thousand-robot swarm. This was enabled by creating autonomous robots designed to operate in large groups and to cooperate through local interactions and by developing a collective algorithm for shape formation that is highly robust to the variability and error characteristic of large-scale decentralized systems. This work advances the aim of creating artificial swarms with the capabilities of natural ones. 3

4 Kilobot Harvard University Kilobot is a low-cost robot designed to make testing collective algorithms on hundreds or thousands of robots accessible to robotics researchers. I designed and built 1024 Kilobot robots and used them to test algorithms such as collective transport and shape formation on a large multi-robot system. To the best of our knowledge, this group of 1024 robots is by far the largest cooperating group of distributed robots ever built. All software and hardware related to Kilobots was made freely available with open source non-commercial licensing. In addition, Kilobot has been commercially licensed to K-TEAM Corporation starting in September 2011, and is used as a research platform by over 10 academic research labs. AERobot Education Robot Harvard University AERobot (Affordable Education Robot) is a low-cost robot designed to introduce students of all ages to the fundamentals of programming and control of robots, with the hope of inspiring them to further pursue studies in Science, Technology, Engineering and Math (STEM). AERobot s low cost ($10.70 including assembly) will enable more students, especially those who could not normally afford to do so, to gain hands-on experience in robotics. In addition to robot design, I created a software suite for the robot by modifying minibloqs, a graphical programming language, and created a 15 lesson curriculum for a student with no previous experience to learn the basics of programming flow and logic, the use of sensors and actuators, and to create robot behaviors. AERobot has already been used in three pilot sessions of a one week summer camp course for 50 students in 2014, and we are planning on extending this to students for the summer of Ph.D. Dissertation University of Southern California For my Ph.D. thesis, I developed a control algorithm for a simple simulated multi-robot system which guarantees that it can self-assemble and self-heal any desired connected shape. This control algorithm allows a group of decentralized robots to form a desired shape at a size proportional to the current number of robots, without direct knowledge of that number. If the group shape is damaged by moving, adding, or removing some robots, the robot group will reform the desired shape at a size proportional to the new number of robots. Superbot University of Southern California Superbot is a modular self-reconfigurable robot (MSR) which I helped to develop while at USC. It was developed for a NASA grant to advance MSRs so that they can operate outside of the laboratory environment, advancing the system closer to the idea of a space-qualified MSR. To satisfy this grant, Superbot climbed over 100 meters on steep sand dunes, traversed over a kilometer on battery power, and navigated rough rocky terrain, all of which had never been done with a MSR before. Landroids University of Southern California For the Landroids project, I helped develop algorithms for intelligent, mobile, autonomous radio relay nodes which exploit movement to establish and manage mesh networks in an urban setting. This network enabled effective communications in the complex non-line-of-sight environments found in urban settings, and dealt with radio phenomena like fades and shadows through strategic self-placement and chaining of the relays. Additionally, if the environment changed, or a node failed, the network could self-heal by adjusting the position of some or all of the remaining nodes. 4

5 Conro University of Southern California Conro was an early prototype of a modular self-reconfigurable robot (MSR) designed to test hardware designs and to demonstrate algorithms and control for this new class of robots. It demonstrated the ability to use a decentralized algorithm to autonomously self-reconfigure its overall shape and adapt its movement according to the new shape. I used Conro to demonstrate, for the first time, that two MSRs could join together to become a single, larger MSR. The lessons learned from Conro were later used to create Superbot. Spot Purdue University While a student at Purdue, I helped the Purdue Solar Racing Team to build, test, and race a solar-powered car. This car, called Spot, was designed and built by a diverse group of students from all fields of engineering. This car was a complete solar-electric vehicle, running off of solar power only. We raced Spot in multiple solar car races, including the 2003 North American Solar Challenge which ran from Chicago to Los Angeles. Robot Demonstrations, Talks, and Outreach Design and Control of a Thousand-Robot Collective o Invited Talk, micro-nano robotic swarms workshop, IROS BugBots: Programming Mini-Robots o I2 STEM summer camp course for 5 th -8 th graders, Robobee Exhibit, Boston Museum of Science, Technical advisor, Kilobot: An Open Source Research Robot o Invited demo, Open Hardware Summit, Massachusetts Institute of Technology, September Kilobot: A 1024 Robot Platform for Implementing Collective Behaviors o Invited talk, Northwestern Institute on Complex Systems seminar, Northwestern University, December Creating a More Adaptable Robot With Multi-Robot Systems o Invited talk, BBN Cambridge, May Planetary Contingency Challenge o 1 st place winner, IEEE International Conference on Robotics and Automation (ICRA), "Harvard Bio-Inspired Robotics" o Boston Museum of Science, (National Robotics Week), April "Kilobot: Demonstrating a 100 Robot Swarm" o Demonstration Session, Int l. Conference on Intelligent Robots and Systems, September "Bots That Mimic Bugs" o Cambridge Science Festival, May "Harvard Bio-Inspired Robotics" o Boston Museum of Science, (National Robotics Week), April "Superbot Reconfigurable Robot Demonstration" o Multi-Robot Teaming Challenge and Robotics Exhibition, International Joint Conference on Artificial Intelligence (IJCAI), June Planetary Contingency Challenge o Competition using Superbot, 1 st place winner, IEEE International Conference on Robotics and Automation (ICRA),

6 "Self-Reconfigurable Robotics" o Wired NextFest, Los Angeles Convention Center, September Select Media Coverage BBC News: "Thousand-strong robot swarm throws shapes, slowly", 15 Aug Wall Street Journal: "Harvard Scientists Devise Robot Swarm That Can Work Together", 15 Aug NPR: All Things Considered" Do Not Fear This Giant Robot Swarm", Aired 14 Aug National Science Foundation news: "The 1,000-robot swarm", 14 Aug National Geographic: "A Swarm of a Thousand Cooperative, Self-Organizing Robots", 14 Aug Nature News: "Researchers create 1,000-robot swarm", 14 Aug Scientific American: "1,000-Robot Swarm Created by Researchers", 14 Aug Slashdot: "A Thousand Kilobots Self-Assemble Into Complex Shapes", 14 Aug IEEE Spectrum: "A Thousand Kilobots Self-Assemble Into Complex Shapes", 14 Aug Wired: "Scientists Program Largest Swarm of Robots Ever", 14 Aug ACM Communications Magazine: "Rise of the Swarm", March Scientific America Magazine, March Slashdot: "African Robotics Network Challenge Spurs Rash of $10 Robots", September Wired: "These $10 Robots Will Change Robotics Education", September Inside Nova: "Adventures in Swarm Robotics", September Slashdot: "Harvard Licenses Technology For Tiny Swarming Robot", November RobotsPodCast: "Robots: Demonstrations at IROS", October IEEE Spectrum: "Kilobots Are Cheap Enough to Swarm in the Thousands", June Slashdot: "Kilobots - Cheap Swarm Robots Out of Harvard", June New Scientist: "Born to be Viral: Robot Swarm Forages for Food", June Make Magazine: "Harvard's $14 Swarm-bot Design", June Engaget: "Harvard's Kilobot Project Does Swarm Robots On The Cheap", June Popular Science: "Introducing Kilobot, a Swarm Robot Cheap Enough to Actually Swarm", June BBC: "Visions of the Future - The Intelligence Revolution", Discovery Channel: "Beyond Tomorrow", November Professional Activities Conference Organization Co-organizer: Workshop on Modular and Swarm Systems, IROS Program Committee: ANTS- International Conference on Swarm Intelligence, Program Committee: International Workshop on Robotic Sensor Networks, Reviewer IEEE International Conference on Robotics and Automation (ICRA) IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS) Journal of Autonomous Agents and Multi-Agent Systems IEEE Transactions on Robotics (T-RO) Robotica Journal Robotics and Autonomous Systems Journal IEEE Transactions on Automation Science and Engineering Distributed Autonomous Robotic Systems (DARS) 6

7 Mentoring and Advising Lucian Cucu, visiting M.S. student (EPFL), Thesis: Towards Self-Assembled Structures with Mobile Climbing Robots. Adrian Cabrera, visiting M.S. student (EPFL), Thesis: Collective Transport in Large Swarms of Simple Robots. Bo Cimino, summer REU student, Programming Environment for the AERobot Education Robot. Afrida Chowdhury, summer REU student, A Volumetric Capacitive Sensor for Modeling Ant Self- Assemblages. 7