Additional details about special sessions will be posted as they become available.
Monday, November 2, 2026
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Robotics has long been an area of intense research, but recent years have focused on the development of micro-/nano-sized robots (MNRs) that can be manipulated using magnetic fields. This tutorial will explain the fundamentals of MNRs: how they work, how they are fabricated and how they navigate, followed by their game-changing role in biomedicine, environmental remediation, and food quality.
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Hongsoo Choi
University of Massachusetts Amherst
Hongsoo Choi is Professor in the Department of Biomedical Engineering and Associate Director of the Center for Bioactive Delivery at the Institute for Applied Life Sciences, University of Massachusetts Amherst. He is a Fellow of the Institute of Electrical and Electronics Engineers (IEEE), the Asia-Pacific Artificial Intelligence Association (AAIA), and the Korean Academy of Science and Technology (KAST). He received his Ph.D. in Mechanical Engineering from Washington State University. He previously served as Chair of the Department of Robotics and Mechatronics Engineeringat DGIST in South Korea (2019–2023), where he led the development of major research centers and international collaborations with institutions including ETH Zürich and the Chinese University of Hong Kong. His work has earned numerous awards, including the Prime Minister's Commendation for Science, Information and Communication Day of Korea (2020), the National Intellectual Property Award from the Presidential Council on Intellectual Property of Korea(2019), and recognition as one of the top 10 Korean mechanical technologists in 2022 and 2023. His research pioneers next-generation technologies at the intersection of micro/nanorobotics, biomedical devices, magnetic cell and genetherapy, BioMEMS/NEMS, and intelligent medical systems, integrating robotics, engineering, medicine, biology, and AI toaddress critical challenges in human health.
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Tutorial: Applications of Magnetic Micro/Nano Robots
— • TutorialRobotics has long been an area of intense research, but recent years have focused on the development of micro-/nano-sized robots (MNRs) that can be manipulated using magnetic fields. This tutorial will explain the fundamentals of MNRs: how they work, how they are fabricated and how they navigate, followed by their game-changing role in biomedicine, environmental remediation, and food quality.
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Aloha! Kick off the conference by mixing and mingling island style on Waikiki’s largest private oceanfront grass lawn. Enjoy delicious local cuisine, the sounds of soothing Hawaiian music, and the gorgeous site of the Duke Kahanamoku Lagoon!
Welcome Reception
— • SocialAloha! Kick off the conference by mixing and mingling island style on Waikiki’s largest private oceanfront grass lawn. Enjoy delicious local cuisine, the sounds of soothing Hawaiian music, and the gorgeous site of the Duke Kahanamoku Lagoon!
Tuesday, November 3, 2026
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Nuclear fusion has recently become a possible source of commercial green energy. This session will explain the fundamentals of nuclear fusion (what it is, how we can do it on earth, and basic reactor design) before discussing the impact of very large magnetic fields on the materials used to build the reactors, namely superconductors and steels.
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Polina Ermoshkina
Commonwealth Fusion Systems
Polina Ermoshkina is a Materials Engineer at Commonwealth Fusion Systems, where she investigates the electromagnetic properties of metals in extreme environments. A dual-degree graduate of Cornell University in Materials Science and Physics, her prior experience includes propulsion materials development at SpaceX and compositionally complex alloy research at Cornell's Laboratory of Advanced Materials and Manufacturing (LAMM). At CFS, she currently focuses on building out an electromagnetic property database and providing materials process engineering support for functional metals.
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Special Session: Magnetism in Nuclear Fusion
— • Special SessionNuclear fusion has recently become a possible source of commercial green energy. This session will explain the fundamentals of nuclear fusion (what it is, how we can do it on earth, and basic reactor design) before discussing the impact of very large magnetic fields on the materials used to build the reactors, namely superconductors and steels.
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All graduate students are invited to this networking session that will include snacks, giveaways and games!
Students in Magnetism Networking Event
— • Networking EventAll graduate students are invited to this networking session that will include snacks, giveaways and games!
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Wednesday, November 4, 2026
Thursday, November 5, 2026
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This topic bridges magnetism, biology, and quantum physics, offering rich interdisciplinary insights. Three distinguished experts will offer a comprehensive perspective on magnetoreception, from molecular mechanisms to behavioral ecology and quantum biology.
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Peter J. Hore
University of Oxford, UK
Prof. Hore is renowned for his work on the quantum mechanics underlying magnetoreception. He has extensively studied the radical pair mechanism, particularly how cryptochrome proteins in birds' eyes can act as magnetic sensors. His research bridges chemistry, physics, and biology, shedding light on the quantum phenomena that enable animals to perceive Earth's magnetic field.
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Kenneth J. Lohmann
University of North Carolina at Chapel Hill
Prof. Lohmann is a leading authority on magnetoreception in marine animals, particularly sea turtles. His research has demonstrated that sea turtles possess both magnetic compass and map senses, enabling them to navigate vast ocean distances. Recent studies from his lab have uncovered that these animals can detect minute variations in Earth's magnetic field, providing a comprehensive geomagnetic map for navigation.
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Henrik Mouritsen
University of Oldenburg, Germany
Prof. Mouritsen's work focuses on the neural and molecular mechanisms of magnetoreception in migratory birds. He has provided compelling evidence that birds use a light-dependent magnetic compass, likely mediated by cryptochrome proteins in their eyes. His interdisciplinary approach combines behavioral experiments with neurobiology and quantum physics, offering deep insights into how animals integrate magnetic information for navigation.
The Magnetic Compass of Life: Special Session
— • Special SessionThis topic bridges magnetism, biology, and quantum physics, offering rich interdisciplinary insights. Three distinguished experts will offer a comprehensive perspective on magnetoreception, from molecular mechanisms to behavioral ecology and quantum biology.
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