The 2025 motile active matter roadmap
- Creators
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Gompper, Gerhard1
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Stone, Howard A2
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Kurzthaler, Christina3
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Saintillan, David4
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Peruani, Fernado5
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Fedosov, Dmitry A1
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Auth, Thorsten1
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Cottin-Bizonne, Cecile6
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Ybert, Christophe6
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Clément, Eric7, 8
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Darnige, Thierry7
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Lindner, Anke7, 8
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Goldstein, Raymond E9
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Liebchen, Benno10
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Binysh, Jack11
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Souslov, Anton9
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Isa, Lucio12
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di Leonardo, Roberto13
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Frangipane, Giacomo13
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Gu, Hongri14
- Nelson, Bradley J12
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Brauns, Fridtjof15
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Marchetti, M Cristina15
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Cichos, Frank16
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Heuthe, Veit-Lorenz14
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Bechinger, Clemens14
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Korman, Amos17
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Feinerman, Ofer18
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Cavagna, Andrea19, 13
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Giardina, Irene19, 13
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Jeckel, Hannah20
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Drescher, Knut21
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1.
Forschungszentrum Jülich
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2.
Princeton University
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3.
Center for Systems Biology Dresden
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4.
University of California, San Diego
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5.
CY Cergy Paris University
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6.
Institut Lumière Matière
- 7. Laboratoire PMMH-ESPCI, UMR 7636 CNRS-PSL-Research University, Sorbonne Université, Université Paris Cité, 75005 Paris, France
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8.
Institut Universitaire de France
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9.
University of Cambridge
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10.
TU Darmstadt
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11.
University of Amsterdam
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12.
ETH Zurich
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13.
Sapienza University of Rome
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14.
University of Konstanz
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15.
University of California, Santa Barbara
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16.
Leipzig University
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17.
University of Haifa
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18.
Weizmann Institute of Science
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19.
Institute for Complex Systems
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20.
California Institute of Technology
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21.
University of Basel
Abstract
Activity and autonomous motion are fundamental aspects of many living and engineering systems. Here, the scale of biological agents covers a wide range, from nanomotors, cytoskeleton, and cells, to insects, fish, birds, and people. Inspired by biological active systems, various types of autonomous synthetic nano- and micromachines have been designed, which provide the basis for multifunctional, highly responsive, intelligent active materials. A major challenge for understanding and designing active matter is their inherent non-equilibrium nature due to persistent energy consumption, which invalidates equilibrium concepts such as free energy, detailed balance, and time-reversal symmetry. Furthermore, interactions in ensembles of active agents are often non-additive and non-reciprocal. An important aspect of biological agents is their ability to sense the environment, process this information, and adjust their motion accordingly. It is an important goal for the engineering of micro-robotic systems to achieve similar functionality. Many fundamental properties of motile active matter are by now reasonably well understood and under control. Thus, the ground is now prepared for the study of physical aspects and mechanisms of motion in complex environments, the behavior of systems with new physical features like chirality, the development of novel micromachines and microbots, the emergent collective behavior and swarming of intelligent self-propelled particles, and particular features of microbial systems. The vast complexity of phenomena and mechanisms involved in the self-organization and dynamics of motile active matter poses major challenges, which can only be addressed by a truly interdisciplinary effort involving scientists from biology, chemistry, ecology, engineering, mathematics, and physics. The 2025 motile active matter roadmap of Journal of Physics: Condensed Matter reviews the current state of the art of the field and provides guidance for further progress in this fascinating research area.
Copyright and License
© 2025 The Author(s). Published by IOP Publishing Ltd.
Original content from this work may be used under the terms of the Creative Commons Attribution 4.0 license. Any further distribution of this work must maintain attribution to the author(s) and the title of the work, journal citation and DOI.
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Additional details
- PMCID
- PMC11836640
- National Science Foundation
- CBET-2127563
- National Science Foundation
- DMR-2011750
- National Science Foundation
- CBET-1934199
- Agence Nationale de la Recherche
- ANR-16-IDEX-0008
- European Union
- 955910
- Agence Nationale de la Recherche
- ANR-20-CE30-0034 BACMAG
- Agence Nationale de la Recherche
- ANR-22-CE30
- European Research Council
- 682367
- Institut Pierre-Gilles de Gennes pour la Microfluidique
- Agence Nationale de la Recherche
- ANR-10-EQPX-34
- Institut Universitaire de France
- Wellcome Trust
- 207510/Z/17/Z
- Gordon and Betty Moore Foundation
- 7523
- John Templeton Foundation
- 7523
- European Union
- 101106500
- Engineering and Physical Sciences Research Council
- EP/T000961/1
- European Union
- 101001514
- European Research Council
- 834615
- Swiss National Science Foundation
- 203203
- Gordon and Betty Moore Foundation
- 2919
- Simons Foundation
- 216179
- National Science Foundation
- DMR-2041459
- European Union
- 955910
- Deutsche Forschungsgemeinschaft
- 432421051
- Deutsche Forschungsgemeinschaft
- 422037984
- European Research Council
- 770964
- Israel Science Foundation
- 1727/20
- Israel Science Foundation
- 1574/24
- European Research Council
- 785932
- Ministero dell'università e della ricerca
- PRIN2020 2020PFCXPE
- Swiss National Science Foundation
- TMCG-3_213801
- Deutsche Forschungsgemeinschaft
- DR 982/6-1
- Deutsche Forschungsgemeinschaft
- SPP 2389
- Accepted
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2025-01-21
- Available
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2025-02-19Published online
- Caltech groups
- Division of Biology and Biological Engineering (BBE)
- Publication Status
- Published