6.17 Caleb Meredith Penn State, Predator–prey interactions between droplets driven by non-reciprocal oil exchange
6.24 Sandra Heckel, TU Dresden, Progress Report on pH-Influenced Photocatalysis for Active Motion
7.1 Shoupeng Cao, Photoactivated nanomotors via aggregation induced emission for enhanced phototherapy
7.8 Changjin Wu, Hongkong University, Ion-exchange enabled synthetic swarm
7.15 Ugur Bozuyuk, MPI, Shape anisotropy-governed locomotion of surface microrollers on vessel-like microtopographies against physiological flows
7.22 Stefania Ketzetzi, Leiden University, Diffusion-based height analysis reveals robust microswimmer-wall separation
7.29 Fengtong, Citu University of Hongkong, Propulsion Gait Analysis and Fluidic Trapping of Swinging Flexible Nanomotors"
7.29 Hong Zhu, Fudan University, Self-powered locomotion of a hydrogel water strider
8.5 Tania Patiño, Institute for Bioengineering of Catalonia, Swarming behavior and in vivo monitoring of enzymatic nanomotors within the bladder
8.5 Ambika Somasundar, Penn State University, Positive and negative chemotaxis of enzyme-coated liposome motors Ayusman Sen
8.12 Babak Nasouri, Max Planck Institute for Dynamics and Self-Organization, Exact Phoretic Interaction of Two Chemically Active Particles; Exact axisymmetric interaction of phoretically active Janus particles
8.19 Jie Zhang, Institute of Basic Sciences, Center for Soft and Living Matters, Active phase separation by turning towards regions of higher density
8.26 Friedrich Striggow, IFW Leibniz, Micromotor-mediated sperm constrictions for improved swimming performance
9.2 Xianglong Lyu, Harbin Institute of Technology (Shenzhen), Active, Yet Little Mobility: Asymmetric Decomposition of H2O2 Is Not Sufficient in Propelling Catalytic Micromotors
9.2 Fangyu Zhang, UCSD ACE2 Receptor-Modified Algae-Based Microrobot for Removal of SARS-CoV-2 in Wastewater
9.9 Ayusman Sen, Penn State University "Invited Lecture Nanomotors Roadmap: A Personal View"
9.16 Gerardo Salinas, University of Bordeaux, Lorentz Force-Driven Autonomous Janus Swimmers
9.23 Diana Cholakova, Sofia University, Rechargeable self-assembled droplet microswimmers driven by surface phase transitions
9.23 Laura Alvarez, ETH Zurich, Reconfigurable artificial microswimmers with internal feedback
9.30 Debayan Dasgupta, Centre for Nano Science and Engineering, Indian Institute of Science, Nanorobots Sense Local Physiochemical Heterogeneities of Tumor Matrisome
9.30 Shuailong Zhang, University of Toronto, Reconfigurable multi-component micromachines driven by optoelectronic tweezers
10.7 Walter Paxton, BYU, A Brief History of Catalytic Nanomotors
10.14 Haichao Wu, University of Colorado, Boulder, Mechanisms of transport enhancement for self-propelled nanoswimmers in a porous matrix
10.21 Boris Kichatov, P.N. Lebedev Physical Institute of the Russian Academy of Sciences, Crystallization of active emulsion
10.21 Zhe Xu, NYU, Transmembrane transport in inorganic colloidal cell-mimics
10.28 Audrey Nsamela, TU Dresden, Microfluidics for Microswimmers: Engineering Novel Swimmers and Constructing Swimming Lanes on the Microscale, a Tutorial Review
10.28 Jeff McNeil, U Penn, Purely Viscous Acoustic Propulsion of Bimetallic Rods
11.4 Zihan Ye, Harbin Institute of Technology (Shenzhen), Construction of Nanomotors with Replaceable Engines by Supramolecular Machine-Based Host–Guest Assembly and Disassembly
11.11 Tian Huang, Center for Soft and Living Matters, IBS, Molecules, the Ultimate Nanomotor: Linking Chemical Reaction Intermediates to their Molecular Diffusivity
11.11 Johannes Frueh, Harbin Institute of Technology, Propulsion Mechanisms of Light-Driven Plasmonic Colloidal Micromotors
11.18 Falko Schmidt, University of Gothenburg, Active droploids
11.25 Jiarong Zhou, UCSD, Physical Disruption of Solid Tumors by Immunostimulatory Microrobots Enhances Antitumor Immunity