no code implementations • 23 May 2023 • Simon K. Schnyder, John J. Molina, Ryoichi Yamamoto, Matthew S. Turner
During epidemics people may reduce their social and economic activity to lower their risk of infection.
no code implementations • 22 Dec 2022 • Krongtum Sankaewtong, John J. Molina, Matthew S. Turner, Ryoichi Yamamoto
We study how local and non-local information can be used to train a swimmer to achieve particular swimming tasks in a non-uniform flow field, in particular a zig-zag shear flow.
no code implementations • 2 May 2022 • Simon K. Schnyder, John J. Molina, Ryoichi Yamamoto, Matthew S. Turner
We find optimal interventions vary less strongly in time when interventions are costly to the government and that the critical cost of the policy switch depends on how costly interventions are.
no code implementations • 25 Mar 2022 • John J. Molina, Simon K. Schnyder, Matthew S. Turner, Ryoichi Yamamoto
We have applied the $N^3$ to study the optimal behaviour during epidemics, in which individuals can choose to socially distance depending on the state of the pandemic and the cost of being infected.
1 code implementation • 7 Apr 2021 • Harvey L. Devereux, Colin R. Twomey, Matthew S. Turner, Shashi Thutupalli
We study the collective dynamics of groups of whirligig beetles Dineutus discolor (Coleoptera: Gyrinidae) swimming freely on the surface of water.
no code implementations • 14 Dec 2020 • Jintao Li, Simon K. Schnyder, Matthew S. Turner, Ryoichi Yamamoto
We develop a simple model of the cell cycle, the fundamental regulatory network controlling growth and division, and couple this to the physical forces arising within the cell collective.
Biological Physics Soft Condensed Matter