Active matter exhibits a wealth of emerging nonequilibrium behaviours. A paradigmatic
example is the interior of cells, where active components, such as the cytoskeleton, are …

Recent advances in constructing a structured DNA assembly whose configuration can be
dynamically changed in response to external stimuli have demanded the development of an …

We develop a rigid multiblob method for numerically solving the mobility problem for
suspensions of passive and active rigid particles of complex shape in Stokes flow in …

We present a new method for sampling stochastic displacements in Brownian Dynamics
(BD) simulations of colloidal scale particles. The method relies on a new formulation for …

Precise control at the colloidal scale is one of the most promising bottom–up approaches to
fabricating new materials and devices with tunable and precisely engineered properties …

We introduce numerical methods for simulating the diffusive motion of rigid bodies of
arbitrary shape immersed in a viscous fluid. We parameterize the orientation of the bodies …

We develop an immersed boundary (IB) method for modeling flows around fixed or moving
rigid bodies that is suitable for a broad range of Reynolds numbers, including steady Stokes …

Spontaneous emergence of correlated states such as flocks and vortices is a prime example
of collective dynamics and self-organization observed in active matter,,,,–. In geometrically …

We present a numerical study of the dynamics of an elastic fibre in a shear flow at low
Reynolds number, and seek to understand several aspects of the fibre's motion using the …

The Rotne–Prager–Yamakawa (RPY) approximation is a commonly used approach to
model the hydrodynamic interactions between small spherical particles suspended in a …