activity
20242026
most citedPhysics of droplet regulation in biological cells

4 citations · 14 across the 15 of their papers we have counts for

collaborators

19 papers

cond-mat.soft2026

Phase coexistence and nucleation of aging condensates

Yicheng Qiang, Chengjie Luo, David Zwicker

Biomolecular condensates form by phase separation and often age over time by transitioning from liquid-like droplets to solid-like states. To capture the fundamental behavior of ag…

cond-mat.soft2026

Fluctuating chemically active droplets

Guido L. A. Kusters, Noah Ziethen, Michael E. Cates +1

We study size fluctuations of chemically active droplets in the regime of weak reactions and strong phase separation. By combining a thin-interface model for the deterministic drop…

cond-mat.soft2026

Speed up of passive tracers in mixtures with active chemical reactions

Filipe C. Thewes, Chengjie Luo, David Zwicker

Diffusivity of passive tracers in complex mixtures is widely relevant for industrial applications and for probing biological systems. Interactions with the surrounding medium typic…

cond-mat.soft2026

Phase diagram morphology shapes droplet propulsion in chemical gradients

Stefan Köstler, Malcolm Steen, David Zwicker

Droplets in complex environments often encounter compositional gradients that drive their propulsion. For example, surfactant gradients induce surface-tension-driven propulsion via…

physics.bio-ph2026

Oscillating concentrations suppress condensate coarsening

Mathias S. Heltberg, Lukas H. Kristensen, Mogens H. Jensen +1

Living cells utilize condensates to spatially concentrate molecules in response to dynamic signals. For instance, nuclear condensates respond to oscillations in transcription facto…

physics.bio-ph2026

Intermediate physical interactions induce spatiotemporal dynamics in Turing patterns

Cathelijne ter Burg, David Zwicker

Turing patterns are a central paradigm for describing spatial patterns in nature. The corresponding theory of reaction-diffusion dynamics combines ideal diffusion with nonlinear re…

physics.bio-ph2026

Roadmap for Condensates in Cell Biology

Dilimulati Aierken, Sebastian Aland, Stefano Bo +38

Biomolecular condensates govern essential cellular processes yet elude description by traditional equilibrium models. This roadmap, distilled from structured discussions at a works…

cond-mat.soft2025

Molecular simulations of phase separation in elastic polymer networks

Takahiro Yokoyama, Yicheng Qiang, David Zwicker +1

Phase separation within polymer networks plays a central role in shaping the structure and mechanics of both synthetic materials and living cells, including the formation of biomol…

cond-mat.soft2025★ 1 cited

Phase separation with non-local interactions

Filipe C. Thewes, Yicheng Qiang, Oliver W. Paulin +1

Phase separation in complex systems is a ubiquitous phenomenon. While simple theories predict coarsening until only macroscopically large phases remain, concrete models often exhib…

cond-mat.soft2025★ 3 cited

Advection selects pattern in multistable emulsions of active droplets

Stefan Köstler, Yicheng Qiang, Guido Kusters +1

Controlling the size of droplets, for example in biological cells, is challenging because large droplets typically outcompete smaller droplets due to surface tension. This coarseni…

physics.bio-ph2025★ 1 cited

Physical interactions enable energy-efficient Turing patterns

Cathelijne ter Burg, David Zwicker

Patterns are ubiquitous in nature, but how they form is often unclear. Turing developed a seminal theory to explain patterns based on reactions that counteract the equalizing tende…

cond-mat.soft2025

Dynamics of phase separation in non-local elastic networks

Oliver W. Paulin, Yicheng Qiang, David Zwicker

Phase separation of a liquid mixture embedded within an elastic network is relevant to a wide range of natural and industrial systems, including biomolecular condensates interactin…

cond-mat.soft2025

Self-propulsion via non-transitive phase coexistence in chemically active mixtures

Yicheng Qiang, Chengjie Luo, David Zwicker

Phase separation drives the formation of biomolecular condensates in cells, which comprise many components and sometimes possess multiple phases. The equilibrium physics of phase s…

physics.bio-ph2025

Could Living Cells Use Phase Transitions to Process Information?

Arvind Murugan, David Zwicker, Charlotta Lorenz +1

To maintain homeostasis, living cells process information with networks of interacting molecules. Traditional models for cellular information processing have focused on networks of…

physics.bio-ph2025★ 1 cited

Active viscoelastic condensates provide controllable mechanical anchor points

Oliver W. Paulin, Júlia Garcia-Baucells, Luise Zieger +3

Many biological materials must couple mechanical strength with the ability to rapidly self-assemble at a specific location. In particular, biomolecular condensates readily self-ass…

cond-mat.soft2025

Chemically active droplets in crowded environments

Jacques Fries, Roxanne Berthin, Chengjie Luo +4

Biomolecular condensates are essential for cellular organization and result from phase separation in systems far from thermodynamic equilibrium. Among various models, chemically ac…

physics.bio-ph2025★ 4 cited

Physics of droplet regulation in biological cells

David Zwicker, Oliver W. Paulin, Cathelijne ter Burg

Droplet formation has emerged as an essential concept for the spatiotemporal organisation of biomolecules in cells. However, classical descriptions of droplet dynamics based on pas…

cond-mat.soft2024★ 2 cited

Condensate Size Control by Net Charge

Chengjie Luo, Nathaniel Hess, Dilimulati Aierken +3

Biomolecular condensates are complex droplets comprising diverse molecules that interact using various mechanisms. Condensation is often driven by short-ranged attraction, but net…

cond-mat.soft2024★ 2 cited

Generic multicomponent mixtures are multistable

Yicheng Qiang, Chengjie Luo, David Zwicker

Liquid mixtures of many interacting components often exhibit numerous coexisting types of droplets. An exciting example is the cytosol of biological cells, where diverse droplets,…