Bursts of synchronized activity in ant colonies can be characterized as a phase transition, emerging as a balance between the responsiveness of the colony to the activation of a single ant and its ability to fully deactivate before the next burst.

Rare chromatin mobility transitions uncover lineage-specific nonequilibrium dynamics of chromatin remodeling in acute lymphoblastic leukemia.

This Roadmap clarifies terminology, core physics, biological roles, and key theoretical, computational, and experimental challenges to guide a coordinated effort toward a predictive understanding and control of biomolecular condensates.

A new framework provides a robust, timescale-aware way to interpret empirical interactions in ecological systems, offering practical quantitative guidance for experimental design and predictive ecosystem modeling for physicists and ecologists.

Single-molecule experiments show how specific protein domains utilize mechanical strain to relax twisted DNA, proposing modified steps in the protein’s relaxation cycle.

Driven by metabolic growth-lag trade-offs, the diversification of clonal yeast into two distinct phenotypes acts as an evolutionary rheostat that maximizes long-term fitness.

A minimal theory shows how energy-consuming enzymes determine how active membrane domain form, persist, and coarsen.

A new confocal imaging method reveals that protein folding stability inside stress granules in living cells defies expectations from test-tube studies.

Attachment and detachment of molecules to and from the internal network of a biomolecular condensate can reshape its material exchange dynamics.

Raster image correlation spectroscopy offers a nondestructive fluorescence-based method for probing biomolecular condensate properties in situ.

Knowledge of the underlying statistical structure of a molecular concentration profile enhances biological sensing precision.

Tuning elastic networks for bidirectional allostery improves cooperative binding, while a modified tuning process ensures robustness against thermal fluctuations by raising the crossover temperature.

Bursts of synchronized activity in ant colonies can be characterized as a phase transition, emerging as a balance between the responsiveness of the colony to the activation of a single ant and its ability to fully deactivate before the next burst.

Fluidity of multicellular spheroids can be determined and tuned by an effective nuclear packing metric that incorporates both nuclear occupancy and shape.

Nonlinear respiratory biomechanics in canaries broaden frequency amplification, mechanically supporting the rapid breathing rates essential for singing.

Rare chromatin mobility transitions uncover lineage-specific nonequilibrium dynamics of chromatin remodeling in acute lymphoblastic leukemia.

An automated, scalable workflow quantifies condensate wetting on flat substrates such as supported lipid membranes, enabling systematic analysis of how changes in composition modulate condensate–surface interactions.

Acoustic trapping offers a contactless way to read the mechanical “fingerprint” of soft biopolymer condensates, revealing how their stiffness shifts with environment.

A computational model reveals how chromatin condensates can create bistable heterochromatin states, linking molecular interactions, diffusing cofactors, 3D genome organization, and epigenetic memory.

Species-specific oxygen affinities and consumption rates shape the formation of distinct bacterial layers, guiding the dynamic spatial segregation of multispecies communities near air-water interfaces.

An adapted AlphaFold docking model bypasses sequence alignments to predict protein complexes, successfully resolving structures where traditional co-folding methods fail.

A stochastic population model suggests why natural selection may favor either immediate or strongly delayed reproduction, while making intermediate waiting times less advantageous.

Motivated by recent experimental observations, a theory combining growth kinetics, diffusion and percolation suggests that negative feedback through monomer depletion explains the coexistence of branched actin networks.

Increasing the connectivity of a small fraction of components bypasses kinetic bottlenecks, explaining how assembly factors accelerate the self-assembly of large protein complexes.

By mimicking biological brain noise, this work shows that activity-dependent fluctuations drive the emergence of modular architectures in artificial neural networks, improving robustness and generalization.

Physical confinement acts as a control parameter that optimizes protein-free homologous DNA pairing by balancing rapid diffusion-limited search with the avoidance of kinetic trapping.

A fundamental tradeoff between metabolic controllability and thermodynamic cost explains how environmental complexity shapes the evolution of cellular currency-metabolite pools.

An information-theoretic model shows that, under limited molecular resources, information transmission is maximized by distributing expression across many noisy target genes.

Analysis of nearly 200 human gut microbiome datasets shows that microbial coexistence is governed by a few effective ecological dimensions, rather than the high-dimensional niches assumed by prevailing theory.