Evaluated articles

eLife Assessment

This manuscript reports an important new statistical method for calculating the significance of correlations between two time-series, which provides more accuracy than other methods when the data has few replicates. The proposed method solves a real-life problem that is frequently encountered and is broadly applicable to many realistic datasets in many experimental contexts. The technique is supported with compelling mathematical derivations as well as analysis of both computer-generated and previously published experimental data.

eLife Assessment

This study provides important evidence that the postmating behavioral switch in male mice is mediated by distinct stages of synaptic plasticity within the medial amygdala-MPOA-BSTrh pathway. The findings are convincing, supported by rigorous behavioral characterization and electrophysiological approaches that disentangle the contributions of mating, cohabitation, and parental experience to neural circuit changes. While some methodological details and statistical reporting require clarification, the study significantly advances our understanding of the neural mechanisms underlying paternal behavior.

eLife Assessment

This important study reports a detailed computational analysis of the CFTR ion channel's permeation mechanism, advancing our understanding of its structure-function relationship. The conclusions are based on extensive molecular dynamics simulations and thorough analysis, but the use of an approximate chloride ion model, known to underestimate key ion-protein interactions, leaves them incomplete without experimental or alternative computational validation. The work will be of interest to biophysicists working on CFTR and cystic fibrosis.

eLife Assessment

Rennert et al. developed a valuable thermodynamic framework to study the force response of branched actin networks from the crucial and unexplored perspective of energetic cost. They used the fact that the entropy production rate must be positive to derive inequalities that set limits on the maximum force produced by branched actin networks, and speculate that the dissipative cost beyond that required to move the load may be necessary to maintain an adaptive steady state. This work is highly innovative, but remains incomplete until the hypotheses of the model are better justified and the conclusions about the dissipative cost of the system are better established.