From static papers to living models: turning limb development research into interactive science
Peer-Reviewed Publication
Updates every hour. Last Updated: 22-Dec-2025 11:11 ET (22-Dec-2025 16:11 GMT/UTC)
LimbNET, a new open-access and user-friendly platform from EMBL Barcelona, enables scientists to simulate how gene networks pattern the embryonic limb as it develops, integrating data on gene expression over time and space with live 2D modelling. By centralising models and simulations, LimbNET aims to foster collaboration, transparency, and cumulative knowledge-building within the global limb development community. The platform represents a new mode of scientific publishing by allowing researchers to share fully interactive models – data, equations, and simulations – through a single integrated portal, promoting reproducibility and engagement with published research.
A recently published article (https://doi.org/10.1093/biosci/biaf181) in the journal BioScience has revealed a surprising opportunity for conserving threatened species: sports teams and their branding.
The research, led by Dr. Ugo Arbieu of Université Paris-Saclay in France, analyzed 727 sporting organizations across 50 countries and 10 team sports. The authors found that "threatened species and species with a declining population trend are more represented than other species, with differences across regions."
A new international study reveals that nearly 25% of professional sports teams worldwide use a wild animal in its name, logo, or fan identity, presenting a powerful and largely untapped opportunity to support biodiversity conservation. The researchers argue that sport organisations could actively support conservation for their chosen mascot through awareness campaigns, partnerships with NGOs, and funding for habitat protection.
Mitochondria integrally influence plant growth, fertility and adaptation. Notably, multiple chromosomal configurations are present in Saccharum complex mitogenomes. There are substantial genomic reorganization and gene transfer events throughout evolution.
For the first time, a new high-resolution microscopy technique has allowed researchers to watch live as influenza viruses infect cells.
The international team led by ETH Zurich found that the cells actively promote virus uptake.
This technique could now help to develop antiviral therapies in a more targeted manner.
The multidrug-resistant pathogen Acinetobacter baumannii (A. baumannii) is a global health concern. Its surface capsular polysaccharides and lipopolysaccharides, which are structurally diverse and often contain rare, non-classical sugars, are major virulence factors. These glycans represent promising targets for novel therapeutics. Notably, glycoconjugate vaccines based on these structures elicit protective antibodies and confer effective immunity in animal models, highlighting their potential for combating infections.
GPI anchoring is indispensable for cell-wall integrity and full virulence of the maize pathogen Cochliobolus heterostrophus. Deletion of ChGPI7 or ChFEM1 crippled appressorium formation, exposes chitin, and triggers host immune detection. A total of 124 potential GPI-anchored proteins were predicted, indicating that this pathway may serve as a potential antifungal target.