The dynamic duo: cryo-EM teams up with machine learning to visualize biomolecules in motion.

Cryo-EM has been a key technique in our understanding of biomolecular structures. Now, machine learning techniques are being used to put these structures in motion, revealing dynamic interactions and processes happening on a molecular and cellular level.[Formula: see text].

Extraterrestrial agriculture: plant cultivation in space.

[Formula: see text] Researchers are using various techniques and technologies to study how plants grow in extraterrestrial conditions with the hopes of sustaining longer missions for exploring deep space as well as being able to one day cultivate crops on other planets.

A technique for the masses: single-cell analysis using mass cytometry.

Mass cytometry, a technique that bridges the gap between flow cytometry and mass spectrometry, reveals how immune cell distribution differs in disease states, such as in the peripheral blood of coronary artery disease patients and the lesion microenvironment of endometriosis. [Formula: see text].

Cradle cultures: growing stem cell-derived developmental cell models in vitro.

How are three stem cell-derived developmental cell models furthering our understanding of post-implantation human embryo development? And why have recent advancements in these human embryo-like models spurred ethical discussion and the need to refine our definition of 'embryo'? [Formula: see text].

Toxoplasma gondii: the kitty litter parasite.

Toxoplasma gondii is considered the most successful parasite by some, and yet, it is likely that you haven't even heard of it.