Researchers at The Rockefeller University have rebuilt a three-photon microscope from the ground up, allowing them to watch the activity of individual neurons up to about 2.1 millimeters deep in the brains of living mice, without surgically removing the tissue above. The new platform, called TrUDI, opens deep brain regions such as the hippocampus and striatum to optical imaging while staying within safe heating limits.

Researchers compare nearly one million brain-cell profiles across humans, macaques and mice, uncovering evolutionary differences in myelin-producing cells linked to aging and neurological disease.

MIT engineers create a tiny swimming robot propelled by genetically engineered muscle cells, demonstrating how living tissue can replace mechanical motors in soft robotics.

Researchers identify genetic variations and metabolic abnormalities associated with severe childhood malnutrition, offering new insights into why some children develop dangerous swelling.

A new study argues that biology may not be a machine governed solely by deterministic rules, but a layered system in which uncertainty, context, and scale are inseparable from function.

Researchers tackle batch effects, the technical differences that can distort biological datasets, with two approaches designed for labeled and unlabeled cell data.

A physics-inspired training method improves predictions of how mutations affect proteins, revealing why the best learning settings depend on the task.

ORCA Computing unveils its PT-3 photonic quantum computer, reporting gains in AI-driven protein discovery and industrial optimization through hybrid quantum-classical computing.

RNA sequencing reveals gene-expression differences associated with engineered malaria mosquitoes, adding another layer to the laboratory assessment of gene-drive systems.