Researchers at the University of Tokyo have engineered an advanced mid-infrared microscope capable of visualizing structures within living bacteria down to the nanometer scale. The implications of this achievement extend far beyond microbiology, with potential applications in fields ranging from infectious diseases to fundamental biomedical research.

In a breakthrough for cancer research, scientists at EPFL have created lab-grown mini-colons that can accurately mimic the development of colorectal tumors, offering a powerful new tool for studying and testing treatments for the disease.

A new computer process developed by chemists at ETH Zurich makes it possible to generate active pharmaceutical ingredients quickly and easily based on a protein’s three-dimensional surface. The new process could revolutionise drug research.

Researchers have developed a new web tool for correcting sample flattening in light microscopy imaging. The innovative solution holds the potential to accelerate scientific discovery and unveil novel insights into the intricate mechanisms governing life at the microscopic level.

RIKEN physicists have created ultrashort laser pulses that are 50 times more energetic than any previously recorded pulses. This achievement promises to revolutionize the field of attosecond lasers, enabling scientists to probe processes like ultrafast electron reactions with unprecedented precision.

Scientists developed a new method that allows for simultaneous labeling of multiple proteins using five distinct fluorescent colors. This automated high-throughput approach redefines the landscape of protein study within living cells, unlocking a wealth of new opportunities for applications across various fields, from cell biology to drug discovery.

Waters has introduced new GTxResolve Premier Size Exclusion Chromatography Columns to help accelerate the development of gene-based therapeutics and vaccines.