Horizontal arms dubbed cantils only appear under certain growing conditions—perhaps explaining why they had not been identified before.

A cost-effective fetal bovine serum product line is tailored for individual cell culture needs.  

Functional profiling of immune cells uncovers targetable mechanisms underlying lung inflammation in severe COVID disease.

Multichannel pipettes with adjustable tip spacing increase the efficiency and reproducibility of high-throughput experiments.

A pool of neural stem cells that ordinarily lies dormant in the brains of adult mice spawns two types of never-before-documented glial cells when artificially reactivated, potentially pointing to a novel mechanism of brain plasticity.

Benjamin Haibe-Kains and Rachelly Normand showcase how they use multi-omic approaches to fight both old and new diseases.

Keep 3D printer workflows for tissue and cell culture contaminant free.

An automated cell counter accurately analyzes nuclei isolated from tissue samples.

Bryan Black and Lucas Thal will discuss their experiences screening hiPSC-derived neural cells to understand chronic pain and neuroinflammation.

So-called mossy fiber synapses in the hippocampus can meter the amount of neurotransmitter they receive by sending glutamate against the usual direction of synaptic flow.

In an unexpected twist in neuroscience dogma, the cells on the receiving end of neurotransmission appear to be able to release glutamate to regulate the transmitting cell’s activity.

In this webinar brought to you by Merck, explore how automating 2D electrophoresis brings increased resolution to protein detection and characterization.

In this webinar brought to you by MilliporeSigma, explore how automating 2D electrophoresis brings increased resolution to protein detection and characterization.

In this workshop brought to you by 10x Genomics, discover the best ways to prepare samples for single cell multiomics.

A study finds that fast-growing species are stymied by narrow gaps, while slower-growing species can pass through and continue extending.

Unlike other cellular appendages, bacterial nanotubes are made solely of lipids and can connect the cytoplasm of different microbial species.

A study finds that slower-growing species are better able to adjust their growth to fit their hyphae through narrow passages.

Several labs have reported the formation of bacterial nanotubes under different, often contrasting conditions. What are these structures and why are they so hard to reproduce?