A newly developed head-mounted miniature microscope can capture images of all cortical layers of a freely moving rat.
New microscopy technology images the position of biomolecules with precision down to a few nanometers inside whole cells and tissues.
The direct contact of mGluR4 receptors with other key proteins plays a significant role in the regulation of synaptic activity.
Combining two-photon fluorescent microscopy and all-optical laser scanning, researchers can image the brain of an alert mouse 1,000 times a second, recording the passage of millisecond electrical pulses through neurons.
Ion channels use a "ball-and-chain" mechanism to help regulate ion flow. Findings confirm a long-standing hypothesis about ion channels and provide key advances in understanding the basic biological processes at work.
Combining advance microscopy techniques and artificial intelligence, researchers reconstruct the entire vascular network of a mouse brain down to its finest details.
Combining advanced microscopy and mathematical modeling, researchers have discovered a pattern that governs the growth of neurons.
Microscopy study sheds light on the function of two calcium homeostasis modulators.
A new rapid imaging technique allows researchers to view synaptic proteins at high resolution.
mesoSPIM, a newly developed microscope, can image brain tissue down to individual neurons five times thinner than a human hair.
A microscopy study revealed tau controls Fyn clustering in dendrites. The findings shed new light on how certain forms of dementia may occur.
A new microscopy technique integrates existing and novel approaches to build a clearer picture of the workings of neurons in the brain. The technique captures cellular activity across large tissue volumes in greater detail than previous techniques have allowed for.
