Easy-to-make solution turns brains transparent
Three common laboratory chemicals are all scientists need to create see-through brains ideal for visualizing complex neural circuits.
Emerging tools and techniques that may advance autism research.
Three common laboratory chemicals are all scientists need to create see-through brains ideal for visualizing complex neural circuits.
Researchers have engineered four new mouse lines that each show activation of a different subset of neurons in response to a blue light.
Researchers have created detailed three-dimensional reconstructions of the numerous complex branches of dendrites, the signal-receiving ends of neurons.
Researchers have optimized an early social screening questionnaire to distinguish autism from other developmental disabilities in preschool-aged children.
Researchers have developed standard genetic reference samples that clinicians can use to diagnose Angelman and Prader-Willi syndromes, two disorders associated with the same chromosomal region.
Even small head movements inside a brain scanner can affect results, according to a report published 23 July in Neuroimage.
Researchers can use the Manchester Inventory for Playground Observation, a questionnaire that rates children’s interactions with their peers, to reliably measure social skills in children with autism.
By comparing the DNA of thousands of children who have developmental disabilities to that of controls, researchers have identified numerous mutations likely to contribute to disease.
Researchers are creating a population of inbred lab mice with the potential to produce thousands of genetically diverse strains. Experiments using the first of these mice are published in the August issue of Genomic Research.
A new technique allows researchers to make stable modifications to neurons by incorporating modified amino acids into the proteins of stem cells. The method permits researchers to investigate neuronal function in live, intact cells.