- Scientists are developing a better technique for studying brain disease.
- There are reasons to believe genetic mutations cause most of the neurological diseases. But scientists can only now test this theory as they have the necessary tools and techniques.
- Before the new research, many changes in how scientist use human neurons in the laboratory occurred.
- CRISPR technology is said to change research in neuroscience and brain disease.
About the Research
Researchers at the National Institutes of Health and UC San Francisco started working on a special variation of Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR). This variation (CRISPRi) allows them to better study the human brain and the diseases it can suffer from.
The researcher’s findings from this study are available in the journal Neuron. This article explains how the technique uses CRISPRi gene alternations together with cells that are stem-cell-derived. Together both techniques improve our knowledge of brain disease as they help scientist delve deeper into neural changes.
This advancement in brain disease research lets scientists target the genes without damaging the cell membrane. Such damages to cells made research impossible until now.
Scientist working on this task basically want to develop a CRISPR gene-editing device. Such technology helps stop cell membrane destruction during experiments. This advancement in neuroscience is only now possible because of recent technological breakthroughs.
Previous experiments failed at controlling the influence of the Cas9 enzyme. This enzyme is the main reason why neural cell membranes deteriorate in conventional experiments. That is why the new CRISPRi technology is so important as it cuts the gene without activating the enzyme.
The Research Findings
Unlike the CRISPR-Cas9 technique that causes damage during experimentation, the new procedure builds on the previous mistakes and adapts them. That is why CRISPRi has the potential to change our understanding of genetic brain diseases. With the aid of this new technique, we can observe how the neuron cell reacts to genetic mutations. That is, we can observe the development of genetic disease up-close.
- The tool has to be tested on all brain cell types. That is the only way scientists can determine its effectiveness completely.