The abstract describes chemogenetic tools as approaches used in recent papers to investigate astrocytic involvement in memory. They are characterized here as time-restricted and cell-type specific.
First-pass extracted concept
chemogenetic tools
Aliases
chemogenetic ligands
Extracted Explainers
What the tool is doing
Resources required
What problem it solves
These tools help researchers test links between astrocytic activity and memory using cell-type specific, time-restricted manipulation.
They solve the need to manipulate neuronal activity using chemical actuators rather than optical stimulation. This provides an alternative route for circuit perturbation.
What it does not solve
Evidence Snippets
In this review, we will focus on recent papers that have used optogenetic and chemogenetic tools, which are time-restricted and cell-type specific, to investigate astrocytic involvement in memory.
For example, we review sex differences in the metabolism of chemogenetic ligands and their downstream signaling effects.
while chemogenetic tools are difficult to control in space and time
Supporting Sources
Linked Claims
Optogenetic and chemogenetic tools are described as time-restricted and cell-type specific in the context of investigating astrocytic involvement in memory.
optogenetic and chemogenetic tools, which are time-restricted and cell-type specific
The review focuses on recent papers using optogenetic and chemogenetic tools to investigate astrocytic involvement in memory.
In this review, we will focus on recent papers that have used optogenetic and chemogenetic tools, which are time-restricted and cell-type specific, to investigate astrocytic involvement in memory.
Optogenetic, chemogenetic, and calcium-imaging neuroscience tools may work differently in males and females.
Together, our findings suggest that these neuroscientific tools may sometimes work differently in males and females and that users should be aware of these differences when applying these methods.
Sex differences in chemogenetic ligand metabolism and downstream signaling effects can affect chemogenetic tool behavior.
For example, we review sex differences in the metabolism of chemogenetic ligands and their downstream signaling effects.