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In vivo calcium imaging allows the Brandon Lab to monitor large populations of identified neurons across days and weeks in behaving animals. This approach is central to studying how population codes evolve during learning, memory formation, navigation, and disease. By tracking the same cells over extended periods, the lab can ask how representations remain stable, how they reorganize with experience, and how these dynamics are altered in pathological conditions.

Description

In Vivo Calcium Imaging

Technique

Mark-Brandon-lab-LifeStyle-web-color--201.jpg

Predictive Coding of Reward in the Hippocampus

Population dynamics of head-direction neurons during drift and reorientation

The representation of context in mouse hippocampus is preserved despite neural drift

The McGill-Mouse-Miniscope platform: A standardized approach for high-throughput imaging of neuronal dynamics during behavior

DG–CA3 circuitry mediates hippocampal representations of latent information

A zero-inflated gamma model for post deconvolved calcium imaging traces

In Vivo Calcium Imaging is used in these papers

In vivo calcium imaging allows the Brandon Lab to monitor large populations of identified neurons across days and weeks in behaving animals. This approach is central to studying how population codes evolve during learning, memory formation, navigation, and disease. By tracking the same cells over extended periods, the lab can ask how representations remain stable, how they reorganize with experience, and how these dynamics are altered in pathological conditions.

Description

In Vivo Calcium Imaging

Technique

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