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# field-echos | ||
Project code for extracting neural population timescale from field potential data (LFP, ECoG, etc) | ||
Project code for extracting neural population timescale from field potential data (LFP, ECoG, etc). | ||
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Paper is now published in eLife ([here][timescales_elife].) | ||
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Gao, R., van den Brink, R. L., Pfeffer, T., & Voytek, B. (2020). Neuronal timescales are | ||
functionally dynamic and shaped by cortical microarchitecture. eLife, 9, e61277. | ||
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--- | ||
# Summary | ||
![](./figures/overview.jpg) | ||
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**Neuronal timescales are functionally dynamic and shaped by cortical microarchitecture.** | ||
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In this project, we developed a method for measuring neuronal timescales from neural field potential data via [spectral parameterization][napp], and apply it to invasive ECoG data from humans and macaques. We find a gradient of neuronal timescales that increase from sensory/motor towards association brain regions, and further combine several other brain-wide structural, gene expression, and behavioral datasets to dissect the physiological factors that underly variations in timescale across the brain, as well as its change during behavior and aging. | ||
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--- | ||
# Data | ||
This project uses several open datasets, thanks to the generosity and foresight of those that compile and share their data. See Table 1 in the paper for a list of all datasets used. | ||
![](./figures/data_directions.png) | ||
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# Code | ||
`./echo_utils.py` contains all the python helper functions used for subsequent analyses and visualizations. | ||
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`./scripts/` contains analysis scripts that compute and parameterize the PSDs in each ECoG database. | ||
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`./data/` contains intermediate data tables and diagnostic plots. | ||
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`./notebook/` contains Jupyter notebook that explains the project and paper in its entirety, and produces the figures seen in the publication. See Table 2 in the paper for the notebook-figure correspondence. | ||
![](./figures/notebook_directions.png) | ||
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Surface projection of T1w/T2w and gene expression data is done using Rudy's repository [here][surface_proj]. | ||
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[timescales_elife]:https://elifesciences.org/articles/61277 | ||
[napp]:https://github.com/fooof-tools/fooof | ||
[surface_proj]:https://github.com/rudyvdbrink/Surface_projection/tree/v1.0.0 |
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