BlohmLab/NSCI801-QuantNeuro
NSCI 801 (Queen's U) Quantitative Neuroscience course materials
repo name | BlohmLab/NSCI801-QuantNeuro |
repo link | https://github.com/BlohmLab/NSCI801-QuantNeuro |
homepage | |
language | Jupyter Notebook |
size (curr.) | 77627 kB |
stars (curr.) | 88 |
created | 2020-01-06 |
license | Creative Commons Attribution 4.0 International |
NSCI 801 - Quantitative Neuroscience
NSCI 801 (Queen’s U) Quantitative Neuroscience course materials
This course is in tutorial format using Python and Google Colab.
Syllabus
Introduction (Gunnar)
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The research process
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Statistics and models in scientific discovery (Pearl)
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Study design (power, sample size, effect size)
Intro Python (Joe)
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Google Colab interface
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Basic syntax and commands
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Importing and manipulating data
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Graphics
Advanced Python (Joe)
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Vectors and Matrices
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Functions
Data collection / signal processing (Joe)
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Data types
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Sampling
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DAQ
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Filtering (noise, differentiation, integration)
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Time vs frequency analysis
Data Collection/Signal Processing (NSCI801_acquisition_filters.ipynb)
Statistics and Hypothesis testing - basics (Joe)
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Descriptors: central tendencies (mean, median, mode), Spread (Range, variance, percentiles), Shape (skew, kurtosis)
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Correlation / regression
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The logic of hypothesis testing
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Statistical significance
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Multiple comparisons
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Different test statistics
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Confidence intervals
Statistics and Hypothesis testing - advanced (Joe)
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ANOVA (between-subject, factorial, within-subject/repeated measures)
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Measuring effect size
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Multiple regression
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Non-parametric tests
Statistics and hypothesis testing (NSCI801_Advanced_stats.ipynb)
Quantitative wet lab / bench methods (Joe)
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Image processing
Statistics and Hypothesis testing - Bayesian (Gunnar)
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Motivation and pitfalls of classic methods
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Conditional probabilities and Bayes rule
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Bayes Factor
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Maximum A Posteriori (MAP) estimation
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Bayesian ANOVA
Models in Neuroscience (Gunnar)
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Models in scientific discovery (Pearl)
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Usefulness of models
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Model fitting
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bootstrap
Data Neuroscience overview (Gunnar)
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Promises and limitations (Pearl)
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Data organization (format, DB)
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Blind data processing: machine learning techniques (classification, dimensionality reduction, decoding)
Correlation vs causality (Gunnar)
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What’s causality?
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How to achieve causality
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Problem of unobserved variables in high-dimensional problems
Correlation vs causality (NSCI801_CorrelationVsCausality.ipynb)
Reproducibility, reliability, validity (Gunnar)
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Statistical considerations (multiple comparisons, exploratory analysis, hypothesis testing)
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Open Science methods
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Open science vs patents (required for drug discovery)
Reproducibility, reliability, validity (NSCI801_Reproducibility.ipynb)
Further readings
- 10 common stats mistakes paper
- Statistical Thinking for the 21st Century free online book by Russell A. Poldrack
- see more here