Lecture 1 (Wednesday, January 10): Statistical experiments versus observational studies; statistical difficulties that arise with environmental data
Lecture 2 (lab) (Friday, January 12): Introduction to R
Lecture 3 (Wednesday, January 17): Discrete probability distributions—Bernoulli, binomial, multinomial
Lecture 4 (lab) (Friday, January 19): Fitting and plotting univariate probability distributions in R
Lecture 5 (Monday, January 22): Discrete probability distributions—Poisson and negative binomial
Lecture 6 (Wednesday, January 24): Continuous probability distributions—normal, lognormal, gamma, and beta
Lecture 7 (lab) (Friday, January 26): Mean-variance relations as guidelines for choosing probability models
Lecture 8 (Monday, January 29): Statistical issues in environmental sampling
Lecture 9 (Wednesday, January 31): Stratified, cluster, and systematic random samples
Lecture 10 (lab) (Friday, February 2): Analyzing survey samples with R's survey package
Lecture 11 (Monday, February 5): Simple linear regression and probability generating models
Lecture 12 (Wednesday, February 7): Output from regression models; regression with categorical variables
Lecture 13 (lab) (Friday, February 9): Using residuals to assess regression model assumptions; analysis of covariance
Lecture 14 (Monday, February 12): Maximum likelihood estimation
Lecture 15 (Wednesday, February 14): Maximum likelihood estimation (continued)
Lecture 16 (lab) (Friday, February 16): Maximum likelihood estimation in R
Lecture 17 (Monday, February 19): Information and the likelihood ratio test. Generalized linear models
Lecture 18 (Wednesday, February 21): Generalized linear models (continued)
Lecture 19 (lab) (Friday, February 23): Generalized linear models in R
Lecture 20 (Monday, February 26): Information-theoretic methods for model selection. Introduction to AIC
Lecture 21 (Wednesday, February 28): Using AIC to select models--the Burnham & Anderson protocol
Lecture 22 (lab) (Friday, March 2): Using AIC to screen models using the Burnham & Anderson protocol. AIC for transformed response models
Lecture 23 (Monday, March 5): Temporal and spatial autocorrelation
Lecture 24 (Wednesday, March 7): Proper inference in ANOVA models with interaction terms
Lecture 25 (lab) (Friday, March 9): Goodness of fit for continuous probability models; assessing temporal correlation
Lecture 26 (Monday, March 19): Design-based inference
Lecture 27 (Wednesday, March 21): The bootstrap
Lecture 28 (lab) (Friday, March 23): The nonparametric bootstrap and bootstrap confidence intervals
Lecture 29 (Monday, March 26): Introduction to randomization tests
Lecture 30 (Wednesday, March 28): The basic strategy of randomization tests
Lecture 31 (lab) (Friday, March 30): The parametric bootstrap and randomization tests
Lecture 32 (Monday, April 2): The multiple comparison problem
Lecture 33 (Wednesday, April 4): "Solutions" to the multiple comparison problem
Lecture 34 (Monday, April 9): An example of adjusting for multiple tests. The analysis of structured data
Lecture 35 (Wednesday, April 11): The multilevel model
Lecture 36 (lab) (Friday, April 13): Fitting multilevel models in R
Lecture 37 (Monday, April 16): Introduction to Bayesian inference
Lecture 38 (Wednesday, April 18): Markov chain Monte Carlo, the Gibbs sampler, and BUGS
Lecture 39 (lab) (Friday, April 20): Bayesian modeling using WinBUGS
Lecture 40 (Monday, April 23): Introduction to the analysis of spatial data
Lecture 41 (Wednesday, April 25): The semivariogram, Moran's I, and Ripley's K function
Lecture 42 (lab) (Friday, April 27): Accounting for spatial correlation in regression models
| Jack Weiss Phone: (919) 962-5930 E-Mail: jack_weiss@unc.edu Address: Curriculum in Ecology, Box 3275, University of North Carolina, Chapel Hill, 27516 Copyright © 2007 Last Revised--April 19, 2008 URL: http://www.unc.edu/courses/2007spring/enst/562/001/docs/lectures.htm |