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Statistics for epidemiology / Nicholas P. Jewell.
Holman Biotech Commons RA652.2.M3 S745 2004
Available
Veterinary: Atwood Library (Campus) RA652.2.M3 S745 2004
Available
- Format:
- Book
- Series:
- Texts in statistical science
- Texts in statistical science series
- Language:
- English
- Subjects (All):
- Epidemiology--Statistical methods.
- Epidemiology.
- Epidemiology--statistics & numerical data.
- Epidemiologic Methods.
- Statistics as Topic--methods.
- Medical Subjects:
- Epidemiology--statistics & numerical data.
- Epidemiologic Methods.
- Statistics as Topic--methods.
- Physical Description:
- xiv, 333 pages : illustrations ; 25 cm.
- Place of Publication:
- Boca Raton, Fla. : Chapman & Hall/CRC, [2004]
- Summary:
- This graduate textbook explains the collection and analysis of data that speak to relationships between the occurrence of diseases and various descriptive characteristics of individuals in a population.
- Contents:
- 1.1 Disease processes 1
- 1.2 Statistical approaches to epidemiological data 2
- 1.2.2 Binary outcome data 4
- 1.3 Causality 5
- 2 Measures of Disease Occurrence 9
- 2.1 Prevalence and incidence 9
- 2.2 Disease rates 12
- 2.2.1 The hazard function 13
- 3 The Role of Probability in Observational Studies 19
- 3.1 Simple random samples 20
- 3.2 Probability and the incidence proportion 21
- 3.3 Inference based on an estimated probability 22
- 3.4 Conditional probabilities 24
- 3.4.1 Independence of two events 26
- 3.5 Example of conditional probabilities
- Berkson's bias 26
- 4 Measures of Disease-Exposure Association 31
- 4.1 Relative risk 31
- 4.2 Odds ratio 32
- 4.3 The odds ratio as an approximation to the relative risk 33
- 4.4 Symmetry of roles of disease and exposure in the odds ratio 34
- 4.5 Relative hazard 35
- 4.6 Excess risk 37
- 4.7 Attributable risk 38
- 5 Study Designs 43
- 5.1 Population-based studies 45
- 5.1.1 Example
- mother's marital status and infant birthweight 46
- 5.2 Exposure-based sampling
- cohort studies 47
- 5.3 Disease-based sampling
- case-control studies 48
- 5.4 Key variants of the case-control design 50
- 5.4.1 Risk-set sampling of controls 51
- 5.4.2 Case-cohort studies 53
- 6 Assessing Significance in a 2 x 2 Table 59
- 6.1 Population-based designs 59
- 6.1.1 Role of hypothesis tests and interpretation of p-values 61
- 6.2 Cohort designs 62
- 6.3 Case-control designs 64
- 6.3.1 Comparison of the study designs 65
- 6.4.1 Alternative formulations of the X[superscript 2] test statistic 69
- 6.4.2 When is the sample size too small to do a X[superscript 2] test? 70
- 7 Estimation and Inference for Measures of Association 73
- 7.1 The odds ratio 73
- 7.1.1 Sampling distribution of the odds ratio 74
- 7.1.2 Confidence interval for the odds ratio 77
- 7.1.3 Example
- coffee drinking and pancreatic cancer 78
- 7.1.4 Small sample adjustments for estimators of the odds ratio 79
- 7.2 The relative risk 81
- 7.2.1 Example
- coronary heart disease in the Western Collaborative Group Study 82
- 7.3 The excess risk 83
- 7.4 The attributable risk 84
- 7.5.1 Measurement error or misclassification 86
- 8 Causal Inference and Extraneous Factors: Confounding and Interaction 93
- 8.1 Causal inference 94
- 8.1.1 Counterfactuals 94
- 8.1.2 Confounding variables 99
- 8.1.3 Control of confounding by stratification 100
- 8.2 Causal graphs 102
- 8.2.1 Assumptions in causal graphs 105
- 8.2.2 Causal graph associating childhood vaccination to subsequent health condition 106
- 8.2.3 Using causal graphs to infer the presence of confounding 107
- 8.3 Controlling confounding in causal graphs 109
- 8.3.1 Danger: controlling for colliders 109
- 8.3.2 Simple rules for using a causal graph to choose the crucial confounders 111
- 8.4 Collapsibility over strata 112
- 9 Control of Extraneous Factors 123
- 9.1 Summary test of association in a series of 2 X 2 tables 123
- 9.1.1 The Cochran-Mantel-Haenszel test 125
- 9.1.2 Sample size issues and a historical note 128
- 9.2 Summary estimates and confidence intervals for the odds ratio, adjusting for confounding factors 128
- 9.2.1 Woolf's method on the logarithm scale 129
- 9.2.2 The Mantel-Haenszel method 130
- 9.2.3 Example
- the Western Collaborative Group Study: part 2 131
- 9.2.4 Example
- coffee drinking and pancreatic cancer: part 2 133
- 9.3 Summary estimates and confidence intervals for the relative risk, adjusting for confounding factors 134
- 9.3.1 Example
- the Western Collaborative Group Study: part 3 135
- 9.4 Summary estimates and confidence intervals for the excess risk, adjusting for confounding factors 136
- 9.4.1 Example
- the Western Collaborative Group Study: part 4 137
- 9.5 Further discussion of confounding 138
- 9.5.1 How do adjustments for confounding affect precision? 138
- 9.5.2 An empirical approach to confounding 142
- 10 Interaction 147
- 10.1 Multiplicative and additive interaction 148
- 10.1.1 Multiplicative interaction 148
- 10.1.2 Additive interaction 149
- 10.2 Interaction and counterfactuals 150
- 10.3 Test of consistency of association across strata 152
- 10.3.1 The Woolf method 153
- 10.3.2 Alternative tests of homogeneity 155
- 10.3.3 Example
- the Western Collaborative Group Study: part 5 156
- 10.3.4 The power of the test for homogeneity 158
- 10.4 Example of extreme interaction 160
- 11 Exposures at Several Discrete Levels 165
- 11.1 Overall test of association 165
- 11.2 Example
- coffee drinking and pancreatic cancer: part 3 167
- 11.3 A test for trend in risk 167
- 11.3.1 Qualitatively ordered exposure variables 169
- 11.3.2 Goodness of fit and nonlinear trends in risk 170
- 11.4 Example
- the Western Collaborative Group Study: part 6 171
- 11.5 Example
- coffee drinking and pancreatic cancer: part 4 173
- 11.6 Adjustment for confounding, exact tests, and interaction 175
- 12 Regression Models Relating Exposure to Disease 179
- 12.1 Some introductory regression models 181
- 12.1.1 The linear model 181
- 12.1.2 Pros and cons of the linear model 183
- 12.2 The log linear model 183
- 12.3 The probit model 184
- 12.4 The simple logistic regression model 186
- 12.4.1 Interpretation of logistic regression parameters 187
- 12.5 Simple examples of the models with a binary exposure 188
- 12.6 Multiple logistic regression model 190
- 12.6.1 The use of indicator variables for discrete exposures 191
- 13 Estimation of Logistic Regression Model Parameters 199
- 13.1 The likelihood function 199
- 13.1.1 The likelihood function based on a logistic regression model 201
- 13.1.2 Properties of the log likelihood function and the maximum likelihood estimate 204
- 13.1.3 Null hypotheses that specify more than one regression coefficient 206
- 13.2 Example
- the Western Collaborative Group Study: part 7 207
- 13.3 Logistic regression with case-control data 212
- 13.4 Example
- coffee drinking and pancreatic cancer: part 5 215
- 14 Confounding and Interaction within Logistic Regression Models 221
- 14.1 Assessment of confounding using logistic regression models 221
- 14.1.1 Example
- the Western Collaborative Group Study: part 8 223
- 14.2 Introducing interaction into the multiple logistic regression model 225
- 14.3 Example
- coffee drinking and pancreatic cancer: part 6 227
- 14.4 Example
- the Western Collaborative Group Study: part 9 230
- 14.5 Collinearity and centering variables 230
- 14.5.1 Centering independent variables 233
- 14.5.2 Fitting quadratic models 233
- 14.6 Restrictions on effective use of maximum likelihood techniques 235
- 14.7.1 Measurement error 237
- 14.7.2 Missing data 237
- 15 Goodness of Fit Tests for Logistic Regression Models and Model Building 243
- 15.1 Choosing the scale of an exposure variable 243
- 15.1.1 Using ordered categories to select exposure scale 244
- 15.1.2 Alternative strategies 245
- 15.2 Model building 246
- 15.3 Goodness of fit 250
- 15.3.1 The Hosmer-Lemeshow test 252
- 16 Matched Studies 257
- 16.1 Frequency matching 257
- 16.2 Pair matching 258
- 16.2.1 Mantel-Haenszel techniques applied to pair-matched data 262
- 16.2.2 Small sample adjustment for odds ratio estimator 264
- 16.3 Example
- pregnancy and spontaneous abortion in relation to coronary heart disease in women 264
- 16.4 Confounding and interaction effects 265
- 16.4.1 Assessing interaction effects of matching variables 265
- 16.4.2 Possible confounding and interactive effects due to nonmatching variables 266
- 16.5 The logistic regression model for matched data 269
- 16.5.1 Example
- pregnancy and spontaneous abortion in relation to coronary heart disease in women: part 2 271
- 16.6 Example
- the effect of birth order on respiratory distress syndrome in twins 274
- 16.7.1 When can we break the match? 277
- 17 Alternatives and Extensions to the Logistic Regression Model 285
- 17.1 Flexible regression model 285
- 17.2 Beyond binary outcomes and independent observations 289
- 17.3 Introducing general risk factors into formulation of the relative hazard
- the Cox model 290
- 17.4 Fitting the Cox regression model 293
- 17.5 When does time at risk confound an exposure-disease relationship? 295
- 17.5.1 Time-dependent exposures 296
- 17.5.2 Differential loss to follow-up 296.
- Notes:
- Includes bibliographical references (pages [303]-310) and index.
- ISBN:
- 1584884339
- OCLC:
- 52127752
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