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9780471255321

Statistical Methods for Detection and Quantification of Environmental Contamination

by ;
  • ISBN13:

    9780471255321

  • ISBN10:

    0471255327

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2001-07-13
  • Publisher: Wiley-Interscience
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Summary

Comprehensive coverage, state-of-the-art methods This groundbreaking volume describes the statistical theory that underlies the detection and quantification of environmental pollution both in the laboratory and in the field. It presents the foundation of relating measured concentrations to true concentrations and the development of intervals of uncertainty for true concentrations, and it presents a comprehensive review of the problem of estimating thresholds at which detection and quantification decisions can be made reliably. The authors demonstrate the use of analytical measurements in making environmental impact decisions and in comparing environmental data to regulatory standards and naturally occurring background concentrations. Taking the next step in a major evolution in the way environmental impact decisions are made, Statistical Methods for Detection and Quantification of Environmental Contamination: Presents statistical methods that allow the earliest possible detection and quantification of contaminants Describes procedures applicable to all environmental constituents Covers numerous state-of-the-art approaches Includes case studies demonstrating practical applications of these approaches An indispensable handbook for scientists and engineers involved in environmental monitoring programs, this book is also an important resource for public health officials, waste facility managers, regulators, statisticians, and analytical chemists. "Amstat News asked three review editors to rate their top five favorite books in the September 2003 issue. "Statistical Methods for Detection and Quantification of Environmental Contamination was among those chosen.

Author Biography

ROBERT D. GIBBONS, PhD, is Professor of Biostatistics and Director of the Center for Health Statistics at the University of Illinois at Chicago

Table of Contents

Acknowledgments xv
Introduction
1(6)
PART I DETECTION AND QUANTIFICATION IN THE LABORATORY 7(122)
Conceptual Foundations
9(12)
Chemical Measurement Process
9(2)
Calibration and Evaluation Functions
11(1)
Sensitivity
12(1)
Accuracy and Precision
12(2)
Detection and Quantification (Quantitation)
14(3)
Conceptual Definitions of the Three Limits
14(2)
Interpretation of the Intervals Defined by the Critical Level, Detection Limit, and Quantitation Limit
16(1)
Between-Laboratory Environment
17(4)
Bias and Variation Within a Single Laboratory
17(1)
Bias and Variation Between Laboratories
18(1)
Currie's Schematic
18(3)
Statistical Foundations and Review
21(13)
Hypothesis Testing
21(6)
Truth and Certainty of Belief
22(2)
Statistical Yardstick for Hypothesis Testing
24(2)
Statistical Significance and Practical Importance
26(1)
Interval Estimation
27(7)
Confidence Intervals
27(3)
Prediction Intervals
30(2)
Statistical Tolerance Intervals
32(2)
Calibration-Based Regression Models
34(14)
Calibration Designs
34(1)
Ordinary Least-Squares Estimation
34(1)
Weighted Least-Squares Estimation
35(1)
Estimating the Weights
36(3)
Rocke and Lorenzato Model
36(2)
Exponential Model
38(1)
Linear Model
39(1)
Iteratively Reweighted Least-Squares Estimation
39(1)
OLS Prediction Intervals
40(1)
OLS Tolerance Intervals
40(1)
WLS Prediction Intervals
41(1)
WLS Tolerance Intervals
42(1)
Illustration
42(6)
Single-Concentration-Based Detection Limit Methods
48(9)
Introduction
48(1)
Kaiser-Currie Method
49(1)
U.S. EPA 40CFR, Part 136 (GLASER et al.)
50(2)
Prediction Limits
52(1)
Tolerance Limits
52(1)
Simultaneous Control of False Positive and False Negative Rates
53(1)
Limitations
54(2)
Illustration
56(1)
Single-Concentration-Based Quantification Limit Methods
57(4)
Introduction
57(1)
Currie's Determination Limit
58(1)
ACS Limit of Quantitation
58(1)
EPA Practical Quantification Limit
58(1)
EPA Minimum Level
59(1)
Illustration
59(1)
Discussion
60(1)
Calibration-Based Detection Limit Methods
61(18)
Introduction
61(1)
Models for Constant Variance (Hubaux and Vos)
62(2)
Procedure Due to Clayton and Co-workers
64(1)
Generalization to Multiple Future Detection Decisions
65(1)
Nonconstant Variance
66(1)
Variance Proportional to Concentration
66(1)
Modeling Observed Variance
67(1)
Iteratively Reweighted Least Squares
68(1)
Illustration
69(1)
Between-Laboratory Detection Estimate
70(9)
Interlaboratory Detection Estimate and the ASTM
72(1)
IDE Approach
73(6)
Calibration-Based Quantification Limit Methods
79(11)
Introduction
79(1)
Alternative Minimum Level
79(3)
Alternative Formulations
82(2)
Estimator Due to Gibbons and Co-workers
84(1)
Interlaboratory Quantitation Estimate
85(5)
IQE Approach
86(4)
Significant Digits
90(14)
Introduction
90(1)
Measurement Uncertainty Intervals from Calibration
90(2)
Common Use of Significant Digits
92(1)
Pair of Problems Due to Having Ten Fingers and Their Solutions
92(4)
Order-of-Magnitude Uncertainty Range: Fractions of Significant Digits
93(1)
Order-of-Magnitude Relative Uncertainty: Bounding Relationship
94(2)
Definition of Detection: At Least Zero Significant Digits
96(2)
Definition of Quantitation: At Least One Significant Digit
98(3)
Use of QL1D
99(1)
Development of QL1D
99(1)
Graphical Example of Computing QL1D
100(1)
Reporting Measurement and Uncertainty
101(3)
Adorning a Measurement with Uncertainty
101(1)
Measurement, Standard Deviation, Radical, and Degrees of Freedom: MRDS Format
102(2)
Experimental Design of Detection and Quantification Limit Studies and Related Studies
104(13)
Introduction
104(1)
Basic Considerations and Recommendations
105(3)
Variance Components
108(3)
Youden Pairs
111(2)
Matrix Effects and Blanks
113(3)
Matrix Effects
113(2)
Blanks
115(1)
Blind Studies
116(1)
Between-Laboratory Detection and Quantification Limit Estimators
117(12)
Introduction
117(1)
Naive Estimators
118(1)
Approximate Estimator
118(1)
More Sophisticated Approach
118(4)
Random-Effects Model for Homogeneous Errors
119(1)
Random-Effects Model for Heterogenous Errors
120(2)
Applications
122(1)
Illustration
123(6)
PART II DETECTION AND QUANTIFICATION IN THE FIELD 129(154)
Comparison of a Single Measurement to a Regulatory Standard
131(5)
Introduction
131(1)
Determining Regulatory Compliance
132(2)
Case I: STD = 0
132(1)
Case II: 0 < STD < LQ
132(1)
Case IIa: 0 < STD ≤ LC
133(1)
Case IIb: 0 < LC < STD < LQ
133(1)
Case III: LQ ≤ STD
133(1)
Confidence Interval for True Concentration
134(1)
Illustration
134(2)
Censored Data
136(28)
Introduction
136(1)
Conceptual Foundation
137(2)
Simple Substitution Methods
139(1)
Maximum Likelihood Estimators
139(4)
Restricted Maximum Likelihood Estimators
143(1)
Linear Estimators
144(1)
Alternative Linear Estimators
145(8)
Delta Distributions
153(2)
Regression Methods
155(2)
Substitution of Expected Values of Order Statistics
157(1)
Comparison of Estimators
158(3)
Further Simulation Results
161(1)
Summary
162(2)
Testing Distributional Assumptions
164(19)
Introduction
164(1)
Simple Graphical Approach
165(1)
Shapiro-Wilk Test
166(5)
Shapiro-Francia Test
171(1)
D'Agostino's Test
171(2)
Methods Based on Moments of a Normal Distribution
173(2)
Multiple Independent Samples
175(2)
Testing Normality in Censored Samples
177(4)
Kolmogorov-Smirnov Test
181(1)
Summary
182(1)
Testing for Outliers
183(11)
Introduction
183(1)
Rosner's Test
184(3)
Skewness Test
187(1)
Kurtosis Test
188(1)
Shapiro-Wilk Test
188(1)
Em-statistic
188(2)
Dixon's Test
190(1)
Illustration
191(2)
Summary
193(1)
Detecting Trend
194(10)
Introduction
194(1)
Sen's Test
195(2)
Mann-Kendall Test
197(3)
Seasonal Kendall Test
200(3)
Statistical Properties
203(1)
Summary
203(1)
Detection Monitoring
204(14)
Introduction
204(1)
Groundwater Detection Monitoring
204(2)
Statistical Prediction Intervals
206(5)
Single Location and Constituent
206(1)
Multiple Locations
207(1)
Verification Resampling
208(1)
Multiple Constituents
209(1)
Problem of Nondetects
209(1)
Nonparametric Prediction Limits
210(1)
Intrawell Comparisons
211(1)
Illustration
212(1)
Methods to be Avoided
213(4)
Analysis of Variance
213(2)
Cochran's Approximation to the Behrens-Fisher t-Test
215(2)
Summary
217(1)
Assessment and Corrective Action Monitoring: Overview
218(11)
Introduction
218(1)
Strategy
219(4)
Application to Specific Media
223(5)
Soils: Evaluation of Individual Source Areas (PAOCs)
223(1)
Soils: Area- or Site-wide Evaluations
224(1)
Groundwater: Aquifer
224(2)
Groundwater: Groundwater-Surface Water Interface
226(1)
Groundwater: Long-Term Monitoring
226(1)
Groundwater: Natural Attenuation Evaluation
227(1)
Waste Stream Sampling
228(1)
Summary
228(1)
Assessment and Corrective Action Monitoring: Comparison to a Standard
229(23)
Introduction
229(1)
LCL or UCL?
230(1)
Normal Confidence Limits for the Mean
231(1)
Lognormal Confidence Limits for the Median
232(1)
Lognormal Confidence Limits for the Mean
232(10)
Exact Method
232(1)
Approximating Land's Coefficients
233(5)
Approximate Lognormal Confidence Limit Methods
238(4)
Nonparametric Confidence Limits for the Median
242(1)
Confidence Limits for Other Percentiles of the Distribution
243(9)
Normal Confidence Limits for a Percentile
243(1)
Lognormal Confidence Limits for a Percentile
244(1)
Nonparametric Confidence Limits for a Percentile
244(8)
Assessment and Corrective Action Monitoring: Comparison to Background
252(21)
Introduction
252(1)
Normal Prediction Limits for m = 1 Future Measurements at Each of k Locations
253(5)
Normal Prediction Limits for the Mean(s) of m > 1 Future Measurements at Each of k Locations
258(4)
Lognormal Prediction Limits for m = 1 Future Measurements at Each of k Locations
262(2)
Lognormal Prediction Limits for the Median of m > 1 Future Measurements at Each of k Locations
264(1)
Lognormal Prediction Limits for the Mean of m > 1 Future Measurements at Each of k Locations
265(2)
Nonparametric Prediction Limits for m = 1 Future Measurements in Each of k Locations
267(1)
Nonparametric Prediction Limits for the Median of m > 1 Future Measurements at Each of k Locations
267(6)
Assessment and Corrective Action Monitoring: Case Studies
273(7)
Long-Term Monitoring
273(1)
Soil PAOC and Soil Phase III Evaluation
274(3)
PAOC 2
274(2)
PAOC 18
276(1)
Results
276(1)
Site-wide Groundwater Evaluation
277(3)
Review of Available Computer Software
280(1)
Summary
281(2)
Appendix: Land's Tables 283(40)
Glossary of Measurement Terminology 323(16)
Mathematical Symbols 339(2)
Web References 341(2)
Annotated Bibliography 343(38)
Index 381

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