Menu Expand
Tietz Textbook of Clinical Chemistry and Molecular Diagnostics - E-Book

Tietz Textbook of Clinical Chemistry and Molecular Diagnostics - E-Book

Carl A. Burtis | Edward R. Ashwood | David E. Bruns

(2012)

Abstract

As the definitive reference for clinical chemistry, Tietz Textbook of Clinical Chemistry and Molecular Diagnostics, 5th Edition offers the most current and authoritative guidance on selecting, performing, and evaluating results of new and established laboratory tests. Up-to-date encyclopedic coverage details everything you need to know, including: analytical criteria for the medical usefulness of laboratory procedures; new approaches for establishing reference ranges; variables that affect tests and results; the impact of modern analytical tools on lab management and costs; and applications of statistical methods. In addition to updated content throughout, this two-color edition also features a new chapter on hemostasis and the latest advances in molecular diagnostics.

  • Section on Molecular Diagnostics and Genetics contains nine expanded chapters that focus on emerging issues and techniques, written by experts in field, including Y.M. Dennis Lo, Rossa W.K. Chiu, Carl Wittwer, Noriko Kusukawa, Cindy Vnencak-Jones, Thomas Williams, Victor Weedn, Malek Kamoun, Howard Baum, Angela Caliendo, Aaron Bossler, Gwendolyn McMillin, and Kojo S.J. Elenitoba-Johnson.
  • Highly-respected author team includes three editors who are well known in the clinical chemistry world.
  • Reference values in the appendix give you one location for comparing and evaluating test results.
  • NEW! Two-color design throughout highlights important features, illustrations, and content for a quick reference.
  • NEW! Chapter on hemostasis provides you with all the information you need to accurately conduct this type of clinical testing.
  • NEW! Six associate editors, Ann Gronowski, W. Greg Miller, Michael Oellerich, Francois Rousseau, Mitchell Scott, and Karl Voelkerding, lend even more expertise and insight to the reference.
  • NEW! Reorganized chapters ensure that only the most current information is included.

Table of Contents

Section Title Page Action Price
Front Cover cover
Inside Front Cover ifc1
Half title page i
Tietz Textbook of Clinical Chemistry and molecular Diagnostics, 5/e iii
Copyright Page iv
Dedication v
Associate Editors vi
Reviewers vi
Contributors vii
Foreword xv
Preface xvi
Table Of Contents xvii
I Principles of Laboratory Medicine 1
1 Clinical Chemistry, Molecular Diagnostics, and Laboratory Medicine 3
Laboratory Medicine 3
Clinical Chemistry and Laboratory Medicine 3
Ethical Issues in Laboratory Medicine 4
Confidentiality of Genetic Information 5
Confidentiality of Patient Medical Information 5
Allocation of Resources 5
Codes of Conduct 5
Publishing Issues 5
Conflict of Interest 5
The Future 6
References 6
2 Selection and Analytical Evaluation of Methods—With Statistical Techniques 7
Method Selection 7
Medical Need and Quality Goals 7
Analytical Performance Criteria 7
Other Criteria 8
Basic Statistics 9
Frequency Distribution 9
Population and Sample 9
Probability and Probability Distributions 9
Parameters: Descriptive Measures of a Population 10
Statistics: Descriptive Measures of the Sample 10
Random Sampling 10
The Gaussian Probability Distribution 10
Student t Probability Distribution 11
Nonparametric Statistics 11
Basic Concepts in Relation to Analytical Methods 12
Calibration 12
Trueness and Accuracy 13
Precision 13
Example 14
Precision Profile 15
Linearity 15
Analytical Measurement Range and Limits of Quantification 16
Analytical Sensitivity 16
Analytical Specificity and Interference 16
Analytical Goals 16
Qualitative Methods 17
Performance Measures 17
Agreement Between Qualitative Tests 18
Example 18
Method Comparison 19
Basic Error Model 19
Measured Value, Target Value, Modified Target Value, and True Value 19
Calibration Bias and Random Bias 20
Blunders or Clerical Errors 21
Method Comparison Data Model 21
Comparison of a Routine Method With a Reference Measurement Procedure 21
Comparison of Two Routine Methods 21
Preliminary Practical Work in Relation to a Method Comparison Study 22
Planning a Method Comparison Study 22
Distribution of Differences Plot (DoD plot) 22
Nonparametric Approach 22
Parametric Approach 24
Relative Distribution of Differences Plot (Rel DoD plot) 24
Verification of Distribution of Differences in Relation to Specified Limits 27
Difference (Bland-Altman) Plot 27
A Caution Against Incorrect Interpretation of Paired t-Tests in Method Comparison Studies 28
Regression Analysis 28
Error Models in Regression Analysis 29
Deming Regression Analysis and Ordinary Least-Squares Regression Analysis (OLR) (Constant SDs) 30
Computation Procedures for OLR and Deming Regression 32
Evaluation of the Random Error Around an Estimated Regression Line 32
Interpreting SDy·x (SD21) With Random Errors in Both x1 and x2 32
Assessment of Outliers 32
The Correlation Coefficient 33
Regression Analysis in Cases of Proportional Random Error 35
Testing for Linearity 35
Nonparametric Regression Analysis (Passing-Bablok) 35
Interpretation of Systematic Differences Between Methods Obtained on the Basis of Regression Analysis 35
Example of Application of Regression Analysis (Weighted Deming Analysis) 36
Discussion of Application of Regression Analysis 37
Monitoring Serial Results 37
Traceability and Measurement Uncertainty 38
Traceability 38
The Uncertainty Concept 40
The Standard Uncertainty (ust) 40
Example of Direct Assessment of Uncertainty on the Basis of Measurements of a Commutable Certified Reference Material 41
Example of Direct Assessment of Uncertainty on the Basis of a Method Comparison Study With a Reference Measurement Procedure Using Patient Samples 41
Indirect Evaluation of Uncertainty by Quantification of Individual Error Source Components 42
Example 42
Uncertainty in Relation to Traditional Systematic and Random Error Classifications 43
Software Packages 44
References 45
3 Clinical Utility of Laboratory Tests 49
Diagnostic Accuracy of Tests 49
Sensitivity and Specificity 49
Receiver Operating Characteristic Curves 50
Probabilistic Reasoning 52
Prevalence 52
Predictive Values 52
Odds Ratio 52
Likelihood Ratio 52
Bayes’ Theorem 53
Limitations of Bayes’ Theorem 54
Combination Testing 54
Methods For Assessing Diagnostic Accuracy 56
Study Subject Ascertainment 56
Study Design 56
Method of Selection 57
Consecutive/Nonconsecutive Series 57
Test Protocol 57
Verification Procedure 57
Improper Reference Standard 57
Independence 58
Partial Verification 58
Cost-Effectiveness and Outcomes Research 58
References 58
4 Evidence-Based Laboratory Medicine 61
Concepts, Definitions, and Relationships 61
What Is Laboratory Medicine? 61
What is Evidence-Based Medicine? 62
Definitions, Concepts, and Objectives of Evidence-Based Medicine 62
The Practice of EBM 63
Evidence-Based Medicine and Laboratory Medicine 64
What Is Evidence-Based Laboratory Medicine? 64
The Practice of Evidence-Based Laboratory Medicine 64
Types of Questions Addressed in Laboratory Medicine 65
Formulating an Answerable Question in Laboratory Medicine 67
From Evidence to Outcomes 68
Characterization of the Diagnostic Accuracy of Tests 68
Study Design 68
Reporting of Studies of Diagnostic Accuracy: The Role of the STARD Initiative 69
Using the Test Result 70
Outcome Studies 70
Who Is Interested in Health Outcomes? 72
Test Results Alone Do Not Generate Improved Health Outcomes 73
What Are Outcomes Studies? 73
Design of Clinical Outcomes Studies 73
Comparative Effectiveness 77
Critical Appraisal and Systematic Reviews of Diagnostic Tests 77
Why Systematic Reviews? 77
Conducting a Systematic Review 78
The Clinical Question and Criteria for Selection of Studies 78
Search Strategy 79
Data Extraction and Critical Appraisal of Studies 79
Summarizing the Data 80
Meta-Analysis 80
Economic Evaluation of Diagnostic Tests 80
Who Uses Economic Evaluations of Diagnostic Test? 80
Quality of Evidence in Economic Evaluations 81
Design of Economic Evaluation Studies 81
Choice of Outcome Measures 82
Clinical Outcomes and Economic Evaluation in Decision Making and Changing Practice 83
Clinical Practice Guidelines and Care Pathways 83
What Is a Clinical Guideline? 83
What Is a Care Pathway? 84
The Process of Developing Clinical Guidelines 84
Steps in the Development of Guidelines 84
Selection and Refinement of a Topic 84
Determination of Target Group and Establishment of a Multidisciplinary Guideline Development Team 84
Identifying and Assessing the Evidence 84
Translating Evidence Into a Guideline and Grading the Strength of Recommendations 84
Obtaining External Review and Updating the Guidelines 86
Applying Evidence and Clinical Audit 87
Audit to Help Solve Problems 87
Monitoring Workload and Demand 88
Monitoring the Introduction of a New Test 88
Deleting a Redundant Test 88
Monitoring Adherence to Best Practice 89
Applying the Principles of Evidence-Based Laboratory Medicine in Routine Practice 89
References 90
5 Establishment and Use of Reference Values 95
The Concept of Reference Values 95
Interpretation by Comparison 95
Normal Values—an Obsolete Term 95
Terminology 96
Clinical Decision Limits 96
Types of Reference Values 97
Subject-Based and Population-Based Reference Values 97
Requirements 97
Selection of Reference Individuals 97
Concept of Health in Relation to Reference Values 97
Strategies for Selection of Reference Individuals 98
Direct or Indirect Sampling? 98
A Priori or A Posteriori Sampling? 99
Random or Nonrandom Sampling? 100
Selection Criteria and Evaluation of Subjects 100
Partitioning of the Reference Group 101
Specimen Collection 101
Preanalytical Standardization 101
Analyte-Specific Considerations 101
The Necessity for Additional Information 102
Analytical Procedures and Quality Control 103
Statistical Treatment of Reference Values 103
Basic Statistical Concepts 103
Sample 103
Estimating Properties 104
Testing Hypotheses 104
Describing the Distribution 104
Reference Limits: Interpercentile Interval 104
Methods Used To Determine Interpercentile Intervals 105
Sample Size 106
Partitioning of Reference Values 106
Inspection of Distribution 107
Identification and Handling of Erroneous Values 107
Methods for Determining Reference Values 108
Nonparametric Method 108
Parametric Method 108
Testing Fit to Gaussian Distribution 108
Transformation of Data: Simple Method 110
Transformation of Data: Two-Stage Method 110
Parametric Estimates of Percentiles and Their Confidence Intervals 111
Other Methods for Calculating Reference Limits 111
Bootstrap Method 111
Robust Method 111
Transferability of Reference Values 112
Analytical Issues 112
Multicenter Trials 112
Verification of Transfer 112
Presentation of An Observed Value in Relation to Reference Values 112
Additional Topics 113
Multivariate, Population-Based Reference Regions 113
The Multivariate Concept 113
The Multiple, Univariate Reference Region 114
The Multivariate Reference Region 114
Subject-Based Reference Values 115
Dynamic versus Static Interpretation of Clinical Chemistry Data 116
References 116
6 Preanalytical Variables and Biological Variation 119
Preanalytical Variables 119
Controllable Variables 119
Physiologic Variables 120
Posture 120
Prolonged Bed Rest 121
Exercise 121
Physical Training 122
Circadian Variation 123
Travel 124
Diet 124
Food Ingestion 124
Ingestion of Specific Foods and Beverages 125
Bran. 125
Food Constituents. 125
Caffeine. 125
Vegetarianism 126
Malnutrition 126
Long-Term Fasting and Starvation 127
Life-Style 127
Smoking 127
Alcohol Ingestion 128
Drug Administration 129
Herbal Preparations 130
Noncontrollable Variables 130
Biological Influences 130
Age 131
Newborn. 131
Childhood to Puberty. 132
The Adult. 132
The Elderly Adult. 132
Sex 133
Race 133
Environmental Factors 134
Altitude 134
Ambient Temperature 134
Place of Residence 134
Long-Term Cyclical Changes 134
Seasonal Influences 134
Influence of Menstrual Cycle 135
Underlying Medical Conditions 136
Obesity 136
Blindness 136
Pregnancy 136
Stress 136
Fever 137
Shock and Trauma 137
Transfusion and Infusions 138
Biological Variability* 138
Overview 138
Calculating Total Variation 139
Reference Change Values 140
Index of Individuality 140
Index of Heterogeneity 141
Reliability Coefficient 141
Quality Specifications for Total Error Allowable 141
Assessment of Mode of Reporting Test Results 141
References 142
Additional Reading 144
7 Specimen Collection and Processing 145
Types of Specimens 145
Blood 145
Venipuncture 145
Preliminary Steps 145
Location 146
Preparation of Site 146
Timing 146
Venous Occlusion 146
Order of Draw for Multiple Blood Specimens 147
Collection With Evacuated Blood Tubes 147
Blood Collection With Syringe 149
Completion of Collection 150
Venipuncture in Children 150
Skin Puncture 150
Arterial Puncture 151
Anticoagulants and Preservatives for Blood 151
Heparin 151
Ethylenediaminetetraacetic Acid 152
Sodium Fluoride 152
Citrate 152
Acid Citrate Dextrose 153
Oxalates 153
Iodoacetate 153
Influence of Site of Collection on Blood Composition 153
Collection of Blood from Intravenous or Arterial Lines 153
Hemolysis 153
Urine 154
Timed Urine Specimens 155
Collection of Urine from Children 155
Urine Preservatives 155
Feces 156
Cerebrospinal Fluid 156
Synovial Fluid 157
Amniotic Fluid 157
Chorionic Villus Sampling 157
Pleural, Pericardial, and Ascitic Fluids 158
Saliva 158
Buccal Cells 158
Solid Tissue 158
Hair and Nails 159
Handling of Specimens for Analysis 159
Maintenance of Specimen Identification 159
Preservation of Specimens 159
Separation and Storage of Specimens 160
Transport of Specimens 160
References 161
8 Quality Management 163
Fundamentals of Total Quality Management 163
Fundamental Concepts 163
Fundamental Principles 163
Total Quality Management of the Clinical Laboratory 164
Establishing Quality Goals and Analytical Performance Limits 165
Laboratory Error and the Six Sigma Process 166
Number of Errors Made in the Clinical Laboratory 166
Six Sigma Principles and Metrics 167
Effect of Analytical Bias on Clinical Decisions 169
Lean Production 169
Elements of a Quality Assurance Program 169
Commitment 170
Facilities and Resources 170
Personnel Competency and Training* 170
Technical Procedures 171
Problem-Solving Mechanism 172
Control of Preanalytical Variables 172
Systems Analysis 172
Types of Preanalytical Variables 172
Test Usage and Practice Guidelines 173
Patient Identification 173
Turnaround Time 173
Transcription Errors 173
Patient Preparation 173
Specimen Collection 173
Specimen Transport 174
Accessioning and Documentation 174
Specimen Separation and Aliquoting 174
Centrifuge Performance 174
Container Monitoring 174
Clerical Errors 174
Control of Analytical Variables 175
Choice of Analytical Method 175
Reference Materials and Methods 175
Definitions of Relevance to Analytical Quality 175
Analytical Traceability 175
Role of International Organization for Standardization (ISO) 177
ISO 9000 177
ISO Technical Advisory Groups for Laboratory Standards 177
Preparing for ISO Accreditation 178
Documentation of Analytical Protocols 178
Establishment of Reference Intervals 178
Inventory Control of Materials 178
Input Control of Materials 178
Monitoring Method Changes 178
Control of Analytical Quality Using Stable Control Materials and Control Charts 180
Control Materials 180
General Principles of Control Charts 180
Performance Characteristics of a Control Procedure 182
Step-by-Step Process for Selecting QC Procedures 185
Levey-Jennings Control Chart 185
Westgard Multirule Chart 187
Cumulative Sum (Cusum) Control Chart 188
Alternative Calculations and Applications 191
Control of Analytical Quality Using Patient Data 191
Individual Patient Results 191
Clinical Correlation 191
Correlation With Other Laboratory Tests 192
Intralaboratory Duplicates 192
Delta Checks With Previous Test Results 192
Limit Checks 192
Multiple Patients 193
Test Distribution Statistics 193
Statistical Methods for Monitoring Patient Means 193
Combined Use of Liquid Controls and Moving Averages of Patient Values for Quality Control Monitoring 194
External Quality Assessment and Proficiency Testing Programs 194
Quality Control Comparison Programs 195
Proficiency Testing and Laboratory Accreditation 196
Identifying the Sources of Analytical Errors 197
Physical Inspection 197
Relationship of Type and Source of Error 199
Method Evaluation Experiments 200
Optimization Techniques 200
References 200
II Analytical Techniques and Instrumentation 205
9 Principles of Basic Techniques and Laboratory Safety 207
Concept of Solute and Solvent 207
Expressing Concentrations of Solutions 207
Units of Measurement 208
International System of Units 208
Standardized Reporting of Test Results 208
Lab LOINC System 209
NPU 209
Applications 209
Chemicals 209
Reagent Grade Water 209
Preparation of Reagent Grade Water 210
Distillation 210
Ion Exchange 210
Reverse Osmosis 210
Ultraviolet Oxidation 210
Quality, Use, and Storage of Reagent Grade Water 210
Testing for Water Purity 210
Reagent Grade or Analytical Reagent Grade (AR) Chemicals 211
Ultrapure Reagents 211
Reference Materials 211
Primary Reference Materials 211
Secondary Reference Materials 211
Standard Reference Materials (SRMs) 211
Certified Reference Materials (CRMs) 211
Basic Techniques and Procedures 213
Volumetric Sampling and Dispensing 213
Pipettes 213
Transfer and Measuring Pipettes 214
Transfer Pipettes. 214
Measuring Pipettes. 214
Pipetting Technique 214
Micropipettes 214
Semiautomatic and Automatic Pipettes and Dispensers. 214
Volumetric Flasks 216
Centrifugation 217
Types of Centrifuges 217
Principles of Centrifugation 217
Operation of the Centrifuge 217
Operating Practice 218
Measurement of Radioactivity 218
Basic Concepts 218
Radioactive Decay 218
Alpha Decay. 218
Beta Decay. 218
Electron Capture. 219
Gamma Radiation and Internal Conversion. 219
Activity and Half-life 219
Units of Radioactivity 219
Specific Activity 220
Detection and Measurement of Radioactivity 220
Autoradiography 220
Gas-Filled Detectors 220
Scintillation Counting 220
Crystal Scintillation Detector. 220
Liquid Scintillation Detector. 220
Gravimetry 220
Principles of Weighing 221
Types of Balances 221
Double-Pan Balance 221
Single-Pan Balance 221
Electronic Balance 221
Analytical Weights 221
Thermometry 221
Controlling Hydrogen Ion Concentration 221
Procedures for Processing Solutions 222
Dilution 222
Evaporation 222
Lyophilization 222
Filtration 222
Safety 223
Safety Program 223
Safety Equipment 223
Safety Inspections 224
Plans for the Clinical Laboratory 224
Chemical Hygiene Plan 224
Exposure Control Plan 224
Tuberculosis Control Plan 225
Pandemic Plan 225
Ergonomics Program 225
Hazards in the Laboratory 225
Identification of Hazards 225
Biological Hazards 226
Chemical Hazards 228
Hazards from Volatiles 228
Hazards from Compressed Gases 229
Electrical Hazards 229
Fire Hazards 229
References 230
10 Optical Techniques 233
Nature of Light 233
Spectrophotometry 233
Basic Concepts 234
Beer’s Law—Relationship Between Transmittance, Absorbance, and Concentration 234
Application of Beer’s Law 235
Instrumentation 235
Components 236
Light Sources 236
Incandescent, Arc, and Cathode Lamps. 236
Laser Sources. 237
Spectral Isolation 237
Filters. 237
Prisms and Gratings. 238
Selection of a Wavelength Isolation Device. 238
Cuvets 238
Photodetectors 239
Photomultiplier Tubes. 239
Photodiodes. 239
Readout Devices 240
Performance Parameters 240
Wavelength Calibration 240
Spectral Bandwidth 241
Stray Light 241
Photometric Accuracy 241
Multiple-Wavelength Readings 241
Reflectance Photometry 242
Flame Emission and Inductively Coupled Plasma Spectrophotometry 242
Atomic Absorption Spectrophotometry 242
Basic Concepts 242
Instrumentation 242
Interferences in Atomic Absorption Spectrophotometry 243
Spectral Interferences 243
Nonspectral Interferences 244
Fluorometry 244
Basic Concepts 244
Time Relationships of Fluorescence Emission 244
Relationship of Concentration and Fluorescence Intensity 245
Fluorescence Polarization 245
Instrumentation 246
Components 246
Excitation Source 246
Xenon Lamp. 246
Lasers. 246
Excitation and Emission Monochromator 247
Cuvet 247
Photodetectors 248
Visual Observation. 248
Photomultiplier Tube. 248
Charge-Coupled Detector. 248
Performance Verification 248
Types of Fluorometers and Spectrofluorometers 249
Ratio-Referencing Spectrofluorometer 249
Time-Resolved Fluorometer 250
Flow Cytometer 250
Hematofluorometer 251
Limitations of Fluorescence Measurements 251
Inner Filter Effects 251
Concentration Quenching 251
Light Scattering 251
Cuvet Material and Solvent Effects 252
Sample Matrix Effects 252
Temperature Effects 252
Photodecomposition 252
Phosphorescence 252
Chemiluminescence, Bioluminescence, and Electrochemiluminescence 252
Basic Concepts 252
Chemiluminescence and Bioluminescence 253
Electrochemiluminescence 253
Instrumentation 253
Limitations of Chemiluminescence and Electrochemiluminescence Measurements 253
Nephelometry and Turbidimetry 253
Basic Concepts 253
Particle Size 253
Wavelength Dependence of Light Scattering 254
Concentration and Molecular Weight Factors in Light Scattering 254
Effects of Polarized Light on Light Scattering 254
Angular Dependence of Light Scattering 255
Light Scattering and Plasma Proteins 255
Measurement of Scattered Light 255
Turbidimetry 255
Nephelometry 255
Selection of Method 255
Instrumentation 255
Turbidimeter 255
Nephelometer 256
Limitations of Light Scattering Measurements 256
Antigen Excess 256
Matrix Effects 257
References 257
11 Electrochemistry and Chemical Sensors 259
Potentiometry and Ion-Selective Electrodes 259
Basic Concepts 259
Types of Electrodes 260
Redox Electrodes 260
Inert Metal Electrodes 260
Metal Electrodes Participating in Redox Reactions 261
Ion-Selective Electrodes 261
The Glass Electrode 262
Polymer Membrane Electrodes 262
Electrodes for PCO2 265
Direct Potentiometry by ISE—Units of Measure and Reporting for Clinical Applications 266
Voltammetry/Amperometry 267
Basic Concepts 267
Applications 269
Conductometry 271
Coulometry 272
Optical Chemical Sensors 272
Basic Concepts 273
Applications 273
Biosensors 274
Enzyme-Based Biosensors With Amperometric Detection 274
Enzyme-Based Biosensors With Potentiometric and Conductometric Detection 277
Enzyme-Based Biosensors With Optical Detection 277
Affinity Sensors 278
Chemical Sensors Based On Nanotechnology 281
In Vivo and Minimally Invasive Sensors 281
References 283
12 Electrophoresis 287
Basic Concepts And Definitions 287
Theory Of Electrophoresis 287
Conventional Electrophoresis 289
Instrumentation 289
Power Supplies 289
Buffers 289
Support Media 290
Starch Gel 290
Cellulose Acetate 290
Agarose 290
Polyacrylamide Gel 291
Automated Systems 291
General Operations 291
Electrophoretic Separation 291
Detection and Quantification 291
Staining 291
Quantification 292
Blotting Techniques 292
Technical and Practical Considerations 293
Sampling 293
Discontinuities in Sample Application 293
Unequal Migration Rates 293
Distorted, Unusual, or Atypical Bands 293
Types of Electrophoresis 293
Slab Gel Electrophoresis 293
Disc Electrophoresis 294
Isoelectric Focusing Electrophoresis 294
Isotachophoresis 295
Pulsed-Field Electrophoresis 295
Two-Dimensional (2D) Electrophoresis 295
Capillary Electrophoresis 296
Instrumentation 296
The Capillary Format 296
Sample Injection 297
Direct Detection 297
Improving Limits of Detection 297
Increased OPL. 297
Sensitive Optical Detectors. 297
Online Sample Concentration. 297
Indirect Detection 298
Technical Considerations 298
Temperature Effects 298
Surface Effects 298
Modes of Operation 299
Capillary Zone Electrophoresis 299
Serum Protein Analysis 299
Artifacts in Serum Protein Analysis 299
Micellar Electrokinetic Chromatography (MEKC) 300
Capillary Gel Electrophoresis 300
Capillary Isoelectric Focusing Electrophoresis 300
Capillary Isotachophoresis 301
Microchip Electrophoresis 301
Instrumentation 301
Fabrication of Microchips 301
Molecular Diagnostics Using Microchips 302
References 303
13 Chromatography and Extraction 307
Chomatography 307
Separation Mechanisms 307
Ion-Exchange 308
Adsorption 309
Partition Chromatography 310
Chiral Separations 311
Size Exclusion Chromatography 311
Other Size Exclusion Separations 312
Affinity Chromatography 312
Resolution 312
Retention Factor 313
Efficiency (N) 314
Selectivity 314
Peak Capacity 315
Planar Chromatography 315
Liquid Chromatography 315
Instrumentation 315
Solvent Reservoir 315
Solvent Delivery System 315
Sample Injector 316
Column Heaters/Chillers 317
Columns 317
Column Dimensions. 317
Column Stationary Phase. 317
Particulate Column Packings. 317
Bonded Phase Packings. 318
Polymeric Packings. 318
Chiral Packings. 318
Restricted Access Packings. 318
Monolithic Columns. 318
Detectors 318
Photometers and Spectrophotometers. 318
Fluorometers. 319
Electrochemical Detectors. 320
Refractive Index Detectors. 320
Mass Spectrometry. 320
Other Detectors. 320
System Controller and Data System 320
Safety 321
Supercritical Fluid Chromatography (SFC) 321
Gas Chromatography 321
Instrumentation 321
Columns 321
Carrier Gas Supply and Flow Control 322
Injector 322
Temperature Control 323
Detectors 323
Flame Ionization Detector. 323
Thermionic Selective Detector. 324
Electron Capture Detector. 324
Photoionization Detector. 325
Thermal Conductivity Detector. 325
Mass Spectrometry. 325
Computer/Controller 325
Qualitative and Quantitative Analyses 325
Analyte Identification 325
Analyte Quantification 326
Extraction and Differential Precipitation 326
References 327
14 Mass Spectrometry 329
Basic Concepts and Definitions 329
Instrumentation 331
Ion Source 331
Electron Ionization 332
Chemical Ionization 332
Electrospray Ionization 332
Atmospheric Pressure Chemical Ionization 333
Atmospheric Pressure Photoionization 334
Inductively Coupled Plasma 334
Matrix-Assisted Laser Desorption/Ionization 334
Ionization Methods of Potential Interest 334
Ionization Methods of Historical Interest 335
Vacuum System 335
Mass Analyzers, Tandem Mass Spectrometers, and Ion Detectors 335
General Classes of Mass Spectrometers 335
Beam-Type Designs 335
Quadrupole. 336
Magnetic Sectors. 337
Time-of-Flight. 337
Trapping Mass Spectrometers 338
Quadrupole Ion Trap. 338
Linear Ion Trap. 339
Ion Cyclotron Resonance. 339
Orbitrap. 340
Tandem Mass Spectrometers 340
Detectors 341
Computer and Software 342
Clinical Applications 342
Gas Chromatography–Mass Spectrometry 343
Liquid Chromatography–Mass Spectrometry 343
MALDI MASS Spectrometry 345
ICP Mass Spectrometry 346
Proteomics, Genomics, and Metabolomics 346
Practical Aspects of Mass Spectrometry—Logistics, Operations, and Quality 348
References 350
15 Enzyme and Rate Analyses 355
Basic Principles 355
Enzyme Nomenclature 355
Enzymes as Proteins 355
Specificity and the Active Center 357
Isoenzymes and Other Multiple Forms of Enzymes 357
Genetic Origins of Enzyme Variants 358
Nongenetic Causes of Multiple Forms of Enzymes 358
Distribution of Isoenzymes and Other Multiple Forms of Enzymes 360
Changes in Isoenzyme Distribution During Development and Disease 360
Differences in Properties Between Multiple Forms of Enzymes 361
Enzymes as Catalysts 361
Units for Expressing Enzyme Activity 361
Enzyme Kinetics 362
The Enzyme–Substrate Complex 362
Factors Governing the Rate of Enzyme-Catalyzed Reactions 362
Enzyme Concentration 362
Substrate Concentration 363
Single-Substrate Reactions 363
Two-Substrate Reactions 365
Consecutive Enzymatic Reactions 366
Effect of pH 366
Temperature 367
Inhibitors and Activators 368
Inhibition of Enzyme Activity 368
Reversible Inhibition. 368
Irreversible Inhibition. 369
Inhibition by Antibodies. 370
Enzyme Activation 370
Coenzymes and Prosthetic Groups 370
Analytical Enzymology 371
Measurement of Reaction Rates 371
Measurement of Substrates 372
Optimization, Standardization, and Quality Control 373
Optimization 373
Standardization 373
Quality Control 374
Measurement of Enzyme Mass Concentration 374
Enzymes as Analytical Reagents 374
Measurement of Metabolites 374
Equilibrium Methods 374
Kinetic Methods 375
Immunoassay 375
Analytical Applications of Immobilized Enzymes 375
Measurement of Isoenzymes and Isoforms 375
Electrophoresis 375
Chromatography 376
Chemical Inactivation and Differences in Catalytic Properties 376
Immunochemical Assays 376
References 376
16 Principles of Immunochemical Techniques 379
Basic Concepts 379
Antibodies 379
Immunogens 379
Antigen-Antibody Binding 381
Binding Forces 381
Van der Waals-London Dipole-Dipole Interactions 381
Hydrophobic Interaction 381
Coulombic Bonds 381
Reaction Mechanism 381
Factors Influencing Binding 382
Ion Species and Ionic Strength Effects 382
Polymer Effect 382
Types of Reactions 382
The Precipitin Reaction 382
Reactions at a Solid-Liquid Interface 383
Qualitative Methods 384
Passive Gel Diffusion 384
Immunoelectrophoresis (IEP) 384
Crossed Immunoelectrophoresis (CRIE) 384
Counterimmunoelectrophoresis (CIE) 385
Immunofixation (IF) 385
Western Blotting 385
Dot Blotting 386
Quantitative Methods 386
Radial Immunodiffusion and Electroimmunoassay 386
Radial Immunodiffusion Immunoassay 386
Electroimmunoassay 387
Turbidimetric and Nephelometric Assays 387
Labeled Immunochemical Assays 388
Methodologic Principles 388
Competitive versus Noncompetitive Reaction Formats 388
Competitive Immunoassays. 388
Noncompetitive Immunoassays. 389
Heterogeneous versus Homogeneous Immunochemical Assays 390
Heterogeneous Assays. 390
Homogeneous Assays. 390
Analytical Detection Limits 390
Examples of Labeled Immunoassays 391
Radioimmunoassay 391
Enzyme Immunoassay (EIA) 391
Enzyme-Linked Immunosorbent Assay. 392
Enzyme Multiplied Immunoassay Technique. 392
Cloned Enzyme Donor Immunoassay. 393
Fluoroimmunoassay 393
Chemiluminescence Immunoassay 394
Electrochemiluminescence Immunoassay 395
Simplified Immunoassays 395
Protein Microarrays 396
Interferences in Immunoassays 396
Cell and Tissue-Based Immunochemical Techniques 397
Immunohistochemistry 397
Agglutination Assays 397
References 397
17 Nucleic Acid Techniques 401
Enzymes That Act On Nucleic Acids 401
Nucleic Acid Treatments that Do Not Use Enzymes 402
Amplification Techniques 403
Polymerase Chain Reaction (PCR)—Target Amplification 403
Details of the PCR Process 403
PCR Kinetics and Rapid Cycling 405
PCR Optimization and Primer Design 405
Detection Limits of PCR 406
3′-End of PCR Products 406
Contamination Control to Avoid False-Positive Results 407
Inhibition Control to Avoid False-Negative Results 407
Hot Start Techniques 408
Asymmetric PCR and Allele-Specific PCR 408
Single-Molecule PCR or Digital PCR 408
Other Forms of Target Amplification 408
Transcription-Based Amplification Methods 408
Strand Displacement Amplification 409
Loop-Mediated Amplification Methods 409
Whole Genome and Whole Transcriptome Amplification 409
Other Approaches to Amplification 409
Branched-Chain DNA: Signal Amplification 409
Serial Invasive Amplification: Signal Amplification 410
Rolling Circle Amplification: Probe Amplification 410
End Point Quantification in Amplification Assays 410
Detection Techniques 410
Generic Measurement and Visualization of Nucleic Acids 410
UV Absorbance 410
Fluorescent Staining of Nucleic Acids 410
Reporter Molecules and Labeled Probes 411
Radioactivity 411
Indirect Probe Detection 411
Fluorescent Labels 411
Discrimination Techniques 412
Electrophoresis 412
Restriction Fragment Length Polymorphism 413
Southern and Northern Blotting 413
PCR Product Length 414
PCR/RFLP 414
Heteroduplex Migration 414
Single-Strand Conformation Polymorphism 415
Denaturing Gradient Gel Electrophoresis 416
Temperature Gradient Electrophoresis 416
Dideoxy-Termination Sequencing 416
Single Nucleotide Extension (SNE) 418
Oligo Ligation 418
Multiplex Ligation-Dependent Probe Amplification 419
Alternatives to Electrophoresis 419
Pyrosequencing 419
Mass Spectrometry 419
High-Performance Liquid Chromatography (HPLC) 420
High-Throughput Sequencing 420
Sequencing by Ligation 421
High-Throughput Sequencing Without Amplification 422
Hybridization Assays: Principles 422
Hybridization Thermodynamics 422
Hybridization Kinetics 424
Probes 425
Cloned Probes 425
PCR-Generated Probes 425
Oligonucleotide Probes 425
Estimating Tms of Oligonucleotide Probes 425
Purity of Labeled Oligonucleotide Probes 425
Hybridization Assays: Examples 426
Dot-Blot and Line-Probe Assays 426
Medium-Density Arrays 426
Microarrays 427
Single-Nucleotide Polymorphism (SNP) Arrays 427
Gene Expression Arrays 427
Copy Number Variant Arrays 428
In Situ Hybridization 428
Single-Copy Visualization 429
Real-Time PCR 429
Dyes and Probe Formats for Real-Time PCR 431
Double-Stranded DNA Binding Dyes 431
Fluorescently Labeled Primers 431
Probe-Specific Detection 432
Hybridization Probes. 432
Hydrolysis Probes. 432
Mixed Mechanism Probes. 434
Detection and Quantification in Real-Time PCR 434
Detection 434
Quantification 435
Accuracy and Precision 436
Melting Analysis 436
SNP Genotyping 437
High-Resolution Melting Analysis 437
Comparison of Closed-Tube SNP Genotyping Methods 437
Conclusion 439
References 439
18 Microfabrication and Microfluidics and Their Application to Clinical Diagnostics 443
Background 443
Microdevice Fabrication 443
Photolithography and Glass Etching Techniques 444
Alternatives to Traditional Photolithography and Wet Chemical Etching 445
Polymeric Materials 445
Polydimethylsiloxane (PDMS) 445
Plexiglas (PMMA) 446
Separation and Detection of Clinically Relevant Analytes 447
Electrophoretic Separations 447
Detection on Microchips 448
Exemplary Separations 449
Separation of Nucleic Acids 449
Mutation Detection via Microchip Analysis 450
Other Mutation Detection Schemes 452
Separation of Proteins 453
Separation of Small Molecules and Ions 454
Microfluidic Valving 456
Applications 456
Nucleic Acids 456
DNA Extraction 456
Polymerase Chain Reaction 457
Integration 457
Hybridization Arrays 457
Proteins 458
Immunoassays 458
Protein Microarrays 460
Cells 460
Detection of Drugs and Drug Metabolites 462
Limitations of Microfluidic Systems 462
Future of Microfluidics in Clinical Diagnostics 463
References 463
19 Automation in the Clinical Laboratory 469
Basic Concepts 469
Automation of the Analytical Processes 470
Specimen Identification 470
Labeling 470
Bar Coding 471
Identification Errors 471
Specimen Preparation 471
Use of Whole Blood for Analysis 471
Automation of Specimen Preparation 472
Specimen Delivery 472
Pneumatic Tube Systems 472
Electric Track Vehicles 472
Mobile Robots 472
Specimen Loading and Aspiration 472
Sample Pretreatment 473
Sample Introduction and Internal Transport 473
Discrete Processing Systems 473
Carryover 473
Reagent Handling and Storage 474
Reagent Identification 474
Open versus Closed Systems 474
Reagent Delivery 474
Chemical Reaction Phase 474
Type of Reaction Vessel and Cuvet 475
Mixing of Reactants 475
Thermal Regulation 475
Separation in Immunoassay Systems 475
Measurement Approaches 475
Photometry/Spectrophotometry 475
Optical Source 475
Spectral Isolation 475
Photometric Detectors 475
Reflectance Photometry 476
Fluorometry 476
Turbidimetry and Nephelometry 476
Chemiluminescence and Bioluminescence 476
Electrochemical 477
Signal Processing, Data Handling, and Process Control 477
Test Autoverification 477
Integrated Automation for the Clinical Laboratory 478
Workstations 478
Instrument Clusters 478
Work Cells 478
Automated Specimen Processing 479
Stand-Alone Specimen Processing Systems 479
Integrated and Modular Automation Systems 479
Conveyor Belts 480
Automated Specimen Sorting 482
Automated Specimen Storage and Retrieval 482
Practical Considerations 482
Evaluation of Requirements 482
Problems of Integration 483
Device Integration 483
Other Areas of Automation 483
Urine Analyzers 483
Cell Counters 484
Nucleic Acid Analyzers 484
Microtiter Plate Systems 484
Automated Pipetting Stations 484
References 484
20 Point-of-Care Testing 487
Analytical and Technological Solutions 487
Hand-Held, Single-Use Devices 488
Urine and Blood Dipsticks 489
Glucose Strips and Meters 489
Coagulation Strips and Meters 491
Lateral Flow Strips 492
Cartridge or Cassette Devices 493
Multiple-Use Cartridges and Benchtop Systems 493
Informatics and Poct 495
Informatic Requirements in POCT Devices 495
Development of POCT Connectivity Standards 496
Benefits of Connectivity and Future Developments 496
Implementation and Management Considerations 497
Establishment of Need, Risks, And Change Management Challenges 497
Organization and Implementation of a Coordinating Committee 498
Poct Policy and Accountability 498
Equipment Procurement and Evaluation 498
Training and Certification Of Operators 499
Quality Control, Quality Assurance, and Audit 500
Maintenance and Inventory Control 501
Documentation 501
Accreditation and Regulation of Poct 502
Future of Poct 502
References 503
III Analytes 507
21 Amino Acids, Peptides, and Proteins 509
Amino Acids 510
Basic Biochemistry 510
Acid-Base Properties of Amino Acids 510
Hydrophobicity, Solubility, and Stability of Amino Acids 510
Amino Acid Metabolism 513
Amino Acid Concentrations 514
Clinical Implications of Amino Acid Concentrations 515
Analysis of Amino Acids 516
Peptides and Proteins 516
Peptide and Protein Structure 516
Disorders of Protein Folding 517
Protein Synthesis and Processing 518
Physical Properties of Proteins 518
Plasma Proteins 519
The Plasma Proteome and Peptidome 519
Plasma Protein Concentrations 521
Major Plasma Proteins 521
The Acute-Phase Response 523
Differences Between Plasma and Serum Proteins 524
Determination of Total Protein 525
Specific Methods. 525
Kjeldahl Method. 525
Biuret Method. 525
Direct Optical Methods. 525
Dye-Binding Methods. 525
Lowry (Folin-Ciocalteu) Method. 526
Refractometry. 526
Turbidimetric and Nephelometric Methods. 526
Calibration of Total Protein Methods. 526
Reference Intervals. 526
Prealbumin (Transthyretin) and Retinol-Binding Protein (RBP) 526
Biochemistry and Function. 526
Clinical Significance of Prealbumin and RBP. 527
Increased Plasma Concentrations. 527
Decreased Plasma Concentrations. 527
Genetic Aspects. 527
Laboratory Considerations and Reference Intervals. 527
Albumin 527
Biochemistry of Albumin. 527
Function of Albumin. 528
Clinical Significance of Albumin 528
Increased Plasma Concentrations. 528
Decreased Plasma Concentrations. 528
Analbuminemia. 528
Inflammation. 528
Hepatic Disease. 528
Urinary Loss/Kidney Disease. 528
Gastrointestinal Loss. 528
Protein-Calorie Malnutrition. 528
Burn Injury. 529
Edema and Ascites. 529
Genetic Aspects of Albumin. 529
Laboratory Considerations for Albumin 529
Plasma and Serum. 529
Reference Intervals of Albumin. 529
α1-Acid Glycoprotein (AAG) 530
Biochemistry of AAG. 530
Function of AAG. 530
Clinical Significance of AAG. 530
Increased Plasma Concentrations 530
Acute-Phase Response. 530
IV Molecular Diagnostics and Genetics 1207
37 Principles of Molecular Biology 1209
Landmark Developments in Genetics and Molecular Diagnostics 1209
The Essentials 1210
Nucleic Acid Structure and Organization 1210
Molecular Compositions and Structures of DNA and RNA 1210
DNA 1210
RNA 1211
Chromosome Structure 1211
Chromatin Packing 1212
Nucleic Acid Physiology and Functional Regulation 1214
Replication 1214
Transcription 1215
Translation 1216
Genetics and Epigenetics 1216
DNA Methylation 1217
Histone Modifications 1218
Nucleosome Positioning and Remodeling 1218
Noncoding RNAs 1219
MicroRNA 1219
Other ncRNAs 1219
Beyond the Nuclear Genome 1220
The Mitochondrial Genome 1220
Circulating Nucleic Acids 1220
Understanding Our Genome 1220
References 1222
38 Genomes and Nucleic Acid Alterations 1225
Human Genome 1225
Variation Within the Human Genome 1226
Variations That Cause Human Disease 1227
Single-Nucleotide Polymorphisms 1227
Small Insertions and/or Deletions 1227
Structural Variants 1227
Haplotypes 1227
Alterations in Hemizygous Genes and Mitochondrial DNA 1227
Human Epigenetic Alterations 1228
Bacterial Genomes 1228
Viral Genomes 1228
Fungal Genomes 1229
References 1229
Genome Databases 1229
Human Genes and Disease 1229
Sequence Databanks 1229
Human Variation Databases 1229
Nomenclature 1229
39 Nucleic Acid Isolation 1231
Specimen Preservation 1231
Tissue Homogenization and Cell Lysis 1232
DNA Isolation 1232
RNA Isolation 1232
Assessment of Nucleic Acid Yield and Quality 1233
Storage of Purified Nucleic Acids 1233
Automated Nucleic Acid Isolation 1233
Point-of-Care Nucleic Acid Analysis 1235
Isolation of Circulating Nucleic Acids 1235
References 1235
40 Inherited Diseases 1239
Diseases with Mendelian Inheritance 1239
Autosomal Recessive Diseases 1239
Cystic Fibrosis 1240
Hereditary Hemochromatosis 1243
Spinal Muscular Atrophy 1245
Autosomal Dominant Diseases 1247
Achondroplasia 1247
Huntington’s Disease 1248
Marfan Syndrome 1252
X-Linked Diseases 1253
Hemophilia A 1253
Duchenne Muscular Dystrophy 1255
Fragile X Syndrome 1257
Diseases with Nonmendelian Inheritance 1259
Mitochondrial DNA Diseases 1259
Leber Hereditary Optic Neuropathy 1261
Leigh Syndrome 1261
Imprinting 1262
Prader-Willi and Angelman Syndromes 1262
Complex Diseases 1264
Thrombophilia 1265
Inherited Breast Cancer 1266
Inherited Colon Cancer 1269
Reporting of Test Results 1273
Glossary 1274
References 1275
41 Identity Assessment 1293
Variation in the Human Genome 1293
Genetic Variation Useful in Identity Testing 1293
Exclusion of Tested Individuals 1294
Likelihood of Inclusion of Tested Individuals 1295
Samples Employed for Identity Testing 1295
Forensic Dna Typing 1295
Forensic Applications 1295
Genetic Systems Used in Forensic Identification 1296
VNTR Analysis by RFLP 1296
Short Tandem Repeats 1296
Gender Markers and Y Chromosome Markers 1297
Mitochondrial DNA 1297
Single-Nucleotide Polymorphisms 1298
Other Systems 1298
Instrumentation Used in Forensic Laboratories 1298
Quality Assurance and Accreditation in Forensic DNA Analysis 1298
Statistical Interpretation 1299
Convicted Offender Databases 1299
Legal Issues 1299
Use of Dna Testing for the Identification of Clinical Specimens 1300
Transplantation Testing 1300
Genetic Features of HLA Genes 1300
Historical Applications of HLA Typing 1301
Forensic DNA Testing 1301
Parentage Testing 1302
Chimerism 1302
Transplantation 1302
DNA-Based HLA Allele Identification 1302
Interpretation of HLA Test Results 1303
Quality Assurance and Quality Control Issues 1304
Proficiency Testing 1304
Accreditation and Certification of Laboratories and Professionals 1304
Chimerism and Hematopoietic Cell Engraftment Analysis 1304
Methods for Performing Engraftment Analysis 1304
Selection and Interpretation of Short Tandem Repeat Loci 1305
Applications of Microsatellite Locus Testing to Engraftment Analysis 1305
Proficiency Testing 1306
Quality Assurance and Quality Control 1306
Accreditation 1306
Parentage Testing 1306
Methods, Instrumentation, and Sample Requirements 1306
Reporting of Test Results 1306
Test Reports 1306
Exclusion of a Tested Man 1306
Inclusion of a Tested Man 1307
Opinions, Interpretations, and Problems 1307
Quality Assurance and Quality Control 1307
Policy and Procedures for Resolution of Complaints 1307
Accreditation 1307
References 1308
World Wide Web Sites 1308
42 Molecular Methods in Diagnosis and Monitoring of Infectious Diseases 1309
Chlamydia Trachomatis and Neisseria Gonorrhoeae 1310
Nucleic Acid Testing for CT and GC 1310
False-Positive Test Results 1311
False-Negative Test Results 1312
Liquid Cytology Specimens 1312
Recommendations on Laboratory Testing for CT and GC 1312
Human Papillomavirus 1312
Nucleic Acid Testing for HPV 1313
Human Immunodeficiency Virus Type 1 1314
HIV-1 Viral Load Testing 1314
Available HIV-1 Viral Load Assays 1315
Qualitative and Proviral HIV-1 RNA Testing 1316
HIV-1 Resistance Testing 1316
HIV-1 Tropism Testing 1318
Herpes Simplex Virus 1318
Nucleic Acid Testing for HSV 1318
Enterovirus 2 1319
Nucleic Acid Testing for Enteroviruses 1319
Perinatal Group B Streptococcal Disease 1320
Nucleic Acid Testing for GBS 1320
Cytomegalovirus 1321
Nucleic Acid Testing for CMV 1321
Mycobacterium Tuberculosis 1323
Nucleic Acid Testing for MTb 1323
Hepatitis C Virus 1324
Detection and Quantification of HCV 1324
Available Assays for Detection and Quantification 1325
HCV Genotyping 1326
Clostridium Difficile 1326
Nucleic Acid Tests for C. difficile 1327
Methicillin-Resistant Staphylococcus Aureus (Mrsa) 1327
Nucleic Acid Testing for MRSA 1328
Respiratory Viruses 1329
Nucleic Acid Testing for Respiratory Viruses 1330
References 1332
43 Pharmacogenetics 1339
Defining Pharmacogenetic Targets 1339
Approaches to Pharmacogenetic Testing 1341
Clinical Application of Pharmacogenetic Testing 1344
Pharmacogenetics in Oncology 1345
Pharmacogenetics in Psychiatry and Neurology 1345
Pharmacogenetics in Cardiology 1347
Pharmacogenetics in Infectious Disease 1347
Phase I Metabolic Enzymes: Cytochrome P450 Isozymes 1348
Cytochrome P450 2D6 (CYP2D6) 1348
Genotype to Phenotype 1348
Testing 1351
Tamoxifen Application 1351
Codeine Application 1353
Antidepressant Application 1353
Cytochrome P450 2C9 (CYP2C9) 1354
Genotype to Phenotype 1354
Testing 1354
Warfarin Application 1355
Cytochrome P450 2C19 (CYP2C19) 1355
Genotype to Phenotype 1355
Testing 1356
Clopidogrel Application 1356
Antidepressant Application 1356
Omeprazole and Proguanil Applications 1356
Other Cytochrome P450 Genes 1357
Phase II Metabolic Enzymes 1357
N-Acetyltransferases (NAT1 and NAT2) 1357
Genotype to Phenotype 1357
Testing 1358
Clinical Applications 1359
Thiopurine S-Methyltransferase 1359
Genotype to Phenotype 1359
Testing 1360
6-Mercaptopurine and Azathioprine Applications 1361
UDP-Glucuronosyltransferase 1A1 (UGT1A1) 1361
Genotype to Phenotype 1362
Irinotecan Application 1362
Protease Inhibitors Application 1362
Other Phase II Metabolism Enzymes 1363
Pharmacodynamic Genes 1363
Vitamin K Epoxide Reductase Complex 1 (VKORC1) 1363
Genotype to Phenotype 1363
Warfarin Sensitivity Application 1363
Human Leukocyte Antigen (HLA) Complex, Class I, B 1364
Genotype to Phenotype 1364
Risk of SCARS and Related Drug Hypersensitivity Applications 1364
Future Directions 1365
References 1365
44 Hematopoietic Malignancies 1371
Antigen Receptor Rearrangements for Determination of Clonality 1371
Molecular Genetic Basis for Immunoglobulin Gene Rearrangements 1371
Molecular Genetic Basis for T-Cell Receptor Gene Rearrangements 1374
Southern Blot Hybridization Analysis for Antigen Receptor Gene Rearrangements 1374
Polymerase Chain Reaction Analysis of Antigen Receptor Gene Rearrangements 1376
Molecular Genetics of Malignant Lymphomas 1377
Southern Blot Hybridization Analysis for the Detection of Chromosomal Translocations 1378
Polymerase Chain Reaction Analysis for Detection of Chromosomal Translocations 1378
t(14;18)(q32;21)—BCL2/JH Aberration 1378
t(11;14)(q13;32)—CCND1/JH Aberration* 1379
Molecular Genetics of Leukemias 1380
Recurrent Chromosomal Translocations in Acute Myeloid Leukemias 1380
t(8;21)(q22;q22)—AML1-ETO 1382
t(15;17)(q22;q21)—PRAM1 (also known as PML-RARA) 1383
Recurrent Chromosomal Translocations in Chronic Leukemias of Myeloid/Monocytic Lineage 1383
t(9;22)(q34;q11)—BCR-ABL Aberration 1383
t(9:22) in ALL 1386
Reverse Transcription Polymerase Chain Reaction 1386
Real-Time Polymerase Chain Reaction 1386
Quantification 1387
ABL-1 Drug Resistance Mutations in Ph+ Chromosome–Positive Leukemias 1387
Mutations of Oncogenes and Tumor Suppressor Genes in Hematopoietic Malignancies 1387
Malignant Lymphomas 1387
A20/TNFAIP3 1388
Acute Myeloid Leukemias 1388
RAS Mutations 1388
FMS-like Tyrosine Kinase 3 1388
Nucleophosmin 1 (NPM1) Gene Mutations 1388
CCAAT Enhancer–Binding Protein Alpha (Cebpα) Gene Mutations 1389
Partial Tandem Duplications (PTDs) of the Myeloid/Lymphoid or Mixed Lineage Leukemia (MLL) Gene 1389
Wilms’ Tumor Suppressor 1 Gene (WT1) 1389
Myeloproliferative Disorders 1389
Janus Kinase (JAK) 2 Gene Mutations 1389
Myeloproliferative Leukemia Virus Oncogene Homology (MPL) Gene Mutations 1390
Minimal Residual Disease Detection and Monitoring 1390
Detection of Viral Genomes 1391
Epstein-Barr Virus 1391
In Situ Hybridization 1392
Conclusions 1392
References 1392
45 Plasma Nucleic Acids 1397
Discovery and Early Work 1397
Circulating DNA as a Tumor Marker 1397
Measurement of Total Plasma DNA Concentrations 1397
Plasma DNA Size as a Tumor Marker 1397
Detection of Loss of Heterozygosity in Plasma 1398
Detection of Somatic Gene Mutations in Plasma 1398
Detection of Aberrant DNA Methylation in Plasma 1399
Viral DNA in Plasma 1399
Circulating RNA as a Tumor Marker 1400
Fetal Nucleic Acids in Maternal Plasma 1400
Discovery and Basic Biology of Fetal DNA in Maternal Plasma 1400
Applications to Sex-Linked Diseases, RhD Genotyping, and Monogenic Disease 1401
Detection of Chromosomal Aneuploidies 1402
Pregnancy-Associated Disorders 1404
Other Applications of Plasma Nucleic Acids 1405
Concluding Remarks 1405
References 1405
V Pathophysiology 1413
46 Diabetes Mellitus 1415
Classification 1415
Type 1 Diabetes Mellitus 1416
Type 2 Diabetes Mellitus 1416
Other Specific Types of Diabetes Mellitus 1416
Gestational Diabetes Mellitus 1416
Impaired Glucose Tolerance 1416
Impaired Fasting Glucose 1416
Hormones that Regulate Blood Glucose Concentration 1416
Insulin 1417
Chemistry 1417
Synthesis 1417
Release 1419
Degradation 1419
Proinsulin 1420
C-Peptide 1420
Antibodies to Insulin 1420
The Mechanism of Insulin Action 1420
Glucose Transport 1422
Insulin-like Growth Factors 1422
Counter-Regulatory Hormones 1423
Glucagon 1423
Epinephrine 1423
Growth Hormone 1423
Cortisol 1423
Other Hormones Influencing Glucose Metabolism 1423
Thyroxine 1423
Somatostatin 1423
Clinical Utility of Measuring Insulin, Proinsulin, C-Peptide, and Glucagon 1424
Insulin 1424
Proinsulin 1424
C-Peptide 1425
Fasting Hypoglycemia 1425
Insulin Secretion 1425
Monitoring Therapy 1425
Glucagon 1425
Methods for the Measurement of Specific Hormones 1425
Insulin 1425
Principle 1426
Comments 1426
VI Appendix 2129
60 Reference Information for the Clinical Laboratory 2131
Contents 2131
Index 2189
A 2189
B 2193
C 2195
D 2200
E 2203
F 2204
G 2206
H 2208
I 2212
J 2214
K 2214
L 2215
M 2217
N 2220
O 2221
P 2222
Q 2228
R 2228
S 2229
T 2232
U 2235
V 2236
W 2237
X 2238
Y 2238
Z 2238
Inside Back Cover ibc1