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ویرایش:
نویسندگان: Shiyang Pan. Jinhai Tang (ed.)
سری:
ISBN (شابک) : 9789811610363, 9789811610370
ناشر: Springer
سال نشر: 2021
تعداد صفحات: 888
زبان: English
فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود)
حجم فایل: 40 مگابایت
در صورت تبدیل فایل کتاب Clinical Molecular Diagnostics به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب تشخیص مولکولی بالینی نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
Foreword Coordinators Preface Acknowledgments Contents About the Editors and Contributors About the Editors Editorial Board Contributors Part I: Principles of Clinical Molecular Diagnostics 1: Molecules of Disease and Their Detection Methods 1.1 Overview 1.2 Molecular Mechanism of Diseases 1.3 Nucleic Acid Detection Methods 1.3.1 Nucleic Acid Amplification Technology 1.3.2 Sequencing Technology 1.3.3 Nucleic Acid Hybridization Technology 1.3.4 Chip Technology 1.3.5 Biosensing Technology 1.4 Protein Detection Methods 1.4.1 Spectrum Technology 1.4.2 Protein Chip Technology 1.4.3 Labeled Immunoassay 1.4.4 Mass Spectrometric Technique 1.5 Future Trends References 2: Assay Performance Evaluation 2.1 Precision 2.1.1 Terminology and Definitions 2.1.2 Overview of the Precision Evaluation Process (Fig. 2.1) 2.1.3 Features of the EP5-A2 Program 2.1.4 EP5-A2 Experimental Protocol and Requirements 2.1.4.1 Experimental Preparation Experimental Sample 2.1.4.2 Experimental Method 2.1.4.3 Quality Control 2.1.5 Data Collection, Processing, and Statistical Analysis 2.1.5.1 Experimental Data Record 2.1.5.2 Outlier Test 2.1.5.3 Repeatability Estimate 2.2 Accuracy 2.2.1 Definitions 2.2.2 Features of the EP9-A2 Program 2.2.3 EP9-A2 Experimental Protocol and Requirements 2.2.3.1 Experimental Preparation Sample Preparation Comparison Method Selection 2.2.3.2 Experimental Method 2.2.3.3 Quality Control 2.2.4 Simple Accuracy Evaluation Plan 2.2.4.1 Comparison of Patient Sample Results to Those of Another Procedure 2.2.4.2 Method of Setting Reference Materials Sources of Reference Materials Procedure for Demonstration of Accuracy with Reference Materials 2.3 Sensitivity 2.3.1 Definitions 2.3.2 Discussion of Several Common Terms 2.3.3 Lower Limit of Linear Range (LLR), Biological Limit of Detection (BLD), and Functional Sensitivity (FS) 2.3.3.1 Lower Limit of Linear Range (LLR) 2.3.3.2 Biological Limit of Detection (BLD) 2.3.3.3 Functional Sensitivity (FS) 2.3.3.4 Experimental Precautions Blank Sample Detection Limit Sample Time Required for the Experiment 2.3.4 Limits of Blank, Limits of Detection, and Limits of Quantitation 2.3.4.1 Overview 2.3.4.2 General Method for Determining the Limits of Blank (LoB) 2.4 Analytical Measurement Range 2.4.1 Definitions 2.4.2 EP6-A Protocol and Requirements 2.4.2.1 Experimental Requirements Device Familiarization Period Duration of the Experiment Specimen of the Experiment Number of Samples Matrix Effects Selection of Materials Used to Supplement Samples Analyte Range Sample Preparation and Value Assignment 2.4.2.2 Analytical Sequence 2.4.2.3 Preliminary Data Check Outlier Inspection Determination of the Linear Range Degree of Nonlinearity Considerations for Random Error 2.5 Variation Factors of Pre-analysis 2.5.1 Collection, Transport, and Preservation of Nucleic Acid Test Specimens 2.5.1.1 Preparation of Specimen Collection Site 2.5.1.2 Type and Collection of Specimens 2.5.1.3 Sampling and Transport Containers 2.5.1.4 Anti-pollution in Specimen Collection 2.5.1.5 Evaluation of Sampling Quality References 3: Establishment of Biological Reference Interval 3.1 Biological Reference 3.1.1 Definitions and Terms 3.1.2 Clarifications 3.2 Establishment of Biological Reference Interval 3.2.1 Protocol Outline for Obtaining Reference Values and Establishing Reference Intervals 3.2.1.1 New Analyte or Analytical Method 3.2.1.2 Previously Measured Analyte 3.2.2 Selection of Reference Individuals 3.2.2.1 Exclusion Criteria 3.2.2.2 Partitioning Criteria 3.2.2.3 Selection of Reference Individuals 3.2.2.4 Sample Questionnaire 3.2.3 Pre-analytical and Analytical Considerations 3.2.4 Analysis of Reference Values 3.2.4.1 Minimum Number of Reference Values 3.2.4.2 Treatment of Outlying Observations 3.2.4.3 Partitioning of Reference Values 3.3 Verification of Biological Reference Interval 3.4 Description of Biological Reference Interval 3.4.1 Laboratory Presentation 3.4.2 Manufacturer Presentation References 4: Ethics: Informed Consent, Patient Privacy 4.1 Overview 4.2 Informed Consent 4.2.1 Challenges 4.2.2 Regulations and Recommendations 4.2.3 What Should Be Included in the Informed Consent? 4.3 Patient Privacy and Confidentiality 4.3.1 Challenges 4.3.2 Regulations and Recommendations 4.3.3 How to Protect Patient Privacy? 4.4 Conclusion References 5: Bioinformatics 5.1 Overview 5.1.1 Concept and Background 5.1.2 Research Categories 5.1.3 Common International Bioinformatics Centers 5.1.4 Common Bioinformatics Database 5.2 Biological Sequence Analysis 5.2.1 Sequence Analysis 5.2.2 Multiple Sequence Analysis 5.2.3 Molecular Polygenetic Tree 5.2.4 Comparative Genomics 5.3 Transcriptomics Data Analysis 5.3.1 Gene Expression Profile Analysis 5.3.2 Functional Enrichment Analysis 5.3.3 Timing Analysis 5.3.4 Gene Co-expression Network Analysis 5.3.5 Analysis of Transcriptional Regulation 5.4 Protein Structure Analysis 5.4.1 Protein Structure Prediction 5.4.2 Protein-Protein Interaction 5.4.3 Protein Function Prediction 5.5 Bioinformatics and Precision Medicine 5.5.1 Bioinformatics and Precision Medical Diagnosis 5.5.1.1 Genetic Testing 5.5.1.2 Detection of Pathogenic Microorganisms 5.5.2 Bioinformatics and Precision Medical Prevention and Treatment 5.5.3 Bioinformatics and the Future of Precision Medicine References 6: Report and Consultation 6.1 Overview 6.2 Genetic Variation and Description 6.2.1 The Level of Sequence Variation 6.2.2 Content of the Variant Description 6.2.3 Types of Variant Sequences 6.2.4 Expression of Variant Types Specific Abbreviations Are Used to Describe Different Types of Sequence Variations 6.2.5 Reference Sequence 6.3 Naming Rules 6.3.1 Specific Rules for DNA Levels 6.3.2 Detailed Rules for RNA Levels 6.3.3 Detailed Rules of Protein Levels 6.3.3.1 Amino Acid Coding 6.3.3.2 Silent Changes 6.3.3.3 Substitutions, Missense Changes 6.3.3.4 Amino Acid Deletion 6.3.3.5 Frameshift Mutation 6.3.3.6 Amino Acid Insertion, Repeat 6.3.4 Gene Pharmacology Genotype Terminology 6.3.5 Other 6.4 Application of Gene Mutation in Disease Diagnosis 6.4.1 Genetic Variation and Genetic Diagnosis 6.4.2 Application of Genetic Variation Detection in Disease Diagnosis 6.4.2.1 Molecular Diagnosis of Mendelian Genetic Disease 6.4.2.2 Prenatal Diagnosis and Prenatal and Postnatal Care 6.4.2.3 Molecular Genetic Testing of Complex Diseases 6.4.2.4 Diagnosis and Treatment of Tumors 6.4.2.5 Detection of Pathogenic Microorganisms 6.5 What Is Involved Before the Clinical Report 6.5.1 Content Covered by the Clinical Report 6.5.1.1 The Test Report Should Include the Following 6.5.1.2 DNA Sequencing Reports and Explanations Should Include 6.5.1.3 Reports and Interpretations of Whole-Exon or Whole-Genome Next-Generation Sequencing Should also Include the Following 6.5.2 Clinical Interpretation of the Data 6.5.3 Clinical Molecular Diagnostic Testing Process and Precautions 6.5.3.1 Clinical Molecular Diagnostic Testing Process 6.5.3.2 Precautions for Clinical Reports 6.6 Reporting Model and Case Analysis 6.6.1 Tumor Molecular Diagnosis Report 6.6.1.1 Introduction to Non-small Cell Lung Cancer 6.6.1.2 Methods and Test Items for Clinical Molecular Diagnosis of Non-small Cell Lung Cancer Source of NSCLC Target Molecule Detection Project Detection Method of NSCLC Target Molecule For Example 6.6.2 Molecular Diagnosis Report of Infectious Diseases 6.6.2.1 Introduction to Hepatitis B 6.6.2.2 Method and Test Item for Clinical Molecular Diagnosis of Hepatitis B Virus Project Source Detection Method For Example 6.6.3 Noninvasive Prenatal Screening Results Report 6.6.3.1 Introduction to Noninvasive Prenatal Screening 6.6.3.2 Noninvasive Prenatal Screening Method and Test Project for Clinical Molecular Diagnosis 6.6.3.3 High Throughput Sequencing For Example 6.6.4 Genetic Disease Diagnosis Report 6.6.4.1 Clinical Molecular Diagnosis of G6PD Deficiency Introduction to G6PD Deficiency Methods and Test Items for Clinical Molecular Diagnosis of G6PD Deficiency Source of G6PD Deficiency Molecular Testing Project For Example References 7: Factors Associated with Variation 7.1 The Concept 7.2 Sampling 7.2.1 Specimen Collection 7.2.1.1 Time of Collection 7.2.1.2 Method of Collection Body Position and Part in Blood Collection Cuff Infusion 7.2.1.3 Volume of Specimen 7.2.1.4 Precautions for Sample Collection Collect Representative Specimens Proper Use of Anticoagulant Avoid Specimen Hemolysis and Container Contamination Avoid Collecting Blood During Infusion 7.2.2 Sample Delivery and Preservation 7.2.2.1 Sample Delivery Delivery Principle Specially Assigned People Receiving 7.2.2.2 Specimen Preservation 7.3 Biological Factors 7.3.1 Age 7.3.1.1 Neonatal 7.3.1.2 Children 7.3.1.3 The Elderly 7.3.2 Gender 7.3.3 Season 7.3.4 Altitude 7.3.5 Biological Cycle 7.3.6 Pregnancy 7.3.7 Lifestyle 7.4 Drugs 7.4.1 Interference of Drugs on Routine Inspection in Clinic 7.4.1.1 The Impact on Routine Blood Tests Results 7.4.1.2 The Impact on Routine Urine Test Results 7.4.1.3 The Impact on Routine Stool Test Results 7.4.2 Interference of Drugs on Clinical Biochemical Tests 7.4.2.1 Drugs Affecting Enzyme Assay 7.4.2.2 Drugs Affecting Blood Sugar Assay 7.4.2.3 Drugs Affecting Protein Assay 7.4.2.4 Drugs Affecting Lipid Assay 7.4.2.5 Drugs Affecting Electrolyte Assay References 8: Quality Control and Quality Assurance 8.1 Overview 8.2 Laboratory Setting and Contamination Control 8.2.1 Laboratory Setting 8.2.2 Facilities 8.2.3 Laboratory Practices 8.2.4 Chemical and Enzymatic Controls 8.3 Internal Quality Control 8.3.1 Quantitative Tests 8.3.2 Qualitative Tests 8.4 Quality Assessments 8.4.1 Quality Indicators 8.4.2 External Quality Assessment 8.4.3 Auditing Program 8.5 Quality Control Material 8.6 Verification and Validation 8.7 The Process of Detection and Quality Control 8.7.1 Pre-analytic Phase 8.7.2 Analytic Phase 8.7.3 Post-analytical Phase 8.8 Personnel 8.9 Quality Control of Laboratory Equipment 8.10 Reagents and Consumables Quality Control 8.11 Quality Improvement 8.12 Document Control 8.13 Conclusion References 9: Precision Medicine 9.1 Evidence-Based Laboratory Medicine 9.2 Translational Medicine of Molecular Diagnostic Tests 9.3 Molecular Diagnostic Tests in Personalized Medicine 9.4 The Application of Pharmacogenomics 9.5 Companion Diagnostics References Part II: Molecular Biomarkers and Signals from Diseased Functional Organ 10: Molecules in Body Systems 10.1 Overview 10.2 Four Major Families of Small Organic Molecules 10.2.1 Sugars Provide an Energy Source for Cells and Are the Subunits of Polysaccharides 10.2.2 Fatty Acids Are Precursors for Phospholipids and Other Membrane Components 10.2.3 Amino Acids Are the Subunits of Proteins 10.2.4 Nucleotides Are the Subunits of DNA and RNA 10.3 The Chemistry of Cells Is Dominated by Macromolecules with Remarkable Properties 10.3.1 Carbohydrates 10.3.2 Lipids 10.3.3 Nucleic Acids 10.3.4 Proteins References 11: Molecules in Signal Pathways 11.1 Overview 11.2 Functions 11.2.1 The Change of Signal Transduction Molecules Is the Basis of Signal Transduction 11.2.1.1 Signal Transduction Molecules Constitute the Network of Signal Transduction Pathways 11.2.1.2 The Change in the Conformation and Activity of Signal Transduction Molecules Is the Basis of Signal Transduction 11.2.1.3 Changes of Intracellular Signal Transduction Molecule Content and Translocation Are Important Ways of Signal Transduction Regulation 11.2.2 Signal Transduction Molecules Are Important Targets for Drug Action 11.3 Signal Pathways 11.3.1 Apoptosis 11.3.1.1 The BCL-2 Family 11.3.1.2 Caspases 11.3.1.3 Inhibitors of Apoptotic Proteins 11.3.2 PI3K/AKT/mTOR Signal Pathway 11.3.2.1 Phosphatidylinositide 3 Kinase 11.3.2.2 Akt 11.3.2.3 Mammalian Target of Rapamycin 11.3.3 Wnt Signal Pathway 11.3.3.1 Wnt 11.3.3.2 Adenomatous Polyposis Coli 11.3.3.3 β-Catenin 11.3.3.4 c-Myc 11.3.4 Mitogen-Activated Protein Kinase Signal Pathway 11.3.4.1 Extracellular Signal-Regulated Kinase 1/2 11.3.4.2 c-Jun Terminal Kinases 11.3.4.3 p38 11.3.5 JAK/STAT Signal Pathway 11.3.5.1 JAKs 11.3.5.2 STATs 11.3.6 Angiogenesis 11.3.7 Notch Signal Pathway 11.4 Important Molecules 11.4.1 PD-1/PD-L1 11.4.2 HIF-1 11.4.3 p53 11.4.4 Tumor Specific Protein 70 References 12: Endocrine and Metabolism 12.1 Overview 12.2 Insulin 12.2.1 Sources and Characteristic 12.2.2 Methods 12.2.3 Reference Interval for Healthy Persons 12.2.4 Clinical Significance 12.2.4.1 The Application in the Diagnosis and Treatment of Diabetes 12.2.4.2 The Application in the Hypoglycemia Syndrome 12.2.4.3 The Application in the Diagnosis of Insulin Beta Cell Tumor 12.2.4.4 The Application of Other Diseases in the Diagnosis and Treatment 12.3 C-Peptide 12.3.1 Source and Characteristics 12.3.2 Methods 12.3.3 Reference Interval for Healthy Persons 12.3.4 Clinical Significance 12.4 Glycosylated Hemoglobin (HbA1c) 12.4.1 Sources and Characteristics 12.4.2 Methods 12.4.3 Reference Interval for Healthy Persons 12.4.4 Clinical Significance 12.4.5 Conclusions and Prospects 12.5 IGFBP-2 12.5.1 Sources and Characteristics 12.5.2 Methods 12.5.3 Reference Interval for Healthy Persons 12.5.4 Clinical Significance 12.5.5 Conclusions and Prospects 12.6 Thyroid Markers 12.6.1 The Function of Thyroid 12.6.2 Laboratory Evaluation of Thyroid 12.6.2.1 Tests That Asses the Hypothalamic-Pituitary-Thyroid Axis T3 and T4 TSH and TRH FT4 and FT3 12.6.2.2 Tests for Evaluation of Thyroid Autoimmunity TG-Ab and TPO-Ab TR-Ab 12.6.3 Conclusions and Prospects 12.7 Adrenal Gland Markers 12.7.1 Structure of Adrenal Gland 12.7.2 Function of Adrenal Gland 12.7.3 Laboratory Examination of Adrenal Gland 12.7.3.1 Tests That Assess the Level of Adrenal Medullary Hormone 12.7.3.2 Tests That Asses the Level of Adrenocortical Hormone Examinations of Glucocorticoids and Their Metabolites in Blood, Urine, and Saliva Examination of ATCH and N-POMC in Plasma Dynamic Functional Test Dexamethasone Inhibition Test 12.7.3.3 Genetic Testing 12.7.4 Conclusion 12.8 The Relevant Progress References 13: Immune System 13.1 Overview 13.1.1 Autoimmune Diseases 13.1.2 Hypersensitive Diseases 13.1.2.1 Markers of Type I Hypersensitivity Diseases 13.1.2.2 Markers of Type II Hypersensitivity Diseases 13.1.2.3 Markers of Type III Hypersensitivity Diseases 13.1.2.4 Markers of Type IV Hypersensitivity Diseases 13.2 Tissue-specific Autoantibodies 13.2.1 Anti-intrinsic Factor Antibody (AIFA) 13.2.2 Anti-parietal Cell Antibody 13.2.3 Anti-smooth Muscle Antibody 13.2.4 Anti-liver/Kidney Microsome Antibody 13.2.5 Anti-pituitary Antibody 13.2.6 Anti-thyroid Antibody 13.2.7 Anti-glutamic Acid Decarboxylase Antibody 13.2.8 Anti-islet Cell Antibody 13.2.9 Anti-insulin Antibody 13.2.10 Anti-adrenocortical Antibody 13.2.11 Anti-glomerular Basement Membrane Antibody 13.3 Systemic Autoantibodies 13.3.1 Anti-mitochondrial Antibody 13.3.2 Human Anti-globulin Antibody 13.3.3 Anti-cold Agglutinin Antibody 13.3.4 Anti-nuclear Antibody 13.3.5 Anti-extractable Nuclear Antibody 13.3.5.1 Anti-Smith Antibody 13.3.5.2 Anti-SSA/Ro Antibody and Anti-SSB/La Antibody 13.3.5.3 Anti-RNP Antibody 13.3.5.4 Anti-topoisomerase Antibody (ATA)/Anti-Scl-70 Antibody 13.3.6 Anti-cardiolipin Antibody 13.3.7 Anti-DNA Antibody 13.3.7.1 Anti-dsDNA Antibody 13.3.7.2 Anti-ssDNA Antibody 13.3.8 Anti-histone Antibody 13.3.9 Anti-centromere Antibody 13.3.10 Anti-p62 Antibody (AP62A)/Anti-sp100 Antibody/Anti-glycoprotein-210 Antibody (AGPA, Anti-gp210, Anti-nup210, Anti-np210) 13.3.11 Rheumatoid Factor 13.3.12 Anti-citrullinated Peptide Antibody (Anti-CCP Antibody) 13.3.13 Anti-glucose-6-Phosphate Isomerase (Anti-G6PI) 13.3.14 Antineutrophil Cytoplasmic Antibody 13.3.15 Rh Antibody 13.3.16 Anti-erythrocyte Antibody 13.3.17 Anti-HLA Antibody 13.3.18 Prospects for Autoantibodies 13.4 Immunoglobulin E 13.5 Relevant Activated Cell Markers 13.5.1 Mast Cells 13.5.2 Eosinophil Activation Marker 13.5.3 The Activation Markers of Basophil and Neutrophil 13.5.4 T Lymphocyte Immunophenotype 13.6 Complement System 13.7 Circulation Immune Complex 13.8 Other Markers 13.8.1 Cytokines 13.8.2 Proteins and Enzymes 13.9 The Relevant Progress References 14: Lipoproteins 14.1 Overview 14.1.1 Basic Concepts 14.1.2 Functions and Metabolic Pathways of Various Lipoproteins 14.1.2.1 Chylomicrons Transport Exogenous Triglycerides and Cholesterol 14.1.2.2 Very Low-Density Lipoproteins Transport Endogenous Triglycerides 14.1.2.3 Low-Density Lipoprotein Transports Endogenous Cholesterol 14.1.2.4 High-Density Lipoprotein Transports Cholesterol in Reverse Fashion 14.1.3 Lipoprotein Metabolic Disturbances 14.1.3.1 Hyperlipoproteinemia Primary Hyperlipoproteinemia Hyperlipoproteinemia Secondary Hyperlipoproteinemia Clinical Manifestations of Hyperlipoproteinemia Diagnostic Criteria for Hyperlipoproteinemia 14.1.3.2 Hypolipoproteinemia 14.1.3.3 Lipoprotein Metabolic Disturbance and Atherosis Factors Leading to Atherosis Lipoprotein Remnants Modified LDL Type B LDL LP(a) 14.2 Total Cholesterol 14.2.1 Sources and Characteristics 14.2.2 Detection Methods and Reference Values of Healthy People 14.2.2.1 Detection Methods 14.2.2.2 Reference Values of Healthy Individuals 14.2.2.3 Clinical Significance 14.2.2.4 Related Progress 14.3 Triglycerides 14.3.1 Sources and Characteristics 14.3.2 Detection Methods and Reference Values of Healthy Individuals 14.3.2.1 Detection Methods 14.3.2.2 Reference Values of Healthy Individuals 14.3.2.3 Clinical Significance 14.3.2.4 Related Progress 14.4 Free Fatty Acids 14.4.1 Sources and Characteristics 14.4.2 Detection Methods and Reference Values of Healthy Individuals 14.4.2.1 Detection Methods 14.4.2.2 Reference Values of Healthy Individuals 14.4.2.3 Clinical Significance 14.5 Phospholipids 14.5.1 Sources and Characteristics 14.5.2 Detection Methods and Reference Values of Healthy People 14.5.2.1 Detection Methods 14.5.2.2 Reference Values of Healthy Individuals 14.5.2.3 Clinical Significance 14.6 Lipoprotein 14.6.1 High-Density Lipoprotein 14.6.1.1 Sources and Characteristics 14.6.1.2 Detection Methods and Reference Values of Healthy Individuals Detection Methods 14.6.1.3 Reference Values of Healthy Individuals 14.6.1.4 Clinical Significance 14.6.1.5 Related Progress 14.6.2 Low-Density Lipoprotein 14.6.2.1 Sources and Characteristics 14.6.2.2 Detection Methods and Reference Values of Healthy Individuals Detection Methods Reference Values of Healthy Individuals 14.6.2.3 Clinical Significance 14.6.2.4 Related Progress 14.6.3 Small and Dense Low-Density Lipoprotein 14.6.3.1 Sources and Characteristics 14.6.3.2 Detection Methods and Reference Values of Healthy Individuals Detection Methods Reference Values of Healthy Individuals 14.6.3.3 Clinical Significance 14.6.3.4 Related Progress 14.6.4 Lipoprotein (a) 14.6.4.1 Sources and Characteristics 14.6.4.2 Detection Methods and Reference Values of Healthy Individuals Detection Methods Reference Values of Healthy Individuals 14.6.4.3 Clinical Significance 14.6.4.4 Related Progress References 15: Transport and Carrier Proteins 15.1 Overview 15.2 Apolipoprotein AI (AI, ApoAI) 15.2.1 Sources and Characteristics 15.2.2 Detection Methods and Reference Values of Healthy Individuals 15.2.2.1 Detection Methods 15.2.2.2 Reference Values of Healthy Individuals 15.2.3 Clinical Significance 15.2.4 Related Progression 15.3 Apolipoprotein B 15.3.1 Sources and Characteristics 15.3.2 Detection Methods and Reference Values of Healthy Individuals 15.3.2.1 Detection Methods 15.3.2.2 Reference Values of Healthy Individuals 15.3.3 Clinical Significance 15.3.4 Related Progress 15.4 Apolipoprotein B/Apolipoprotein AI Ratio (ApoB/ApoAI Ratio) 15.4.1 Sources and Characteristics 15.4.2 Detection Methods and Reference Values of Healthy Individuals 15.4.2.1 Detection Methods 15.4.2.2 Reference Values of Healthy Individuals 15.4.3 Clinical Significance 15.4.4 Related Progress 15.5 Apolipoprotein CII and CIII 15.5.1 Sources and Characteristics 15.5.2 Detection Methods and Reference Values of Healthy Individuals 15.5.2.1 Detection Method 15.5.2.2 Reference Values of Healthy Individuals 15.5.3 Clinical Significance 15.5.4 Related Progress 15.6 Apolipoprotein E 15.6.1 Sources and Characteristics 15.6.2 Detection Methods and Reference Values of Healthy Individuals 15.6.2.1 Detection Methods 15.6.2.2 Reference Values of Healthy Individuals 15.6.3 Clinical Significance 15.6.4 Related Progress 15.7 Apolipoprotein H 15.7.1 Sources and Characteristics 15.7.2 Detection Methods 15.7.2.1 Detection Methods 15.7.2.2 Reference Value of Healthy Individuals 15.7.3 Clinical Significance 15.7.4 Research Progress 15.8 Apolipoprotein M 15.8.1 Sources and Characteristics 15.8.2 Detection Methods and Reference Values of Healthy Individuals 15.8.2.1 Detection Methods 15.8.2.2 Reference Values of Healthy Individuals 15.8.3 Clinical Significance 15.8.4 Research Progress References 16: Coagulation and Fibrinolysis 16.1 Overview 16.2 Fibrinogen 16.2.1 Sources and Characteristics 16.2.2 Detection Method and Reference Range 16.2.3 Clinical Significance 16.3 D-Dimer 16.3.1 Sources and Characteristics 16.3.2 Detection Method 16.3.3 Healthy Person Reference Range 16.3.4 Clinical Significance 16.4 Fibrinogen/Fibrin Degradation Product 16.4.1 Sources and Characteristics 16.4.2 Detection Method 16.4.3 Healthy Person Reference Range 16.4.4 Clinical Significance 16.5 Protein C 16.5.1 Sources and Characteristics 16.5.2 Detection Method 16.5.3 Healthy Person Reference Range 16.5.4 Clinical Significance 16.6 Protein S 16.6.1 Sources and Characteristics 16.6.2 Detection Method 16.6.3 Healthy Person Reference Range 16.6.4 Clinical Significance 16.7 Antithrombin 16.7.1 Sources and Characteristics 16.7.2 Detection Method 16.7.3 Healthy Person Reference Range 16.7.4 Clinical Significance 16.8 Plasminogen 16.8.1 Sources and Characteristics 16.8.2 Detection Method 16.8.3 Healthy Person Reference Range 16.8.4 Clinical Significance 16.9 α2-Plasmin Inhibitor 16.9.1 Sources and Characteristics 16.9.2 Detection Method 16.9.3 Healthy Person Reference Range 16.9.4 Clinical Significance 16.10 Von Willebrand Factor 16.10.1 Sources and Characteristics 16.10.2 Detection Method 16.10.3 Healthy Person Reference Range 16.10.4 Clinical Significance 16.11 Thrombomodulin 16.11.1 Sources and Characteristics 16.11.2 Detection Method and Healthy Person Reference Range 16.11.3 Clinical Significance 16.12 Plasminogen Activator Inhibitor Type 1 16.12.1 Sources and Characteristics 16.12.2 Detection Method 16.12.3 Healthy Person Reference Range 16.12.4 Clinical Significance 16.13 Tissue Factor Pathway Inhibitor 16.13.1 Sources and Characteristics 16.13.2 Detection Method 16.13.3 Healthy Person Reference Range 16.13.4 Clinical Significance 16.14 Laboratory Tests for Clotting Factor Deficiency Screening 16.14.1 Prothrombin Time 16.14.1.1 Sources and Characteristics 16.14.1.2 Detection Method 16.14.1.3 Healthy Person Reference Range 16.14.1.4 Clinical Significance 16.14.2 Activated Partial Thromboplastin Time 16.14.2.1 Sources and Characteristics 16.14.2.2 Detection Method 16.14.2.3 Healthy Person Reference Range 16.14.2.4 Clinical Significance 16.14.3 Thrombin Time 16.14.3.1 Sources and Characteristics 16.14.3.2 Detection Method 16.14.3.3 Healthy Person Reference Range 16.14.3.4 Clinical Significance 16.14.4 Coagulation Factor Assay 16.14.4.1 Sources and Characteristics 16.14.4.2 Detection Method 16.14.4.3 Healthy Person Reference Range 16.14.4.4 Clinical Significance 16.15 Molecular Diagnosis of Inherited Bleeding Disorders 16.15.1 Molecular Diagnosis of Hemophilia A and Hemophilia B 16.15.2 Molecular Diagnosis of Von Willebrand Disease 16.15.3 Molecular Diagnosis of Rare Bleeding Disorders 16.16 Related Progress References 17: Cardiovascular System 17.1 Overview 17.2 Myocardial Damage Markers 17.2.1 Cardiac Troponin (cTn) 17.2.2 Myoglobin (Mb) 17.2.3 Creatine Kinase Isoenzyme MB (CK-MB) 17.2.4 Heart Type-Fatty Acid Binding Protein (H-FABP) 17.2.5 Copeptin 17.3 Myocardial Ischemia Markers 17.3.1 Ischemic Modified Albumin (IMA) 17.4 Heart Function Markers 17.4.1 Brain Natriuretic Peptide (BNP) or NT-proBNP 17.4.2 Soluble Suppression of Tumorigenicity-2 (sST2) 17.4.3 Adrenomedullin (ADM) 17.5 Inflammatory Markers 17.5.1 C-Reactive Protein (CRP) 17.5.2 Interleukin-6 (IL-6) 17.6 Markers That Predict Heart-Risk Events 17.6.1 Homocysteine (Hcy) 17.6.2 Lipoprotein-Associated Phospholipase A2 (Lp-PLA2) 17.6.3 Myeloperoxidase (MPO) 17.7 Other Markers 17.7.1 MicroRNAs 17.7.2 KCNQ1 17.7.3 SCN5A 17.7.4 RYR2 17.7.5 KCNE1 17.7.6 KCNH2 References 18: Pregnancy 18.1 Overview 18.2 Human Chorionic Gonadotropin (hCG) 18.2.1 Resource and Characteristics 18.2.2 Detection Methods 18.2.3 Reference Range 18.2.4 Clinical Application 18.2.4.1 Diagnosis and Monitor Normal/Abnormal Pregnancy 18.2.4.2 Diagnosis of Gestational Trophoblastic Disease (GTD) 18.2.4.3 Marker for Down’s Syndrome Screening 18.3 Alpha-Fetoprotein (AFP) 18.3.1 Resource and Characteristics 18.3.2 Detection Methods 18.3.3 Reference Range 18.3.4 Clinical Applications 18.3.4.1 Prenatal Diagnosis 18.3.4.2 Diagnosis and Monitoring of Hepatocellular Carcinoma and Other Germ Cell Tumors 18.4 Pregnancy-Associated Plasma Protein-A (PAPP-A) 18.4.1 Resource and Characteristics 18.4.2 Detection Methods 18.4.3 Reference Range 18.4.4 Clinical Applications 18.5 Inhibin 18.5.1 Resource and Characteristics 18.5.2 Detection Methods 18.5.3 Reference Range 18.5.4 Clinical Application 18.5.4.1 A Marker of Trophoblast Viability and Placental Dysfunction 18.5.4.2 Prenatal Serum Screening for Down’s Syndrome 18.5.4.3 Prenatal Serum Screening for Other Chromosome Abnormalities 18.5.4.4 A Marker to Evaluate the Development of Hypertensive Disorders of Pregnancy 18.6 Unconjugated Estriol 18.6.1 Resource and Characteristics 18.6.2 Detection Method 18.6.3 Reference Range 18.6.4 Clinical Application 18.6.4.1 Prenatal Serum Screening for Down’s Syndrome 18.6.4.2 Monitor Placental Function and Fetal Development 18.7 Cell-Free DNA (cfDNA) 18.7.1 Resource and Characteristics 18.7.2 Detection Method 18.7.3 Clinical Application 18.7.3.1 Trisomy 21 (Down’s Syndrome) 18.7.3.2 Trisomy 18 (Edwards Syndrome) 18.7.3.3 Trisomy 13 References 19: Urine 19.1 Overview 19.2 Urea 19.2.1 Sources and Characteristics 19.2.2 Detection Methods 19.2.3 Normal Reference Interval 19.2.4 Clinical Significance 19.3 Creatinine 19.3.1 Sources and Characteristics 19.3.2 Detection Methods 19.3.3 Normal Reference Interval 19.3.4 Clinical Significance 19.4 Urinary Microalbumin 19.4.1 Sources and Characteristics 19.4.2 Detection Methods 19.4.3 Normal Reference Interval 19.4.4 Clinical Significance 19.5 Cystatin C 19.5.1 Sources and Characteristics 19.5.2 Detection Methods 19.5.3 Normal Reference Interval 19.5.4 Clinical Significance 19.6 Transferrin 19.6.1 Sources and Characteristics 19.6.2 Detection Methods 19.6.3 Normal Reference Interval 19.6.4 Clinical Significance 19.7 Uric Acid 19.7.1 Sources and Characteristics 19.7.2 Detection Methods 19.7.3 Normal Reference Interval 19.7.4 Clinical Significance 19.8 α1-Microglobulin 19.8.1 Sources and Characteristics 19.8.2 Detection Methods 19.8.3 Normal Reference Interval 19.8.4 Clinical Significance 19.9 β2-Microglobulin 19.9.1 Sources and Characteristics 19.9.2 Detection Methods 19.9.3 Normal Reference Interval 19.9.4 Clinical Significance 19.10 Neutrophil Gelatinase-Associated Lipocalin 19.10.1 Sources and Characteristics 19.10.2 Detection Methods 19.10.3 Normal Reference Interval 19.10.4 Clinical Significance 19.11 N-Acetyl-β-d Glucosamine Glycosaminase 19.11.1 Sources and Characteristics 19.11.2 Detection Methods 19.11.3 Normal Reference Interval 19.11.4 Clinical Significance 19.12 Retinol Binding Protein 19.12.1 Sources and Characteristics 19.12.2 Detection Methods 19.12.3 Normal Reference Interval 19.12.4 Clinical Significance References 20: Bone 20.1 Overview 20.2 BAP 20.2.1 Sources and Characteristics 20.2.2 Methods 20.2.3 Reference Interval for Healthy Persons 20.2.4 Clinical Significance 20.2.5 Conclusions and Prospects 20.3 N-MID Osteocalcin 20.3.1 Sources and Characteristics 20.3.2 Methods 20.3.3 Reference Interval for Healthy Persons 20.3.4 Clinical Significance 20.3.5 Conclusions and Prospects 20.4 Total PINP 20.4.1 Sources and Characteristics 20.4.2 Methods 20.4.3 Reference Interval for Healthy Persons 20.4.4 Clinical Significance 20.4.5 Conclusions and Prospects 20.5 PINP 20.5.1 Sources and Characteristics 20.5.2 Methods 20.5.3 Reference Interval for Healthy Persons 20.5.4 Clinical Significance 20.5.5 Conclusions and Prospects 20.6 PICP 20.6.1 Sources and Characteristics 20.6.2 Methods 20.6.3 Reference Interval for Healthy Persons 20.6.4 Clinical Significance 20.6.5 Conclusions and Prospects 20.7 β-Crosslaps 20.7.1 Sources and Characteristics 20.7.2 Methods 20.7.3 Reference Interval for Healthy Persons 20.7.4 Clinical Significance 20.8 Conclusions and Prospects References 21: Cancer 21.1 Overview 21.1.1 The Ideal Biomarker for Cancer 21.1.2 Classification of Tumor Biomarkers 21.1.2.1 Classification by Biochemical Properties 21.1.2.2 Classification by Sources 21.1.2.3 Classification by Oncogenesis and Development of Tumors 21.2 Tumor Markers with Different Biochemical Properties 21.2.1 Oncofetal Protein 21.2.1.1 AFP 21.2.1.2 AFP-L3 21.2.1.3 CEA 21.2.2 Protein 21.2.2.1 TPA and TPS 21.2.2.2 CYFRA21-1 21.2.2.3 PIVKA-II 21.2.3 Enzymes 21.2.3.1 PSA 21.2.3.2 NSE 21.2.3.3 LDH 21.2.4 Sugar Esters or Glycoproteins 21.2.4.1 CA125 21.2.4.2 CA15–3 21.2.4.3 CA19–9 21.2.5 Hormone 21.2.5.1 HCG 21.2.5.2 CA 21.3 Multistage Biomarkers of Tumorigenesis and Development 21.3.1 Molecular Biomarkers for Early Diagnosis 21.3.1.1 SPLUNC1 21.3.1.2 APC 21.3.1.3 RASSF1A 21.3.1.4 EBERs 21.3.1.5 DAPK 21.3.1.6 NES1 21.3.1.7 DCC 21.3.2 Molecular Biomarkers for Invasion and Metastasis 21.3.2.1 Adhesion Molecules E-Cadherins Integrins CD44 21.3.2.2 Proteolytic Enzymes and Their Inhibitors MMP uPA Cathepsin 21.3.2.3 Tumor Microangiogenesis-Related Molecules Promoting Microangiogenesis Factors VEGF MVD Inhibitory Microangiogenesis Factors Angiostatin and Endostatin 21.3.2.4 Autocrine Motility Factor AMF Gp78 21.3.3 Molecular Biomarkers for Prognosis 21.3.3.1 Survivin 21.3.3.2 Cyclin D1 21.3.3.3 P53 21.3.3.4 TSLC1 21.3.3.5 BAG-1 21.3.3.6 Bmi-1 21.4 Molecular Biomarkers for Precision Medicine 21.4.1 Breast Cancer 21.4.1.1 HER2 21.4.1.2 ER and PR 21.4.1.3 BRCA1/BRCA2 21.4.2 Lung Cancer 21.4.2.1 EGFR 21.4.2.2 ALK 21.4.2.3 ROS-1 21.4.3 Colorectal Cancer 21.4.3.1 CIN 21.4.3.2 MSI 21.4.3.3 CIMP 21.5 Novel Molecular Biomarkers of Tumor 21.5.1 Tumor Specific Protein 70 (SP70) 21.5.1.1 Sources and Characteristics 21.5.1.2 Clinical Detection Methods 21.5.1.3 Clinical Application 21.5.2 CTC 21.5.3 ctDNA 21.5.4 DNA Methylation in Peripheral Blood 21.5.5 Circulating miRNAs 21.5.6 LncRNA 21.5.7 CircRNA 21.5.8 Exosome 21.5.9 Endosome 21.6 Future Prospects for Cancer Biomarkers References 22: Translation Research of Novel Biomarker 22.1 Overview 22.2 Discovery 22.2.1 Characteristics of Molecular Biomarkers 22.2.2 Biomarker Classification and Samples 22.2.3 Existing Detection Techniques for Clinical Application 22.2.4 Biomarker Discovery Approaches 22.2.4.1 Strategy of Biomarker Discovery Research Subjects Omics Technologies 22.2.4.2 Biomarker Function Identification Role Transformation of P53 Current Novel Tumor Biomarkers Pro-Gastrin-Releasing Peptide (ProGRP) Protein Induced by Vitamin K Absence/Antagonist-II (PIVKA-II) 22.2.5 Artificial Intelligence and Big Data 22.2.6 Monoclonal Antibody Library Technique 22.2.6.1 Usage of Monoclonal Antibody Library Research on Diagnostic Tumor Biomarker Cancer Target Therapy Advantages of the Monoclonal Antibody Library 22.2.7 Transformation Determinants 22.3 Qualification and Verification 22.3.1 Samples from Clinical Cohort 22.3.2 Platforms for Qualification/Verification 22.3.2.1 Enzyme-Linked Immunosorbent Assay (ELISA) 22.3.2.2 Mass Spectrometry 22.3.2.3 Selection of Assays 22.4 Assay Optimization 22.4.1 Development of Clinical Diagnostic Monoclonal Antibodies 22.4.2 Preanalytical Variation 22.4.2.1 Sample Collection and Processing 22.4.2.2 Physiological Factors 22.4.3 Analytical Evaluation 22.4.3.1 Indicators of Accuracy 22.4.3.2 Indicators of Precision 22.4.3.3 Analytical Measurement Range (AMR) 22.4.4 Reference Intervals 22.4.5 Cut-off Value 22.5 Clinical Evaluation 22.6 Progress References Part III: Advanced Molecular Diagnostic Techniques 23: Next-Generation Sequencing (NGS) 23.1 Overview 23.2 Basic Principle 23.2.1 Library Construction Principle and Characteristics 23.2.1.1 Construction of DNA Library 23.2.1.2 Construction of RNA Library 23.2.2 High-Throughput Sequencing Principles and Features 23.2.2.1 Illumina Sequencing 23.2.2.2 Ion Torrent Semiconductor Sequencing 23.2.2.3 Complete Genomics Sequencing Platform 23.2.2.4 Single-Molecule Sequencing 23.3 Technology Development 23.3.1 Summary of Technology Development 23.3.2 First-Generation Sequencing Technology 23.3.2.1 Maxam-Gilbert Chemical Degradation Sequencing 23.3.2.2 Deoxygenation Chain Termination Sequencing 23.3.2.3 DNA Automated Sequencing 23.3.3 Next-Generation Sequencing 23.3.3.1 Pyrosequencing 23.3.3.2 454/Roche Sequencing System 23.3.3.3 Ion Torrent/Life Technologies Sequencing System 23.3.3.4 Solexa/Illumina Sequencing System 23.3.3.5 SOLiD/Life Technologies Sequencing System 23.3.3.6 Complete Genomics/BGI Sequencing System 23.3.4 Third Generation of Sequencing Technology 23.3.4.1 Pacific Bioscience SMRT Sequencing Technology 23.3.4.2 Oxford Nanopore Technologies Nanopore Sequencing Technology 23.3.5 Development and Prospect of Sequencing Technology 23.4 Clinical Application 23.4.1 Application of NGS in Noninvasive Prenatal Screening for Chromosome Aneuploidy 23.4.2 Application of NGS in Preimplantation Genetic Screening 23.4.3 Application of NGS in the Detection of Single-Gene Genetic Diseases 23.4.4 Application in the Detection of Tumors 23.4.5 Application of NGS in Tumor-Targeted Therapy 23.4.6 Application of NGS in the Detection of Pathogenic Microorganisms 23.4.7 Application of NGS in Epigenetic Detection 23.4.8 Application of NGS in Sequencing of Immune Repertoire (IR) 23.4.9 Application of NGS in Transcriptomics References 24: Digital PCR 24.1 Overview 24.2 Basic Principle 24.2.1 Statistics and Quantitative Principles of Digital PCR 24.2.1.1 Confidence Interval in Absolute Quantification 24.2.2 Experimental Principle of Digital PCR 24.2.3 Technology Development 24.2.3.1 The Germination of Digital PCR 24.2.3.2 Proposal of Digital PCR Concept 24.2.3.3 BEAMing Digital PCR 24.2.3.4 Microfluidic Digital PCR 24.2.4 Clinical Application 24.2.4.1 Application Characteristics of Digital PCR 24.2.4.2 Application of Digital PCR on Genomics 24.2.4.3 Application of Digital PCR on Translational Medicine and Precision Medicine Individualized Medicine and Liquid Biopsy Technique Application of Digital PCR on Drug Resistance Surveillance Prenatal Examination 24.2.4.4 Application of Digital PCR on Food Safety 24.2.4.5 Application of Digital PCR on Environmental Microorganisms 24.2.4.6 Other Applications on Digital PCR Quality Control of Sequencing Library and Verification of Sequencing Result Gene Editing 24.2.4.7 The Trend of Development of Digital PCR References 25: Biosensor 25.1 Overview 25.1.1 Characteristics 25.1.1.1 Low Cost and High Speed 25.1.1.2 High Precision and Stability 25.1.1.3 High Specificities 25.1.1.4 Wide Range of Applications 25.1.1.5 Simple Operation and Automatic Analysis 25.1.2 Classifications 25.2 Basic Principle 25.2.1 Principles of Electrochemical Biosensor 25.2.1.1 Electrochemical Immunosensor 25.2.1.2 Electrochemical Enzyme Electrode Sensor 25.2.1.3 Electrochemical DNA Sensor 25.2.1.4 Electrochemical Cell Sensor 25.2.1.5 Cell Receptor-Based Cell Sensor 25.2.1.6 Cellular Lesion-Based Cell Sensor 25.2.1.7 Cell Sensor Integrating Optical Measurement Technology and Electronic Measurement Technology 25.2.2 Principles of Optical Biosensor 25.2.2.1 Passive Optical Sensor 25.2.2.2 Photoinduced Optical Biosensor 25.2.2.3 Electro-optical Biosensor 25.2.3 Principles of Piezoelectric Biosensor 25.3 Technology Development 25.3.1 Wearable Biosensor 25.3.2 Molecular Biosensor and Imaging 25.3.3 Biological Function Simulation Sensor 25.3.3.1 Odor Sensor 25.3.3.2 Taste Sensor 25.3.4 Biosensor Chips 25.4 Clinical Application References 26: Microfluidic Chip 26.1 Overview 26.2 Basic Principle 26.2.1 Separation 26.2.2 Detection 26.3 Technology Development 26.3.1 Silica and Glass 26.3.2 Polymers 26.3.3 Hydrogel 26.3.4 Paper 26.3.5 Droplet 26.4 Clinical Application 26.4.1 Capillary Electrophoresis 26.4.2 Detection of Nucleic Acid 26.4.2.1 Polymerase Chain Reaction 26.4.2.2 Detection of Gene Mutation 26.4.2.3 Genotyping Detection 26.4.2.4 DNA Sequencing 26.4.3 Amino Acid Analysis 26.4.4 Peptide and Protein Analysis 26.4.4.1 Sample Manipulation and Detection 26.4.4.2 Protein-Ligand Interaction Analysis 26.4.4.3 Mass Spectrometry-Based Proteomics 26.4.5 Immunoassay 26.4.6 Cell Culture and Analysis 26.4.6.1 Cell Manipulation 26.4.6.2 Cell Culture and Cell-to-Cell Interaction Analysis 26.4.6.3 Single-Cell Analysis 26.4.7 Drug Assay and Screening 26.4.7.1 Drug Delivery System 26.4.7.2 Drug Screening 26.4.8 Enzymatic Analysis 26.4.9 Mono-molecular Detection References 27: Liquid Biopsy 27.1 Overview 27.2 Basic Principle 27.2.1 Circulating Tumor DNA 27.2.1.1 Sample Collection and DNA Extraction 27.2.1.2 ctDNA Detection PCR-Based Gene Analysis Sequencing-Based Gene Mutation Analysis Whole Genome Sequencing Analysis 27.2.2 Circulating Tumor Cells 27.2.2.1 CTC Detection Technologies Without Enrichment 27.2.2.2 CTC Detection Technologies with Enrichment Molecular Marker-Based Cell Enrichment Negative Enrichment Positive Enrichment Physical Property and Non-affinity-Based Microfluidic Cell Enrichment 27.2.3 Exosomes 27.2.3.1 Isolation 27.2.3.2 Analysis of Exosomes 27.3 Technology Development 27.3.1 Circulating Tumor DNA 27.3.1.1 PCR-Based Techniques 27.3.1.2 Sequencing Techniques NGS in Liquid Biopsy 27.3.2 Circulating Tumor Cells 27.3.2.1 CellSearch System 27.3.2.2 MagSweeper 27.3.2.3 ISET 27.3.2.4 MEMS 27.3.2.5 FMSA 27.3.2.6 Vortex 27.3.2.7 SP70-Targeted Tumor Cell Enrichment 27.3.2.8 SP70-Targeted Flow Cytometry 27.3.3 Exosomes 27.3.3.1 Isolation of Exosomes Ultracentrifugation Techniques Size-Based Techniques Immunoaffinity Capture-Based Techniques Precipitation Microfluidic-Based Isolation Techniques 27.3.3.2 Analysis of Exosomes Physical Analysis Chemical, Biochemical, and Compositional Analysis 27.4 Clinical Application 27.4.1 Circulating Tumor DNA 27.4.2 CTCs 27.4.3 Exosome 27.4.4 Comparison Between CTCs, ctDNA, and Exosome Tests in Cancer Detection 27.4.5 Challenges and Outlook References 28: Molecular-Targeted Imaging 28.1 Overview 28.2 Basic Principle 28.2.1 Probes 28.2.2 Molecular-Targeted Imaging Strategy 28.2.3 Molecular-Targeted Imaging Type 28.3 Technology Development 28.3.1 PET/CT 28.3.2 SPECT 28.3.3 PET/MR 28.3.4 CT 28.3.5 Ultrasound 28.3.6 Optical Imaging 28.4 Clinical Application 28.4.1 Cancer 28.4.2 Cardiovascular Diseases 28.4.3 Central Nervous System Diseases 28.4.4 Autoimmune Diseases 28.4.5 Drug Development References 29: Fluorescence In Situ Hybridization 29.1 Overview 29.2 Basic Principle 29.2.1 Preparation of the Slides 29.2.2 Preparation of the Probes 29.2.3 Fluorescence In Situ Hybridization 29.2.4 FISH Quality Control 29.3 Technology Development 29.3.1 Immuno-FISH 29.3.2 Multiplex-FISH (M-FISH), Spectral Karyotyping (SKY) and RxFISH 29.3.3 RNA-FISH 29.3.4 Three-Dimensional FISH (3D-FISH) 29.3.5 Fiber-FISH 29.3.6 CGH (Comparative Genomic Hybridization) 29.3.7 Array-CGH 29.3.8 Flow-FISH 29.4 Clinical Application 29.4.1 Prenatal Diagnosis 29.4.2 Hematopoietic Diseases and Lymphoma Related Tests 29.4.3 Application of FISH in Pathogen Detection 29.4.4 FISH for Detection of Circulating Tumor Cells (CTC) 29.4.5 Application of FISH in Solid Oncology References 30: Circulating DNA Quantification 30.1 Overview 30.2 Basic Principle 30.2.1 Sample Selection of Circulating DNA Testing 30.2.2 Isolation of Circulating DNA 30.2.3 Analysis Platform of Circulating DNA 30.2.3.1 Massive Parallel Sequencing 30.2.3.2 Quantitative Polymerase Chain Reaction, PCR 30.3 Technology Development 30.3.1 Duplex Real-Time PCR for Total Plasma DNA Quantitation 30.3.2 Candidate Gene Approach 30.3.2.1 Allele-Specific PCR (AS PCR) 30.3.2.2 Competitive Allele-Specific TaqMan PCR (CAST PCR) 30.3.2.3 Coamplification at Lower Denaturation Temperature PCR (COLD-PCR) 30.3.2.4 Peptide Nucleic Acid-Locked Nucleic Acid PCR (PNA-LNA PCR) 30.3.2.5 Droplet Digital PCR (ddPCR) 30.3.2.6 Microfluidic Digital PCR 30.3.2.7 “Beads, Emulsion, Amplification, Magnetics Digital PCR” (BEAMing) 30.3.3 Whole-Genome Sequencing Methods 30.3.4 Targeted Deep Sequencing 30.3.4.1 Tagged AMplicon Deep Sequencing (TAM-Seq) 30.3.4.2 Safe-Sequencing System (Safe-SeqS) 30.3.4.3 Duplex Sequencing 30.3.4.4 Cancer Personalized Profiling by Deep Sequencing (CAPP-Seq) 30.4 Clinical Application 30.4.1 Prognostic Value 30.4.2 Diagnosis Value 30.4.3 Detecting Resistance Mechanisms 30.4.4 Detecting Minimal Residual Disease 30.4.5 Noninvasive Prenatal Testing (NIPT) 30.4.6 Injury Assessment References 31: DNA Methylation Detection Techniques 31.1 Overview 31.2 Basic Principle 31.2.1 DNA Enrichment Methods 31.2.2 ChIP-Seq 31.2.3 Mapping Open Chromatin 31.2.4 Chromosome Conformation Capture 31.3 Technology Development 31.3.1 Genome-Wide Methylation Analysis 31.3.1.1 High-performance Liquid Chromatography 31.3.1.2 High-performance Capillary Electrophoresis 31.3.2 Methylation Detection of Specific Sites 31.3.2.1 Bisulfite Sequencing (BSP) 31.3.2.2 Methylation Specificity PCR 31.3.2.3 Methylight 31.3.2.4 High-resolution Melting (HRM) 31.3.2.5 Combined Bisulfite Restriction Analysis (COBRA) 31.3.2.6 Pyrosequencing 31.3.2.7 Analysis of DNA Methylation Map Based on Chip 31.3.2.8 Single Molecule Real-Time (SMRT) Sequencing Technology 31.3.2.9 Flight Mass Spectrometry 31.4 Clinical Application References Part IV: Disease Presentation and Clinical Laboratory Procedures 32: Immunological Disorders 32.1 Allergic Disease 32.1.1 Overview 32.1.2 Pathogenesis 32.1.2.1 Immune Cells in Allergy 32.1.2.2 Inflammatory Molecules in Allergy 32.1.3 Atopic Dermatitis 32.1.3.1 Overview 32.1.3.2 Clinical Appearance 32.1.3.3 Laboratory Diagnosis Serum Total IgE Detection of Eosinophils in Peripheral Blood Serum Eosinophil Cationic Protein (ECP) Allergen Skin Patch Test or Prick Test Basophil Activation Test (BAT) 32.1.4 Allergic Asthma 32.1.4.1 Overview 32.1.4.2 Clinical Appearance 32.1.4.3 Laboratory Diagnosis Allergic Skin Prick Test and Serum IgE Test Induced Sputum Test Fractional Exhaled Nitric Oxide (FeNO) Measurement BAT Gene Detection 32.1.5 Allergic Rhinitis 32.1.5.1 Overview 32.1.5.2 Clinical Appearance 32.1.5.3 Laboratory Diagnosis Supportive Methods for the Diagnosis of AR Include Skin Prick Test (SPT) and Serum Specific IgE Inhalation Allergen Screening Test (Phadiatop) ECP Detection 32.1.6 Food Allergy 32.1.6.1 Overview 32.1.6.2 Clinical Appearance IgE-Mediated Food Allergy Non-lgE-Mediated Food Allergy Mixed IgE and Non-IgE-Related Food Allergies Laboratory Diagnosis Component Resolution Diagnosis (CRD) Gene Detection 32.1.7 Drug Allergy 32.1.7.1 Overview 32.1.7.2 Clinical Appearance 32.1.7.3 Laboratory Diagnosis General Laboratory Examination Gene Detection 32.1.8 Typical Medical Case 32.2 Autoimmune Diseases 32.2.1 Overview 32.2.1.1 Classification of Autoimmune Diseases 32.2.1.2 Common Characteristics of Autoimmune Diseases 32.2.1.3 Pathogenesis of Autoimmune Diseases (Fig. 32.2) 32.2.1.4 The Appearance of Autoantigens 32.2.1.5 Abnormal Immune Regulation 32.2.1.6 Abnormal Expression of Fas/FasL 32.2.1.7 Genetic Factors 32.2.2 The Mechanism of Immune Injury in Autoimmune Diseases (Fig. 32.3) 32.2.2.1 Type II Hypersensitivity 32.2.2.2 Type III Hypersensitivity 32.2.2.3 Type IV Hypersensitivity 32.2.3 Common Autoimmune Diseases 32.2.3.1 Autoimmune Hemolytic Anemia (AIHA) Case 1, Primary WAIHA 32.2.3.2 Immune Thrombocytopenic Purpura (ITP) 32.2.3.3 Systemic Lupus Erythematosus (SLE) Experimental Diagnosis of SLE Case 2, SLE 32.2.3.4 Rheumatoid Arthritis (RA) Case 3, RA 32.2.3.5 Sjögren’s Syndrome (SS) 32.2.3.6 Myasthenia Gravis (MG) 32.2.3.7 Pulmonary Hemorrhagic Nephritis Syndrome 32.2.4 Major Immunological Detection of Autoimmune Diseases 32.2.4.1 Detection of Autoantibodies and Its Clinical Significance Systemic Lupus Erythematosus (SLE) Rheumatoid Arthritis (RA): Detection of Autoantibodies to RA Autoimmune Hemolytic Anemia Sjögren’s Syndrome (SS) 32.2.4.2 Clinical Significance of Immunoglobulin and Complement Examination 32.2.4.3 Lymphocyte Detection 32.2.4.4 Detection of Cytokines 32.2.4.5 Application Principles of Immunoassay for Autoimmune Diseases 32.3 Acquired Immune Deficiency Syndrome 32.3.1 Overview 32.3.1.1 HIV Morphology 32.3.1.2 HIV Gene Structure 32.3.1.3 Virus Characteristics 32.3.1.4 Route of Transmission of AIDS 32.3.2 Clinical Appearance 32.3.2.1 General Symptoms 32.3.2.2 Respiratory Symptoms 32.3.2.3 Digestive Symptoms 32.3.2.4 Nervous System Symptoms 32.3.2.5 Skin and Mucous Membrane Damage 32.3.2.6 Tumor 32.3.3 Detection Method 32.3.3.1 Antibody Detection Screening Test Confirmatory Reagent 32.3.3.2 Antigen Detection 32.3.3.3 Nucleic Acid Detection Qualitative Detection Quantitative Detection 32.3.3.4 CD4+ and CD8+ T Lymphocyte Detection 32.3.3.5 Virus Isolation and Culture 32.3.3.6 HIV-1 Genotype Resistance Detection 32.3.4 Therapy 32.3.4.1 General Treatment 32.3.4.2 Antiviral Therapy 32.3.4.3 Drug Resistance References 33: Liver Diseases 33.1 Viral Hepatitis 33.1.1 Overview 33.1.2 Hepatitis A 33.1.2.1 Overview 33.1.2.2 Clinical Appearance 33.1.2.3 Laboratory Diagnosis Immunological Detection Molecular Biological Detection Nucleic Acid Molecular Hybridization RT-PCR 33.1.2.4 Management 33.1.2.5 Typical Medical Case 33.1.3 Hepatitis B 33.1.3.1 Overview 33.1.3.2 Clinical Appearance 33.1.3.3 Laboratory Diagnosis Immunological Detection HBsAg Anti-HBs Antibodies HBeAg Anti-HBe Antibodies HBcAg Anti-HBc Antibodies Molecular Biological Detection Quantitative Analysis of HBV DNA Quantitative Analysis of HBV RNA HBV Typing Analysis of Drug Resistance of HBV 33.1.3.4 Management 33.1.3.5 Typical Medical Case 33.1.4 Hepatitis C 33.1.4.1 Overview 33.1.4.2 Clinical Appearance 33.1.4.3 Laboratory Diagnosis Immunological Detection Screening Test Confirmatory Molecular Biological Detection Detection of HCV Nucleic Acid Genotyping of HCV 33.1.4.4 Management 33.1.4.5 Typical Medical Case Results with Interpretation Guideline Final Diagnosis 33.1.5 Hepatitis D 33.1.5.1 Overview 33.1.5.2 Clinical Appearance Co-Infection Superinfection 33.1.5.3 Laboratory Diagnosis Immunological Detection Molecular Biological Detection 33.1.5.4 Management 33.1.6 Hepatitis E 33.1.6.1 Overview 33.1.6.2 Clinical Appearance 33.1.6.3 Laboratory Diagnosis 33.1.6.4 Management 33.1.6.5 Typical Medical Case Final Diagnosis 33.2 Autoimmune Hepatitis 33.2.1 Overview 33.2.2 Clinical Appearance 33.2.3 Laboratory Diagnosis 33.2.3.1 Serum Biochemical Indicators 33.2.3.2 Autoantibody ANA Anti-Smooth Muscle Antibodies (ASMA) Anti-Liver/Kidney Microsomal Antibodies (ALKM) Anti-Liver Cytosol Type 1 (LC-1) Antibodies Antibodies Against Soluble Liver Antigens/Antibodies Against Liver Pancreas (SLA/LP) 33.2.3.3 Serum Immunoglobulin 33.2.3.4 Histopathology 33.2.3.5 Conclusion 33.3 Hepatocellular Carcinoma 33.3.1 Overview 33.3.2 Surveillance and Diagnosis 33.3.2.1 Surveillance 33.3.2.2 Diagnosis 33.3.3 Biomarkers 33.3.3.1 Alpha-Fetoprotein (AFP) 33.3.3.2 Glypican-3 (GPC3) 33.3.3.3 Golgi Protein-73 (GP73) 33.3.3.4 Alpha-l-Fucosidase (AFU) 33.3.3.5 Protein Induced by Vitamin K Absence/Antagonist-II (PIVKA-II) 33.3.3.6 Squamous Cell Carcinoma Antigen (SCCA) 33.3.3.7 MicroRNAs 33.3.3.8 Other Biomarkers Tumor Specific Protein 70 (SP70) Long Non-coding RNAs (LncRNAs) Circular RNAs (CircRNAs) Contents in Exosome 33.3.4 Genetic Variations 33.3.5 Treatment 33.3.6 Typical Medical Case 33.4 Wilson Disease 33.4.1 Clinical Appearance 33.4.1.1 Clinical Manifestations 33.4.1.2 Neurological and Psychiatric Manifestations 33.4.1.3 Ophthalmic Manifestations 33.4.2 Diagnosis 33.4.2.1 Liver Function Tests 33.4.2.2 Biochemical Investigations Ceruloplasmin Total Serum Copper Urinary Copper Excretion 33.4.2.3 Liver Biopsy and Liver Copper Content 33.4.2.4 Imaging 33.4.2.5 Genetic Testing 33.4.3 Correlation Between Phenotype and Genotype 33.4.4 Genetic Counselling 33.4.5 Prenatal Diagnosis and Preimplantation Genetic Diagnosis 33.4.6 Typical Clinical Case References 34: Pancreatic Diseases 34.1 Pancreatic Ductal Adenocarcinoma 34.1.1 Overview 34.1.2 Clinical Appearance 34.1.3 Laboratory Diagnosis 34.1.3.1 Mucin Tumor Markers CA19-9 CA50 CA242 DU-PAN-2 CAM17.1/Wheat-Germ Agglutinin (WGA) 34.1.3.2 Other Markers Tumor-Specific Protein (SP70) Carcinoembryonic Antigen Membrane Antigens PAM4 MicroRNAs 34.1.3.3 Proteomics 34.1.3.4 Genetic Testing 34.1.4 Management 34.1.5 Treatment 34.1.6 Typical Medical Case 34.2 Chronic Pancreatitis 34.2.1 Overview 34.2.2 Clinical Appearance 34.2.3 Laboratory Diagnosis 34.2.3.1 Exocrine Pancreatic Enzymes or Hormones 34.2.3.2 Human Pancreatic Polypeptide (PP) 34.2.3.3 Pancreatic Function Tests Indirect Pancreatic Function Tests Direct Pancreatic Function Tests 34.2.3.4 Genetic Testing 34.2.4 Management 34.2.5 Treatment 34.2.6 Typical Medical Case 34.3 Insulinoma 34.3.1 Overview 34.3.2 Clinical Appearance 34.3.3 Laboratory Diagnosis 34.3.3.1 C-Peptide Inhibition Test with Hog Insulin 34.3.3.2 Intravenous Secretin Test for Insulinoma 34.3.3.3 The 72-h Fast Test 34.3.3.4 Genetic Testing 34.3.4 Management 34.3.5 Treatment 34.4 Intraductal Papillary Mucinous Neoplasms 34.4.1 Overview 34.4.2 Clinical Appearance 34.4.3 Laboratory Diagnosis 34.4.3.1 Mucin Tumor Markers and Oncofetal Antigens CEA CA19-9 34.4.3.2 Other Tumor Markers CF protein S100 Protein mAb Das-1 MicroRNAs 34.4.3.3 Genetic Testing 34.4.4 Management 34.4.5 Typical Medical Case References 35: Digestive Tract Disease 35.1 Gastritis 35.1.1 Classification 35.1.1.1 Based on the Course of Disease 35.1.1.2 Based on Etiology Helicobacter pylori Gastritis Chemical Gastritis Autoimmune Gastritis 35.1.2 Clinical Manifestation 35.1.3 Laboratory Diagnosis 35.1.3.1 Endoscopy 35.1.3.2 Histology 35.1.3.3 Helicobacter pylori 35.1.4 Biomarker 35.1.4.1 Pepsinogens 35.1.4.2 Gastrin 17 35.1.4.3 HOX Transcript Antisense RNA 35.1.5 Typical Medical Case 35.2 Diarrhea 35.2.1 Overview 35.2.2 Acute Diarrhea 35.2.2.1 Infections 35.2.2.2 Poisoning 35.2.2.3 Medications 35.2.2.4 Other Diseases 35.2.3 Chronic Diarrhea 35.2.4 Laboratory Examination 35.2.4.1 Stool Tests Fecal Bacterial Culture Stool Routine Detection of Virus, Virus Antigen, and Virus Nucleic Acid in Feces 35.2.4.2 Blood Tests 35.2.4.3 Serological Tests 35.2.4.4 Others Tests 35.2.5 Biomarkers 35.2.5.1 Calprotectin 35.2.5.2 Lactoferrin 35.2.5.3 Anti-Saccharomyces cerevisiae Antibodies (ASCA) 35.2.5.4 Antineutrophil Cytoplasmic Antibody (ANCAs) 35.2.5.5 C-Reactive Protein (CRP) 35.2.5.6 Anti-Vinculin and Anti-Cytolethal Distending Toxin B Antibodies (CdtB) 35.2.5.7 Angiotensin-Converting Enzyme 2 (ACE 2) 35.2.6 Conclusion 35.2.7 Typical Medical Case 35.3 Crohn’s Disease 35.3.1 Overview 35.3.2 Clinical Manifestation 35.3.3 Laboratory Diagnosis 35.3.3.1 CRP and ESR 35.3.3.2 Hematologic Tests 35.3.3.3 Fecal Calprotectin and Other Fecal Marker 35.3.3.4 Other Serological Markers 35.3.3.5 Microbiology 35.3.3.6 Genetic Testing 35.3.3.7 Endoscopy 35.3.3.8 Imaging 35.3.4 Conclusions 35.3.5 Typical Medical Case 35.4 Esophageal Cancer 35.4.1 Overview 35.4.2 Epidemiology 35.4.3 Etiology 35.4.3.1 Squamous Cell Carcinoma 35.4.3.2 Adenocarcinoma 35.4.4 Screening 35.4.5 Clinical Diagnosis 35.4.6 Molecular Diagnosis 35.4.6.1 Genetic and Epigenetic Alterations Detection and Its Implications 35.4.6.2 Molecular Diagnosis of Micrometastasis and CTCs 35.4.6.3 miRNA-Based Molecular Diagnosis 35.4.6.4 Genetic Polymorphism 35.4.6.5 Novel Molecular Markers ADAMTS16 Tumor Specific Protein (SP70) 35.4.7 Therapy 35.4.7.1 Ablation 35.4.7.2 Cryotherapy 35.4.7.3 Endoscopic Mucosal Resection 35.4.7.4 Esophagectomy 35.4.8 Treatment Modalities Used in Locally Advanced Esophageal Cancer 35.4.8.1 Radiation Therapy 35.4.8.2 Chemotherapy 35.4.8.3 Chemoradiation Alone 35.4.8.4 Chemoradiation and Surgery 35.4.8.5 Surveillance 35.4.8.6 Palliative Options for Esophageal Carcinoma 35.4.9 Molecules of Companion Diagnosis 35.4.9.1 Targeting the EGFR Signaling Pathway 35.4.9.2 Targeting the HER2 Signaling Pathway 35.4.9.3 Angiogenesis Inhibitors 35.4.9.4 Others 35.4.10 Typical Medical Case 35.5 Gastric Cancer 35.5.1 Overview 35.5.2 Clinical Appearance 35.5.3 Risk Factors for Gastric Cancer 35.5.4 Historical Classification of GC 35.5.5 Laboratory Diagnosis 35.5.5.1 Principles of Biomarker Testing by NCCN Guidelines for GC 35.5.5.2 Traditional Biomarkers of GC 35.5.5.3 Molecular Biomarkers of GC Tumor Specific Protein 70 (SP70) HER2/neu MSI PD-L1 Circulating Nucleic Acids The Other Genetic Susceptibility Genes 35.5.6 Typical Medical Case 35.5.7 Conclusion 35.6 Colorectal Cancer 35.6.1 Overview 35.6.2 Epidemiology 35.6.3 Aetiology 35.6.3.1 Environmental Factors 35.6.3.2 Genetic Factors 35.6.3.3 Other Risk Factors Colorectal Polyps (Adenomatous Polyps) Inflammatory Bowel Disease Cholecystectomy 35.6.4 Screening 35.6.4.1 Screening Object 35.6.4.2 Screening Test Questionnaire Survey Based on High-Risk Factors Fecal Occult Blood Test (FOBT) Fecal DNA Testing Endoscopy 35.6.5 Clinical Diagnosis 35.6.5.1 Clinical Manifestation Changes in Bowel Habits and Fecal Traits Abdominal Pain Abdominal Mass 35.6.5.2 Digital Rectal Examination 35.6.5.3 Imaging Examination 35.6.5.4 Histopathology 35.6.6 Molecular Diagnosis 35.6.6.1 Broad-Spectrum Tumor Serum Markers CEA CA19-9 CA242 and CA50 35.6.6.2 Tumor Specific Protein (SP70) 35.6.6.3 Liquid Biopsy CTCs CfDNA 35.6.6.4 Genetic Biomarkers Microsatellite Instability (MSI) KRAS and BRAF Mutations SMAD4 Mutation 35.6.6.5 Proteomics P53 CDX2 MutT-Related Proteins C-Met 35.6.6.6 Epigenetics MicroRNA (miRNA) Methylation CpG island Methylator Phenotype (CIMP) ZNF331 LINE-1 35.6.7 Therapy 35.6.8 Typical Medical Case References 36: Kidney Diseases 36.1 Polycystic Kidney Disease 36.1.1 Overview 36.1.2 Diagnosis 36.1.3 Genetic Testing Algorithm 36.1.4 Correlation Between Phenotype and Genotype 36.1.5 Genetic Counselling 36.1.6 Prenatal Diagnosis and Preimplantation Genetic Diagnosis 36.1.7 Typical Clinical Case 36.2 Nephropathy 36.2.1 Overview 36.2.2 Classification 36.2.2.1 Glomerular Diseases Acute Glomerulonephritis Signs and Symptoms Causes and Pathogenesis Molecular Markers Serum Glomerular Filtration Markers Urinary Glomerular Cell Injury Markers Treatment Chronic Glomerulonephritis Signs and Symptoms Causes and Pathogenesis Molecular Markers Treatment Nephrotic Syndrome Signs and Symptoms Causes Pathogenesis Complications Laboratory Diagnosis Treatment IgA Nephropathy Signs and Symptoms Causes Pathogenesis Laboratory Diagnosis Treatment 36.2.2.2 Tubular Injury Signs and Symptoms Causes and Pathogenesis Molecular Markers 36.3 Kidney Cancer 36.3.1 Overview 36.3.1.1 Summary of Renal Tumors 36.3.1.2 The Classification of Malignant Kidney Diseases 36.3.2 Renal Cell Carcinoma 36.3.2.1 Serological Markers of Renal Cell Carcinoma Traditional Biomarkers for Renal Cell Carcinoma Novel Molecular Markers for Renal Cell Carcinoma Transforming Growth Factor β (TGF-β) Carbonic Anhydrase IX PTEN B7-H1 Insulin-Like Growth Factor II mRNA Binding Protein 3 (IMP3) Other Laboratory Diagnostic Testings 36.3.2.2 Typical Case 36.3.3 Renal Pelvis Carcinoma 36.3.3.1 Biomarkers of Renal Pelvic Carcinoma Traditional Biomarkers for Renal Pelvic Carcinoma β2 Microglobulin Neuro-Specific Enolase Novel Molecular Biomarkers for Renal Pelvic Carcinoma Oncogene Marker Tamm–Horsfall Protein Antibody 36.3.3.2 Typical Case 36.4 Hantavirus Hemorrhagic Fever with Renal Syndrome 36.4.1 Overview 36.4.2 Pathogenesis 36.4.2.1 Pathogenesis Direct Action of the Virus Immunity The Role of Various Cytokines and Mediators 36.4.2.2 Pathology and Physiology Shock Bleeding Acute Renal Failure 36.4.3 Course of Disease 36.4.3.1 Fever Period 36.4.3.2 Hypotension Shock Period 36.4.3.3 Oliguria 36.4.3.4 Polyuria 36.4.3.5 Recovery Period 36.4.4 Diagnosis 36.4.4.1 Blood Routine 36.4.4.2 Urine Routine 36.4.4.3 Biochemical Tests 36.4.4.4 Special Inspections 36.4.4.5 Other Auxiliary Inspections 36.4.4.6 Differential Diagnosis 36.4.5 Treatment 36.4.6 Typical Medical Case References 37: Cardiovascular Disease 37.1 Acute Myocardial Infarction 37.1.1 Overview 37.1.2 Clinical Appearance 37.1.3 Laboratory Diagnosis 37.1.4 Management 37.1.5 Conclusion 37.2 Heart Failure 37.2.1 Overview 37.2.2 Clinical Appearance 37.2.3 Laboratory Diagnosis 37.2.4 Management 37.2.5 Conclusion 37.3 Myocarditis 37.3.1 Overview 37.3.2 Clinical Appearance 37.3.3 Laboratory Diagnosis 37.3.3.1 Endomyocardial Biopsy 37.3.3.2 Cardiac Biomarkers 37.3.3.3 Inflammation Biomarkers 37.3.3.4 Pathogenetic Diagnosis 37.3.4 Management 37.3.5 Conclusion 37.4 Congenital Heart Disease (CHD) 37.4.1 Overview 37.4.2 Clinical Appearance 37.4.2.1 Excessive Sweating 37.4.2.2 Poor Feeding 37.4.2.3 Acyanotic and Cyanotic Congenital Heart Diseases 37.4.2.4 Heart Murmurs 37.4.3 Laboratory Diagnosis 37.4.3.1 Karyotyping 37.4.3.2 Array CGH 37.4.3.3 Whole-Exome Sequencing 37.4.3.4 Whole-Genome Sequencing 37.4.4 Management 37.4.5 Conclusion 37.5 Arrhythmia 37.5.1 Overview 37.5.2 Clinical Appearance 37.5.3 Laboratory Diagnosis 37.5.3.1 LQTS 37.5.3.2 SQTS 37.5.3.3 Brugada Syndrome 37.5.3.4 Catecholaminergic Polymorphic Ventricular Tachycardia 37.5.4 Management 37.5.5 Conclusion References 38: Lung Disease 38.1 Lung Cancer 38.1.1 Overview 38.1.2 Etiology and Pathogenesis 38.1.3 Clinical Appearance 38.1.4 Routine Diagnosis (Fig. 38.3) 38.1.4.1 Imaging Tests Chest X-Ray CT Scan Magnetic Resonance Imaging 38.1.4.2 Endoscopic and Histopathological Examination Sputum Cytology Bronchoscopy Mediastinoscopy Needle Biopsy 38.1.5 Molecular Diagnosis 38.1.5.1 Routine Biomarkers 38.1.5.2 Companion Diagnostic Biomarker (Fig. 38.5) (Table 38.1) EGFR ALK and ROS1 KRAS BRAF MET HER2 PD-1/PD-L1 Others 38.1.5.3 Other Biomarkers Tumor Specific Protein 70 Auxiliary Diagnosis Therapy Efficacy Monitoring Predict Prognosis DNA Methylation Potential Biomarkers 38.1.5.4 Liquid Biopsy 38.1.6 Treatments and Therapies 38.1.7 Conclusion 38.1.8 Typical Medical Case 38.2 Cystic Fibrosis 38.2.1 Overview 38.2.2 Clinical Appearance 38.2.2.1 Respiratory System 38.2.2.2 Digestive System 38.2.2.3 Other 38.2.3 Laboratory Diagnosis 38.2.4 Conclusion 38.3 Pneumonia 38.3.1 Overview 38.3.2 Clinical Appearance 38.3.3 Laboratory Diagnosis 38.3.3.1 Pathogenic Diagnosis 38.3.3.2 Key Points for the Laboratory Diagnosis of Respiratory Infections 38.3.4 Management 38.3.5 Conclusion 38.4 Tuberculosis 38.4.1 Overview 38.4.2 Clinical Appearance 38.4.3 Laboratory Diagnosis 38.4.4 Typical Medical Case 38.4.5 Management 38.4.6 Conclusion 38.5 Influenza 38.5.1 Overview 38.5.2 Pathogenesis 38.5.2.1 Transmission 38.5.2.2 Pathology and physiology 38.5.3 Epidemiology 38.5.3.1 Seasonal Variations 38.5.3.2 Epidemic and Pandemic Spread 38.5.4 Course of the Disease 38.5.5 Diagnosis 38.5.5.1 Virus Isolation and Identification 38.5.5.2 Serological Testing and Typing Methods 38.5.5.3 Quick Diagnosis Loop-Mediated Isothermal Amplification Gene Chip Technology Pyrosequencing Technology Nuclear Acid Sequence-Based Amplification 38.5.6 Prevention and Treatment 38.5.6.1 Prevention Influenza Vaccination Improve Your Own Immunity Other 38.5.6.2 Treatment NA Inhibitors M2 Inhibitors 38.5.7 Typical Medical Case 38.6 COVID-19 38.6.1 Overview 38.6.2 Pathogenesis 38.6.2.1 Transmission 38.6.2.2 Pathology and Physiology 38.6.3 Epidemic and Pandemic Spread 38.6.4 Course of the Disease 38.6.4.1 Clinical Classification 38.6.5 Diagnosis 38.6.5.1 Blood Routine and Biochemical Indicators 38.6.5.2 Serological Detection of 2019-nCoV 38.6.5.3 Molecular Diagnostic Methods Specimen Collection and Storage Biosafety Considerations Detection of 2019-nCoV by Real-Time RT-PCR Assay Control Addition Interpretation of Results Detection of 2019-nCoV by Genetic Sequencing 38.6.5.4 Chest CT for COVID-19 38.6.5.5 Clinically Diagnosis 38.6.6 Prevention and Treatment 38.6.6.1 Prevention Diagnosis and Isolation Improve Your Immunity Others 38.6.6.2 Treatment 38.6.7 Typical Medical Case References 39: Blood Disorders 39.1 Blood Cancer 39.1.1 Overview 39.1.2 Myeloid Neoplasms 39.1.2.1 Myelodysplastic Syndromes 39.1.2.2 Acute Myeloid Leukemia 39.1.2.3 Chronic Myeloid Leukemia 39.1.2.4 Myeloproliferative Neoplasms 39.1.2.5 Myelodysplastic/Myeloproliferative Neoplasms 39.1.3 Lymphoid Neoplasms 39.1.3.1 Lymphoid Leukemia 39.1.3.2 Lymphoma 39.1.3.3 Myeloma 39.1.4 Conclusion 39.2 Coagulation Disorders 39.2.1 Hemophilia 39.2.1.1 Introduction Hemophilia A Mutations in the F8 Gene Hemophilia B Mutations in the F9 Gene 39.2.1.2 Clinical Manifestation 39.2.1.3 Laboratory Diagnosis Hemophilia A Hemophilia B 39.2.1.4 Management 39.2.1.5 Conclusions 39.2.2 Von Willebrand Disease 39.2.2.1 Introduction Molecular Basis of Disease Type 1 Von Willebrand Disease Type 3 Von Willebrand Disease Type 2 Von Willebrand Disease Type 2A Von Willebrand Disease Type 2B Von Willebrand Disease Type 2M Von Willebrand Disease Type 2N (Normandy) Von Willebrand Disease 39.2.2.2 Clinical Manifestation 39.2.2.3 Laboratory Diagnosis 39.2.2.4 Management 39.2.2.5 Conclusions 39.2.3 Hereditary Thrombocytopenia 39.2.4 Typical Medical Case 39.3 Hematologic Disorders 39.3.1 Hemoglobinopathies 39.3.1.1 Sickle Cell Disease Overview Clinical Manifestation Laboratory Diagnosis Management Conclusions 39.3.2 Thalassemia 39.3.2.1 Overview α-Thalassemia β-Thalassemia 39.3.2.2 Clinical Manifestation 39.3.2.3 Laboratory Diagnosis 39.3.2.4 Management 39.3.2.5 Conclusions 39.3.3 Typical Medical Case References 40: Endocrine and Metabolic Diseases 40.1 Diabetes 40.1.1 Overview 40.1.2 Classification and Clinical Appearance 40.1.2.1 Categories of Increased Risk for Diabetes (Prediabetes) 40.1.2.2 Type 1 Diabetes Mellitus 40.1.2.3 Type 2 Diabetes Mellitus 40.1.2.4 Gestational Diabetes Mellitus 40.1.2.5 Monogenic Diabetes Syndromes 40.1.3 Diagnosis 40.1.3.1 Prediabetes 40.1.3.2 Diagnostic Criteria for Diabetes Mellitus 40.1.3.3 Gestational Diabetes Mellitus 40.1.3.4 Monogenic Diabetes 40.1.4 Laboratory Diagnosis 40.1.4.1 Blood Glucose 40.1.4.2 Urinary Glucose 40.1.4.3 Glucose Tolerance Test 40.1.4.4 Glycated Hemoglobin (HbA1c) 40.1.4.5 Ketone Body 40.1.4.6 Lactic Acid and Pyruvic Acid 40.1.4.7 Blood Glucose Regulator 40.1.4.8 Urinary Microalbumin 40.1.4.9 Genetic Test 40.1.4.10 Autoimmune Markers 40.1.4.11 Other 40.1.5 Management 40.1.6 Conclusion 40.1.7 Typical Medical Case 40.2 Thyroid Disease 40.2.1 Overview 40.2.2 Thyroid Carcinoma 40.2.2.1 Classification of Thyroid Carcinoma 40.2.2.2 Differentiated Thyroid Carcinoma 40.2.2.3 Medullary Thyroid Carcinoma 40.2.2.4 Typical Case 40.2.3 Nontoxic Goiter 40.2.3.1 Etiology and Epidemiology 40.2.3.2 Classification of Goiter 40.2.3.3 Laboratory Diagnosis of Nontoxic Goiter 40.2.3.4 Typical Case 40.2.4 Thyroid Nodule 40.2.4.1 Definition and Clinical Manifestations 40.2.4.2 Laboratory Diagnosis 40.2.4.3 Typical Case 40.2.5 Thyroiditis 40.2.5.1 Introduction 40.2.5.2 Classification and Laboratory Diagnosis of Thyroiditis 40.2.5.3 Typical Case 40.2.6 Hypothyroidism 40.2.6.1 Definition and Classification of Hypothyroidism 40.2.6.2 Diagnosis of Hypothyroidism 40.2.6.3 Typical Case 40.2.7 Hyperthyroidism and Thyrotoxicosis 40.2.7.1 Graves’ Disease 40.2.7.2 Toxic Adenoma and Multinodular Toxic Goiter 40.2.7.3 Typical Case 40.3 Dwarfism 40.3.1 Clinical Appearance 40.3.1.1 Disproportionate Dwarfism 40.3.1.2 Proportionate Dwarfism 40.3.1.3 Others 40.3.2 Diagnosis 40.3.2.1 Disproportionate Dwarfism 40.3.2.2 Proportionate Dwarfism 40.3.2.3 Others 40.3.3 Correlation Between Phenotype and Genotype 40.3.3.1 Achondroplasia 40.3.3.2 Spondyloepiphyseal Dysplasia Congenita 40.3.3.3 Growth Hormone Deficiency 40.3.3.4 Others 40.3.4 Genetic Counseling 40.3.4.1 Achondroplasia 40.3.4.2 Spondyloepiphyseal Dysplasia Congenita 40.3.4.3 Combined Pituitary Hormone Deficiency 40.3.4.4 Others 40.3.5 Prenatal Diagnosis and Preimplantation Genetic Diagnosis 40.3.5.1 Achondroplasia 40.3.5.2 Others 40.3.6 Typical Clinical Case 40.4 Adrenopathy 40.4.1 Overview 40.4.1.1 Structure of Adrenal Gland 40.4.2 Cushing’s Syndrome 40.4.2.1 Pathogeny and Clinical Manifestation 40.4.2.2 Laboratory Diagnosis of Cushing’s Syndrome 40.4.2.3 Typical Medical Case 40.4.3 Primary Aldosteronism 40.4.3.1 Pathogeny and Clinical Appearance 40.4.3.2 Laboratory Diagnosis of Primary Aldosteronism 40.4.3.3 Genetic Testing 40.4.3.4 Typical Medical Case 40.4.4 Addison’s Disease 40.4.4.1 Epidemiology and Clinical Appearance 40.4.4.2 Laboratory Diagnosis of Addison’s Disease 40.4.4.3 Typical Medical Case 40.4.5 Pheochromocytoma 40.4.5.1 Overview 40.4.5.2 Laboratory Diagnosis of Pheochromocytoma 40.4.5.3 Genetic Testing 40.4.5.4 Typical Medical Case 40.4.6 Congenital Adrenocortical Hyperplasia 40.4.6.1 Overview 40.4.6.2 Laboratory Examination 40.4.6.3 Genetic Testing 40.4.6.4 Typical Medical Case 40.5 Gout 40.5.1 Overview 40.5.2 Clinical Appearance 40.5.3 Laboratory Diagnosis 40.5.3.1 Blood Uric Acid 40.5.3.2 Urine Uric Acid 40.5.3.3 Synovial Fluid Analysis 40.5.3.4 Other Blood Tests 40.5.3.5 Gene Testing 40.5.3.6 Others 40.5.4 Management 40.5.5 Conclusion 40.5.6 Typical Medical Case References 41: Neurological Disease 41.1 Alzheimer’s Disease 41.1.1 Overview 41.1.2 Etiology 41.1.3 Clinical Appearance 41.1.4 Clinical Diagnosis 41.1.4.1 Diagnostic Criteria 41.1.4.2 Laboratory Diagnosis Cerebrospinal Fluid (CSF) Biomarkers Amyloid-β Tau Protein Blood-Based Biomarker Candidates Aβ1–42:Aβ1–40 Ratio Phosphorylated Tau Protein (P-Tau) Neurofilament Light (NFL) Classical Genetic Testing Genes Implicated in EOAD Genes Implicated in LOAD Other Potential Genetic Risk Genes of AD Candidate Epigenetics Biomarkers DNA Methylation Histone Modifications MicroRNAs Imaging Diagnosis 41.1.5 Management 41.1.6 Conclusion 41.1.7 Typical Medical Case 41.2 Glioma 41.2.1 Overview 41.2.2 Classification 41.2.2.1 By Type of Cell 41.2.2.2 By Grade 41.2.2.3 By Location 41.2.3 Signs and Symptoms 41.2.4 Causes and Pathogenesis 41.2.4.1 Genetic Factors 41.2.4.2 Adult Stature and Body Weight 41.2.4.3 Allergies and Other Medical Conditions 41.2.4.4 Dietary Factors 41.2.4.5 Ionizing Radiation 41.2.5 Molecular Markers in Gliomas 41.2.5.1 Loss of Heterozygosity (LOH) of 1p19q 41.2.5.2 IDH1 and IDH2 Mutations 41.2.5.3 MGMT Promotor Methylation 41.2.5.4 Germline Mutation of TP53 41.2.5.5 Important Factors in Glioma Biology RTK/RAS/PI(3K), P53 IDH Mutation Hypoxia, Pseudohypoxia, and Angiogenesis 41.2.6 Treatment 41.2.6.1 Surgical Resection 41.2.6.2 Radiation Therapy 41.2.6.3 Chemotherapy 41.2.7 Typical Medical Case 41.3 Muscular Dystrophy/Muscular Atrophy 41.3.1 Overview 41.3.2 Clinical Appearance 41.3.2.1 Muscular Dystrophy Duchenne Muscular Dystrophy (DMD) and Becker Muscular Dystrophy (BMD) Congenital Muscular Dystrophy Myotonic Dystrophy Facioscapulohumeral Muscular Dystrophy Limb-Girdle Muscular Dystrophy Oculopharyngeal Muscular Dystrophy Distal Myopathy Emery-Dreifuss Muscular Dystrophy 41.3.2.2 Muscular Atrophy Spinal Muscular Atrophy Amyotrophic Lateral Sclerosis 41.3.3 Diagnosis 41.3.3.1 Muscular Dystrophy DMD and BMD CMD DM FSHD LGMD OPMD Distal Myopathy EDMD 41.3.3.2 Muscular Atrophy SMA ALS 41.3.4 Correlation between Phenotype and Genotype 41.3.4.1 Muscular Dystrophy DMD/BMD CMD DM FSHD OPMD Distal Myopathy EDMD 41.3.4.2 Muscular Atrophy SMA ALS 41.3.5 Genetic Counseling 41.3.6 Prenatal Diagnosis and Preimplantation Genetic Diagnosis 41.3.7 Typical Clinical Case 41.4 Epilepsy 41.4.1 Overview 41.4.2 Diagnosis 41.4.3 Genetic Testing Algorithm 41.4.3.1 Exclude Nongenetic Disorders 41.4.3.2 Family History 41.4.3.3 General Physical and Neurologic Evaluations 41.4.3.4 Inherited Metabolic Disorders 41.4.4 Correlation between Phenotype and Genotype 41.4.5 Genetic Counseling 41.4.6 Prenatal Diagnosis and Preimplantation Genetic Diagnosis 41.4.7 Typical Clinical Case References 42: Reproductive Organ Cancer 42.1 Breast Cancer 42.1.1 Overview 42.1.2 Anatomy of the Breast 42.1.3 Histological Classification 42.1.4 Surveillance and Diagnosis 42.1.4.1 Imaging Technologies and Applications in Early Diagnosis and Prognosis for Breast Cancer 42.1.4.2 Mammography 42.1.4.3 Ultrasound 42.1.4.4 Magnetic Resonance Imaging 42.1.4.5 Breast Cancer Biomarkers for Risk Assessment, Screening, Detection, Diagnosis, and Prognosis 42.1.4.6 Genomic Biomarkers 42.1.4.7 Epigenomic Biomarkers and Methylation Biomarkers 42.1.4.8 miR Biomarkers 42.1.4.9 Breast Circulating Tumor Cells Potential Biomarkers for Breast Cancer Diagnosis and Prognosis Evaluation 42.1.4.10 Tumor-Specific Protein 70 (SP70) 42.1.4.11 Other Protein Markers 42.1.5 Typical Medical Case 42.2 Ovarian Cancer 42.2.1 Overview 42.2.2 Clinical Appearance 42.2.3 Laboratory Diagnosis 42.2.3.1 Tumor Markers CA125 Human Epididymis 4 (HE4) Mesothelin Osteopontin Kallikreins B7-H4 Interleukins Vascular Endothelial Growth Factor (VEGF) MicroRNAs Exosomes Circulating Cell-Free DNA 42.2.3.2 Genetic Test Genetic Mutation Epigenetic Regulation 42.2.4 Management 42.2.5 Conclusion 42.2.6 Typical Medical Case 42.3 Cervical Cancer 42.3.1 Overview 42.3.1.1 Staging and Classification 42.3.1.2 HPV Introduction HPV Infection Procedure in the Cervix Ingestion of the Virus and Delivery of the Genome to Nucleus Virus Transcription and Life Cycle Self-limiting and Persistent Infection of the Virus 42.3.2 Clinical Appearance 42.3.3 Laboratory Diagnosis 42.3.3.1 Papanicolaou Test (Pap Test) 42.3.3.2 Molecular Marker Squamous Cell Carcinoma Antigen (SCCA) Serum Fragments of Cytokeratin (CYFRA) 42.3.4 Management 42.3.5 Conclusion 42.3.6 Typical Medical Case References 43: Prenatal Diagnosis and Preimplantation Genetic Diagnosis 43.1 Noninvasive Prenatal Testing 43.1.1 Overview 43.1.2 Laboratory Examination 43.1.2.1 Cell-Free Fetus DNA(cffDNA) and Its Detection in Maternal Plasma 43.1.2.2 Fetal Nucleated Red Blood Cells 43.1.3 Clinical Application 43.1.3.1 Chromosomal Aneuploidy 43.1.3.2 Subchromosomal Abnormalities 43.1.3.3 Single Gene Mutations 43.1.3.4 Fetal Sex Determination 43.1.3.5 Hemolytic Disease of the Newborn 43.1.3.6 Other Applications 43.1.4 Summary 43.1.5 Typical Medical Case 43.2 Mitochondrial Deafness 43.2.1 Introduction 43.2.1.1 Mitochondria and Mitochondrial Genome 43.2.1.2 Mitochondrial Diseases 43.2.1.3 Deafness and Mitochondrial Deafness 43.2.2 Clinical Appearance 43.2.2.1 Mitochondrial Syndromic Hearing Loss Kearn-Sayre Syndrome Mitochondrial Encephalopathy with Lactic Acidosis, and Stroke-like episodes Myoclonic Epilepsy with Ragged Red Fibers 43.2.2.2 Mitochondrial Non-Syndromic Hearing Loss MT-RNR1 Related Mitochondrial Hearing Loss Sensorineural Hearing Impairment Induced by Aminoglycosides Sensorineural hearing impairment without aminoglycosides exposure MT-TS1 Related Mitochondrial Hearing Loss 43.2.3 Diagnosis 43.2.3.1 Mitochondrial Sensorineural Hearing Loss Initial Diagnosis Establishing the Diagnosis 43.2.3.2 Differential Diagnosis Aminoglycosides-Induced Ototoxicity 43.2.4 Management 43.2.4.1 Treatment of Manifestations 43.2.4.2 Prevention of Primary Manifestations 43.2.4.3 Prevention of Secondary Complications 43.2.4.4 Surveillance 43.2.4.5 Agents and Circumstances to Avoid 43.2.4.6 Evaluation of Relatives at Risk 43.2.5 Prenatal Diagnosis and Preimplantation Genetic Diagnosis in Mitochondrial Deafness 43.2.5.1 Prenatal Diagnosis in Mitochondrial Deafness 43.2.5.2 Preimplantation Genetic Diagnosis in Mitochondrial Deafness 43.2.6 Conclusion 43.2.7 Internet Resources 43.3 Hereditary Vascular Retinopathy 43.3.1 Overview 43.3.1.1 The Anatomy of the Retina 43.3.1.2 The Physiology of the Retinal Vessels 43.3.1.3 The Examination of the Retina 43.3.2 von Hippel-Lindau Syndrome 43.3.2.1 Overview 43.3.2.2 Clinical Appearance 43.3.2.3 Examination 43.3.2.4 Diagnosis 43.3.2.5 Genotype–Phenotype Correlations 43.3.2.6 Differential Diagnosis Isolated Hemangioblastoma or RCC Pheochromocytoma RCC 43.3.2.7 Management 43.3.2.8 Genetic Counseling 43.3.3 Retinal Vasculopathy with Cerebral Leukodystrophy 43.3.3.1 Overview 43.3.3.2 Clinical Appearance 43.3.3.3 Examination 43.3.3.4 Diagnosis 43.3.3.5 Genotype–Phenotype Correlations 43.3.3.6 Differential Diagnosis 43.3.3.7 Management 43.3.3.8 Genetic Counseling 43.3.4 Familial Exudative Vitreoretinopathy 43.3.4.1 Overview 43.3.4.2 Clinical Appearance 43.3.4.3 Examination 43.3.4.4 Diagnosis 43.3.4.5 Genotype–Phenotype Correlations 43.3.4.6 Differential Diagnosis Retinopathy of Prematurity Coats Disease Persistent Hyperplastic Primary Vitreous Norrie Disease Toxocariasis 43.3.4.7 Management 43.3.4.8 Genetic Counseling 43.3.5 Typical Medical Case References 44: Transplant Matching 44.1 Overview 44.1.1 Hyperacute Rejection 44.1.2 Acute Rejection 44.1.3 Chronic Rejection 44.2 HLA and Transplantation Matching 44.2.1 Overview 44.2.2 Genetic Characteristics of HLA 44.2.2.1 Phenotype, Monotype, and Genotype 44.2.2.2 HLA Genetic Model Monotype Inheritance Codominant Inheritance Linkage Disequilibrium 44.3 Tissue Matching Technology and Related Experiments 44.3.1 HLA Typing 44.3.1.1 HLA Serological Typing Technology 44.3.1.2 HLA Genotyping Technology 44.3.1.3 The Basis of HLA Genotyping–Polymerase Chain Reaction 44.3.1.4 Restriction Fragment Length Polymorphism Typing 44.3.1.5 Single Strand Conformation Polymorphism Typing 44.3.1.6 Sequence-Specific Primers Typing 44.3.1.7 PCR-Sequence Specific Oligonucleotide Probe Hybridization The Basic Principle of PCR-SSO PCR-SSO Reverse Hybridization Typing Flow Cytometry-SSO Typing Method 44.3.1.8 Gene Chip Typing Basic Principle Advantages of Gene Chip 44.3.1.9 HLA Typing Based on Sequence-Based Typing 44.3.2 HLA Antibody Detection 44.3.2.1 Complement Dependent Cytotoxicity 44.3.2.2 ELISA 44.3.2.3 Flow Fluorescent Microsphere Method 44.3.3 MICA Antibody Analysis 44.3.4 Non-HLA Antibodies 44.3.5 Cross-Matching Experiment of Donor and Recipient 44.3.6 Monitoring of Drug Concentration After Transplantation 44.3.7 Detection of Pathogens Associated with Infection After Transplantation 44.3.8 Routine Blood Cell Analysis and Biochemical Index Detection 44.4 Clinical Significance of HLA Matching in Organ Transplantation 44.4.1 HLA and Kidney Transplantation 44.4.2 HLA and Liver Transplantation 44.4.3 HLA and Heart Transplantation 44.4.4 HLA and Lung Transplantation References 45: Paternity Testing 45.1 Overview 45.1.1 Alleged Father (AF) /Alleged Mother (AM) 45.1.2 Genetic Marker 45.1.3 Genetic Law 45.1.4 Basic Principles of Paternity Testing 45.2 Several Common Paternity Testing Techniques 45.2.1 Paternity Exclusion by Red Blood Cell Type 45.2.2 Paternity and Family Relationship Identification by DNA Fingerprint Techniques 45.3 Judgement and Analysis of Paternity Testing Results 45.3.1 Parent-Child Relationship Exclusion 45.3.1.1 Excluding Probability of Paternity (EP) 45.3.1.2 Calculation of Excluding Probability of Paternity (EP) 45.3.1.3 Cumulative Excluding Probability of Paternity (CEP) 45.3.1.4 Errors in Excluding Parent-Child Relationship and Its Solutions 45.3.2 Affirmation of Parent-Child Relationship 45.3.2.1 Paternity Index 45.3.2.2 Relative Chance of Paternity 45.3.3 Forensic Criteria of Paternity Testing 45.3.3.1 The Standard of Paternity Exclusion 45.3.3.2 The Standard of Paternity Affirmation 45.3.4 Laboratory Standards of Paternity Testing 45.4 Collection and Preservation of Paternity Test Samples 45.4.1 Collection of Paternity Test Samples 45.4.1.1 Blood/Bloodstain 45.4.1.2 Hair 45.4.1.3 Oral Swab 45.4.1.4 Saliva and Saliva Spots 45.4.1.5 Amniotic Fluid Samples 45.4.2 Preservation of Paternity Test Samples References Appendixes Appendix A: Tests of Infectious Disease Appendix B: Cancer Tests Appendix C: Tests of Genetic Disease Appendix D: Pharmacogenomics D.1 Anticoagulation Therapy D.2 Antihypertensive Therapy D.3 Anticardiac Insufficiency D.4 Antiangina Pectoris Treatment D.5 Anti-inflammatory Treatment D.6 Antigout Treatment D.7 Antipeptic Ulcer Treatment D.8 Antidepressant Therapy D.9 Antipsychotic Treatment D.10 Antiepileptic Treatment D.11Antileukemia Treatment D.12 Antineoplaston D.13 Antifungal Therapy D.14 Anti-hyperthyroidism D.15 Anti-tuberculosis Treatment D.16 Antiasthma treatment D.17 Anesthetic Treatment of Paroxysmal Pain D.18 Disease Prevention D.19 Erectile Dysfunction D.20 Hypoglycemic Therapy D.21 Immunosuppressive Therapy D.22 Lipid Control Therapy D.23 Risk Profile