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Molecular Forensics |
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Contents |
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Preface |
11 |
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List of Contributors |
13 |
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1: Current and future trends in forensic molecular biology |
17 |
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1.1 Introduction |
17 |
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1.2 Developments within the field of forensic molecular biology |
18 |
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1.3 Developments influencing law enforcement – operational impacts |
23 |
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1.4 Developments influencing the justice system – socio-legal impacts |
26 |
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1.5 Summary |
27 |
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1.6 References |
28 |
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2: Basic tools and techniques in molecular biology |
37 |
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2.1 Introduction |
37 |
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2.2 Isolation and separation of nucleic acids |
37 |
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2.3 Automated analysis of nucleic acid fragments |
39 |
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2.4 Molecular biology and bioinformatics |
40 |
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2.5 The polymerase chain reaction (PCR) |
41 |
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2.6 Applications of the PCR |
44 |
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2.7 Nucleotide sequencing of DNA |
46 |
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2.8 Conclusion |
50 |
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2.9 References |
50 |
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3: Automated DNA extraction techniques for forensic analysis |
53 |
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3.1 Introduction |
53 |
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3.2 Principal steps of DNA extraction |
54 |
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3.3 DNA extraction techniques |
55 |
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3.4 Modified techniques for DNA extraction from challenging forensic samples |
59 |
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3.5 Automation of DNA extraction |
61 |
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3.6 References |
72 |
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4: Real-time quantitative PCR in forensic science |
75 |
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4.1 Introduction |
75 |
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4.2 Current real-time PCR chemistries |
76 |
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4.3 Human nuclear DNA quantification |
77 |
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4.4 Human mitochondrial DNA quantification |
81 |
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4.5 Detection and quantification of non-human species |
82 |
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4.6 Concluding remarks and perspectives |
83 |
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4.7 References |
83 |
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5: Minisatellite and microsatellite DNA typing analysis |
87 |
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5.1 Introduction |
87 |
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5.2 Minisatellites |
87 |
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5.3 Microsatellites |
96 |
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5.4 Acknowledgements |
102 |
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5.5 References |
102 |
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6: Application of SNPs in forensic casework |
107 |
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6.1 Introduction |
107 |
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6.2 Single nucleotide polymorphisms |
108 |
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6.3 Single nucleotide polymorphism typing technology |
110 |
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6.4 Single nucleotide polymorphisms for human identification |
111 |
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6.5 Single nucleotide polymorphisms in mitochondrial DNA |
114 |
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6.6 Forensic DNA phenotyping |
114 |
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6.7 Ethical considerations of SNP genotyping |
116 |
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6.8 References |
116 |
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7: The X chromosome in forensic science: past, present and future |
119 |
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7.1 Introduction |
119 |
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7.2 History of forensic utilization of the X chromosome |
120 |
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7.3 Chromosome X short tandem repeats |
123 |
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7.4 Power of ChrX markers in trace analysis |
127 |
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7.5 Power of ChrX markers in kinship testing |
127 |
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7.6 Chromosome X marker mapping and haplotype analysis |
130 |
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7.7 Chromosome X–chromosome Y homologue markers |
135 |
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7.8 Chromosome X STR allele and haplotype distribution in different populations |
135 |
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7.9 Ethical considerations in ChrX marker testing |
136 |
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7.10 Concluding remarks |
137 |
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7.11 References |
137 |
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8: Mitochondrial analysis in forensic science |
143 |
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8.1 Introduction |
143 |
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8.2 Mitochondrial DNA (mtDNA) biology |
144 |
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8.3 Identification of individuals (mtDNA typing) |
148 |
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8.4 Topics of forensic interest |
150 |
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8.5 References |
154 |
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9: Y-Chromosomal markers in forensic genetics |
157 |
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9.1 Introduction |
157 |
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9.2 Identification of the male sex |
158 |
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9.3 Identification of male lineages |
159 |
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9.4 Identification of a male’s paternity |
164 |
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9.5 Identification of a male’s geographical origin |
167 |
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9.6 The future of Y-chromosomal markers in forensics |
171 |
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9.7 Acknowledgements |
172 |
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9.8 References |
173 |
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10: Laser microdissection in forensic analysis |
179 |
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10.1 Introduction |
179 |
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10.2 Histological, biochemical analysis |
182 |
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10.3 References |
185 |
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11: Laboratory information systems for forensic analysis of DNA evidence |
187 |
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11.1 Introduction |
187 |
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11.2 The specifications of forensic genotyping assays |
189 |
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11.3 Automated pipetting |
190 |
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11.4 Analysis of STR data |
192 |
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11.5 Bioinformatics |
194 |
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11.6 Conclusion |
196 |
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11.7 References |
197 |
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12: Statistical presentation of forensic data |
201 |
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12.1 Introduction |
201 |
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12.2 Techniques |
201 |
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12.3 Laboratory issues |
204 |
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12.4 Statistical analysis |
205 |
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12.5 Other issues |
209 |
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12.6 Special situations |
210 |
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12.7 References |
211 |
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13: Protein profiling for forensic and biometric applications |
213 |
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13.1 Introduction |
213 |
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13.2 Protein assays in molecular forensics: current status |
213 |
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13.3 Novel technologies and the remaining challenges |
220 |
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13.4 Protein markers for use in forensic and biometric applications |
224 |
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13.5 References |
233 |
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14: Application of MRS in forensic pathology |
237 |
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14.1 Forensic, criminalistic and ethical significance of time of death |
237 |
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14.2 Classical methods for the determination of PMI |
238 |
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14.3 Magnetic resonance spectroscopy |
240 |
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14.4 How to predict the PMI based on MRS measurements |
245 |
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14.5 Outlook |
248 |
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14.6 References |
251 |
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Index |
257 |
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Colour plates |
261 |
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