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Table of Contents
1. Genominomics and prospects
Chapter objectives
Human genome project completed
Biochips
Next-generation sequencing
Applications of biochips
Consanguinous marriages
Ashkenazi Jews
Cystic fibrosis
Tuberculosis
Cancer
Sickle-cell anemia
Small pox
Paleo genomes
Colony collapse disorder
Schizophrenia
Prenatal testing
DNA for forensic investigation
Genomic surveillance
Bio-corrosion
Human immunodeficiency syndrome
Microarray analysis
Pioneers in double-helix structure of DNA
Genominomics, economics of sequencing, $1,000
Genome is within reach
Genetically modified crops
Glossary
Summary
2. Microarray analysis
Chapter objectives
Molecular basis for disease
Microarray technology development
Specifications
Nanoprint microarrayer
Ten tips for five-step process
Step 1 formulation of a biologic question
Step 2 sample preparation
Step 3 biochemical reaction
Step 4 microarray detection
Step 5 microarray data analysis and modeling
Microarray fluorescence detection
Confocal scanning microscope
Quality of substrate surface
Phosphoramadite synthesis
Summary
3. Sequencing technology advances
Chapter objectives
Genomes completed
Next-generation sequencers
Gene mapping
Electrophoretic methods
Microfluidic separations
Polymer liquids
Transport parameters
Transient concentration profile predicted using the a capite ad calcem concentration non-Fick diffusion equation in a semi-infinite medium
Convection and diffusion
Summary
4. Applications
Chapter objectives
Cancer
Kinetic model for progression of cancer
Proteomics and Michaelis and Menten kinetics
Immune action mechanism
DNA hybridization kinetics-diffusion effects
Gene modifications
DNA-melting temperature
Genetic disorders and microarray analysis
Tissue microarrays and cell microarrays
Bio-based polymers
Gene silencing
Metabolomics
Recombinant DNA technology and genetically
Modified crops
Biodiesel
Consecutive-competitive reactions
Centrifugal separation of fame and glycerol: torque requirements
Shear flow theory
Results
Gene therapy
Gene activity in songbirds similar to humans
Glossary
Summary
5. Next-generation sequencing
Chapter objectives
Blotting techniques
Sanger sequencing
Sequencing by synthesis
Sequencing by ligation
Pyrosequencing
Single-molecule sequencing
DNA sequencing through nanopore
Glossary
Summary
6. Biochip manufacturing
Chapter objectives
Three approaches
Ex situ manufacturing
Commercial instruments
Time to print
Summary
7. Statistical characterization and normalization
Chapter objectives
Housekeeping genes and normalization
Clustering
Supervised
Variation filter
Unsupervised
Pearson's correlation coefficient
Principal component analysis
Cluster determination
Nearest neighbor clustering
Unsupervised classification
Silhouette method
Dunn's validation index
Davies-Bouldin index
C-index
Self-organizing maps
K-means clustering
Agglomerative clustering
Dendrograms
Two-dimensional dendrograms
Division or partition clustering
Bayesian clustering
Boolean networks
Bayesian networks
Relevance networks
Glossary
Summary
References
About the author
Index.
Chapter objectives
Human genome project completed
Biochips
Next-generation sequencing
Applications of biochips
Consanguinous marriages
Ashkenazi Jews
Cystic fibrosis
Tuberculosis
Cancer
Sickle-cell anemia
Small pox
Paleo genomes
Colony collapse disorder
Schizophrenia
Prenatal testing
DNA for forensic investigation
Genomic surveillance
Bio-corrosion
Human immunodeficiency syndrome
Microarray analysis
Pioneers in double-helix structure of DNA
Genominomics, economics of sequencing, $1,000
Genome is within reach
Genetically modified crops
Glossary
Summary
2. Microarray analysis
Chapter objectives
Molecular basis for disease
Microarray technology development
Specifications
Nanoprint microarrayer
Ten tips for five-step process
Step 1 formulation of a biologic question
Step 2 sample preparation
Step 3 biochemical reaction
Step 4 microarray detection
Step 5 microarray data analysis and modeling
Microarray fluorescence detection
Confocal scanning microscope
Quality of substrate surface
Phosphoramadite synthesis
Summary
3. Sequencing technology advances
Chapter objectives
Genomes completed
Next-generation sequencers
Gene mapping
Electrophoretic methods
Microfluidic separations
Polymer liquids
Transport parameters
Transient concentration profile predicted using the a capite ad calcem concentration non-Fick diffusion equation in a semi-infinite medium
Convection and diffusion
Summary
4. Applications
Chapter objectives
Cancer
Kinetic model for progression of cancer
Proteomics and Michaelis and Menten kinetics
Immune action mechanism
DNA hybridization kinetics-diffusion effects
Gene modifications
DNA-melting temperature
Genetic disorders and microarray analysis
Tissue microarrays and cell microarrays
Bio-based polymers
Gene silencing
Metabolomics
Recombinant DNA technology and genetically
Modified crops
Biodiesel
Consecutive-competitive reactions
Centrifugal separation of fame and glycerol: torque requirements
Shear flow theory
Results
Gene therapy
Gene activity in songbirds similar to humans
Glossary
Summary
5. Next-generation sequencing
Chapter objectives
Blotting techniques
Sanger sequencing
Sequencing by synthesis
Sequencing by ligation
Pyrosequencing
Single-molecule sequencing
DNA sequencing through nanopore
Glossary
Summary
6. Biochip manufacturing
Chapter objectives
Three approaches
Ex situ manufacturing
Commercial instruments
Time to print
Summary
7. Statistical characterization and normalization
Chapter objectives
Housekeeping genes and normalization
Clustering
Supervised
Variation filter
Unsupervised
Pearson's correlation coefficient
Principal component analysis
Cluster determination
Nearest neighbor clustering
Unsupervised classification
Silhouette method
Dunn's validation index
Davies-Bouldin index
C-index
Self-organizing maps
K-means clustering
Agglomerative clustering
Dendrograms
Two-dimensional dendrograms
Division or partition clustering
Bayesian clustering
Boolean networks
Bayesian networks
Relevance networks
Glossary
Summary
References
About the author
Index.