DNA Testing - The Next Generation
High Throughput, High Content Technologies
Flow Cell Preparation

May 2009
The way one generates these samples is that a single-stranded molecule of DNA has linkers adapted on both sides. One of those linkers is complementary to the same color linker which is down on a slide and that sample can then fold over to make a bridge. Now you have a template and a primer so that if you add the corresponding nucleotides, you can make a copy of that. When one denatures that, one has two strands where you started with one and you continue this process for a series of times so that ultimately you generate a forest. A forest is an amplification of an original DNA fragment so that one has some 10,000 copies of that fragment.
Flow Cell Preparation |
Jump to section:
- Introduction
- The Human Genome Project
- ABI 3700 Machine
- Celera Genomics
- Greatest Impact of the Human Genome Project
- Technological Advances
- Process Overview
- One Fragment = One Bead = One Read
- Complete Workflow
- Capability of This Machine
- What's Been Accomplished with the 454?
- Illumina Genome Analyzer
- Genome Analyzer Workflow
- Flow Cell Preparation
- Generate Samples
- Raw Data is Images
- Sequence Construction
- What's Been Accomplished with the Illumina Machine?
- SOLiD System - Overview
- SOLiD System 2.0 - Launch May 2008
- SOLiD System Summary Overview
- Higher Accuracy - New Probe Mix 1,2 Probes (Version 2)
- Higher Accuracy - New Probe Mix 1,2 Probes (Version 2)
- Sequential Rounds of Sequencing 1,2 Probes (Version 2)
- So, What Can You Do with a NextGen Sequencer?
- Whole Genomes
- Detecting Rare Mutations
- Mate-pair Reads
- Hybrid Selection
- Bar Coding
- Clinical Diagnostics
- Next-NextGen?
- Center for Individualized Medicine (CIM)
- Generating a Data Source
- Capabilities Grow Exponentially
- So, What's Coming?
- Building the Infrastructure for NextGen (and Beyond) Sequencing
- Acknowledgments
- Questions?


