Craig Venter


Craig Venter : biography

October 14, 1946 –

Although Celera was originally set to sequence a composite of DNA samples, partway through the sequencing, Venter switched the samples for his own DNA.

After contributing to the Human Genome, and its release into the public domain, Venter was fired by Celera in early 2002. According to his biography, Venter was ready to leave Celera, and was fired due to conflict with the main investor, Tony White, that had existed since day one of the project. Venter writes that his main goal was always to accelerate science and thereby discovery, and he only sought help from the corporate world when he couldn’t find funding in the public sector.

Global Ocean Sampling Expedition

The Global Ocean Sampling Expedition (GOS) is an ocean exploration genome project with the goal of assessing the genetic diversity in marine microbial communities and to understand their role in nature’s fundamental processes. Begun as a Sargasso Sea pilot sampling project in August 2003, Craig Venter announced the full Expedition on 4 March 2004. The project, which used Craig Venter’s personal yacht, Sorcerer II, started in Halifax, Canada, circumnavigated the globe and returned to the U.S. in January 2006.

Synthetic genomics

Venter is currently the president of the J. Craig Venter Institute, which conducts research in synthetic biology. In June 2005, he co-founded Synthetic Genomics, a firm dedicated to using modified microorganisms to produce clean fuels and biochemicals. In July 2009, ExxonMobil announced a $600 million collaboration with Synthetic Genomics to research and develop next-generation biofuels.

Venter is seeking to patent the first life form created by humanity, possibly to be named Mycoplasma laboratorium. There is speculation that this line of research could lead to producing bacteria that have been engineered to perform specific reactions, for example, produce fuels, make medicines, combat global warming, and so on.

In May 2010, a team of scientists led by Venter became the first to successfully create what was described as "synthetic life". This was done by synthesizing a very long DNA molecule containing an entire bacterium genome, and introducing this into another cell, analogous to the accomplishment of Eckard Wimmer’s group, who synthesized and ligated an RNA virus genome and "booted" it in cell lysate. The single-celled organism contains four "watermarks" written into its DNA to identify it as synthetic and to help trace its descendants. The watermarks include

  1. Code table for entire alphabet with punctuations
  2. Names of 46 contributing scientists
  3. Three quotations
  4. The web address for the cell.

Individual human genome

On September 4, 2007, a team led by Sam Levy published the first complete (six-billion-letter) genome of an individual human—Venter’s own DNA sequence. Some of the sequences in Venter’s genome are associated with wet earwax, increased risk of antisocial behavior, Alzheimer’s and cardiovascular diseases. This publication was especially interesting since it contained a diploid instead of a haploid genome and shows promise for personalized medicine via genotyping. This genome, dubbed HuRef by Levy and others, was a landmark accomplishment and as of mid-2010 is probably the highest quality personal genome sequence yet completed.

The Human Reference Genome Browser is a web application for the navigation and analysis of Venter’s recently published genome. The HuRef database consists of approximately 32 million DNA reads sequenced using microfluidic Sanger sequencing, assembled into 4,528 scaffolds and 4.1 million DNA variations identified by genome analysis. These variants include single-nucleotide polymorphisms (SNPs), block substitutions, short and large indels, and structural variations like insertions, deletions, inversions and copy number changes.

The browser enables scientists to navigate the HuRef genome assembly and sequence variations, and to compare it with the NCBI human build 36 assembly in the context of the NCBI and Ensembl annotations. The browser provides a comparative view between NCBI and HuRef consensus sequences, the sequence multi-alignment of the HuRef assembly, Ensembl and dbSNP annotations, HuRef variants, and the underlying variant evidence and functional analysis. The interface also represents the haplotype blocks from which diploid genome sequence can be inferred and the relation of variants to gene annotations. The display of variants and gene annotations are linked to external public resources including dbSNP, Ensembl, Online Mendelian Inheritance in Man (OMIM) and Gene Ontology (GO).